COLLAPSIBLE MULTI-PURPOSE GOLF TRAINING DEVICE WITH INTEGRATED STORAGE AND METHODS FOR GOLF SKILL ENHANCEMENT

Description

CROSS REFERENCE TO RELATED APPLICATIONS

This application claims the benefit of and priority to U.S. Provisional Application No. 63/729,056, filed Dec. 6, 2024, and entitled COLLAPSIBLE MULTI-PURPOSE GOLF TRAINING DEVICE WITH INTEGRATED STORAGE AND METHODS FOR GOLF SKILL ENHANCEMENT, the entirety of which is incorporated herein by reference.

FIELD OF THE INVENTION

The present invention relates to devices, systems, and methods for sports training, and more particularly to a multi-purpose golf training device and associated methods. The invention is designed to assist golfers in practicing and improving various aspects of their technique, including swing path guidance, ball alignment, shot trajectory drills, and club handling. The invention also integrates features for accessory storage, portability, angle adjustment, and compact collapsibility, making it a versatile and portable tool for golf training. Additionally, some embodiments incorporate advanced functionalities, such as impact sensing, video capture, and real-time feedback mechanisms, providing an intelligent solution for enhancing golf training experiences.

BACKGROUND OF THE INVENTION

Golf is a sport that requires precision, skill, and consistent practice to master. As part of the training process, numerous tools and accessories have been developed to assist players in improving various aspects of their game. Among these, alignment sticks are widely used by both professional and amateur golfers to enhance their swing mechanics, alignment, and overall accuracy. Alignment sticks are straight rods, typically made of fiberglass or plastic, designed to be lightweight and portable. They are primarily used as visual aids to guide a golfer's setup and swing path. However, while alignment sticks are a common alternative, they exhibit several shortcomings that limit their effectiveness in addressing the nuanced requirements of golf training.

Alignment sticks are generally placed on the ground to provide a visual reference for aligning a golfer's feet, hips, and shoulders parallel to the intended target line. This visual guidance is used for setting up a proper stance. However, a static and two-dimensional alignment system, such as alignment sticks, fails to provide comprehensive feedback on a golfer's swing path or attack angle. For example, if a golfer consistently swings too steeply or too shallowly, alignment sticks on the ground cannot provide tactile or interactive feedback, leaving the user unaware of their mechanical errors during the swing. The absence of dynamic interaction with the training aid limits its utility, especially for players attempting to refine their swing in more advanced or specific ways.

Another major drawback of alignment sticks lies in their inability to account for three-dimensional aspects of the golf swing. Golf swings involve intricate movements that occur not just along a linear path but also involve angular dynamics, rotational forces, and vertical motion. For example, improper takeaway angles, incorrect transitions from backswing to downswing, and off-plane swings are common issues that alignment sticks fail to address effectively. These tools provide limited functionality in guiding a golfer through the proper biomechanics required for an optimal swing. Consequently, golfers are often left to approximate whether their swing motion is consistent with a desired swing path.

The static nature of alignment sticks also makes them unsuitable for addressing specific swing faults. For example, golfers struggling with an out-to-in swing path (commonly resulting in slices) or an in-to-out path (often leading to hooks) require more nuanced guidance than alignment sticks can provide. While alignment sticks may indicate general directional alignment, they fail to correct or highlight these specific faults dynamically. This limitation forces golfers to rely on subjective judgment or external instruction, such as from a coach or video analysis, to identify and correct their swing path errors.

The deficiencies in existing golf training aids highlight the need for improved methods, systems, and apparatuses that address the diverse requirements of golfers. Current tools lack the dynamic interaction, adaptability, and comprehensive feedback necessary for effective practice. There is a demand for innovative solutions that provide real-time guidance, tactile feedback, and versatility to cater to different skill levels and training objectives. Such solutions should address the limitations of static tools like alignment sticks, incorporate three-dimensional guidance for complex swing mechanics, and offer enhanced safety and durability. By overcoming these challenges, new training aids can provide a more effective and user-friendly practice experience, ultimately helping golfers achieve their performance goals.

SUMMARY OF THE DISCLOSURE

Accordingly, the present invention provides a Multi-Purpose Golf Training Device, hereinafter referred to as “Range Blocks,” or simply “Blocks,” which is designed as a versatile and multifunctional tool to aid golfers in improving their skills, maintaining equipment, and organizing training spaces. The Range Blocks are compact, portable units that combine several functionalities to assist in golf practice and equipment management. They can be deployed as aids for swing alignment, swing path correction, and attack angle guidance, as well as serving as storage solutions for golf balls and other small accessories. Their innovative folding design facilitates compact storage and easy transportation, making them suitable for use at home, on the golf course, or during travel.

The Multi-Purpose Golf Training Device comprises a set of durable blocks made from lightweight yet robust materials, such as high-density foam with a protective covering, which is resistant to impact and weather conditions. Each block may be designed with a slanted surface, grooves, or markings to facilitate alignment drills. These surfaces may act as visual and tactile aids to help golfers practice proper setup and swing mechanics. For example, a golfer can place the blocks around the ball at specific angles to guide their swing path, preventing common errors such as out-to-in or in-to-out swings. If the club contacts the blocks during the swing, the user receives immediate feedback, enabling them to adjust their technique accordingly.

In addition to swing path correction, the Range Blocks also assist in aligning the golfer's stance, shoulders, and hips relative to the target. By placing the blocks parallel to the intended target line, golfers can consistently practice proper body alignment. The visual guide provided by the blocks reduces the guesswork involved in setting up each shot and promotes consistency across different practice sessions. The blocks may also be marked with distance or angle indicators, allowing golfers to experiment with different stance widths and angles, thereby refining their approach to various shot types.

A notable feature of the Multi-Purpose Golf Training Device may be its ability to be used for practicing attack angles. The slanted design of the blocks enables golfers to simulate specific conditions, such as achieving a steeper angle for iron shots or a shallow angle for fairway woods. The tactile feedback from the blocks provides users with an intuitive understanding of how their clubhead interacts with the ball and the ground, fostering better ball-striking accuracy.

Beyond swing training, the Range Blocks may serve as a storage solution for golf balls and other small accessories. Each block may incorporate a hollow compartment or recessed area that can securely hold multiple golf balls, tees, or other practice items. This dual functionality eliminates the need for separate storage containers, reducing clutter and enhancing convenience during practice sessions. The storage compartments are easily accessible and designed to prevent items from rolling out during transportation or use, making the device suitable for both stationary and mobile applications.

The Multi-Purpose Golf Training Device may also be designed with portability in mind. Each block is foldable or collapsible, allowing it to be stored in a compact form when not in use. The folding mechanism involves hinged sections that lock securely during use but can be quickly folded flat for transportation. For example, a set of two or more blocks can be stacked together and secured with integrated straps or clips, creating a compact package that fits easily into a golf bag or carrying case. This feature makes the Range Blocks particularly appealing for golfers who travel frequently or practice at multiple locations.

The device's durability and weather resistance make it suitable for use in various environmental conditions. Whether practicing indoors on a mat or outdoors on grass, the Range Blocks maintain their shape and functionality. The protective covering on each block may resist wear and tear from repeated impacts, as well as exposure to moisture, UV light, and dirt. This longevity facilitates that the device remains reliable over extended periods of use, providing consistent performance across different practice scenarios.

In some embodiments, the Range Blocks may include adjustable components to accommodate various training needs. For example, the blocks may feature removable inserts or attachable extensions that modify their height, angle, or surface texture. These adjustments allow users to customize the blocks for specific drills, such as practicing chip shots, bunker shots, or low punch shots. Additionally, the blocks may include interchangeable alignment rods or guides that can be attached to provide more precise visual cues for advanced drills.

The Range Blocks may also incorporate markings and indicators for advanced training exercises. These markings may include alignment lines, angle measurements, and target zones that help golfers practice with precision. For example, a golfer practicing a draw shot can use the angle markers to position the blocks at the correct alignment for a right-to-left ball flight. Similarly, target zones on the blocks can be used for practicing specific landing areas or spin control during chip shots.

The device is not limited to individual practice and can be used in group training sessions or professional coaching environments. Coaches can utilize the Range Blocks to demonstrate proper swing techniques, alignment, and shot setups. The device's versatility allows it to be adapted to the needs of golfers at different skill levels, from beginners learning the basics to advanced players refining specific aspects of their game.

Another embodiment of the Multi-Purpose Golf Training Device may include an integrated tracking system. This system may consist of sensors embedded within the blocks that record data related to the golfer's swing, such as clubhead speed, swing path, and impact location. The collected data can be transmitted to a mobile application or display device for analysis, providing users with detailed insights into their performance. This technological integration enhances the device's value as a modern training aid, catering to golfers who seek data-driven feedback to complement their practice routines.

The Range Blocks may also be designed to accommodate various terrains and surfaces. For outdoor use, the blocks may be equipped with non-slip bases or stakes that secure them to the ground, preventing movement during use. This feature may be particularly useful when practicing on slopes or uneven terrain, as it allows the blocks to remain stable throughout the session. For indoor use, the non-slip base prevents damage to flooring while maintaining the blocks' position during drills.

In some embodiments, each range block may comprise a rectangular-box structure with four longer sides-hinged sides and non-hinged sides, a base section at the bottom, and a top section that serves as a multifunctional component. The four sides of the block form an upright structure, while the base provides stability, and the top section can be used as a cover for storage. Two of the opposite sides of the four longer sides may include hinged sections located at their midpoint and extending from the base to the top section creating hinged sides. The hinged sections may be made of the same fabric material as the rest of the block, providing flexibility and durability. The fabric hinge may be constructed as an integrated fold line, reinforced with additional stitching or a layered design to allow repetitive folding without weakening over time.

The hinged sections function by collapsing inward when pressure is applied to the hinged sides and/or to the non-hinged sides. For example, when a user presses the two hinged or non-hinged sides toward each other, the flexible hinges on the opposite sides of the hinged sides allow the material to fold inward along the pre-determined hinge lines. As the hinged sides collapse, the non-hinged sides come closer and may meet at the center, forming a compact folded structure. The folding process may be facilitated by the fabric's inherent flexibility, which allows it to bend and compress without losing its structural integrity. This mechanism eliminates the need for bulky or rigid components, such as metallic hinges, while maintaining lightweight portability.

The fabric hinge may be reinforced with double-stitched seams or embedded with flexible polymer strips for added durability. These reinforcements facilitate that the hinge retains its shape and functionality even after repeated folding and unfolding. The design also minimizes wear and tear, as the fabric hinge distributes stress evenly across the fold line, preventing concentrated pressure points that may lead to damage. This approach allows the range blocks to maintain their original functionality and appearance over prolonged use.

In some embodiments, metallic hinges may be seamlessly woven within the fabric along the fold line of the hinged sections of each hinged side of the range blocks. These metallic hinges are embedded within the fabric layers, so that they remain concealed while providing additional structural support and durability to the folding mechanism. The hinges may be composed of lightweight, corrosion-resistant materials such as aluminum or stainless steel, allowing for smooth and consistent folding without compromising the block's portability or aesthetic. The woven integration of the metallic hinges facilitates that the fabric remains flexible for folding and unfolding while distributing the mechanical stress evenly across the hinged sections. This design enhances the overall longevity and reliability of the hinged sides, making the range blocks suitable for repeated use in various environmental conditions, including outdoor practice sessions. The combination of metallic hinges and durable fabric creates a robust yet lightweight solution for achieving a compact folded state without sacrificing the structural integrity of the block.

The bottom section, or base, of each range block, may serve as a weighted portion to stabilize the block during use. The base may be filled with materials such as sand, rubber pellets, or metal inserts, providing sufficient weight to hold the block upright on various surfaces. To enhance stability, the bottom surface of the base may be covered with a textured, non-slip material such as rubberized fabric. The non-slip base prevents the block from sliding during practice sessions, even on smooth or inclined surfaces. The weighted base facilitates that the range block remains in its intended position, allowing users to focus on their drills without constant repositioning.

Each of the range blocks may function as a storage chamber for golf balls or other small items. The top section of each block may comprise a hollow interior accessible through a cover that can be secured with a zipper. The zipper runs along the perimeter of the top section, allowing users to open and close the storage chamber conveniently. The zipper itself may be constructed from rust-resistant materials, such as nylon or plastic, to withstand outdoor conditions. Dual sliders on the zipper may provide added convenience, allowing the user to access the storage chamber from either side. When closed, the zipper seals the storage chamber securely, preventing items from spilling out during transport or use.

Inside the top section, the storage chamber may include padding or compartments to organize and protect its contents. For example, the storage chamber may be lined with soft fabric to prevent scratches on golf balls or other items stored inside. Additionally, dividers or elastic bands may be included to separate the contents, keeping them in place during movement. The storage chamber's capacity allows golfers to carry a sufficient number of practice balls or other accessories, reducing the need for additional storage solutions.

Alternative embodiments of the range blocks may include variations in the folding mechanism to achieve a compact state. For example, in one embodiment, the hinged sides may comprise accordion-style folds instead of a single midpoint hinge. This design allows the sides to collapse in a zigzag pattern, further reducing the block's size when folded. In another embodiment, the non-hinged sides may include Velcro or magnetic strips along their edges, allowing them to snap together securely once folded. This additional fastening mechanism enhances the compactness of the folded block, making it easier to store and transport.

The material used for the range blocks may vary depending on the intended use and environmental conditions. In some embodiments, the blocks may be made from weather-resistant fabrics, such as coated polyester or nylon, to protect against moisture and UV damage during outdoor use. The interior of the block may include a lightweight frame made of plastic or aluminum to provide additional structural support without compromising portability. This frame may be collapsible, folding along with the sides to facilitate compact storage.

In yet another alternative embodiment, the base of the range block may include removable or adjustable weights. For example, the base may comprise a zippered compartment or a snap-fit slot for inserting and removing weight packets. This adjustability allows users to customize the block's stability based on their practice environment, such as adding more weight for outdoor sessions in windy conditions.

The folding mechanism may also incorporate locking elements to maintain the block's compact state during transport. For example, small buckles, straps, or clips may be integrated into the design to secure the folded sides together. These locking elements prevent the block from unfolding unintentionally, making it easier to handle and store. When not in use, the folded blocks can be stacked or stored in a carrying case, further enhancing their portability and convenience.

In some embodiments, each range block may comprise a three-sided structure extending between a top section and a base section, both of which are triangular in shape. The three long sides connect the triangular top and base, forming a hollow, prism-like design. One of the three sides may include a hinged section at its midpoint, enabling the block to fold into a compact configuration. The hinged side may be constructed with a fabric fold line that facilitates inward collapsing, allowing the other two adjacent sides to move closer together thereby folding the range block in a compact state.

The hinged side may comprise a reinforced fold line that runs vertically across the midpoint of the side. The fold line may be made from the same fabric material as the rest of the range block, but it may be enhanced with additional stitching or an embedded flexible strip to maintain its durability over repeated use. When inward pressure is applied to the hinged side, the fabric fold line collapses inward, creating a V-shape at the hinge or fold line. As this happens, the two other adjacent sides pivot toward each other, folding the block into a flattened, compact state.

The two non-hinged sides may play an important role in the folding process. As the hinged side collapses inward, these two sides pivot at their connections to the triangular top and base, moving closer together until they meet. To stabilize the block in its folded state, the edges of the non-hinged sides may include magnetic strips or Velcro fasteners, allowing them to securely latch when the block is folded. This self-securing feature facilitates that the block remains compact during storage or transport.

The top section of the range block, shaped as an equilateral or isosceles triangle, serves as the opening to an internal storage chamber. This top section may include a triangular cover equipped with a zipper that runs along its perimeter. The zipper allows users to access the hollow interior of the block for storage purposes. When the zipper is fully closed, the cover seals the storage chamber, preventing stored items, such as golf balls, tees, or small accessories, from falling out. The zipper may include dual sliders for convenient access from any side, and it may be constructed from weather-resistant materials to withstand outdoor conditions.

The internal storage chamber may extend throughout the length of the block, utilizing the space between the three sides, the triangular top, and the triangular base. The storage chamber provides ample room for organizing golf balls or other practice essentials. The interior storage chamber may be lined with a soft, durable fabric to protect the contents from damage. Additionally, elastic straps or mesh pockets may be integrated into the interior design to keep items securely in place during transport or use.

The base of the range block may also be triangular and provide stability to the structure during use. It may be constructed from a weighted material, such as rubber, sand-filled pouches, or a dense composite, to hold the block upright on various surfaces, including grass, turf, or indoor flooring. To further enhance stability, the bottom surface of the base may comprise a non-slip layer or textured coating. This prevents the block from sliding or tipping over, even when struck accidentally during practice.

The triangular base and top may also be designed with additional storage or customization options. For example, the base may include a removable weight system, allowing users to adjust the stability of the block depending on the practice environment. The triangular cover at the top may comprise a clear or mesh panel, enabling users to view the contents of the storage chamber without opening the zipper.

In yet another alternative embodiment, the folding process may involve detachable connections at the triangular top and base. For example, the three sides may be removably attached to the top and base using snap-fit connectors or magnetic fasteners. This design may allow users to disassemble the block entirely for ultra-compact storage and reassemble it when needed.

In some embodiments, the range blocks may include connectors on both the top section and the base section to allow the attachment of one or more carrying straps, enabling the blocks to be easily carried on one or both shoulders. These connectors may be strategically positioned to provide balance and stability during transport, enhancing portability and user convenience. On the top section, the connectors may be located near the corners or along the edges, designed as reinforced loops, D-rings, or snap-fit hooks made from durable materials such as metal, plastic, or fabric-reinforced elastic. Their placement may be carefully planned so as not to obstruct the opening or closing of the storage chamber, particularly when the top section includes a zippered cover. Similarly, the base section may include connectors positioned at the corners or along its edges, constructed from the same robust materials as those on the top section, providing compatibility with the straps and the ability to support the block's weight and contents.

In one configuration, the range block may include a single connector point on the top section and one connector point on the base section, allowing a single strap to be attached. The first end of the strap is secured to the top connector, while the second end attaches to the base connector, creating a diagonal sling-like setup. This setup allows the block to be carried over one shoulder, with the block resting at an angle against the user's body. Adjustable straps may include a sliding buckle or Velcro for length customization, providing a comfortable fit for users of varying heights. The strap material may be padded or textured to prevent slipping off the shoulder, making this single-strap design a lightweight and convenient option for quick transport during practice sessions.

Alternatively, the range block may include two connector points on the top section and two corresponding connector points on the base section, enabling the attachment of two straps for a backpack-style configuration. In this setup, the first ends of the two straps connect to the top connectors, while the second ends are secured to the base connectors. This allows the block to be carried on both shoulders, distributing its weight evenly across the user's back for greater comfort and reduced strain. The block remains upright against the user's back, with the base aligned near the lower back for stability during movement. The straps may be padded to enhance user comfort and include adjustable sections to accommodate different body sizes or carrying preferences.

The connectors on both the top and base sections may be designed to be durable and reliable. For example, the loops or rings may be constructed from stainless steel or heavy-duty plastic, securely sewn or riveted to the block's fabric for added strength. Alternatively, snap-fit hooks with quick-release mechanisms may be used, allowing the straps to be attached or detached easily while remaining securely locked during use. The straps themselves may be made from strong materials such as nylon webbing or polyester, providing resistance to wear and tear. To enhance usability, the straps may include padded sections or anti-slip coatings to prevent discomfort or slipping during transport.

In alternative embodiments, the range blocks may comprise additional configurations to improve carrying versatility. For example, the connectors may be offset to allow a crossbody carrying option, enabling the block to be carried diagonally across the torso for added stability. The straps may also be detachable, giving users the option to remove them when not in use or replace them with different strap types to suit specific preferences. Additionally, the top section of the block may include an integrated handle for hand-carrying the block over short distances, offering even more flexibility in transport options. When the straps are not in use, the connectors may be concealed with fabric covers or recessed into the block's structure, maintaining a clean and streamlined appearance.

In some embodiments, the base section of the range blocks may comprise an accordion-style folding mechanism designed to allow the user to adjust the angle of inclination of the upright or vertical structure of the block. This mechanism may particularly be useful for accommodating different user heights, preferences, or uneven terrain conditions on a golf range. The accordion-style folds consist of a series of interconnected segments or panels, which are collapsible or extendable to change the height and angle of the block relative to the ground.

The accordion folds may be constructed using durable yet flexible materials, such as reinforced plastic, rubber, or fabric-coated hinges, to allow repeated folding and unfolding without damage. Each segment may be connected to the next through a pivoting hinge or flexible joint, enabling smooth expansion and contraction of the folds. These folds are located at the base section of the range block, below the upright structure, and extend outward when adjusted. The folds may rest flat when collapsed or lock into position at various heights when expanded, effectively changing the angle of the upright structure.

To adjust the angle, the user can manually extend or collapse one or more folds. For example, if the terrain at the golf range is uneven, the user may open a specific number of folds on the base's side facing the slope to tilt the block backward or forward to maintain a stable position. Similarly, for users of different heights, the block's angle can be adjusted to align with their swing path, so that the block is at an optimal orientation for practice. For example, taller users may prefer a more upright angle, requiring fewer folds to be opened, whereas shorter users may find a slightly inclined angle more beneficial, achieved by extending additional folds.

The number of accordion folds determines the range of angles available for adjustment. For example, a base with five folds may allow incremental adjustments of the angle of inclination, providing fine control over the block's positioning. Each fold may correspond to a specific degree of tilt, with markers or indicators on the base to guide the user in selecting the desired angle. For example, extending two folds may set the block at a 10-degree tilt, while extending four folds may set it at 20 degrees. This precise control provides adaptability to various practice scenarios, such as simulating shots on sloped terrain or accommodating different user postures.

The folds may also include a locking mechanism (e.g., a zipper or snap-in button) to maintain the chosen angle during use. This locking mechanism can take the form of a click-lock hinge, snap-fit joints, or friction-based grooves that hold the folds securely in place once adjusted. The locks prevent the folds from collapsing or shifting unintentionally, even when the block is subjected to external forces, such as accidental impacts from a golf club.

In some designs, the accordion folds may be supported by a stabilizing base plate or feet, which extend outward to enhance the block's stability. These stabilizing components may be equipped with non-slip materials or spikes to prevent the block from sliding on smooth or uneven surfaces. This feature allows the block to remain steady during practice, regardless of the angle or terrain.

The accordion-style mechanism can be designed to collapse entirely into the base for compact storage when not in use. When the folds are fully collapsed, the block assumes its default upright position with no tilt or an inclined position, suitable for standard practice conditions. The compact design allows the block to be easily transported and stored without additional bulk.

In some embodiments, the range blocks may comprise a series of impact sensors integrated throughout the structure, extending from the base section to the top section of the block. These sensors may be designed to sense the force and location of impact from a golf club during practice. The impact sensors may be pressure-sensitive materials, piezoelectric elements, or capacitive touch sensors embedded within the surface of the block. Each sensor may be capable of detecting the magnitude and distribution of the impact force, as well as pinpointing the precise location where the club has struck the block. By determining the center of force on the block, the sensors provide highly detailed data about the golfer's swing path and impact mechanics.

The impact sensors may be connected to a circuit board or an integrated chip housed within the block (e.g., in the base section). The circuit board may include a processor or controller capable of processing the raw data collected by the sensors. Additionally, the circuit board may be equipped with a communication module, such as a Bluetooth or Wi-Fi transmitter, which allows the processed impact data to be wirelessly transmitted to the user's mobile device. The processor or controller on the circuit board may aggregate and interpret the data from the multiple sensors, calculating metrics such as impact location, force distribution, swing angle, and potential deviations from an optimal swing path. The communication module may then transmit these metrics in real-time to a paired mobile application on the user's smartphone or tablet.

The mobile application processes the transmitted data to provide actionable insights into the golfer's performance. Using artificial intelligence (AI), the mobile application may analyze the data to identify patterns, deviations, or irregularities in the golfer's swing and impact mechanics. For example, the AI may detect that the majority of impacts are consistently off-center, indicating an improper swing path or misalignment of the clubface. The mobile application can cross-reference this real-time data with an internal database of optimal swing patterns and pre-defined metrics to identify specific issues in the golfer's technique.

Once the analysis is complete, the mobile application may generate personalized recommendations for the user to improve their swing. These recommendations may include adjustments to the clubface angle, changes to the stance or grip, or modifications to the swing path. For example, if the impact data shows that the club consistently strikes the upper portion of the block, the mobile application (using AI) may suggest that the user adjusts their posture to lower the swing arc. Similarly, if the impact force is unevenly distributed across the block, the AI may identify an issue with weight transfer during the swing and recommend specific drills to address it.

To deliver these real-time recommendations, the mobile application may connect to a headset or earpiece worn by the user. Through this audio device, the mobile application provides immediate feedback and instructions during the practice session. For example, the user may hear prompts such as “Adjust your clubface angle to the left” or “Shift your weight forward during the downswing.” The audio feedback may be designed to be concise and actionable, allowing the user to make adjustments without interrupting their practice flow. This real-time guidance enables the golfer to correct their technique immediately, fostering muscle memory for improved performance over time.

The AI engine within the mobile application may also adapt its recommendations based on the golfer's progress. By continuously analyzing impact data from multiple swings, the AI can identify trends and refine its suggestions. For example, if the golfer consistently improves their alignment but struggles with maintaining a consistent swing path, the mobile application may prioritize feedback related to swing path correction. Over time, this adaptive feedback system may provide a tailored training experience that evolves with the user's skill level and specific needs.

In addition to real-time audio feedback, the mobile application may offer visual insights through its user interface on a mobile phone. For example, the user may view a heatmap of impact locations on the block, highlighting areas where the club frequently strikes. The mobile application may also display graphs of force distribution, swing angles, and other metrics to help the user understand their performance in greater detail. These visualizations provide a comprehensive overview of the golfer's technique, complementing the real-time audio instructions.

The AI-powered system can also simulate different scenarios or drills to help the golfer address specific weaknesses. For example, the mobile application may create a virtual drill that challenges the user to hit the center of the block consistently over ten swings. After each swing, the mobile application evaluates the impact data and provides immediate feedback on the user's performance. Such drills can be customized to target specific aspects of the golfer's technique, such as improving alignment, optimizing attack angles, or correcting swing plane deviations.

The ability to analyze impact data in real-time and deliver personalized feedback may particularly be useful for identifying and correcting complex issues in a golfer's technique. For example, if the AI detects that the impact location varies significantly between swings, it may determine that the golfer has an inconsistent swing plane. The AI engine may then recommend specific exercises, such as slow-motion swings, to help the user develop a more consistent path. Similarly, if the impact force is consistently low, the AI engine may suggest drills to improve clubhead speed and generate more power.

The system also accounts for variability in the golfer's environment. For example, the AI engine can factor in terrain conditions, such as uneven ground, by correlating the block's position with the impact data. This feature may be particularly useful for practicing specific shots, such as uphill or downhill lies, as it helps the golfer understand how these conditions affect their swing mechanics and impact points.

In some embodiments, the AI engine may include a coaching mode that allows users to receive feedback tailored to different shot types. For example, the user may select a mode for practicing chip shots, which focuses on analyzing the precision and angle of shallow impacts. Alternatively, a mode for practicing drives may prioritize feedback on clubhead speed, alignment, and force distribution. This mode-based approach facilitates that the feedback is relevant to the user's specific training goals.

Overall, the integration of impact sensors, AI analysis, and real-time feedback provides a comprehensive and highly effective training solution for golfers. By combining precise data collection with personalized recommendations, the system helps users identify and address weaknesses in their technique, ultimately improving their performance. The seamless integration with mobile devices and audio feedback systems facilitates an accessible and user-friendly training experience, making it suitable for golfers of all skill levels.

In addition to practical functionality, the aesthetic design of the Range Blocks may make them visually appealing. The device may be available in various colors and finishes, allowing users to personalize their training equipment. For example, a golfer may choose blocks that match their existing gear or select a bright color for high visibility on the practice range.

The Multi-Purpose Golf Training Device may also promote organization and efficiency during practice sessions. By consolidating multiple functions into a single device, golfers can streamline their practice routine and focus on skill development. For example, instead of carrying separate tools for alignment, swing path correction, and ball storage, users can rely on the Range Blocks to address all these needs simultaneously.

Overall, the Multi-Purpose Golf Training Device may provide a comprehensive solution for improving golf skills and managing practice equipment. Its multifunctional design, portability, and adaptability make it a valuable addition to any golfer's training arsenal. By addressing the limitations of existing tools and incorporating innovative features, the Range Blocks provide a versatile and user-friendly option for golfers seeking to enhance their performance and enjoyment of the game.

BRIEF DESCRIPTION OF THE DRAWINGS

The accompanying drawings, which are incorporated into and constitute a part of this specification, illustrate several embodiments of the present invention. Together with the description, these drawings serve to illustrate some aspects of the present invention.

FIG. 1A illustrates an exemplary multi-purpose golf training device (Range Block) in accordance with the present invention.

FIGS. 1B-1C illustrate an exemplary method for collapsing the multi-purpose golf training device from an upright configuration to a folded configuration.

FIG. 1D illustrates an exemplary method for collapsing a four-sided rectangular golf training device using a fold-line on one of the two opposite sides to create a three-sided golf training device.

FIGS. 1E-1F illustrate other exemplary variations of the multi-purpose golf training device in some embodiments of the present invention.

FIGS. 2A-2B illustrate exemplary application of range blocks during golf training sessions to assist golfers with club alignment, swing path correction, and impact guidance.

FIG. 3A illustrates an exemplary range block with an internal storage chamber for storing golf items.

FIGS. 3B-3C illustrate a range block with an internal storage chamber and attached shoulder straps for portability in some implementations of the present invention.

FIG. 4 illustrates an angle adjustment mechanism integrated into the base of the range block to modify its tilt, enabling customized positioning for various training purposes.

FIG. 5 illustrates an alternative angle adjustment mechanism integrated into the base of the range block for customizable inclination.

FIG. 6 illustrates an exemplary application of an angle adjustment mechanism and weighted pads for stabilizing the range block on a golf surface.

FIGS. 7A-7B illustrate alternative applications of range blocks during golf training exercises in some embodiments of the present invention.

FIG. 8 illustrates an exemplary use of range blocks for swing path guidance and alignment during a golf training session.

FIGS. 9A-9B illustrate an exemplary range block with a height adjustment mechanism for customizable configurations.

FIG. 10 illustrates an exemplary configuration where two range blocks are joined together to form an elongated range block, enabling extended functionality and customizable training applications.

FIG. 11 illustrates an exemplary golf training system utilizing range blocks equipped with cameras and impact sensors to deliver real-time feedback to a golfer via an earpiece.

FIGS. 12A-12B illustrate method steps that may be implemented in some embodiments of the present invention.

DETAILED DESCRIPTION

The present invention provides systems, methods, and apparatus for enhancing golf training and practice through the use of versatile, portable, and multifunctional training devices, referred to as “Range Blocks.” The Range Blocks may be designed to assist golfers in improving their technique, alignment, and overall performance by providing a practical and adaptable tool for practicing various shots and swing mechanics. The Range Blocks may be placed on a golf range, practice field, or indoor facility and can be configured to suit the user's specific training requirements. Their modular and customizable design allows them to serve as aids for alignment, swing path correction, and attack angle guidance, among other uses, making them invaluable for golfers of all skill levels.

The Range Blocks may be constructed as lightweight yet durable structures, capable of withstanding repeated use under a variety of environmental conditions. Their design allows for flexible placement on the practice field to guide specific aspects of the user's swing. For example, the blocks may be positioned around a golf ball to create visual and physical references for proper alignment, stance, and swing path. This versatility enables golfers to set up practice drills tailored to their individual needs, such as correcting an out-to-in swing path, achieving consistent ball striking, or simulating specific course conditions.

In some embodiments, the Range Blocks may feature adjustable components, such as an accordion-style base, to modify the angle of inclination of the upright structure. This adjustment allows the blocks to be configured based on the user's height, swing mechanics, or the slope of the terrain on the practice field. By extending or collapsing the folds in the base, the angle of the block can be set to guide the golfer's swing path more effectively. For example, a steeper angle may be suitable for practicing high-launch shots, while a shallower angle may aid in refining low punch shots. The number of folds in the base can determine the range of adjustable angles, providing precise control over the block's positioning.

The Range Blocks may also incorporate various sensors to enhance their functionality. For example, they may include impact sensors distributed throughout the block's surface to detect and measure the force, angle, and location of impacts made by the golf club. These sensors may provide immediate feedback to the golfer, enabling them to identify and correct errors in their swing mechanics. Additionally, sensors may be embedded in the base to measure the stability and positioning of the block, so that it remains secure during practice even on uneven terrain.

Placement and configuration of the Range Blocks can be easily modified based on the golfer's training goals. For example, they may be used to create target zones for improving shot accuracy or placed at specific intervals to simulate obstacles on the course. Their modular nature allows multiple blocks to be combined or stacked, enabling the creation of custom drills that replicate challenging course scenarios. Furthermore, the Range Blocks may include visual indicators, such as alignment lines or angle markers, to assist golfers in maintaining proper setup and alignment during practice.

In one embodiment, the Range Blocks may include storage chambers within their structure, accessible through a zippered cover located at the top section. These chambers may provide a convenient solution for organizing golf balls, tees, or other small accessories during practice. The weighted base of the block provides stability, preventing tipping or movement even when the storage chamber is filled. This dual functionality eliminates the need for separate storage containers, reducing clutter and enhancing the overall training experience.

In some embodiments, the range blocks may be designed in various shapes to meet different user needs and training scenarios. For example, a four-sided range block may take the form of a rectangular box with four vertical sides connecting a base and a top section. This shape provides a stable and upright structure, offering ample surface area for integrating sensors, visual alignment guides, and other features. The vertical sides may be flat or slanted, depending on their intended use. Flat sides may serve as alignment aids for guiding a golfer's stance or swing path, while slanted sides may help direct the club's trajectory during specific drills. The base may include weighted elements to maintain stability on various surfaces, and the top section may feature a zippered cover to provide access to an internal storage compartment. These four-sided blocks are versatile and robust, making them suitable for both indoor and outdoor practice.

In another embodiment, the range blocks may be constructed with a three-sided triangular-prism design. These blocks consist of three vertical sides extending between a triangular base and a triangular top section. The triangular shape offers a compact and lightweight alternative to the four-sided design, making it particularly suitable for portable or specialized training applications. The three sides can each serve unique functions. For example, one side may include embedded impact sensors to detect the force and location of club strikes, while another side may feature visual markers for alignment and setup. The third side may house additional training aids, such as cameras or swing path guides. The angled sides of the triangular block naturally guide the club along specific paths, helping golfers refine their swing mechanics. Additionally, the top section may serve as a storage chamber opening for golf balls or accessories, accessible through a zippered cover. The triangular base, often weighted, provides a stable foundation, facilitating that the block remains upright during practice.

The different shapes of the range blocks offer distinct advantages based on their geometric configurations. For example, the rectangular four-sided block provides maximum surface area for integrating training aids, making it ideal for comprehensive practice sessions. The triangular three-sided block, on the other hand, is more compact and portable, making it well-suited for confined practice spaces or mobile users. The triangular design's angled sides also facilitate advanced drills, such as simulating specific shot types or practicing attack angles. The weighted bases and customizable features of both designs facilitate that they are adaptable to various terrains and user preferences, further enhancing their utility.

In some embodiments, alternative shapes may also be used for specific training needs. For example, a cylindrical block with a curved surface may help golfers practice consistent swing arcs, as the rounded shape naturally guides the club along a smooth path. Similarly, a hexagonal block with six vertical sides may offer enhanced stability and surface area, allowing each side to serve a different purpose, such as housing sensors, alignment guides, or visual markers. A pyramidal block with sloping sides may focus the golfer's swing path toward a central target, making it particularly effective for practicing precision shots.

The adaptability of the range blocks' shapes facilitates that they can cater to golfers with diverse training objectives. Whether designed for general-purpose use or specialized drills, the various configurations provide practical and effective solutions for improving swing mechanics, alignment, and overall performance. The choice of shape depends on the specific needs of the user, offering flexibility and versatility in training. By combining robust construction with innovative designs, these range blocks may become useful tools for golfers seeking to refine their skills across different practice environments and scenarios.

In some embodiments, the range blocks, regardless of their shape, may be designed with mechanisms to collapse into a compact state for ease of storage and transport. For four-sided rectangular blocks, the collapsing mechanism may involve hinged sections located on two of the vertical sides. These hinged sections may extend from the base to the top section and allow the opposite hinged sides to fold inward along a predefined fold line. The hinges may be constructed from fabric with reinforced stitching or flexible polymers, enabling repeated folding without compromising structural integrity. To collapse the block, a user can press inward on the two hinged or non-hinged sides, causing the hinged sides to bend inward (or outside in some embodiments) along the fold line. As the hinged sides collapse, the non-hinged sides move closer together, bringing the block into a flat, compact configuration.

For triangular three-sided blocks, the collapsing mechanism may involve a similar hinged design on one or more of the vertical sides. In this configuration, the fold line may run horizontally or vertically along the center of one side, allowing it to fold inward. As the hinged side collapses, the two adjacent sides pivot inward, creating a flattened configuration. Alternatively, the triangular block may feature detachable connections at the base and top section. In such an embodiment, the three vertical sides can be disconnected from the triangular base and top, allowing them to be stacked or folded flat. The base and top sections themselves may also include hinged components, enabling them to fold or collapse further to reduce the block's overall size.

In some cases, the triangular blocks may include accordion-style folds integrated into the base or the vertical sides. These folds allow the block to compress along its height, effectively shortening the block while maintaining its triangular shape in a more compact form. For example, by collapsing the folds, the height of the block can be reduced significantly, making it easier to transport while preserving its structural geometry for quick reassembly.

For alternative shapes such as cylindrical, hexagonal, or pyramidal blocks, collapsing mechanisms may vary to suit their geometry. A cylindrical block may feature telescoping sections that slide into one another, reducing its height while maintaining the circular base and top. In a hexagonal block, the vertical sides may include foldable panels connected by flexible joints. These panels can be collapsed inward in a zigzag pattern, allowing the block to fold flat while preserving its hexagonal outline when reassembled. For pyramidal blocks, the sloping sides may be connected to the square or triangular base with detachable or hinged joints. The sides can fold inward along their edges or be completely removed and stacked together with the base for compact storage.

To facilitate the compacting process, the range blocks may also include locking mechanisms to secure them in their folded or collapsed state. For example, magnetic strips, Velcro fasteners, or snap-fit connectors may be integrated along the edges of the sides to hold them together when collapsed. These locking elements allow the blocks to remain securely folded during transport, preventing accidental unfolding. Additionally, straps or clips may be used to bind the collapsed components together, further enhancing portability.

The collapsible design of the range blocks allows them to be stacked or nested together when multiple blocks are used. For example, several rectangular blocks in their folded state can be placed side by side or on top of one another, minimizing the storage footprint. Similarly, triangular or pyramidal blocks, when collapsed, can be nested to further reduce the amount of space required for storage. This stackable or nesting capability may particularly be advantageous for users who transport their equipment frequently or store it in compact spaces such as golf bags or car trunks.

In some embodiments, the Range Blocks may comprise integrated cameras and communication modules to capture video feeds of the golfer's club movements and swings in conjunction with data collected from impact sensors embedded within the blocks. These systems may work together to provide a comprehensive analysis of the golfer's technique by combining visual data and sensor data. The cameras may be strategically positioned on the Range Blocks to capture a clear and uninterrupted view of the swing path, including the club's angle, speed, and trajectory, as well as its interaction with the ball and the block itself.

The cameras embedded in the Range Blocks may be wide-angle, high-resolution devices capable of recording video feeds at high frame rates to accurately capture the fast motion of a golf swing. These cameras may also include adjustable mounts or gimbals to focus on specific areas of the swing, such as the clubface at impact or the arc of the follow-through. Additionally, the cameras may feature low-light capabilities or dynamic exposure adjustments, providing clear video captures even in varying lighting conditions on the practice field or indoor setups. The video feeds captured by the cameras may be transmitted wirelessly to the user's mobile phone or tablet through a communication module within the Range Blocks, such as Bluetooth, Wi-Fi, or other suitable protocols.

In some embodiments, the Range Blocks themselves primarily serve as data collection and transmission devices, relying on the paired mobile device to perform computational processing. The integrated communication module (within the blocks) collects data from both the cameras and the impact sensors embedded in the blocks and transmits this information in real-time to the mobile phone. The impact sensors, as described in other embodiments, detect the force, angle, and location of impacts made by the golf club on the block, generating detailed metrics on swing mechanics. By combining this sensor data with the video feed from the cameras, the system creates a synchronized and comprehensive data set for analysis.

The user's mobile phone may be equipped with an artificial intelligence (AI) engine and the required processing circuitry to analyze the transmitted data. The AI engine integrates the visual information from the video feed with the quantitative data from the impact sensors to identify patterns, deviations, or irregularities in the golfer's technique. For example, the AI engine may analyze the video to detect if the clubface is consistently open or closed at impact, while simultaneously referencing impact sensor data to verify whether the strike is off-center. By combining these datasets, the system can pinpoint the root causes of performance issues, such as misalignment, inconsistent swing paths, or improper weight transfer.

The AI engine processes this combined data in real time to generate actionable feedback for the golfer. This feedback may be delivered to the user through a connected earpiece or headset, acting as a virtual coach. For example, if the AI engine detects that the user's clubface is open at impact and the swing path is cutting across the target line, it may deliver audio feedback such as, “Close your clubface slightly and focus on swinging along the target line.” Similarly, if the impact data reveals an uneven distribution of force, the system may suggest, “Shift your weight to your front foot during the downswing.” These real-time instructions allow the golfer to make immediate adjustments during their practice session, fostering continuous improvement without the need for external coaching.

The mobile phone may also store the video feeds and sensor data for later analysis, enabling the user to review their training sessions in detail. The stored data may include metrics such as swing angles, impact forces, and clubface alignment, as well as visual records of the swing paths. The mobile phone may present this information through intuitive interfaces, such as annotated video replays, heatmaps of impact locations on the block, and graphs of swing metrics over time. These tools allow the user to track their progress, identify recurring issues, and measure improvements across multiple practice sessions.

To further enhance the training experience, the mobile phone (or mobile application in the mobile phone) may include a session history feature that organizes the stored data into a chronological timeline. Users can access past sessions to compare their current performance with previous benchmarks, providing insights into their development. For example, a golfer may review videos from earlier sessions to observe how their swing path has become more consistent or how their impact forces have increased. The mobile application may also generate personalized reports summarizing key metrics, such as average swing speed, most frequent impact locations, and percentage of centered strikes.

The system's AI engine can adapt its feedback and recommendations over time based on the user's progress. As the golfer addresses and corrects specific issues, the AI may shift its focus to other aspects of their technique that require improvement. For example, after helping the user achieve consistent alignment, the system may begin focusing on refining attack angles or increasing clubhead speed. This adaptive feedback facilitates that the training experience remains relevant and effective, guiding the user toward continual skill enhancement.

In advanced embodiments, the mobile application may include a drill customization feature that allows users to create personalized training routines based on their goals. For example, a golfer looking to improve their driving accuracy may set up a drill focusing on maintaining a square clubface and consistent impact forces. The AI engine can analyze the golfer's performance during the drill, providing targeted feedback and progress updates. Additionally, the mobile application may integrate virtual challenges or gamified elements, such as accuracy tests or distance competitions, to make practice sessions more engaging.

The inclusion of cameras and synchronized data processing significantly enhances the utility of the Range Blocks as a training aid. By capturing detailed visual and quantitative data, the system provides a level of analysis that surpasses traditional coaching tools, enabling golfers to gain deeper insights into their technique. The ability to deliver real-time audio feedback through a headset further sets this system apart, offering a seamless and immersive training experience that mimics the guidance of a professional coach. Whether used by beginners seeking to develop fundamental skills or experienced golfers aiming to refine specific aspects of their game, this invention provides a powerful and versatile solution for improving golf performance.

In the following sections, detailed descriptions of examples and methods will be given. The description of both preferred and alternative examples, though thorough, are exemplary only. It is understood by those skilled in the art, that various modifications and alterations may be apparent and within the scope of the present invention. Unless otherwise indicated by the language of the claims, the examples do not limit the broadness of the aspects of the underlying invention as defined by the claims.

Other alternatives to alignment sticks include training mats and swing trainers designed to guide a golfer's stance and swing. Training mats are typically marked with visual guides for foot placement and swing paths. While they offer some advantages over alignment sticks by providing a defined surface for practice, they are limited in scope and flexibility. Training mats are generally confined to flat surfaces and cannot replicate the varying terrain conditions encountered on a golf course, such as slopes, uneven ground, or bunkers. This lack of adaptability reduces their effectiveness in preparing golfers for real-world scenarios.

Additionally, training mats often fail to provide accurate feedback on ball-striking mechanics due to their artificial surface. Unlike natural turf, where the club interacts with the ground to produce divots or reveal fat or thin strikes, training mats create a forgiving surface that allows the club to slide through without the same resistance or tactile feedback. This can mask errors such as improper contact with the ball or incorrect angles of attack, leading to a false sense of improvement. Golfers who rely heavily on training mats may find their performance lacking when transitioning to natural playing conditions, where such errors have more pronounced effects on ball flight and trajectory.

Moreover, the uniformity of training mats limits their ability to simulate the diverse shot scenarios that golfers face on the course. For example, practicing bunker shots or rough lies on a mat fails to replicate the challenges of these situations, such as variable sand depth or thick grass, which influence swing dynamics and shot outcomes. Training mats also do not accommodate variations in stance and foot placement required for sloped lies, reducing their usefulness for practicing the full range of golf shots. This inability to replicate real-world conditions restricts their application to basic drills, making them insufficient for comprehensive skill development.

Another significant drawback of training mats is their susceptibility to wear and tear. Repeated strikes, particularly with irons and wedges, can cause the mat's surface to degrade, leading to uneven textures or loss of padding. This not only affects the mat's durability but also impacts the accuracy of feedback during practice. Mats that develop wear patterns or permanent depressions may distort ball placement and alignment, further limiting their effectiveness. For golfers who practice frequently, replacing worn-out mats can become an ongoing expense, adding to the overall cost of their training regimen.

Portability is also a challenge with many training mats, particularly those that are full-sized or designed for outdoor use. While smaller mats offer some level of portability, larger mats often require significant space for both use and storage. Their bulk and weight make them less convenient to transport, especially for golfers who practice at multiple locations. This lack of mobility reduces their appeal for users who value flexibility and ease of setup, particularly in comparison to more compact and versatile alternatives.

The flat and standardized design of training mats fails to engage golfers in dynamic or interactive practice sessions. Without features to simulate obstacles or provide immediate feedback, mats do not effectively encourage adjustments or skill refinement during practice. Golfers seeking to enhance their performance across various aspects of the game may find training mats to be an inadequate and one-dimensional solution, underscoring the need for more adaptable and responsive training aids.

Swing trainers, on the other hand, are specialized devices designed to guide specific aspects of the golf swing. For example, some swing trainers are equipped with mechanical arms or resistance bands to promote proper arm and wrist positions. Others feature weighted components to build strength and muscle memory. While these devices address specific aspects of the swing, they are often bulky, expensive, and limited in versatility. Moreover, many swing trainers are not intuitive to use and require extensive instruction or setup, making them less accessible to casual golfers.

Swing trainers, while effective in addressing particular aspects of the golf swing, often suffer from a lack of adaptability to diverse training needs. Many swing trainers are highly specialized and focus on correcting a single element of the swing, such as wrist hinge, arm rotation, or swing plane. This narrow focus limits their utility for golfers who wish to improve multiple aspects of their game without investing in numerous tools. For example, a resistance band-based swing trainer may help in achieving proper wrist angles but fails to offer feedback or guidance on other important elements like body rotation, weight transfer, or clubface alignment. As a result, golfers often need to supplement swing trainers with additional tools, leading to fragmented and less efficient practice sessions.

Another drawback of swing trainers is their dependency on precise setup and calibration. Many devices require meticulous adjustments to align with a golfer's height, arm length, or swing characteristics. For example, mechanical-arm trainers need to be carefully positioned to guide the user's swing path accurately. Any misalignment during setup can render the feedback ineffective or even counterproductive, as the golfer may inadvertently practice incorrect techniques. This dependency on accurate setup adds complexity to the training process, particularly for casual golfers or beginners who may lack the technical knowledge to adjust the device properly.

Swing trainers also lack the ability to simulate real-world conditions or account for the variability of on-course play. For example, a swing trainer designed for indoor use may provide consistent guidance but does not replicate the challenges of hitting from uneven lies, varying grass conditions, or under environmental factors like wind or rain. As a result, golfers who rely exclusively on swing trainers may struggle to adapt their learned techniques to actual playing conditions, limiting the practical benefits of the training sessions.

Another deficiency of swing trainers is their inability to provide comprehensive feedback or adapt dynamically to the user's progress. While some advanced models incorporate sensors or analytics to monitor swing metrics, most basic trainers are static and provide no real-time feedback. This lack of interaction forces golfers to rely on external observation, such as a coach or video analysis, to evaluate their progress. Additionally, swing trainers often fail to accommodate different swing styles or individual biomechanical variations, leading to a one-size-fits-all approach that may not suit all users.

Safety concerns are also a consideration with certain swing trainers, particularly those that involve mechanical arms, resistance bands, or weighted components. Improper use or unexpected mechanical failure can pose a risk of injury, especially for beginners unfamiliar with the device. For example, resistance bands may snap or detach under tension, while improperly weighted trainers may strain muscles or joints. These risks make such devices less appealing to casual users and necessitate careful handling and supervision, further complicating their use.

Swing trainers often lack versatility in addressing the broader spectrum of golfing skills. While they may excel in refining a specific aspect of the swing, such as tempo or wrist position, they do little to address related skills like ball alignment, foot placement, or chipping mechanics. This fragmented approach fails to offer golfers a holistic training experience, requiring them to rely on multiple devices and tools to cover all facets of their game. Consequently, swing trainers, while effective within their narrow scope, fall short of meeting the diverse and comprehensive training needs of modern golfers.

Video analysis tools are another alternative used by golfers to improve their swing mechanics. These tools involve recording a golfer's swing and analyzing the footage to identify errors and areas for improvement. While video analysis provides valuable insights, it is inherently reactive rather than proactive. Golfers must review the footage after completing their swing, which delays feedback and interrupts the practice flow. Furthermore, video analysis often requires additional equipment, such as cameras, tripods, and software, adding to the cost and complexity of the training process.

In-person coaching remains a popular option for improving golf skills, but it is not without its limitations. While a coach provides personalized feedback and instruction, the availability and cost of professional coaching can be prohibitive for many golfers. Additionally, coaching sessions are generally conducted at scheduled intervals, which may not align with a golfer's practice schedule or immediate training needs. This lack of accessibility can hinder consistent skill development.

Referring to FIG. 1A, an exemplary embodiment of a multi-purpose golf training device 100, herein referred to as a “range block,” is illustrated in accordance with the present invention. The multi-purpose golf training device 100 is configured as an upright block-like structure comprising a top section 101, a bottom section 102, and four vertical sides 103-106 extending between the top section 101 and the bottom section 102. The top section 101 may serve as a cover enclosing an internal storage chamber and may be operable via a fastener mechanism 101A, which may include, but is not limited to, a zipper, magnetic strip, or hook-and-loop fastener. The fastener mechanism 101A allows a user or golfer to open the top section 101 to access the internal storage chamber, which may be configured to hold golf balls, tees, alignment rods, or other small golf accessories required during practice or training sessions.

The internal storage chamber enclosed within the top section 101, bottom section 102, and the vertical sides 103-106, may be designed to optimize both storage capacity and accessibility. The storage chamber may include one or more internal compartments or dividers to organize stored items efficiently. For example, a partitioned chamber may allow separate sections for storing golf balls and tees, minimizing the risk of items becoming disorganized or misplaced during transport or use. The interior lining of the storage chamber may comprise materials such as padded fabric or moisture-resistant coatings to protect the stored accessories from potential impact damage or environmental exposure. In one embodiment, the fastener mechanism 101A may include dual sliders, allowing the cover or top section 101 to be opened from either side, further enhancing ease of access for the user.

The bottom section 102 of the multi-purpose golf training device 100 may function as a base that stabilizes the upright structure (100) on various surfaces, such as grass, artificial turf, or smooth indoor flooring. The base (102) may be weighted with materials such as sand, rubber, or metal inserts to prevent tipping during practice sessions. The bottom section 102 may also incorporate anti-slip features, such as a textured rubberized surface or embedded grip pads, to enhance stability on uneven or sloped terrains. In some embodiments, the base (102) may include collapsible or adjustable mechanisms to alter the inclination angle of the range block (100) relative to the surface, thereby allowing the user to simulate different practice conditions or tailor the block's alignment to their specific swing requirements.

The four vertical sides 103-106 extend between the top section 101 and the bottom section 102, collectively forming the upright structure (100) of the multi-purpose golf training device 100. These sides may be constructed from durable, lightweight materials such as reinforced fabric, polymer composites, or other impact-resistant materials to withstand repeated use during golf training. The vertical sides 103-106 may vary in width to create different geometric configurations. For example, in one embodiment, opposite sides 103 and 104 may have the same width, while the other two opposite sides 105 and 106 may also have the same width but differ from the width of sides 103 and 104, resulting in a rectangular cross-section. Alternatively, all four sides 103-106 may have equal width, forming a square cross-section. Variations in the widths of the vertical sides 103-106 allow for customization of the block's dimensions and functionality, enabling it to be tailored for specific training applications or user preferences.

In some embodiments, two of the four vertical sides, such as sides 103 and 104, may include a respective fold line 103A and 104A extending longitudinally from the top section 101 to the bottom section 102. The fold line (103A and 104A), which may be a seam, a hinged-section, a crease, or a flexible joint, facilitates the collapsing of the block structure for compact storage or transport. The fold lines 103A-104A may be reinforced with additional stitching, flexible polymer layers, or embedded hinges to withstand repeated folding without damage. The collapsing mechanism enabled by the fold lines 103A-104A allows the range block 100 to transition between an upright configuration and a folded configuration (100A). For example, when a user applies inward pressure along the fold lines 103A-104A of the vertical sides 103 and 104 respectively, these sides 103-104 may bend inward toward the central axis of the range block 100, causing the opposing sides 105 and 106 to move closer together. This process effectively reduces the block's overall volume, making it compact and portable.

The collapsing mechanism (103A-104A) may further include locking or securing features to maintain the range block 100 in its folded state during transport. For example, magnetic fasteners or straps integrated into the edges of the vertical sides 103-106 may be used to hold the sides together after the range block 100 is collapsed. These locking elements may prevent unintentional unfolding, so that the range block 100 remains securely compact until it is ready to be reassembled for use. In an alternative embodiment, the fold lines 103A-104A may incorporate accordion-style creases that allow the range block 100 to collapse in a controlled and gradual manner, providing additional stability during the folding process.

The vertical sides 103-106 may also be equipped with additional functional elements to enhance the utility of the multi-purpose golf training device or range block 100. For example, visual alignment guides, such as printed lines, angle markers, or grids, may be included on one or more sides (103-106) to assist golfers in aligning their stance or swing path. In another embodiment, one or more sides may include attachment points or loops for securing external accessories, such as alignment rods or straps, further expanding the versatility of the range block 100.

The placement of the multi-purpose golf training device 100 on a golf range or practice surface may vary depending on the user's training objectives. For example, one or more range blocks (100) may be positioned upright alongside a golf ball to serve as a visual and physical reference for swing alignment and path correction. Alternatively, the range blocks (100) may be laid flat or inclined to simulate specific course conditions or practice scenarios. The adjustable features of the base (102), combined with the collapsible structure, allow the range blocks (100) to adapt to a wide range of terrains and user preferences.

In one embodiment, the vertical sides 103-106 may include reinforced edges to enhance durability and maintain the block's structural integrity during folding, unfolding, and repeated impacts. These reinforced edges may be constructed from high-strength materials such as Kevlar threads, polymer overlays, or metallic inserts. The durability of the edges facilitates that the range block 100 remains functional and visually intact even after extensive use.

Referring now to FIGS. 1B-1C, an exemplary embodiment illustrates the transition of the multi-purpose golf training device 100 (range block), from an upright configuration to a folded configuration 100A. These figures depict the structural components and collapsing mechanism in detail, demonstrating how the range block 100 transitions to a compact form (100A) for storage and transport. The process involves the activation of fold lines 103A and 104A, which are longitudinally positioned along the vertical sides 103 and 104, respectively. These fold lines facilitate the controlled inward bending of sides 103 and 104, causing the opposing vertical sides 105 and 106 to move closer together, thereby compressing the range block 100 into a compact, flat state as shown in FIG. 1C.

In FIG. 1B, the range block 100 is shown in the process of collapsing. The top section 101 remains fully or partially open, with the fastener mechanism 101A disengaged, allowing the internal storage chamber 107 to remain accessible during the folding process if needed. The fold lines 103A and 104A act as predefined seams or flexible joints that enable the vertical sides 103 and 104 to bend inward toward the central axis of the range block 100. The user applies inward pressure along these fold lines 103A and 104A, which may be reinforced with flexible polymer layers, fabric hinges, or embedded mechanical hinges to maintain structural integrity during repeated folding and unfolding.

As the fold lines 103A and 104A bend inward, the vertical sides 105 and 106 pivot at their connections to the bottom section 102 and top section 101, moving closer together. The movement compresses the vertical sides 103 and 104 between the vertical sides 105 and 106, effectively reducing the volume of the range block 100. This transition not only alters the geometric structure of the range block 100 but also transforms it into a flat, elongated shape that is easier to handle, carry, and store. The collapsing mechanism may particularly be advantageous for golfers who need to transport multiple range blocks or store them in compact spaces, such as a golf bag or vehicle trunk.

In FIG. 1C, the range block 100 is shown in its fully collapsed, folded configuration 100A. The vertical sides 105 and 106 are now parallel and adjacent to one another, enclosing the folded vertical sides 103 and 104 between them. The fold lines 103A and 104A form a V-shaped inward fold that holds the structure compact.

The collapsing mechanism illustrated in FIGS. 1B-1C may include additional features to secure the range block 100 in its folded configuration 100A. For example, magnetic fasteners or straps may be integrated along the edges of the vertical sides 105 and 106 to hold them together once the range block 100 is collapsed. These securing elements prevent accidental unfolding during transport or storage, maintaining the compact state of the block. In one embodiment, the fold lines 103A and 104A may include accordion-style creases, allowing for a more gradual and controlled folding process. These creases enable the block to collapse incrementally, providing stability and ease of use during the transition.

The fold lines 103A and 104A may be designed with durability and flexibility in mind. They may be constructed from materials such as reinforced fabric, polymer composites, or other resilient materials capable of withstanding repeated stress. The reinforcement of these fold lines facilitates that the collapsing mechanism remains functional over prolonged use, making the range block 100 a reliable tool for golf training and practice. The folding process may also be aided by predefined locking points or stops within the fold lines 103A-104A, which help guide the user during the collapsing process and maintain alignment between the sides 105-106.

The bottom section 102, as shown in these figures, may remain stable throughout the folding process, providing a foundation for the collapsing mechanism. The weighted nature of the bottom section may help balance the range block 100 during the initial stages of folding, preventing tipping or misalignment. Additionally, the non-slip features of the bottom section 102, such as rubberized surfaces or embedded grips, facilitate that the range block 100 remains in place on the practice surface while the user activates the fold lines.

The fully collapsed range block 100A, as depicted in FIG. 1C, is highly portable and can be stacked with other collapsed range blocks for efficient storage. The compact design minimizes the space required for storage, making it ideal for golfers who travel frequently or have limited storage capacity. The flat, elongated shape also allows the block 100A to fit into narrow spaces, such as side compartments of golf bags or storage shelves.

Referring now to FIG. 1D, an exemplary method for transitioning the multi-purpose golf training device 100, referred to as a “range block,” from a four-sided upright configuration to a three-sided configuration 100D is illustrated. This transition is facilitated by the manipulation of a fold line 104A on a vertical side 104, while the opposing fold line 103A on opposite vertical side 103 remains uncompressed. The process involves collapsing one of the opposite vertical sides (e.g., 104) inward toward the internal storage chamber 107, creating a prism-like (triangular), three-sided structure (100D). This three-sided configuration 100D may particularly be advantageous for scenarios where a more compact and/or lightweight training aid is desired, without fully transitioning the device 100 to a fully collapsed or folded state (e.g., 100A in FIG. 1C).

In the initial stage of the collapsing process, a user applies inward pressure along fold line 104A, causing vertical side 104 to bend inward. The fold line 104A is designed to function as a predefined flexible joint, seam, or crease that facilitates controlled movement. The fold line 104A may be constructed from reinforced materials such as stitched fabric, flexible polymers, or embedded hinges to enable repeated use without compromising durability. As vertical side 104 collapses, it is gradually enclosed within the internal storage chamber 107. The inward movement of the vertical side 104 allows the adjacent vertical sides 105 and 106 to pivot and move closer together on one side, effectively forming a triangular or prismatic cross-section.

The resulting three-sided configuration 100D is stable due to the structural alignment of the remaining sides (103, 105, and 106). Vertical side 103, which is not collapsed, provides a rigid boundary for the remaining structure. Meanwhile, the edges of sides 105 and 106 adjacent to the collapsed side 104 come into proximity, reducing the width, and creating a compact and efficient design. This configuration may be advantageous for applications where a range block needs to be smaller or less obtrusive, such as in confined practice spaces or when simulating narrower shot pathways.

The prismatic, three-sided configuration 100D also creates new opportunities for specific golf training scenarios. For example, the triangular shape allows the range block (100 or 100D) to be used as a visual and physical guide for swing paths that require precision. Golfers may place the three-sided configuration 100D upright next to the golf ball to simulate specific angles, such as drawing or fading shots. The open side (adjacent to vertical side 103) allows unobstructed access to the target area, making it ideal for focused drills. Additionally, the angled sides of the prismatic structure (100D) can act as physical barriers, preventing unwanted club paths and reinforcing proper technique.

During the collapsing process, the open nature of the remaining vertical side 103 also maintains partial access to the internal storage chamber 107. This feature enables the golfer to retrieve or store accessories, such as golf balls or tees, without requiring the device 100 to be fully unfolded. The open access to the storage chamber 107 in the three-sided configuration 100D also facilitates quick adjustments during practice, allowing golfers to modify their setup or equipment without interrupting their training flow.

The method for transitioning to the three-sided configuration 100D also preserves the portability of the device 100. The reduced size of the prismatic structure (100D) makes it easier to carry or transport, especially for golfers who travel between practice locations. The lightweight design is particularly beneficial for users who prefer to carry multiple range blocks for setting up complex drills or practice environments. For example, a golfer may use multiple three-sided configurations to create parallel guides for swing path correction or alignment, replicating professional training setups.

In certain embodiments, the three-sided configuration 100D may be further enhanced with securing mechanisms to lock the collapsed side 104 into place. These mechanisms, such as magnetic fasteners, Velcro strips, or tension-based clips, may be integrated along the edges of sides 105 and 106, providing stability to the prismatic structure (100D). These securing elements prevent the collapsed side (104) from unfolding unintentionally, making the three-sided configuration 100D stable and reliable for prolonged use on various surfaces, including grass, artificial turf, or indoor flooring.

The triangular nature of the three-sided configuration 100D also makes it adaptable for uneven terrains. By selectively collapsing one side (e.g., 104) while keeping the opposite side (e.g., 103) intact, the range block gains flexibility in positioning. This adaptability allows the block to be tilted or angled to match the slope or contour of the ground, creating more realistic practice conditions that simulate on-course scenarios. For example, a golfer practicing uphill or downhill lies may adjust the position of the three-sided configuration 100D to match the terrain, enhancing the training experience.

The three-sided range block 100D also reduces the visual clutter often associated with larger training aids, providing a cleaner and more focused practice environment. The open triangular shape emphasizes simplicity while retaining the functionality of the original four-sided configuration (100). This minimalist design helps golfers concentrate on specific aspects of their technique, such as clubface alignment, swing arc, or ball positioning, without being distracted by unnecessary features.

Additionally, the three-sided configuration 100D may serve as a foundation for integrating other training tools. For example, alignment rods or swing trainers may be attached to the open edges of sides 105 and 106, further enhancing the functionality of the range block. The triangular design provides a stable and ergonomic base for these accessories, making it easier for golfers to set up complex drills or multi-faceted training exercises.

Referring now to FIGS. 1E-1F, exemplary variations of the multi-purpose golf training device are illustrated, showcasing alternate configurations and designs for increased versatility and adaptability in golf training. FIG. 1E depicts a hexagonal range block 110, while FIG. 1F illustrates a prism-style three-sided range block 120, both of which can be collapsed into compact configurations (110A and 120A) using respective fold lines or seam lines. These embodiments highlight the geometric diversity of the training devices and their ability to adapt to different user preferences and practice scenarios.

In FIG. 1E, the hexagonal range block 110 is depicted in its upright, fully extended configuration. The block 110 comprises six vertical sides connected to form a hexagonal cross-section, with seam lines 111 and 112 positioned between adjacent sides. These seam lines serve as fold lines or flexible joints, allowing the block 110 to collapse into a compact folded configuration 110A. The seam lines 111 and 112 may be constructed from reinforced materials such as flexible polymers, stitched fabric, or embedded hinges, enabling the block 110 to withstand repeated folding and unfolding. When pressure is applied along one or more seam lines (e.g., 111-112), the sides of the hexagonal block 110 fold inward toward the central axis, reducing the block's overall volume while maintaining its structural integrity.

The hexagonal design of the range block 110 provides unique advantages for golf training. The six vertical sides offer an increased surface area for incorporating features such as visual alignment guides, impact sensors, or angle markers. For example, each side may be marked with different alignment lines to help golfers practice various swing paths or stances. The hexagonal shape also provides additional stability, as the even distribution of sides reduces the likelihood of tipping over during use. This makes the block 110 particularly suitable for outdoor practice on uneven or sloped terrains.

When collapsed, as shown in configuration 110A, the hexagonal range block 110 transforms into a compact, elongated form that is easy to transport and store. The folding process involves sequentially collapsing the sides along the seam lines (111-112), creating a zigzag pattern that may bring all six sides into alignment. Magnetic fasteners or straps integrated along the edges of the collapsed sides may secure the block 110A in its folded state, preventing unintentional unfolding during transport. The compact configuration 110A allows the block to fit into narrow spaces, such as golf bags or car compartments, while still being easy to reassemble for use.

In FIG. 1F, the prism-style three-sided range block 120 is shown in its upright configuration. The block 120 features three vertical sides connected to form a triangular prism, with one of the sides incorporating a fold line 121. This fold line extends longitudinally along the side, enabling the block 120 to transition into a compact folded configuration 120A when pressure is applied. The triangular design provides a minimalist yet functional structure that is ideal for targeted training applications. For example, the three-sided configuration (120) offers a focused visual guide for swing path correction, as the angled sides naturally direct the golfer's attention to the target zone.

The folding process for the prism-style range block 120 involves collapsing the side with the fold line 121 inward toward the central axis. As the side folds, the remaining two sides pivot inward, reducing the block's overall dimensions while preserving its triangular shape for the next unfolded use. This process may be facilitated by flexible materials or reinforced joints along the fold line 121, so that the block 120 can be folded and unfolded repeatedly without damage. In some embodiments, the fold line 121 may include accordion-style creases or tensioned hinges for controlled folding.

The compact folded configuration 120A of the prism-style block 120 is particularly advantageous for portable setups or confined practice spaces. The triangular prism design allows the block to be positioned upright, inclined, or laid flat, depending on the user's training objectives. For example, the block 120 can be placed upright to serve as a visual alignment aid or positioned at an angle to simulate specific shot trajectories. The lightweight and compact design makes the prism-style block 120 easy to carry, especially for golfers who frequently travel between practice locations.

Both the hexagonal (110) and prism-style (120) range blocks offer unique benefits for golf training. The hexagonal block 110, with its increased surface area and stability, may be ideal for general-purpose training and outdoor use. In contrast, the prism-style block 120, with its minimalist design and focused functionality, may be better suited for targeted drills or indoor practice. The ability to collapse both designs into compact configurations (110A and 120A) enhances their portability and usability, making them versatile tools for golfers of all skill levels.

In one embodiment, the hexagonal range block 110 may be equipped with internal storage compartments accessible through a zippered top section, similar to the rectangular block (100) described in earlier figures. These compartments can hold golf balls, tees, or alignment rods, providing added convenience for the user. The triangular prism block 120 may also include a storage chamber, with the fold line 121 doubling as an access point for retrieving stored items. This dual functionality allows both blocks to serve as storage solutions and training aids, reducing the need for additional equipment.

The folding mechanisms illustrated in FIGS. 1E and 1F demonstrate the adaptability of the range blocks to various training environments. Whether practicing on a driving range, in an indoor facility, or on a golf course, the ability to transition between upright and folded configurations allows users to customize their training setup. The compact designs also make it possible to use multiple blocks simultaneously, creating complex drills or practice scenarios that replicate on-course challenges.

In some embodiments, the range block may be designed in various alternative shapes beyond the described rectangular, triangular prism, or hexagonal configurations. These variations in shape offer enhanced versatility, functionality, and adaptability for a variety of golf training scenarios. Examples of such alternative shapes may include cylindrical blocks, octagonal blocks, pyramidal blocks, elliptical blocks, and hybrid shapes that combine characteristics of two or more geometric forms. These designs may be tailored to meet specific training needs, improve portability, or provide unique visual and physical cues for golfers.

A cylindrical range block may be utilized to create a smooth, continuous surface ideal for practicing consistent swing arcs. The curved shape of the cylinder provides a unique training aid for golfers aiming to refine the flow of their swing paths. For example, the cylindrical block can be positioned behind the golf ball to guide the club along a desired arc, promoting fluid motion throughout the backswing and follow-through. The cylindrical block may also incorporate impact sensors around its surface to detect off-path swings or misaligned strikes. When collapsed, the cylindrical block may feature telescoping sections that allow it to shrink in length, making it compact for transport and storage.

An octagonal range block offers additional surface area and angular diversity, making it a versatile tool for multi-angle practice sessions. Each of the eight vertical sides may include distinct alignment markers, angle guides, or swing path indicators, allowing the golfer to tailor the block's orientation for specific drills. For example, one side may focus on alignment for straight shots, while another side includes guides for shaping fades or draws. The octagonal structure may also provide excellent stability on uneven terrain due to its balanced geometry. Seam lines between the vertical sides may act as fold lines, enabling the octagonal block to collapse into a compact configuration similar to the hexagonal block.

A pyramidal range block with a square or triangular base and sloping sides may be designed to guide the golfer's swing path toward a centralized target. The inclined surfaces of the pyramid may naturally direct the clubface to specific impact zones, making it particularly effective for practicing precision shots or simulating bunker conditions. The pyramidal block may also include storage space within its hollow structure, accessible via a removable base or hinged panel. Collapsing mechanisms may be incorporated into the sloping sides, allowing the pyramid to flatten into a stackable design for efficient storage.

An elliptical range block may feature elongated, curved vertical sides that combine the benefits of cylindrical and rectangular blocks. The elliptical shape provides a streamlined and ergonomic design, making it easier to handle and position on the practice surface. This block shape may especially be useful for golfers who want to practice consistent ball placement and swing paths, as the elongated sides provide a broader alignment reference. The elliptical block may include hinged sections along its longer axis, enabling it to fold inward along its curve and reduce its overall size for transport.

Hybrid shapes, such as a rectangular base with a pyramidal top section, may also be employed to combine the benefits of multiple geometries. For example, the rectangular base provides stability and alignment guides, while the pyramidal top section adds precision-focused training elements. Such hybrid designs may be particularly effective for advanced golfers looking to refine multiple aspects of their technique simultaneously. The collapsing mechanism for hybrid blocks may involve a combination of hinged sides and detachable components, allowing different sections of the block to be folded or removed independently.

In another embodiment, a modular range block may be designed with detachable or interchangeable panels. Each panel may feature a different shape, such as rectangular, triangular, or curved, and can be connected to a central frame to form a customizable block. This modular design may allow the golfer to create unique configurations tailored to specific drills or practice environments. For example, a golfer may assemble a triangular base with curved sides to practice swing arcs, then reconfigure the block with rectangular sides for alignment training. The modular panels may be connected using magnetic fasteners, snap-fit joints, or Velcro strips for easy assembly and disassembly.

In some embodiments, a cone-shaped range block may be employed for specialized training scenarios, such as simulating uphill or downhill lies. The conical shape provides a natural incline, encouraging the golfer to adjust their stance and swing path to account for elevation changes. The cone-shaped block may also include collapsible sections along its sloping surface, allowing it to be compressed into a flat, disk-like structure for storage.

In yet another variation, a dual-chambered range block may be designed with two distinct compartments separated by a vertical partition. Each chamber may have its own access point, such as a zippered cover or hinged panel, allowing the golfer to store different types of accessories, such as golf balls in one chamber and tees in the other. The dual-chamber design may be implemented in any of the aforementioned shapes, including rectangular, hexagonal, or cylindrical configurations.

These alternative shapes of the range block are designed to cater to diverse user preferences and training objectives. By incorporating innovative geometries and collapsible features, these designs expand the functionality and adaptability of the range block, making it a versatile tool for golfers of all skill levels. Whether used for precision alignment, swing path correction, or environmental simulation, these shapes provide unique advantages that enhance the overall golf training experience.

In some embodiments, the multi-purpose golf training device comprises a structural configuration featuring vertical sides extending between a top section and a bottom section. The vertical sides may be integral to forming the upright structure of the device and are designed to facilitate collapsing for compact storage or transport. In one embodiment, the device comprises four vertical sides, with a first side and a second side positioned opposite each other. The first and second sides include respective fold lines positioned at midpoints and extending longitudinally from the top section to the bottom section. These fold lines serve as structural seams that allow the first and second sides to fold inward toward the internal storage chamber.

When the first fold line and the second fold line are engaged, the first and second sides collapse into the internal storage chamber, transitioning the device from its upright configuration into a folded configuration. This folding mechanism reduces the overall volume of the device, making it compact for transport or storage. In this state, the other two sides of the device are brought closer together, forming a stable folded structure suitable for various storage environments.

In another embodiment, only one of the fold lines on the first or second side is folded inward. The collapsing action of the selected side into the internal storage chamber causes the device to assume a triangular configuration. This triangular configuration may particularly be advantageous for specific training applications, such as using the device as a boundary marker for swing path guidance or positioning it at an angle to simulate varied terrain conditions on a golf range.

In an alternative embodiment, the device comprises three vertical sides extending between the top section and the bottom section. One of these three vertical sides includes a fold line positioned along its midpoint and extending vertically between the top and bottom sections. When this fold line is pressed inward, the corresponding side folds into the internal storage chamber, transitioning the device into a compact configuration. This compact state significantly reduces the device's footprint, facilitating easy portability and storage.

The folding mechanisms integrated into the multi-purpose golf training device are designed to maintain the structural integrity of the device during repeated folding and unfolding cycles. The fold lines may include reinforced seams or flexible polymer hinges to support the collapsing action. These configurations enable the device to serve as a versatile tool for golf training while offering practical solutions for storage and transport challenges.

Referring now to FIG. 2A, the figure illustrates an exemplary application of range blocks 200A and 200B during a golf training session. FIG. 2A shows a golfer 201 positioned in a practice stance while holding a golf club 202, with the clubface 202A aligned to strike a golf ball 203. The range blocks 200A and 200B may be strategically positioned near the golfer's setup to assist with club alignment, swing path correction, and impact guidance. This arrangement highlights how the range blocks 200A-200B can be effectively used to provide both visual and physical cues to improve the golfer's technique during training.

The range block 200A is positioned on the golfer's leading side, slightly behind the golf ball 203, at an angle that aligns with the intended swing path of the golf club 202. This setup helps the golfer 201 maintain the correct backswing and downswing path by providing a visual reference for the alignment of the clubhead (202A). If the golfer 201 deviates from the intended path, the clubface 202A may make contact with the range block 200A, providing immediate visual, tactile and auditory feedback that indicates an error in the swing path. Such feedback may be valuable for helping the golfer 201 adjust and refine their technique to achieve a more consistent swing.

On the opposite side, range block 200B may be positioned near the target line, ahead of the golf ball 203. The placement of 200B serves a dual purpose: guiding the follow-through of the swing and preventing an excessively inside-out or outside-in swing path. For example, if the golfer 201 swings too steeply or too shallowly through the ball 203, the clubface 202A may collide with the range block 200B, signaling improper technique. By observing and feeling this contact, the golfer 201 can make adjustments to their stance, grip, or swing mechanics to better align with the desired trajectory.

The use of range blocks 200A and 200B in this configuration may also assist with alignment training. The golfer 201 can use the placement of the blocks 200A-200B as visual guides to position their feet, shoulders, and hips parallel to the target line, fostering a consistent and repeatable stance. For example, if the golfer 201 tends to misalign their body relative to the target, the blocks 200A-200B can be repositioned to create a clear visual aid for correcting the stance. This feature may be useful for beginners learning the fundamentals of golf alignment or for advanced players fine-tuning their precision.

One embodiment of the range blocks may involve their ability to simulate various shot types, such as fades, draws, or straight shots. For example, by angling the blocks 200A-200B slightly inward or outward relative to the ball 203, the golfer 201 can practice shaping shots by intentionally altering their swing path to produce the desired ball flight. This versatility makes the range blocks 200A-200B a dynamic training tool suitable for a wide range of skill levels and practice goals.

Another practical application of the range blocks 200A-200B may be their role in preventing common swing faults, such as hitting the ball 203 too far on the toe or heel of the clubface 202A. By positioning the blocks 200A-200B close to the ball 203, the golfer 201 is encouraged to strike the ball 203 cleanly with the center of the clubface 202A. Any deviation that causes the club 202 to strike the blocks 200A-200B instead of the ball 203 provides immediate feedback, highlighting areas for improvement. For example, a golfer 201 consistently hitting the toe of the clubface 202A can adjust their posture, grip, or takeaway to achieve a more centered impact.

The tactile feedback provided by the range blocks 200A-200B is complemented by their visual cues. For example, the distinct color or markings on the blocks 200A-200B can help the golfer 201 focus on specific alignment points during their setup. In one embodiment, the blocks 200A-200B may include alignment lines or angle markers printed on their surfaces, allowing the golfer 201 to practice specific swing angles or shot trajectories. These visual aids may be beneficial for maintaining focus during repetitive drills or high-intensity practice sessions.

The range blocks 200A-200B may also serve as a safety mechanism during practice by encouraging controlled swings. The presence of the blocks 200A-200B on either side of the ball 203 creates a narrow channel for the clubhead (202A) to travel through, discouraging overly aggressive or erratic swings. This controlled environment helps the golfer 201 build muscle memory for smooth and consistent swing motions, reducing the risk of injury or improper technique.

In some embodiments, the range blocks 200A-200B may include adjustable bases or foldable structures that allow them to be positioned at varying angles or heights. For example, the blocks 200A-200B can be tilted to simulate uphill or downhill lies, enabling the golfer 201 to practice under conditions that mimic real-world scenarios. Similarly, the height of the blocks 200A-200B can be adjusted to accommodate different club lengths, such as irons, wedges, or drivers, providing versatility across all aspects of the game.

The immediate feedback provided by the range blocks 200A-200B extends beyond swing path correction. For example, the golfer 201 can use the blocks 200A-200B to practice ball position relative to their stance. By aligning the blocks 200A-200B with the ball 203 and the target line, the golfer 201 gains a clear reference point for consistent ball placement, which is required for achieving predictable shot outcomes. Any deviation from the optimal ball position can be corrected by repositioning the blocks 200A-200B, reinforcing good habits during practice.

The portability of the range blocks 200A-200B makes them a convenient training aid for golfers of all levels. Lightweight and easy to transport, the blocks 200A-200B can be used at home, on the driving range, or on the course. This versatility allows golfers to incorporate structured practice into their routine, regardless of location. Additionally, the blocks' durable construction facilitates that they can withstand repeated impacts from golf clubs without losing their effectiveness or structural integrity.

In an alternative embodiment, the range blocks 200A-200B may include embedded sensors or cameras to capture data on the golfer's swing mechanics. This data can be transmitted to a mobile device or computer for analysis, providing the golfer 201 with detailed insights into their performance. For example, the system can identify patterns in swing path deviations or inconsistencies in impact points, offering actionable feedback to improve the technique. This integration of technology enhances the training experience, making it more interactive and data-driven.

Another embodiment may involve the use of weighted pads or stabilizing bases for the range blocks 200A-200B. These features prevent the blocks 200A-200B from moving or tipping over during practice, especially when struck by the clubhead. The stability of the blocks 200A-200B facilitates that they remain in their intended positions, allowing the golfer 201 to focus on their technique without worrying about repositioning the blocks 200A-200B after every swing.

Referring now to FIG. 2B, it illustrates an exemplary use of range blocks 200A and 200B in a laid-down configuration during a golf training session. Unlike the upright arrangement shown in FIG. 2A, this configuration demonstrates the versatility of the range blocks 200A-200B when positioned horizontally on the ground. The golfer 201, holding the golf club 202, is shown practicing a shot directed toward the golf ball 203, with the clubface 202A aligned with the target. The laid-down configuration of the range blocks 200A-200B offers unique advantages for training, particularly in guiding swing paths, managing ball trajectory, and providing visual alignment aids.

In this embodiment, range block 200A is positioned horizontally on the golfer's leading side, slightly behind the golf ball 203. This placement acts as a physical barrier for guiding the backswing and preventing excessive inward or outward deviations. For example, if the golfer 201 pulls the clubhead too far inside during the takeaway, it may strike the surface of block 200A, providing immediate tactile feedback. This feedback allows the golfer 201 to correct their swing path, encouraging a smoother and more consistent takeaway. Similarly, if the clubhead moves too far outward, this may signal the need for adjustment, helping the golfer 201 refine their motion.

On the other side, range block 200B may be placed horizontally near the target line, ahead of the golf ball 203. This arrangement assists in guiding the follow-through phase of the swing. By creating a visual and physical boundary, block 200B encourages the golfer 201 to maintain the correct swing arc and avoid improper movements such as excessive slicing or hooking. For example, if the follow-through veers off path, the clubhead may collide with block 200B, signaling that the swing needs refinement. This feedback loop supports incremental improvements in technique, fostering more accurate and controlled shots over time.

The laid-down configuration of the range blocks 200A-200B also facilitates practice drills aimed at perfecting ball trajectory and shot shaping. For example, the golfer 201 can position the blocks 200A-200B at varying distances and angles relative to the ball 203 to simulate different shot types. In one embodiment, the blocks 200A-200B may be aligned parallel to the target line to encourage a straight shot, while in another, they may be angled inward or outward to practice fades or draws. The horizontal positioning of the blocks 200A-200B allows the golfer 201 to visualize the intended shot path more effectively, creating a mental connection between their swing mechanics and the resulting ball flight.

Another practical application of this setup involves its use as an alignment aid for the golfer's stance. By laying the blocks 200A-200B flat on either side of the ball 203, the golfer 201 gains a clear reference for positioning their feet, hips, and shoulders parallel to the target line. This visual alignment tool helps establish a consistent setup, reducing variability in stance and posture across practice sessions. For beginners, this feature may particularly be valuable in developing fundamental alignment habits, while advanced players can use it to fine-tune their precision.

The laid-down range blocks 200A-200B also provide a safe and controlled environment for practicing swing mechanics. By creating a confined space around the ball 203, the blocks 200A-200B encourage deliberate and focused swings. This setup discourages overly aggressive or erratic movements, helping the golfer 201 build muscle memory for smooth and controlled swings. In addition, the blocks 200A-200B act as a protective barrier, preventing the clubhead from veering too far off course and potentially striking nearby objects or surfaces.

In one embodiment, the surface of the laid-down range blocks 200A-200B may include impact-absorbing materials such as foam or rubberized coatings. These materials reduce the risk of damage to the clubhead during accidental contact, making the blocks 200A-200B suitable for repeated use. Additionally, the blocks 200A-200B may feature visual markers or printed guides on their surfaces to assist with alignment and swing path visualization. For example, the blocks 200A-200B may include gridlines, target zones, or directional arrows to provide additional cues for the golfer 201 during practice.

The adaptability of the range blocks 200A-200B in their horizontal configuration also extends to different practice environments. Whether used on grass, artificial turf, or indoor surfaces, the blocks 200A-200B maintain their functionality and effectiveness. For outdoor practice, the blocks 200A-200B may include weighted bases or anti-slip materials to prevent movement during use. For indoor scenarios, their lightweight and portable design makes them easy to reposition and transport.

In another embodiment, the laid-down range blocks 200A-200B may include adjustable angles to simulate varying ground conditions. For example, the blocks 200A-200B can be tilted slightly upward or downward to replicate uphill or downhill lies, providing the golfer 201 with a more realistic training experience. This feature allows the golfer 201 to adapt their swing mechanics to different scenarios, improving their versatility and confidence on the course.

The use of laid-down range blocks 200A-200B also supports collaborative practice sessions or coaching environments. For example, a coach may position the blocks 200A-200B to highlight specific aspects of the golfer's swing, such as takeaway angle or follow-through path. The visual and tactile feedback provided by the blocks 200A-200B enhances the coach's ability to identify areas for improvement and communicate corrective measures effectively.

Referring now to FIG. 3A, the figure illustrates an exemplary embodiment of a range block 300 featuring an internal storage chamber 307 designed to hold golf-related items 310. The range block 300 is constructed with four vertical sides, including side 304, which incorporates a fold line 304A that facilitates compact folding when required. The block 300 also includes a cover 301, positioned at the top, which provides access to the internal storage chamber 307. Together, the sides, base (not explicitly illustrated), and cover 301 enclose the storage chamber 307, creating a self-contained unit that combines portability with functionality.

The vertical sides of the range block 300 provide structural integrity and shape. Side 304, featuring the fold line 304A, enhances the block's versatility by enabling a collapsible design. This fold line 304A can be made from reinforced materials, such as flexible polymers or layered fabrics, providing durability through repeated use. The foldable design allows the block 300 to transition between a fully extended configuration and a compact state, making it easy to transport and store.

The internal storage chamber 307 offers ample capacity for organizing and transporting essential golf accessories, including golf balls, tees, alignment rods, and gloves. For example, the chamber 307 can accommodate multiple golf balls, such as those labeled as items 310, while leaving space for other small items like ball markers or repair tools. The chamber 307 may also feature internal dividers or compartments that allow the golfer to sort items efficiently. In some embodiments, the storage chamber 307 may be lined with impact-resistant or moisture-proof materials, such as padded fabric or water-resistant coatings, to protect the stored items from damage or environmental factors.

The cover 301 serves as the primary access point to the storage chamber 307. Secured by a fastener mechanism, such as zipper 301A, the cover 301 provides a reliable closure system while allowing for easy and repeated access. The zipper 301A may include durable materials, such as corrosion-resistant metals or high-strength plastics, suitable for outdoor use. In addition, dual sliders on the zipper 301A may enhance convenience, enabling the golfer to open the cover 301 from either side. When closed, the cover 301 integrates seamlessly with the sides and base, forming a protective enclosure for the contents.

In one variation, the cover 301 may include added functionality, such as an internal mesh pocket or elastic bands to secure smaller items like tees or scorecards. These features enhance the storage chamber's usability, allowing golfers to separate and organize their accessories. Furthermore, the inner surface of the cover 301 may be padded or textured to prevent items from shifting or becoming damaged during transport. When the cover 301 is open, the range block 300 provides clear visibility of its contents, simplifying retrieval during practice sessions or games.

The rectangular shape of the range block 300 enhances its stability when positioned on various surfaces. The flat surfaces and defined edges allow the block to remain upright or lie flat, depending on the golfer's needs. For example, the block 300 can be placed upright as a storage unit or laid flat to serve as a visual aid for swing path alignment. The foldable design, enabled by the fold line 304A, adds further adaptability, allowing the block 300 to be adjusted for specific training scenarios or folded down for storage.

In another embodiment, the storage chamber 307 may include adjustable or expandable sections to accommodate larger items. For example, the base of the chamber 307 may feature accordion-style folds that increase the internal capacity as needed. Alternatively, removable dividers may allow the golfer to customize the storage layout, adapting the chamber 307 for different types of equipment. This flexibility facilitates that the range block 300 meets a variety of organizational and training requirements.

The range block's design also allows for use as a training aid in addition to its storage functionality. Positioned upright or flat on the practice surface, the block 300 can act as a physical guide for swing path correction, alignment training, or shot placement. For example, golfers can use the block 300 to create visual boundaries, so that their club follows a consistent trajectory during the swing. Any unintended contact with the block 300 serves as instant feedback, helping the golfer adjust and refine their technique.

In more advanced embodiments, the range block 300 may integrate technology to enhance its utility. Sensors or cameras embedded within the internal storage chamber 307 or external surfaces may capture data on swing mechanics or ball impact. This data may then be transmitted to a connected mobile device for real-time analysis. For example, a golfer may receive feedback on their swing speed, alignment, or impact point, enabling data-driven improvements during practice. These features combine the physical benefits of the block 300 with modern digital tools, offering a comprehensive training solution.

For outdoor applications, the block 300 may include weighted bases or anti-slip materials to maintain stability on uneven or sloped terrain. The weights may be removable, allowing the golfer to adjust the block's center of gravity based on environmental conditions. This adaptability makes the range block 300 suitable for use in various practice settings, from driving ranges to home setups.

In terms of portability, the range block's lightweight materials and foldable structure allow for easy transportation. When not in use, the block 300 can be collapsed along the fold line 304A and stored in a compact form. This feature may be useful for golfers who frequently travel or carry multiple training aids. The compact size also allows the block 300 to fit conveniently in golf bags, car trunks, or storage lockers.

Referring now to FIG. 3B, an exemplary embodiment of a range block 300A is illustrated. The range block 300A is similar in structure to the range block 300 as shown in FIG. 3A but includes additional features that enhance its functionality. Specifically, the range block 300A comprises a pair of attachment clips 311 and 312 positioned on the top and bottom sections of one of the vertical sides (e.g., 304). These clips 311-312 may be configured to secure a strap 313, thereby enabling the range block 300A to be carried on a user's shoulder. Additionally, the internal storage chamber 307, enclosed by the four sides, the cover 301, and the base, may further comprise one or more pockets or compartments 315 for the organized and separated storage of golf-related items 310 (e.g., golf balls).

The attachment clips 311 and 312 may be fixedly or removably coupled to the top and bottom sections of the vertical side 304. Clip 311 may be disposed proximate to the upper edge of the vertical side near the cover 301, while clip 312 may be located near the lower edge of the vertical side proximate to the base. These clips 311-312 may be constructed from materials such as metal alloys, polymers, or composites, providing durability to support the weight of the range block 300A and its contents. In some embodiments, the clips 311 and 312 may include locking mechanisms, such as spring-loaded latches or snap-fit connectors, to prevent unintentional detachment of the strap 313 during transport.

The strap 313, coupled to the clips 311 and 312, facilitates portability by allowing the range block 300A to be carried over the user's shoulder. The strap 313 may be adjustable in length, for example, by incorporating a sliding buckle, hook-and-loop fastener, or other adjustment mechanisms to accommodate different user preferences or body dimensions. The strap 313 may further include padding or ergonomic features to enhance comfort, particularly during extended periods of carrying. In some embodiments, the strap 313 may be constructed from flexible, high-strength materials such as nylon webbing, leather, or reinforced fabric to provide long-term reliability and resistance to wear.

The internal storage chamber 307 of the range block 300A is accessible through the cover 301, which is secured by a fastener mechanism 301A, such as a zipper. The storage chamber 307 is configured to hold golf items 310, including, but not limited to, golf balls, tees, alignment rods, and other small accessories. The cover 301, when opened, reveals the internal storage chamber 307 along with one or more integrated pockets or compartments 315, which facilitate the organized storage of items. The compartments 315 may be positioned within the storage chamber 307 or along the interior surface of the cover 301.

In one embodiment, the pockets or compartments 315 are constructed from materials such as mesh, fabric, or elastic bands to securely hold smaller items, such as tees, ball markers, or scorecards, while preventing them from mixing with larger items like golf balls. For example, the pocket 315 may include an elastic opening to hold items securely while allowing easy access. The inclusion of these compartments enhances the usability of the range block 300A by providing separate storage areas for different types of accessories, thereby minimizing the risk of disorganization during use or transport.

The cover 301 may further include additional storage features. For example, the inner surface of the cover 301 may be equipped with a mesh pocket or elastic straps to store frequently accessed items such as gloves or markers. In some embodiments, the compartments 315 may be detachable or repositionable, allowing the user to customize the internal layout of the storage chamber 307 based on their specific requirements. For example, dividers made from lightweight materials, such as plastic or fabric, may be included to create separate sections for various items.

The range block 300A may further be adapted for portability and utility during golf training. The strap 313 allows the range block 300A to be easily transported between practice locations, such as driving ranges, golf courses, or indoor training facilities. Once on-site, the range block 300A can be detached from the strap 313 and positioned upright, laid flat, or inclined at various angles to serve as a training aid. The compact and lightweight design of the range block 300A, combined with its shoulder-carrying capability, enhances its usability for golfers who require mobile and versatile training equipment.

In another embodiment, the attachment clips 311 and 312 may be configured to support alternative carrying methods. For example, the clips 311-312 may be positioned to accommodate dual straps, allowing the range block 300A to be carried as a backpack (e.g., as shown in FIG. 3C). Alternatively, the strap 313 may include quick-release mechanisms or modular connectors to enable its removal when not in use, so that the range block 300A retains a clean and streamlined appearance during training sessions.

The range block 300A, when used as a training aid, retains all the functionalities of the range block 300 discussed in FIG. 3A. For example, the block 300A can be positioned on a practice surface to guide swing paths, align the golfer's stance, or prevent improper club trajectories. The additional organizational features of the internal storage chamber 307 and compartments 315 facilitate that all necessary accessories are readily accessible during training, enhancing the overall practice experience.

Referring now to FIG. 3C, it illustrates an alternative embodiment of the range block 300A, featuring a configuration with two pairs of clips 311 and 312 positioned on both the top and bottom sections of the range block 300A. This configuration accommodates the attachment of two straps, a first strap 313 and a second strap 314, enabling the range block 300A to be carried on both shoulders. This dual-strap setup enhances the portability of the range block 300A by distributing its weight evenly across the user's shoulders, reducing strain and providing a hands-free carrying option.

The first pair of clips 311 and 312 is disposed to secure the first strap 313, while the second pair of clips 311 and 312 is positioned to attach the second strap 314. The placement of these clips is such that the straps 313-314 run parallel to each other, creating a stable and ergonomic backpack-style carrying mechanism. This design may be advantageous for golfers transporting a fully loaded range block 300A over longer distances, as it minimizes the physical burden and improves comfort during transit. The addition of the second strap 314 provides an alternative carrying configuration to the single-strap design illustrated in FIG. 3B. By employing two straps, the range block 300A can remain firmly positioned on the user's back, even during movement or uneven walking surfaces.

In some embodiments, the straps 313 and 314 may include adjustable length mechanisms to allow customization based on the user's preference or body dimensions. For example, the straps 313 and 314 may feature sliding buckles or Velcro adjustments for ease of modification. Additionally, the straps 313 and 314 may include padded sections to enhance comfort, particularly when the range block 300A is carried for extended periods. The materials used for the straps 313 and 314 may include durable fabrics, such as nylon or polyester, to withstand repeated use and environmental conditions.

This dual-strap configuration also improves the balance and stability of the range block 300A during transport. By anchoring the block 300A with two evenly spaced straps 313 and 314, the risk of it tilting or swaying is minimized, making it easier to carry while maintaining an upright posture. In scenarios where the range block 300A is carried over uneven terrain, this balanced design prevents discomfort and reduces the likelihood of the straps digging into the user's shoulders.

The two pairs of clips 311 and 312 may be constructed from high-strength materials, such as metal alloys or reinforced polymers, to provide secure attachment of the straps 313 and 314. The clips 311-312 may also include locking mechanisms, such as spring-loaded closures or snap-fit designs, to prevent accidental detachment during use. In one embodiment, the clips 311-312 may be rotatable or adjustable to accommodate different strap angles, allowing the user to further customize the fit and positioning of the range block 300A.

The range block 300A, as shown in this configuration, maintains all the functional features of its base design, including the internal storage chamber 307 and the cover 301. The internal storage chamber 307, accessed via the fastener mechanism 301A, provides ample space for storing golf items 310. Additionally, the chamber 307 or the cover 301 may include one or more pockets or compartments 315, allowing for organized storage of smaller items such as tees, ball markers, or scorecards.

Referring now to FIG. 4, an exemplary embodiment of a range block 400 equipped with an angle adjustment mechanism 401 is illustrated. The angle adjustment mechanism 401 is integrated into the base of the range block 400 to enable the modification of the block's tilt, thereby allowing the user to achieve various angles of inclination. This configuration is particularly suited for accommodating different training scenarios, user preferences, or surface conditions at the golf range. The range block 400 can be positioned in multiple configurations, including a first configuration 400A, a second configuration 400B, and a third configuration 400C, each corresponding to distinct angles of inclination 403A, 403B, and 403C relative to the surface 404.

In the first configuration 400A, the angle adjustment mechanism 401 is depicted in a closed position. In this state, a securing strap 402 is engaged, locking the accordion-style flaps 405 of the angle adjustment mechanism 401 in a compressed arrangement. The securing strap 402 may include a snap-in button locking mechanism comprising components 402A and 402B. These components securely fasten the strap 402 around the flaps 405, preventing them from unintended expansion. The range block 400 in this configuration (400A) maintains a default (first) angle of inclination 403A relative to the surface 404. This default angle may be pre-defined based on standard training practices, offering a stable and consistent starting point for alignment, swing path correction, or other training purposes.

The securing strap 402 may serve a dual purpose by not only compressing the flaps 405 but also maintaining the integrity of the angle adjustment mechanism 401 during transport or storage. For example, the strap 402 may include a reinforced material such as nylon or composite fibers to withstand repeated locking and unlocking cycles. The snap-in button functionality provided by components 402A and 402B allows the user to engage or disengage the strap 402 with minimal effort. In some embodiments, the strap 402 may also feature an adjustable length to accommodate minor variations in flap compression.

The accordion-style flaps 405 of the angle adjustment mechanism 401 may be designed to expand or compress in a controlled manner. Each flap may represent a specific incremental angle, allowing the user to adjust the tilt of the range block 400 with precision. In the closed position, as illustrated in configuration 400A, the flaps 405 are fully compressed, and the range block 400 is inclined at the default angle 403A. The flaps 405 may be constructed from lightweight yet durable materials such as fabrics, plastic composites, or flexible polymers, providing longevity and resistance to wear during repeated adjustments.

In the second configuration 400B, the securing strap 402 is disengaged, allowing some of the flaps 405 to expand. For example, partially expanded flaps, labeled as 401A, form a second angle of inclination 403B with the surface 404. This intermediate angle may be used for specific training exercises requiring a moderate tilt, such as practicing uphill or downhill shots. The expanded flaps 401A create a stable base for the range block 400, so that it remains upright and functional despite the altered angle. The transition from configuration 400A to 400B may be achieved by releasing the snap-in button mechanism (402A-402B) of the securing strap 402, enabling the flaps to unfold sequentially.

In some embodiments, the expanded flaps 401A may include angle markings or indicators to assist the user in selecting the desired configuration. For example, each flap may correspond to a specific angle, such as 15 degrees, 30 degrees, or 45 degrees. These markings provide a visual reference, allowing golfers to adjust the range block 400 according to their training needs. For example, a golfer practicing short chip shots may select a smaller angle like 403B, whereas practicing long irons may benefit from the default or first angle 403A or a steeper angle in configuration.

In the third configuration 400C, all the flaps 405 are fully expanded, as illustrated by expanded flaps labeled 401B. This fully extended state creates the third angle of inclination 403C with the surface 404. The third configuration 400C may be useful for simulating extreme terrain conditions, such as practicing shots on steep inclines. By fully expanding the flaps 405, the range block 400 achieves maximum tilt while maintaining stability. This configuration is also well-suited for golfers requiring a higher angle to align their stance or improve swing mechanics.

The accordion-style flaps 405, when fully expanded, interlock securely to prevent unintentional folding or instability. In one embodiment, the edges of the flaps 405 may include notches or grooves that fit into corresponding slots on adjacent flaps, creating a locked structure. This interlocking mechanism facilitates that the range block 400 remains stable during use, even at its steepest angle of inclination. Additionally, the flaps 405 may include textured or anti-slip surfaces to further enhance stability on uneven or slippery surfaces.

The ability to modify the angle of inclination using the adjustment mechanism 401 allows golfers to customize their training sessions based on various factors. For example, the angle may be adjusted to match the golfer's height, club length, or preferred stance. Additionally, the adjustable angles 403A, 403B, and 403C accommodate different surface characteristics at the golf range, such as flat, inclined, or uneven terrain. This versatility makes the range block 400 an adaptable training aid for golfers of all skill levels.

In some embodiments, the flaps 405 may include numerical or color-coded markings to facilitate quick angle adjustments. For example, a golfer may refer to a user guide indicating which flap corresponds to a specific angle, simplifying the adjustment process. This feature may particularly be beneficial in group training sessions or coaching environments, where multiple golfers may use the same range block 400 at different settings.

The modular design of the angle adjustment mechanism 401 also allows for customization and scalability. For example, additional flaps may be added to increase the range of available angles, or existing flaps may be replaced with alternative designs to suit specific training needs. In one embodiment, the angle adjustment mechanism 401 may include detachable components, allowing the user to configure the adjustment mechanism based on their preferences.

Referring now to FIG. 5, an alternative embodiment of a range block 500 is depicted, incorporating an angle adjustment mechanism 501 into its base for enabling customizable inclination. The angle adjustment mechanism 501 (zipper mechanism) may be structured to facilitate controlled modification of the range block's tilt through the integration of a zipper mechanism. The zipper mechanism 501 comprises a zipper slider 503 operatively engaged with a first zipper teeth line 502A, allowing for selective engagement with additional zipper teeth lines, including a second zipper teeth line 502B, a third zipper teeth line 502C, and a fourth zipper teeth line 502D. Positioned between these adjacent zipper teeth lines are accordion-style flaps (e.g., similar to 405 in FIG. 4), which are configured to expand or compress based on the movement of the zipper slider 503. This mechanism 501 enables users to achieve a range of inclination angles by collapsing or expanding specific sections of the flaps, thereby tailoring the range block 500's position to suit various training scenarios.

In the first configuration 500A, all accordion-style flaps within the angle adjustment mechanism 501 remain fully expanded. This configuration may be achieved by maintaining the zipper slider 503 along the first zipper teeth line 502A without engaging with subsequent zipper teeth lines (502B-502D). The fully expanded flaps provide a broader base and create the lowest angle of inclination, denoted as angle A′, between the range block 500 and the ground surface. This configuration may be advantageous for flat-surface training scenarios where minimal tilt is desired, such as during alignment drills or stance correction exercises.

In the second configuration 500B, the zipper slider 503 is transitioned from the first zipper teeth line 502A to engage with the second zipper teeth line 502B. This engagement collapses the accordion-style flaps positioned between the first zipper teeth line 502A and the second zipper teeth line 502B while retaining the expansion of the flaps positioned below the second zipper teeth line 502B. This partial collapse results in a steeper angle of inclination, denoted as angle B′, which is suitable for practicing shots on moderate inclines, such as uphill or semi-elevated strokes. By reducing the number of expanded flaps, the mechanism provides a more compact base while maintaining sufficient structural support for training applications.

In the third configuration 500C, the zipper slider 503 is moved further along the first zipper teeth line 502A to engage with the fourth zipper teeth line 502D. This adjustment causes the complete collapse of all accordion-style flaps located between the first zipper teeth line 502A and the fourth zipper teeth line 502D. The fully collapsed state minimizes the base area of the range block 500 and results in the steepest angle of inclination, denoted as angle C′. This configuration is ideal for advanced training scenarios requiring a pronounced tilt, such as simulating downhill shots or angled approaches. The compressed flaps are securely locked in position by the zipper mechanism (501), preventing unintended movement during practice sessions.

The accordion-style flaps may be constructed from flexible yet durable materials, such as reinforced polymers or fabric composites, enabling them to withstand repeated folding and unfolding without degradation. Each flap may include structural reinforcements, such as interlocking edges or embedded supports, to maintain its integrity and alignment during use. In some embodiments, the flaps may be marked with angle indicators, allowing users to quickly and accurately set the desired inclination based on their specific training needs. These indicators may include numerical values or graphical representations corresponding to particular angles of inclination.

The zipper slider 503, as part of the angle adjustment mechanism 501, may be designed for smooth and secure operation. Constructed from high-strength materials such as metal alloys or reinforced plastics, the slider 503 may include ergonomic enhancements, such as textured grips or a locking feature, to facilitate ease of use. The zipper teeth lines 502A, 502B, 502C, and 502D may be aligned in parallel along the base of the range block 500, providing consistent engagement and disengagement of the slider 503 across various configurations.

The angle adjustment mechanism 501 may not be limited to the four zipper teeth lines (502A-502D) shown. Alternative embodiments may include fewer or additional zipper teeth lines, depending on the desired range of inclination angles. For example, an embodiment with six zipper teeth lines may provide finer gradations for more precise adjustments, while a simplified version with two zipper teeth lines may cater to beginners or basic training applications.

The modular design of the accordion-style flaps and zipper mechanism enhances the versatility and functionality of the range block 500. In some embodiments, the flaps may be removable or interchangeable, allowing users to customize the mechanism for specific requirements. For example, flaps with padded surfaces or increased grip may be used for outdoor applications, while lightweight flaps may be preferred for portable configurations. The flaps may also incorporate weather-resistant coatings to prevent damage from environmental exposure.

The ability to adjust the angle of inclination through the angle adjustment mechanism 501 significantly expands the utility of the range block 500. Different configurations—500A, 500B, and 500C—allow users to tailor the range block's tilt to match various training objectives, including swing path correction, stance alignment, and trajectory optimization. By simulating real-world conditions, such as uphill or downhill slopes, the range block 500 enhances the effectiveness and realism of practice sessions.

The zipper-based mechanism further simplifies the adjustment process, allowing users to transition between configurations quickly and securely. The accordion-style flaps, in combination with the zipper teeth lines 502A-502D, provide a robust and adaptable solution for inclination control. The compact design of the collapsed configurations also facilitates easy transport and storage, making the range block 500 a convenient tool for golfers who practice in multiple locations.

Referring now to FIG. 6, the figure depicts an exemplary configuration and application of range blocks 600A and 600B, demonstrating the use of angle adjustment mechanisms integrated into the base of each range block 600A-600B and the optional incorporation of weighted pads or inserts 607 for stabilization. A golfer 601 is shown utilizing the range blocks 600A and 600B for training purposes, illustrating their practical deployment on a golf range surface. The range blocks 600A and 600B are inclined at angles A′ and B′, respectively, relative to the golf range surface. These angles of inclination may be achieved through the selective expansion or compression of the angle adjustment mechanisms integrated into the base of the range blocks 600A-600B, as represented in earlier embodiments (e.g., angle adjustment mechanisms 401 and 501).

The angle adjustment mechanisms of the range blocks 600A and 600B allow the golfer 601 to modify the inclination of each block based on specific training requirements. The golfer 601 may adjust the mechanism by collapsing or expanding the accordion-style flaps within the mechanism. For example, the range block 600A may be at a lesser angle of inclination A′, demonstrates a partially compressed adjustment mechanism, while the range block 600B, may be inclined at a steeper angle B′, demonstrates a more fully expanded adjustment mechanism. These variations in inclination can be employed to create different training scenarios, such as replicating flat or sloped surfaces to practice swing paths, ball trajectories, or impact mechanics.

The angles of inclination A′ and B′ may also be tailored to the physical attributes of the golfer 601, including the golfer's height 602. A taller golfer may prefer range blocks set at greater inclinations to match their swing plane, whereas a shorter golfer may benefit from lesser inclinations. Additionally, the angle adjustments may also depend on the length 604 of the golf club 603 used during practice. For example, a longer club may necessitate a steeper inclination (e.g., B′) for consistent alignment with the ball, while a shorter club may be better suited to a lower inclination (e.g., A′).

The angle adjustment mechanisms may further influence the height 605 of the range blocks. For example, in the configuration of range block 600B, the expanded accordion-style flaps not only adjust the angle of inclination B′ but also increase the effective height 605 of the range block 600B. This increased height may provide additional visual or physical cues during training, assisting the golfer in maintaining a consistent stance or swing path. The height adjustment capability also makes the range blocks 600A-600B adaptable for various training environments and objectives.

In some embodiments, the base of each range block 600A-600B may be equipped with one or more weight pads or inserts 607 to enhance stability. These weight pads 607 may be configured to fit into dedicated compartments within the base sections (606A-606B) of the range blocks 600A and 600B. The weight pads or inserts 607 may be constructed from materials such as sand-filled pouches, metal plates, or rubberized compounds to provide sufficient mass for stabilizing the range blocks 600A-600B on uneven or slippery surfaces. The inclusion of such weights reduces the likelihood of the range blocks 600A-600B shifting or tipping during use, particularly on outdoor golf range surfaces where ground conditions may vary.

The weighted pads or inserts 607 may also be removable or replaceable, allowing users to customize the stability of the range blocks 600A-600B based on specific conditions. For example, heavier inserts may be used during outdoor practice sessions on uneven terrain, while lighter inserts may be preferable for indoor use on flat mats. The modular design of the weight pads 607 further enhances the versatility of the range blocks 600A-600B, making them suitable for a wide range of training scenarios.

The ability to adjust the angle of inclination and the height of the range blocks 600A-600B through the angle adjustment mechanisms, combined with the option to incorporate weighted pads 607, provides significant flexibility for golfers. These features enable the creation of realistic practice conditions, simulating various on-course scenarios, such as uphill or downhill lies, or shots from uneven stances. The range blocks 600A and 600B thus function as both physical guides and stabilizing elements, enhancing the golfer's training experience.

In some embodiments, the angle adjustment mechanisms may include visual indicators or markings to denote specific angles of inclination. These indicators may assist the golfer 601 in setting consistent inclinations across multiple practice sessions, enabling more precise repetition and improvement of technique. For example, a golfer practicing wedge shots may use a steeper inclination (e.g., B′), while practicing with a driver may require a flatter inclination (e.g., A′).

The integration of angle adjustment mechanisms and weighted stabilization features makes the range blocks 600A-600B adaptable for both beginner and advanced golfers. Beginners may use lower inclinations to focus on stance and alignment, while advanced players may utilize steeper inclinations to refine swing mechanics and ball trajectories. The modular nature of the range blocks 600A-600B, with adjustable heights, inclinations, and weights, further enhances their utility across different skill levels and training environments.

The weighted pads or inserts 607 may also serve an additional function as portable ballast for other training equipment. For example, the inserts 607 may be removed from the range blocks 600A-600B and placed on alignment rods or mats to stabilize these accessories during windy conditions. This dual functionality reduces the need for carrying separate stabilizing equipment, streamlining the golfer's training setup.

In some embodiments, the multi-purpose golf training device comprises an angle adjustment mechanism integrated into the bottom section, configured to modify the angle of inclination of the device relative to the surface. This mechanism enables the golfer to customize the tilt of the device based on specific training requirements or environmental conditions. The angle adjustment mechanism facilitates the positioning of the device at various angles, providing versatility in simulating different shot scenarios and terrain conditions encountered on a golf course.

In certain embodiments, the angle adjustment mechanism comprises accordion-style flaps positioned within the bottom section. These flaps are designed to expand or compress, altering the angle of inclination of the upright structure of the multi-purpose golf training device. The accordion-style configuration provides a controlled and precise mechanism for adjusting the device's angle while maintaining stability and structural integrity. For example, the flaps may be constructed from durable, flexible materials such as polymer composites, which allow repeated expansion and compression without degradation.

In further embodiments, the angle adjustment mechanism incorporates a zipper mechanism for expanding or compressing the accordion-style flaps. A zipper slider is positioned along a first zipper teeth line, and the mechanism comprises multiple zipper teeth lines spaced apart within the bottom section. By engaging the zipper slider with different zipper teeth lines, the golfer can selectively expand or compress the flaps, thereby adjusting the angle of inclination of the device. For example, engaging the slider with a subsequent zipper teeth line compresses the flaps between the engaged lines, creating a steeper angle. Conversely, disengaging the slider allows the flaps to expand, reducing the angle of inclination.

The accordion-style flaps within the angle adjustment mechanism may include visual markers that represent specific angles of inclination. These markers, such as printed angle measurements or color-coded indicators, assist the golfer in selecting the desired angle for their practice session. For example, a golfer practicing a chip shot may expand the flaps to align with a marker indicating a steeper angle, while a flatter angle may be selected for putting practice. These visual markers enhance the functionality of the mechanism by providing intuitive guidance for the golfer.

In some embodiments, the angle adjustment mechanism comprises a plurality of zipper teeth lines integrated within the bottom section. The zipper slider on the first zipper teeth line is configured to selectively engage with any of the subsequent zipper teeth lines. This configuration provides a range of adjustable angles, enabling the golfer to fine-tune the device's inclination based on specific needs. For example, the mechanism may include four zipper teeth lines, where engaging the first line with the second line creates a shallow angle, while engaging the first line with the fourth line creates a steeper inclination.

The multi-purpose golf training device with the angle adjustment mechanism allows for seamless transitions between different angles of inclination. For example, a golfer practicing on uneven ground may adjust the angle to stabilize the device, facilitating effective practice regardless of terrain. Additionally, the accordion-style flaps and zipper mechanism are designed to maintain their structural integrity during repeated adjustments, offering durability and long-term usability.

Referring now to FIGS. 7A-7B, these figures illustrate alternative applications of range blocks 700A and 700B during golf training exercises in some embodiments of the present invention. A golfer 701 is shown employing the range blocks 700A and 700B as tools for practicing various shots and improving swing mechanics. These range blocks 700A-700B may be strategically positioned on the golf range to serve as physical and visual references for enhancing the golfer's alignment, swing path, and impact accuracy. The golfer 701 is depicted using a golf club 705 to strike a golf ball 710, which is placed between the range blocks 700A and 700B. The positioning of the range blocks 700A-700B creates a defined corridor, aiding the golfer 701 in practicing precise shots while simultaneously providing immediate visual and physical feedback in case of deviations.

In FIG. 7A, the range blocks 700A and 700B are positioned upright and parallel to the intended target line, forming a narrow channel for the golf ball 710. This configuration allows the golfer 701 to focus on maintaining a consistent swing path, so that the clubface of the golf club 705 approaches the ball 710 cleanly without contacting the blocks 700A-700B. The parallel arrangement helps the golfer 701 practice straight shots, such as drives or long irons, by eliminating extraneous movements that may result in an off-line trajectory. For example, if the golfer 701 inadvertently swings in an out-to-in or in-to-out path, the clubhead may strike one of the range blocks (e.g., 700A or 700B), providing instant feedback on the error.

In FIG. 7B, an alternative scenario is depicted where the golf club 705 strikes the range block 700B at an impact point 711 during the swing. This unintentional contact serves as an immediate indication to the golfer 701 of a flaw in their swing mechanics, such as an overly steep or shallow angle of attack or an incorrect clubface alignment. By analyzing the impact location 711 and adjusting their stance, grip, or swing path, the golfer 701 can make real-time corrections to refine their technique. This visual and physical feedback mechanism makes the range blocks 700A-700B invaluable tools for self-guided practice, allowing golfers to identify and address specific issues without requiring constant supervision from a coach.

The range blocks 700A and 700B can be repositioned in various ways around the golf ball 710 to accommodate different types of shots and training objectives. For example, the blocks 700A-700B may be angled inward to simulate narrow approaches or hazards, forcing the golfer to execute more controlled swings. Alternatively, the blocks 700A-700B may be placed closer to the ball 710 to emphasize precision and minimize extraneous motion during chip shots or bunker play. For practicing fades or draws, the blocks 700A-700B can be arranged asymmetrically, encouraging the golfer 701 to adjust their swing path and clubface orientation to achieve the desired ball flight.

In addition to placement variations, the range blocks 700A and 700B may be employed to practice a wide range of shots, including but not limited to full swings, pitch shots, chip shots, and putting strokes. For example, during pitching drills, the blocks 700A-700B may be set at varying distances to provide visual targets for trajectory control. In putting practice, the blocks 700A-700B can be used to create a straight alignment line, helping the golfer 701 maintain a consistent putting stroke and improve accuracy on the greens. The modular design of the range blocks 700A-700B allows them to be adapted to virtually any aspect of the golfer's training regimen.

The feedback provided by the range blocks 700A-700B extends beyond simple impact detection. For example, the trajectory of the ball 710 after it is struck can also be analyzed in relation to the position of the blocks 700A-700B. If the ball 710 veers off-target, it may indicate that the golfer's setup, grip, or swing mechanics need to be adjusted. Conversely, a clean strike resulting in a straight or intended ball flight reinforces proper technique, giving the golfer 701 positive reinforcement during practice.

In some embodiments, the range blocks 700A and 700B may include additional features, such as angle markers or alignment guides, to further enhance their utility during training sessions. These markers may be printed or embedded on the surface of the blocks 700A-700B, providing visual cues for proper stance, ball position, or club alignment. For example, a golfer practicing a draw shot may align the blocks 700A-700B at an inward angle to guide their swing path, while a fade shot may require outwardly angled blocks.

The material construction of the range blocks 700A-700B also plays a significant role in their effectiveness as training aids. For example, the blocks 700A-700B may be made from lightweight yet durable materials that can withstand repeated impacts from the club 705 without causing damage to the clubhead or the blocks themselves. Additionally, the blocks 700A-700B may be coated with non-slip or textured surfaces to maintain their position on the golf range, even on uneven or slippery ground.

The range blocks' adaptability makes them suitable for golfers of all skill levels, from beginners learning the fundamentals to advanced players refining specific aspects of their game. Beginners can use the blocks 700A-700B to develop a consistent swing path and avoid common errors, while advanced players can employ them to practice more complex techniques, such as shaping shots or executing specialty shots under simulated course conditions.

Referring now to FIG. 8, the figure illustrates an exemplary arrangement of range blocks 800A and 800B deployed for swing path guidance and alignment during a golf training session, as utilized by a golfer 801. The golfer 801 is shown performing a golf swing 807 using a golf club 805, with the swing being guided and analyzed in relation to the placement of the range blocks 800A and 800B. A golf ball 810 is positioned centrally between the range blocks 800A-800B, demonstrating how the blocks 800A-800B function as spatial markers to define the intended swing path, shot alignment, and club trajectory. This setup exemplifies how the range blocks 800A and 800B may assist the golfer 801 in developing and refining their swing mechanics through repeated practice and real-time feedback.

The range blocks 800A and 800B may be positioned in close proximity to the golf ball 810, forming a defined corridor or boundary that the golfer's club 805 is intended to travel through during the swing. The range blocks 800A-800B may be aligned in a straight line 802A relative to the golf ball 810, which represents a default configuration for practicing straight shots, such as drives or long iron shots. This linear arrangement aids in maintaining a consistent swing path and clubface alignment, reducing the likelihood of unintended ball flight deviations such as hooks or slices. The golfer 801, by observing the position of the blocks 800A-800B, may be provided with visual guidance to keep the clubhead within the defined corridor throughout the swing.

Alternatively, the range blocks 800A and 800B may be positioned in a displaced or angled configuration 802B relative to the golf ball 810. This variation allows the golfer 801 to simulate different shot shapes, such as fades or draws, by adjusting the alignment of the blocks 800A-800B to create a specific swing path angle. For example, the range blocks 800A-800B may be angled inward to promote a right-to-left ball flight (draw) or outward to promote a left-to-right ball flight (fade). This flexibility in placement enables the golfer 801 to practice a wide range of shot types and trajectories, thereby enhancing their adaptability and shot-making skills.

The range blocks 800A and 800B may also be inclined at adjustable angles relative to the golf range surface, allowing the golfer 801 to simulate on-course conditions such as uneven lies or sloped terrains. For example, the blocks 800A-800B may be tilted forward or backward to reflect uphill or downhill lies, providing the golfer 801 with a more realistic training environment. This adjustment can be achieved using integrated angle adjustment mechanisms, as described in previous embodiments, which allow fine-tuning of the block inclinations to meet specific training objectives.

The golf swing 807 depicted in FIG. 8 demonstrates how the range blocks 800A-800B provide real-time feedback to the golfer 801. If the golfer's swing path deviates from the intended alignment, the club head may contact one of the blocks (e.g., 800A or 800B), providing immediate physical feedback regarding the error. Such contact may indicate an over-the-top swing, a shallow angle of attack, or an improper clubface orientation, prompting the golfer 801 to adjust their mechanics accordingly. The instant feedback offered by the blocks 800A-800B enables the golfer 801 to identify and correct swing flaws during the practice session itself, thereby accelerating the learning process.

In some embodiments, the range blocks 800A and 800B may include visual markers, such as alignment lines, angle indicators, or target zones, to further enhance their utility. These markers may assist the golfer 801 in setting up consistent positions for the golf ball 810, stance, and club alignment. For example, alignment lines on the blocks 800A-800B may be used to visually extend the intended target line, helping the golfer 801 position their body and clubface parallel to the desired shot trajectory.

The modularity of the range blocks 800A and 800B allows them to be used individually or in combination, depending on the specific training scenario. A single block may be placed behind the golf ball 810 to guide takeaway alignment, while two or more blocks may be positioned around the ball 810 to define both the backswing and downswing paths. This adaptability makes the range blocks suitable for practicing various aspects of the golf swing, including takeaway, impact, and follow-through positions.

In addition to swing path guidance, the range blocks 800A and 800B may be used to train specific ball-striking techniques. For example, the golfer 801 may position the blocks 800A-800B to encourage a descending blow for iron shots or a sweeping motion for fairway woods. By adjusting the spacing and alignment of the blocks 800A-800B, the golfer 801 can practice precise ball contact and develop a more consistent strike pattern.

The range blocks 800A-800B may also be employed to simulate on-course challenges, such as hitting through narrow gaps or avoiding obstacles. For example, the blocks 800A-800B may be positioned at varying distances and angles to replicate tree-lined fairways, bunkers, or water hazards, requiring the golfer 801 to execute controlled and accurate shots. This versatility makes the range blocks 800A-800B valuable training tools for developing course management skills in addition to swing mechanics.

Referring now to FIGS. 9A-9B, the figures illustrate an exemplary embodiment of a range block 900 equipped with a height adjustment mechanism 902, allowing for customizable height configurations as per user requirements. The height adjustment mechanism 902 may be implemented using a zipper 903, which is disposed circumferentially around the vertical sides of the range block 900. The mechanism 902 may be designed to alter the height of the range block 900 by engaging or disengaging the zipper 903 and expanding or compressing an integrated flap 904 located within the height adjustment mechanism 902.

In the configuration shown in FIG. 9A, the height adjustment mechanism 902 is in a closed position, where the zipper 903 is fully engaged. The upper zipper teeth line 902A and the lower zipper teeth line 902B are securely fastened together, resulting in the range block 900 having a first height 901A. This closed configuration maintains the compact form of the range block 900 and may be suitable for scenarios where a standard height is adequate for training purposes.

FIG. 9B illustrates the range block 900 in an expanded configuration, achieved by disengaging the zipper 903. When the zipper 903 is disengaged, the upper zipper teeth line 902A and the lower zipper teeth line 902B separate, allowing the integrated flap 904 within the height adjustment mechanism 902 to expand. The flap 904 bridges the gap between the separated zipper teeth lines 902A-902B, increasing the height of the range block 900 to a second height 901B. This expanded configuration may be advantageous for training scenarios requiring a taller range block, such as for users with greater stature or for exercises involving higher swing paths.

The flap 904, located within the height adjustment mechanism 902, may be designed to maintain the structural integrity of the range block 900 during height adjustment. The flap 904 may be constructed from durable and flexible materials such as reinforced fabric, polymer composites, or accordion-style segments. In some embodiments, the flap 904 may comprise a series of smaller accordion-style flaps, allowing for incremental expansion. Each accordion-style segment aligns seamlessly with the vertical sides of the range block 900, preserving its geometric uniformity and upright stability during use.

The height adjustment mechanism 902 may be strategically positioned at the midpoint (from top to bottom section) of the range block 900 or at any other suitable location between the top and bottom sections, depending on design preferences or user requirements. For example, a centrally positioned height adjustment mechanism 902 may allow for symmetrical expansion, whereas an offset mechanism may provide an asymmetrical height increase, which may be beneficial for certain training configurations.

The height adjustment functionality provided by the mechanism 902 enhances the versatility of the range block 900. For example, a golfer may utilize the range block 900 at its first height 901A for putting drills, where a lower block height is sufficient to define the swing path and alignment. Conversely, the expanded height 901B may be preferred for full-swing training, where a taller block provides additional visual guidance and physical boundaries for swing correction.

The zipper 903 within the height adjustment mechanism 902 facilitates secure and user-friendly operation. The zipper 903 may be equipped with a locking slider to prevent unintentional disengagement during use. In some embodiments, the zipper teeth lines 902A and 902B may include additional reinforcement, such as polymer or metal inserts, to withstand repeated engagement and disengagement cycles without deformation or wear.

The flap 904, when expanded, integrates seamlessly with the vertical sides of the range block 900, maintaining a uniform appearance and preventing gaps that may compromise stability or aesthetics. The material of the flap 904 may be selected to resist stretching, tearing, or other forms of degradation over time, providing reliable performance across extended usage.

In scenarios where precise height customization is required, the flap 904 may include markings or indicators corresponding to different expansion levels. These markings may allow users to adjust the height of the range block 900 to predefined increments, such as 1-inch or 2-inch intervals, providing precise control over the block's configuration.

The height adjustment mechanism 902 may not be limited to the use of zippers. In alternative embodiments, other fastening mechanisms such as hook-and-loop fasteners, magnetic strips, or snap-fit connectors may be employed to achieve similar height adjustment functionality. These variations provide additional flexibility in the design and usability of the range block 900, catering to diverse user preferences and training scenarios.

The expanded height 901B of the range block 900 may also influence its applications in golf training. For example, a taller range block may serve as a visual and physical guide for high ball trajectories, such as when practicing lofted wedge shots or bunker escapes. The increased height may also assist in swing plane correction, encouraging the golfer to maintain a consistent angle of attack throughout the swing.

In certain embodiments, the height adjustment mechanism 902 may be combined with other features, such as angle adjustment mechanisms or integrated storage compartments, to further enhance the functionality of the range block 900. For example, a range block with both height and angle adjustment capabilities can simulate a wide range of on-course conditions, such as uphill or downhill lies, providing a comprehensive training solution.

The adaptability offered by the height adjustment mechanism 902 makes the range block 900 suitable for users of varying skill levels and physical attributes. Beginners may benefit from the default height 901A for basic alignment and swing path drills, while advanced golfers may prefer the expanded height 901B for more complex training scenarios.

Referring now to FIG. 10, the figure illustrates an exemplary configuration where two range blocks 1000A and 1000B can be joined together to form an elongated range block 1000C. This configuration enhances the functionality of the range blocks by creating an extended single structure that may be used in various training applications, such as swing path alignment, long-shot trajectory control, and advanced golf drills requiring a larger physical guide. The range block 1000A comprises a bottom section 1001A, while the range block 1000B includes a corresponding bottom section 1001B. The bottom sections 1001A and 1001B may specifically be configured to facilitate secure attachment, allowing the two range blocks 1000A-1000B to form a single cohesive structure 1000C.

In one embodiment, the bottom sections 1001A and 1001B may include magnetic surfaces that align and attach seamlessly when brought into proximity. These magnetic surfaces may be designed with sufficient strength to prevent accidental detachment during use while maintaining ease of disassembly for transport or reconfiguration. For example, the magnets may be embedded within the material of the bottom sections 1001A and 1001B and coated with a protective layer to prevent wear or environmental damage. The alignment of the magnetic poles provides a precise and stable connection, allowing the elongated range block 1000C to maintain structural integrity during repeated impacts or adjustments.

In alternative embodiments, other joining mechanisms may be employed in place of or in addition to magnetic surfaces. For example, the bottom sections 1001A and 1001B may comprise mechanical fasteners such as snap-fit connectors, hooks and loops, or threaded couplings. Snap-fit connectors may include interlocking tabs and slots that provide a secure yet detachable connection, while hooks and loops offer a simple and flexible solution for aligning and attaching the two range blocks 1000A-1000B. Threaded couplings, on the other hand, enable a more robust and adjustable connection by allowing the user to screw the bottom sections together to achieve the desired level of tightness.

In some embodiments, the joining mechanism may involve the use of an intermediate connector or bridging component. For example, a coupling plate or band may be positioned between the bottom sections 1001A and 1001B to facilitate attachment. The coupling plate may include grooves or channels that engage with corresponding features on the bottom sections, creating a secure connection while distributing the load evenly across the joined structure. This approach may provide additional stability and may be particularly beneficial for applications involving high-impact training drills.

Once the two range blocks 1000A and 1000B are joined, the newly formed elongated range block 1000C incorporates a single bottom section that combines the functional attributes of the individual bottom sections 1001A and 1001B. The newly formed bottom section may be weighted to enhance the stability of the elongated range block 1000C on various golf range surfaces, such as grass, artificial turf, or uneven terrain. The weighting may be achieved by incorporating weight pads, metal inserts, or sand-filled compartments within the bottom section. These weights are strategically positioned to lower the center of gravity of the elongated range block 1000C, reducing the likelihood of tipping or displacement during use.

In embodiments where weight pads are employed, the pads may be removable or adjustable, allowing the user to customize the stability of the elongated range block 1000C based on specific training requirements. For example, heavier weight pads may be inserted for outdoor practice in windy conditions, while lighter pads may be used for indoor sessions where stability requirements are less stringent. The weight pads may be secured within dedicated compartments or pockets within the bottom section, preventing movement or shifting during transport or use.

The elongated range block 1000C, formed by the connection of range blocks 1000A and 1000B, offers significant advantages in terms of versatility and adaptability. For example, the extended length of the range block 1000C may be used to create a continuous guide for swing path alignment, allowing golfers to visualize and practice the ideal trajectory of their clubhead from backswing to follow-through. Additionally, the elongated structure may serve as a barrier or obstacle for advanced drills, encouraging the golfer to maintain precise control over their swing plane and angle of attack.

In some embodiments, the elongated range block 1000C may include visual alignment aids such as printed lines, grids, or angle markers along its extended length. These aids provide additional feedback and guidance to the golfer, enabling more accurate alignment and positioning during training exercises. For example, a golfer may align their stance parallel to the printed lines on the elongated range block 1000C to practice consistent shot setup and body alignment.

The configuration illustrated in FIG. 10 also allows for modularity and reusability of the individual range blocks 1000A and 1000B. When not in use as an elongated structure, the range blocks 1000A-1000B may be disassembled and used independently, offering flexibility in their application. This modular design may be advantageous for golfers who practice in multiple locations or require different training setups for various drills.

The joining mechanism between the range blocks 1000A and 1000B may also include locking features to prevent unintended separation during use. For example, magnetic locks, spring-loaded latches, or twist-lock mechanisms may be incorporated into the design to enhance the security of the connection. These features facilitate that the elongated range block 1000C remains stable and functional even during high-intensity training sessions.

In another embodiment, the elongated range block 1000C may include a hinge mechanism at the junction of the two range blocks 1000A and 1000B. The hinge allows the elongated range block 1000C to pivot or fold for compact storage and transport. For example, the hinge may include a locking mechanism that secures the range blocks 1000A-1000B in their extended position during use and allows for easy folding when the training session is complete.

Referring now to FIG. 11, an exemplary golf training system 1100 is illustrated, which employs range blocks 1101 and 1102 equipped with integrated cameras 1101A and 1102A and impact sensors 1101B and 1102B. The system 1100 may be configured to provide real-time feedback to a golfer 1111, enhancing the precision and effectiveness of golf training exercises. The range blocks 1101 and 1102 may be strategically positioned on either side of a golf ball 1110 during a training session, allowing the golfer 1111 to execute swings with a golf club 1105 while benefiting from comprehensive visual and sensor-based analysis.

In one embodiment, each of the range blocks 1101 and 1102 comprises one or more cameras, such as cameras 1101A and 1102A, positioned along their vertical sides. These cameras 1101A-1102A may be capable of capturing high-definition video feeds of various aspects of the golfer's swing mechanics and ball impact. For example, the cameras 1101A and 1102A may capture the golfer's grip on the golf club 1105, including the position and alignment of the hands relative to the club 1105. This data can be utilized to identify grip inconsistencies, which are a common cause of off-target shots or poor ball control.

Additionally, the cameras 1101A and 1102A may monitor the swing path of the golf club 1105 as it moves through the space between the range blocks 1101 and 1102. By analyzing the trajectory and angle of the swing path, the system 1100 can determine whether the golfer 1111 is maintaining a straight and consistent path or deviating into undesirable in-to-out or out-to-in patterns. This information may be useful for improving swing mechanics and achieving better ball-striking accuracy.

Furthermore, the cameras 1101A and 1102A may be configured to capture the precise moment when the clubface of the golf club 1105 strikes the golf ball 1110. This data may include details such as the point of contact on the ball 1110 and the orientation of the clubface at the time of impact. For example, if the clubface is open or closed relative to the target line, the system 1100 can detect these deviations and provide feedback to the golfer 1111 for corrective action. This feedback may help the golfer 1111 adjust their setup or swing to achieve square contact with the ball 1110, resulting in straighter and more controlled shots.

The cameras 1101A and 1102A may also monitor whether the clubface of the golf club 1105 strikes the golf ball 1110 at all or misses entirely. For example, during a practice session, the system 1100 can record the number of successful strikes versus missed attempts, providing a quantitative measure of the golfer's performance. Such data may be invaluable for tracking progress over time and identifying specific areas that require improvement.

In some embodiments, the range blocks 1101 and 1102 may include cameras positioned on all vertical sides to provide a 360-degree view of the golfer's swing and ball interaction. This comprehensive coverage may enable the system 1100 to analyze aspects such as the golfer's posture, weight distribution, and follow-through mechanics. For example, if the golfer's posture is misaligned or their weight shifts incorrectly during the swing, the system 1100 can identify these issues and relay corrective suggestions.

The cameras 1101A and 1102A may also be used to analyze the motion of the golf ball 1110 after impact, such as its initial launch angle, spin rate, and trajectory. This data may provide insights into the quality of the shot and the effectiveness of the golfer's swing. For example, a low launch angle or excessive spin may indicate issues with the golfer's angle of attack or swing speed, which the system 1100 can address through feedback.

The video feeds captured by the cameras 1101A and 1102A may be transmitted to a processor or artificial intelligence (AI) engine integrated into the system 1100. The AI engine analyzes the video data to detect patterns, irregularities, and areas of improvement in the golfer's technique. For example, the AI engine may identify repeated patterns of mishits, such as striking the ball 1110 too close to the heel or toe of the club face and provide tailored suggestions to correct these issues.

In practical applications, the range blocks 1101 and 1102 may be positioned in various configurations around the golf ball 1110 to target specific training goals. For example, the blocks 1101-1102 may be placed parallel to the intended target line to guide the swing path or at an angle to simulate specific shot shapes, such as draws or fades. The cameras 1101A and 1102A capture these setups and provide visual feedback to the golfer 1111, helping them understand how their setup and swing affect the ball's flight.

The integration of cameras 1101A-1102A into the range blocks 1101 and 1102 also enables real-time feedback during practice sessions. For example, if the golfer 1111 slices or hooks the ball 1110 due to improper swing mechanics, the system 1100 can immediately alert them through visual or audio feedback, allowing them to make adjustments in subsequent swings.

The captured video data may also be stored for post-session analysis. For example, the golfer 1111 can review their swings frame by frame to identify specific moments where their technique deviated from the ideal form. This capability may particularly be beneficial for advanced players seeking to refine their skills or for coaches working with students to develop consistent and effective techniques.

In another embodiment, the cameras 1101A and 1102A may include additional features such as slow-motion recording, zoom capabilities, or motion tracking. These features enhance the system's ability to capture detailed data on the golfer's swing mechanics and ball interaction. For example, slow-motion recording allows the golfer 1111 to observe the precise moment of impact, while zoom capabilities provide a closer view of grip and posture details.

The system 1100 may be designed to be versatile and adaptable, accommodating golfers of all skill levels. Beginners can use the visual feedback from the cameras 1101A and 1102A to learn basic swing mechanics and ball-striking techniques, while advanced players can use the system to fine-tune specific aspects of their game, such as trajectory control or shot shaping.

The cameras 1101A and 1102A may not be limited to use with standard golf balls and clubs. In some embodiments, the system 1100 may be used with training aids such as foam balls, alignment rods, or weighted clubs, allowing the golfer 1111 to practice in a variety of settings and conditions. For example, the range blocks 1101 and 1102 may be used indoors with foam balls to analyze swing mechanics without the need for a full driving range.

The durability and portability of the range blocks 1101 and 1102 make the system 1100 suitable for use in various environments, including indoor practice facilities, outdoor driving ranges, and home setups. The cameras 1101A and 1102A may be protected by durable housings to withstand impacts and environmental conditions, facilitating reliable performance across multiple practice sessions.

In some embodiments, impact sensors 1101B and 1102B may be strategically positioned on one or more vertical sides of the range blocks 1101 and 1102, respectively, between the top section and the bottom section of the range blocks 1101-1102. The placement of the impact sensors 1101B and 1102B along the vertical sides allows them to detect any physical contact or impact caused by the golf club 1105 during a practice session. For example, if the golfer 1111 inadvertently misses the golf ball 1110 and instead strikes one of the range blocks 1101-1102, the impact sensors 1101B and 1102B register the occurrence and the intensity of the hit. This feedback may particularly be valuable as it helps the golfer 1111 identify inconsistencies or errors in their swing path and make necessary adjustments to improve precision and technique.

The range blocks 1101 and 1102 may further comprise a printed circuit board (PCB) 1104 integrated within the bottom sections (1103A-1103B) of the range blocks (1101-1102). The PCB 1104 may be electrically or wirelessly connected to the cameras 1101A and 1102A and the impact sensors 1101B and 1102B. This integration facilitates seamless communication and data exchange between the various components, enabling the system 1100 to capture, process, and transmit information efficiently. The placement of the PCB 1104 in the bottom sections 1103A-1103B facilitates that it remains securely housed and protected from potential physical damage during training activities.

The PCB 1104 may comprise various functional circuitry, including but not limited to a processor, a controller, an artificial intelligence (AI) engine, and a communication module. The processor may execute data-processing tasks, such as analyzing signals received from the impact sensors 1101B and 1102B and interpreting visual data from the cameras 1101A and 1102A. The controller may manage the operation of the components and coordinates the communication between the sensors and the other integrated elements. The AI engine may utilize machine learning algorithms to identify patterns and provide actionable insights to the golfer 1111. For example, the AI engine may recognize recurring impact points on the range blocks 1101-1102, indicative of a swing path deviation, and offer corrective suggestions based on historical data.

The communication module on the PCB 1104 facilitates the transmission of data to external devices, such as the golfer's smartphone 1115 (or to an earpiece 1120). This data transmission may be wired or wireless, depending on the embodiment. In a wireless configuration, technologies such as Bluetooth, Wi-Fi, or near-field communication (NFC) may be employed to enable real-time data transfer to the smartphone 1115 or another compatible device. The smartphone 1115 may serve as an interface for the golfer 1111, displaying the processed data and feedback received from the range blocks 1101 and 1102.

In some embodiments, the PCB 1104 may also incorporate additional sensors, such as inclination sensors, to monitor the orientation of the range blocks 1101 and 1102. These sensors may detect the angle of inclination of the range blocks 1101-1102 relative to the ground, providing further context for analyzing the golfer's swing path and ball trajectory. For example, the inclination sensors may indicate whether an improper tilt of the range blocks 1101-1102 contributed to an off-target shot, enabling the golfer 1111 to adjust the angle of inclination for subsequent swings.

The data captured by the cameras 1101A and 1102A and the impact sensors 1101B and 1102B may be processed locally on the PCB 1104 or transmitted to the smartphone 1115 or other devices for external processing. In an embodiment where the PCB 1104 handles data processing, the processor and AI engine analyze the visual and impact data to generate actionable insights. For example, if the impact sensors 1101B-1102B detect multiple strikes on a particular side of a range block, the AI engine may infer that the golfer 1111's swing is deviating toward that direction and suggest adjustments to achieve a straighter path.

Alternatively, in an embodiment where the smartphone 1115 is used for processing, the raw data collected by the cameras 1101A-1102A and sensors 1101B-1102B is transmitted to the smartphone 1115 via the communication module in the PCB 1104. The smartphone 1115, equipped with a dedicated mobile application (software), processes the data using its internal processor and AI engine. This configuration allows for more complex analyses and the integration of additional features, such as historical performance tracking and personalized training recommendations.

The integration of the PCB 1104 within the range blocks 1101 and 1102 enables a robust and versatile training system that provides comprehensive feedback to the golfer 1111. For example, during a training session, if the golfer's clubface repeatedly strikes the range blocks 1101-1102 instead of the golf ball 1110, the impact sensors 1101B-1102B register these events and relay the data to the PCB 1104. The processor then calculates the frequency, location, and intensity of the impacts and correlates this information with the visual data captured by the cameras 1101A and 1102A.

In some cases, the combination of impact sensors 1101B-1102B and cameras 1101A-1102A may enhance the overall functionality of the system 1100. For example, if the cameras 1101A-1102A capture a video of the swing path deviating to the right and the impact sensors 1101B-1102B detect repeated hits on the right-side range block, the system 1100 identifies this correlation and provides real-time feedback to the golfer 1111. This feedback may be delivered audibly through an earpiece 1120 or visually through the smartphone 1115, guiding the golfer 1111 to adjust their stance, grip, or swing to correct the error.

The impact sensors 1101B and 1102B may be calibrated to detect varying levels of impact force, enabling the system 1100 to differentiate between light grazes and full-force strikes. This capability allows the system 1100 to provide nuanced feedback based on the severity of the error. For example, a light touch on the range block (1101-1102) may indicate a minor swing deviation, whereas a full-force strike suggests a significant misalignment.

In some embodiments, the impact sensors 1101B and 1102B may be distributed across multiple vertical sides of the range blocks 1101-1102 to capture impacts from various angles. This arrangement provides comprehensive coverage, allowing the system 1100 to analyze the golfer's swing from all perspectives. For example, if the golfer 1111 consistently strikes one particular side of a range block (1101-1102), the system 1100 can infer specific issues with their swing path and offer targeted recommendations for improvement.

The incorporation of advanced electronics within the PCB 1104 enhances the adaptability and functionality of the range blocks 1101 and 1102, transforming them into intelligent training tools capable of delivering real-time, data-driven insights to the golfer 1111. This integrated system represents a significant advancement in golf training technology, combining impact analysis, visual feedback, and AI-powered coaching to help golfers refine their skills and achieve greater accuracy and consistency on the course.

The smartphone 1115, as illustrated in FIG. 11, may comprise advanced processing circuitries and an AI engine configured to analyze and interpret data received from the cameras 1101A-1102A and the impact sensors 1101B-1102B integrated into the range blocks 1101 and 1102, respectively. The smartphone 1115 may function as the central hub for data processing and decision-making, leveraging its internal processor, memory, and AI capabilities to deliver actionable insights to the golfer 1111. By processing data from the cameras 1101A-1102A and impact sensors 1101B-1102B, the smartphone 1115 can identify issues, irregularities, and opportunities for improvement in the golfer's practice routine.

The cameras 1101A-1102A may capture real-time video feeds of the golfer's movements, including stance, club grip, swing path, and ball impact. These video feeds are transmitted to the smartphone 1115 via a wireless communication module integrated into the range blocks 1101 and 1102 or through the PCB 1104. The AI engine within the smartphone 1115 may analyze these video feeds frame by frame to detect deviations in the golfer's technique. For example, the AI engine may identify an improper stance, such as feet positioned too far apart or misaligned relative to the target. Similarly, the AI engine may analyze the golfer's grip on the club to determine whether it is too tight or too loose, affecting the control and accuracy of the swing.

Simultaneously, the smartphone 1115 may process data from the impact sensors 1101B-1102B, which detect the location and intensity of any contact between the golf club 1105 and the range blocks 1101-1102. If the impact sensors 1101B-1102B register a hit, the smartphone 1115 can determine the exact point of contact and correlate this information with the visual data from the cameras 1101A-1102A. For example, if the golf club 1105 repeatedly strikes the right-side range block 1102, the AI engine may deduce that the golfer's swing path is skewed to the right. This information may be vital for diagnosing swing path irregularities and providing targeted guidance to correct them.

The AI engine in the smartphone 1115 may use machine learning algorithms trained on a vast dataset of golf swings and practice sessions to identify patterns and anomalies in the golfer's technique. For example, by comparing the golfer's current swing to a database of optimal swing mechanics, the AI engine can highlight specific deviations and recommend corrective actions. The AI engine may also track the golfer's historical performance, allowing it to identify trends and measure progress over time. For example, the system 1100 may detect that the golfer's swing path has improved but that the grip remains inconsistent, prompting targeted feedback on grip adjustments.

Once the data from the cameras 1101A-1102A and impact sensors 1101B-1102B is analyzed, the smartphone 1115 may transmit audio feedback to the golfer 1111 through the earpiece 1120. This audio feedback may serve as a virtual coach, guiding the golfer 1111 in real time to make adjustments and improve their performance. The feedback may include specific instructions such as, “Your stance is too wide; bring your feet closer together,” or “Your swing path is too far to the right; adjust your follow-through to align with the target.” These instructions may be tailored to the golfer's unique needs, addressing the issues identified during the analysis.

For example, if the AI engine determines that the golfer 1111 is gripping the club 1105 too tightly, it may transmit audio feedback such as, “Relax your grip slightly to improve control and reduce tension.” Similarly, if the golfer's stance is misaligned, the feedback may instruct, “Shift your weight slightly forward and adjust your feet to align with the target line.” For swing path corrections, the feedback may include guidance such as, “Focus on a straighter backswing to avoid slicing the ball,” or “Adjust your downswing angle to achieve better ball trajectory.”

In addition to corrective instructions, the audio feedback may provide encouragement and reinforcement to enhance the golfer's learning experience. For example, after a successful shot, the system 1100 may say, “Great shot! Your swing path was perfect,” or “Well done! Keep this rhythm for consistent performance.” This positive reinforcement motivates the golfer 1111 and reinforces good habits.

The smartphone 1115 may also offer advanced analytics and insights based on the processed data. For example, it may generate a summary of the golfer's practice session, highlighting areas of improvement and tracking metrics such as swing speed, impact accuracy, and shot consistency. The AI engine may identify recurring issues, such as a tendency to hook or slice the ball 1110, and provide recommendations to address these problems. For example, if the golfer 1111 consistently slices the ball 1110, the system 1100 may suggest adjusting the clubface angle or modifying the grip pressure.

The audio feedback transmitted through the earpiece 1120 may also include reminders to focus on specific aspects of the golfer's technique. For example, before the golfer 1111 takes a swing, the system 1100 may say, “Remember to keep your head still and maintain a steady backswing.” During the swing, the feedback may include real-time cues such as, “Good tempo, now follow through smoothly.” This continuous guidance helps the golfer stay focused and make incremental improvements with each shot.

In some embodiments, the smartphone 1115 may also integrate with wearable devices, such as smartwatches or motion sensors, to provide additional data points for analysis. For example, motion sensors on the golfer's arms or legs may track body movements and posture, providing a comprehensive view of the golfer's biomechanics. This data, combined with the information from the cameras 1101A-1102A and impact sensors 1101B-1102B, enables the AI engine to deliver even more precise and personalized feedback.

The smartphone 1115 may serve as a powerful tool for enhancing the golfer's training experience, leveraging advanced AI-driven analysis and real-time feedback to address issues, correct irregularities, and optimize performance. By combining data from the cameras 1101A-1102A and impact sensors 1101B-1102B with intelligent processing and actionable insights, the system 1100 transforms the golfer's practice routine into a highly effective and engaging learning process.

The smartphone 1115, as part of the exemplary golf training system 1100, may also analyze data from the impact sensors 1101B-1102B integrated into the range blocks 1101-1102 to determine the center of force (COF) of an impact. The determination of the COF involves processing the data captured by an array of distributed impact sensors 1101B-1102B along the vertical sides of the range blocks 1101-1102. Each impact sensor (1101B-1102B) may be configured to detect the magnitude and location of the impact force when the golf club 1105 strikes the surface of the range blocks 1101-1102 during a practice session.

The COF can be mathematically determined using the following formula:

COF = ∑ i = 1 n ⁢ F i · X i ∑ i = 1 n ⁢ F i

Where:

• • F_i represents the force detected by the i-th impact sensor,
  • X_i represents the position of the i-th impact sensor relative to a predefined origin on the range block (e.g., the bottom section of the block),
  • n is the total number of impact sensors on the range block.

This formula calculates a weighted average of the impact forces along the positions of the sensors 1101B-1102B, providing an accurate representation of the COF relative to the range block (1101 or 1102). For example, if the golf club 1105 strikes closer to the top section of the range block (1101 or 1102), the COF will shift toward the corresponding sensors near the top.

The smartphone 1115, through its AI engine and processing circuitry, may further analyze the COF to assess the golfer's swing consistency and alignment. For example, if the COF consistently shifts to one side of the range block (1101 or 1102), the system 1100 may deduce that the golfer 1111 is misaligning their swing path. In such cases, the smartphone 1115 may transmit corrective audio feedback through the earpiece 1120, such as, “Adjust your swing to center the clubface impact closer to the middle of the range block.”

In addition to determining the COF, the smartphone 1115 may process the combined data from the cameras 1101A-1102A and impact sensors 1101B-1102B to generate a comprehensive analysis of the golfer's technique. The AI engine may cross-reference the COF data with the captured video to evaluate factors such as the angle of the clubface at impact, the swing path, and the follow-through motion. This integrated analysis provides a deeper understanding of the golfer's performance, enabling more precise feedback and tailored recommendations.

In some embodiments, the data from the cameras 1101A-1102A and impact sensors 1101B-1102B may be processed locally within the PCB 1104 integrated into the range blocks 1101-1102. The PCB 1104, as depicted in FIG. 11, comprises advanced processing components such as a processor, a controller, an AI engine, and a communication module. These components work together to analyze the raw data from the sensors 1101B-1102B and cameras 1101A-1102A in real time. For example, the processor on the PCB 1104 may use the same COF determination formula to calculate the COF directly within the range block (1101-1102), eliminating the need for data transmission to the smartphone 1115.

The AI engine on the PCB 1104 may interpret the COF data and may cross-validate it with the video data from the cameras 1101A-1102A. Based on this analysis, the PCB 1104 may identify irregularities such as inconsistent swing paths or off-center impacts on the range blocks 1101-1102. Once the analysis is complete, the PCB 1104 may utilize its communication module to transmit audio feedback directly to the earpiece 1120 worn by the golfer 1111. This direct transmission allows for real-time feedback without reliance on an external device like the smartphone 1115.

The audio feedback provided by the PCB 1104 may guide the golfer 1111 in making immediate adjustments to their technique. For example, if the COF indicates a repeated tendency to strike the lower section of the range block (1101-1102), the PCB 1104 may send feedback such as, “Lift the clubface slightly to achieve a higher point of contact.” Similarly, if the video data reveals an improper stance, the feedback may include, “Shift your weight slightly forward and adjust your posture for better alignment.”

By enabling both smartphone-based and PCB-based processing, the system 1100 offers flexibility and redundancy, catering to different user preferences and practice scenarios. In embodiments where the PCB 1104 performs the primary analysis, the smartphone 1115 may still serve as a supplementary tool for displaying detailed metrics and insights, such as historical performance trends and graphical representations of swing mechanics.

This dual-processing capability enhances the versatility of the golf training system 1100, allowing it to adapt to the varying needs and goals of golfers at different skill levels. For example, beginners may prefer the immediate and simplified feedback provided directly by the PCB 1104, while advanced players may utilize the in-depth analysis and visualization features available on the smartphone 1115. The combined use of COF determination, AI-driven analysis, and real-time audio feedback transforms the practice experience into an interactive and data-driven learning process.

In some embodiments, the multi-purpose golf training device may be equipped with one or more impact sensors integrated into one or more of its vertical sides. These impact sensors are configured to detect and measure the force exerted on the vertical sides when struck by a golf club during a training session. The sensors are strategically positioned along the length of the vertical sides, between the top section and the bottom section, to provide comprehensive coverage of potential impact zones. This distribution facilitates that any contact made during a golfer's swing is accurately captured, regardless of the point of impact on the vertical sides.

In further embodiments, the multi-purpose golf training device may include at least one camera integrated into the vertical sides. The cameras are configured to capture high-resolution video feeds of the swing path, club alignment, and other critical metrics during the golfer's practice. The combination of impact sensors and cameras provides a multidimensional data set, allowing for detailed analysis of the golfer's performance. For example, the impact sensors may detect the force and location of the club's contact with the device, while the cameras record the trajectory and speed of the club swing, enabling a thorough evaluation of the golfer's technique.

The device may also comprise a printed circuit board (PCB) integrated into its bottom section, which is operatively connected to both the impact sensors and the cameras. The PCB may include advanced circuitry such as a processor, a controller, an AI engine, a communication module, and an inclination sensor. These components work in unison to collect, process, and transmit data captured by the sensors and cameras. For example, the processor may analyze impact force data to determine the exact location and intensity of a strike, while the AI engine may evaluate video feed to identify irregularities in the golfer's swing path.

In some embodiments, the communication module integrated into the PCB is configured to wirelessly transmit the processed data to an external device, such as a smartphone or an earpiece worn by the golfer. For example, the transmitted data may include impact metrics, swing path analysis, and club alignment information. The earpiece may provide real-time audio feedback to the golfer based on this data, guiding the golfer to make adjustments in their stance, grip, or swing technique. This feedback mechanism allows the golfer to refine their performance immediately, without the need for additional external coaching tools.

In another embodiment, the external device, such as a smartphone, is equipped with an AI engine that processes the transmitted data to determine the golfer's scope for improvement. The smartphone may analyze the impact data and video feed, comparing them against stored optimal swing models to identify areas of irregularity or deviation. For example, the AI engine may detect if the golfer's swing is too steep, if the clubface alignment is incorrect, or if the shot trajectory is inconsistent with the intended path. Based on this analysis, the smartphone generates corrective feedback, which is then transmitted wirelessly to the golfer's earpiece for immediate guidance.

In some embodiments, the multi-purpose golf training device functions as a virtual golf coach. By integrating data from the impact sensors and cameras, the device provides automated feedback tailored to the golfer's needs. For example, the device may identify that the golfer's swing path deviates from the optimal trajectory and recommend specific adjustments, such as altering the angle of the clubface or modifying the backswing. This feedback may include step-by-step instructions or real-time alerts, delivered through the earpiece, enabling the golfer to make precise improvements during the training session.

The AI engine in the smartphone or PCB may also compare the golfer's performance metrics over multiple sessions to track progress and highlight areas requiring further attention. For example, swing trajectory data may be analyzed to identify patterns or trends, allowing the golfer to focus on consistent improvement. This data may also be visualized on the smartphone through graphs, heatmaps, or video overlays, providing a comprehensive understanding of performance metrics and areas for refinement.

In some embodiments, the AI engine compares swing trajectory data against stored optimal swing models to provide tailored feedback. For example, if the golfer's backswing is too short, the AI engine may identify this discrepancy and suggest extending the backswing for greater power. Similarly, if the golfer consistently hits the impact sensors in a specific zone, the feedback may include adjustments to stance or club positioning to correct the issue. This continuous feedback loop enables the golfer to refine their skills with each practice session.

Referring now to FIGS. 12A-12B, an exemplary flowchart 1200 is illustrated, depicting method steps 1201-1215 that may be implemented in accordance with some embodiments of the present invention for utilizing and configuring range blocks in golf training sessions. These steps provide an exemplary framework for adapting range blocks for various training purposes, enabling golfers to refine their skills through interactive and customizable features. The described steps encompass the selection, configuration, and integration of range blocks with sensors and feedback mechanisms, forming a sophisticated golf training system. Each step is described in detail below, with examples and embodiments that enhance clarity and applicability.

At step 1201, the process involves selecting appropriate range block shapes for specific golf training objectives. Range blocks may be available in various shapes, such as rectangular, triangular, hexagonal, or other custom configurations. The selection of the shape may depend on the golfer's training goals, the type of shots being practiced, and the layout of the golf range. For example, rectangular blocks may be used for straight swing path training, while triangular blocks can be arranged to simulate narrow approach paths. Hexagonal blocks may provide flexibility for aligning multiple angles, suitable for advanced practice scenarios. In some embodiments, the range block shapes may include foldable or collapsible designs, allowing the golfer to transport and set up the blocks conveniently across different training locations.

At step 1202, the height, angles of inclination, and other physical configurations of range blocks are adjusted to customize their placement around a golf ball. Adjustments may involve using accordion-style flaps, telescopic mechanisms, or height adjustment zippers to vary the height or angle of the range blocks. For example, a golfer practicing high-arc shots may require taller range blocks to simulate obstacle-clearance scenarios. Similarly, angled blocks may guide the golfer to maintain an appropriate swing path when hitting angled shots. These adjustments may also consider the golfer's height, and the type of club used, so that the range blocks are optimally aligned with the golfer's stance and swing trajectory. In some cases, adjustments can be recorded or programmed into a connected smart device for consistent practice settings.

At step 1203, the range block inclination may be configured using accordion flaps, zipper mechanisms, or alternative adjustment mechanisms. For example, an accordion-style flap integrated at the base of the range block may allow precise angle adjustments by expanding or compressing the flaps. Alternatively, a zipper-based adjustment mechanism may facilitate quick and secure angle changes, where the golfer engages or disengages specific zipper teeth lines to achieve the desired inclination. These mechanisms enable the golfer to adapt the range block's tilt for various practice environments, such as simulating uphill or downhill slopes on a golf course. Configurable inclination also aids in training for specific shot types, such as chip shots, pitch shots, or putting.

At step 1204, the range blocks are positioned upright, laid down, or arranged in alternative configurations based on the golfer's practice requirements. Weighted pads may also be added to the base of the range blocks to stabilize them on uneven or slippery surfaces. For example, range blocks placed upright on either side of a golf ball can act as visual guides for swing alignment, while laid-down blocks may serve as barriers to simulate bunker practice. Weighted inserts may enhance stability during windy conditions or on artificial turf, preventing the blocks from shifting during training sessions. Such versatility in positioning enables golfers to customize their training environment for a wide range of scenarios, from straight drives to complex approach shots.

At step 1205, impact sensors, cameras, and other detection mechanisms are integrated into the range blocks to provide enhanced feedback and data collection during training sessions. Impact sensors may be embedded within the vertical sides of the range blocks to detect and quantify the force, location, and angle of impact when a golfer's club inadvertently strikes the block. Cameras integrated on one or more sides may capture video feeds of the golfer's swing, club alignment, and ball trajectory. These sensors and cameras collectively generate valuable data that can be processed to identify irregularities in the golfer's technique, enabling precise adjustments and improvement. For example, the system may identify if the clubface is consistently striking too far behind the ball, indicating a need for posture correction.

At step 1206, the golfer interacts with the range blocks during practice sessions, utilizing them for swing path training, club alignment, and other shot practices. The range blocks may be placed strategically around the golf ball to guide the golfer in maintaining a straight swing path or avoiding specific zones. For example, if the golfer's club deviates from the intended path and strikes a range block, the impact provides instant feedback, prompting corrective action. Such interactions are particularly beneficial for beginners aiming to develop muscle memory for proper swings or for experienced golfers looking to fine-tune their technique. In some embodiments, the range blocks may also feature alignment markers or grids printed on their surface to assist the golfer in visualizing the correct angles and paths.

At step 1207, real-time data may be captured through the impact sensors and cameras integrated into the range blocks during practice sessions. The impact sensors detect the exact point and force of contact when the club strikes a block, while the cameras record the swing in motion, capturing key metrics such as club speed, angle of approach, and ball trajectory. This data may be transmitted to a processing unit, such as a PCB within the range block or a connected smart device, for further analysis. For example, the camera feed may reveal whether the golfer's backswing is too steep, while the impact sensor data may indicate an off-center hit. These insights form the basis for providing actionable feedback to the golfer, facilitating real-time improvement and refinement of techniques.

At step 1208, data from the impact sensors and cameras embedded in the range blocks may be transmitted to a smartphone, onboard PCB, or an external processing device for analysis. The transmission of data may occur via wired connections or wireless communication protocols such as Bluetooth, Wi-Fi, or near-field communication (NFC). For example, a golfer practicing on the range may receive real-time sensor data from the range blocks directly on their smartphone, which serves as the primary processing unit. In other embodiments, the PCB integrated into the range blocks processes the data locally and sends summarized insights to the golfer's smart device. The real-time nature of this data transfer allows golfers to instantly assess the outcomes of their shots, such as the force of impact, alignment issues, or swing path deviations, thus enabling immediate corrective measures.

At step 1209, the captured data may be processed using an AI engine embedded in the smartphone, PCB, or external processing unit to identify irregularities, issues, and opportunities for improvement in the golfer's technique. The AI engine may analyze parameters such as the speed and trajectory of the swing, the position of the clubface at impact, and the angle of inclination of the range blocks during the practice session. For example, the system may detect that the golfer's swing path is consistently deviating to the right, suggesting an adjustment in stance or grip. The AI engine may also recognize patterns over multiple sessions, identifying persistent issues that require focused training. By leveraging machine learning algorithms, the AI engine continuously refines its analysis, delivering increasingly personalized feedback to the golfer.

At step 1210, real-time audio feedback may be delivered to the golfer via an earpiece based on the analysis of impact and video data. The feedback may include actionable suggestions such as “adjust your stance to the left,” “hold the club higher,” or “focus on maintaining a straight swing path.” The earpiece provides an intuitive and non-intrusive way for the golfer to receive instructions without interrupting their practice. For example, if the AI engine detects that the golfer's club may be striking the range block instead of the ball, the audio feedback may guide the golfer to reposition their stance or adjust the height of the range blocks. This real-time feedback mechanism transforms the range blocks into an interactive training assistant, enabling the golfer to make immediate adjustments and improve performance.

At step 1211, training session data may be recorded for future reference and AI-based analysis to continuously improve the golfer's training techniques. The recorded data may include video footage of the golfer's swings, impact sensor readings, and analysis reports generated by the AI engine. This historical data provides a comprehensive view of the golfer's progress over time, allowing them to identify trends, measure improvements, and set training goals. For example, a golfer may review footage from a previous session to compare their swing mechanics with their current performance. The AI engine may also utilize this historical data to predict potential issues, such as an emerging tendency to slice shots, and offer preventive guidance.

At step 1212, the internal storage chambers in the range blocks are accessed for convenient storage of golf balls, tees, and other accessories. The storage chambers may feature compartments or dividers for organizing items efficiently, reducing the need for additional equipment bags. For example, a golfer practicing on a remote course may use the range blocks to carry all necessary accessories, streamlining their setup and minimizing interruptions. The storage chambers may also be insulated or moisture-resistant, protecting the contents from environmental factors such as rain or humidity. In some embodiments, the chambers may include smart sensors to monitor the quantity of stored items, notifying the golfer when supplies are running low.

At step 1213, one or more shoulder straps or handles are attached to the range blocks for portability across different golf training locations. The straps may be adjustable and padded for comfort, allowing the golfer to carry the range blocks like a backpack. In another embodiment, the range blocks may include retractable handles that enable them to be rolled like a suitcase. For example, a golfer traveling between practice ranges may use the straps to transport multiple range blocks without requiring additional carrying equipment. The portability of the range blocks enhances their usability, making them suitable for both indoor and outdoor training scenarios.

At step 1214, multiple range blocks are joined together to form extended configurations for advanced training requirements. The joining mechanism may involve magnetic surfaces, interlocking clips, or mechanical fasteners that securely connect the range blocks. For example, two rectangular range blocks may be joined end-to-end to create a longer visual guide for straight swing paths. In another embodiment, triangular range blocks may be combined to form complex geometric shapes, simulating specific course challenges. This modularity allows golfers to customize their training setups, adapting the range blocks to their evolving needs and skill levels.

At step 1215, the range blocks are collapsed and compacted using fold lines for efficient storage and transport. The fold lines may be designed with reinforced seams or flexible joints, allowing the range blocks to be folded flat without compromising structural integrity. For example, a rectangular range block with accordion-style folds may be compressed into a compact form that fits easily into a carrying case. This collapsible design enhances the practicality of the range blocks, making them ideal for golfers who require portable and space-saving training equipment.

In an exemplary embodiment, a golfer practicing on a remote course may use two hexagonal range blocks equipped with impact sensors and cameras. The range blocks may be positioned at an inclined angle using accordion-style flaps and stabilized with weighted pads. During the session, the impact sensors detect off-center hits, while the cameras capture swing path deviations. The data may be transmitted to the golfer's smartphone, where an AI engine analyzes the performance and provides real-time audio feedback via an earpiece. At the end of the session, the golfer reviews the recorded data to assess progress and plan the next practice session. Before leaving, the golfer collapses the range blocks using fold lines and attaches them to a backpack for easy transport. This comprehensive system exemplifies the integration of smart technology, modular design, and portability in enhancing golf training experiences.

In some embodiments, the multi-purpose golf training device may comprise a versatile structural design that integrates multiple features to enhance its functionality for golf training exercises. The device may include a top section configured as a cover, which closes an internal storage chamber. This cover may be operable through a fastener mechanism that may include options such as a zipper, a magnetic closure, or a hook-and-loop fastener. The internal storage chamber may be spacious enough to store golf accessories such as balls, tees, or alignment rods. In certain configurations, the chamber or the cover may further include one or more partitions or compartments, enabling users to organize their golf accessories effectively and prevent items from becoming jumbled during transport or use.

The bottom section of the device serves as a stabilizing base, so that the upright structure remains steady on a golf training surface. This bottom section may be weighted using removable pads or inserts, which provide additional stability, especially on uneven or sloped surfaces. The weighted feature enhances the device's versatility, allowing it to remain in place during practice sessions, even when external forces such as wind or accidental impacts occur. The removable pads or inserts may also enable users to customize the weight of the device based on specific training needs or environmental conditions.

The device features at least three vertical sides extending between the top section and the bottom section. These vertical sides collectively form an upright structure, which may be configured in various geometric shapes, such as rectangular, triangular, hexagonal, or other polygonal configurations. The flexibility in shape allows the device to cater to different training exercises, as the structural design can be adapted to simulate various real-world scenarios encountered on a golf course.

To facilitate compact storage and portability, the device includes a collapsing mechanism integrated into its structure. This mechanism comprises a fold line positioned along at least one of the vertical sides, which may take the form of a seam, a hinge, or a crease made of a flexible material. The fold line enables the device to transition seamlessly between an upright configuration and a folded configuration. In its folded state, the device becomes compact, making it convenient to transport and store without occupying excessive space.

In some embodiments, the device may also include detachable straps, allowing it to be carried on one or both shoulders. These straps are adjustable and padded to enhance user comfort during transport. The addition of straps transforms the device into a highly portable training aid, suitable for golfers who travel frequently or practice at multiple locations.

For increased adaptability, the device may further comprise a height adjustment mechanism, which may include a mid-section zipper. By engaging or disengaging the zipper, the height of the device can be modified to suit various training scenarios or the golfer's personal preferences. For example, a taller configuration may be used for practicing high-angle shots, while a shorter configuration may be suitable for ground-level drills.

In another embodiment, the device may be designed to connect with an additional range block to form an elongated training structure. This configuration allows users to extend the device's functionality by creating a longer alignment or swing path guide. The connection mechanism may involve magnetic couplings, interlocking sections, or other secure joining methods, facilitating the integrity of the combined structure during use.

CONCLUSION

A number of embodiments of the present disclosure have been described. While this specification contains many specific implementation details, they should not be construed as limitations on the scope of any disclosures or of what may be claimed, but rather as descriptions of features specific to particular embodiments of the present disclosure. While embodiments of the present disclosure are described herein by way of example using several illustrative drawings, those skilled in the art will recognize the present disclosure is not limited to the embodiments or drawings described. It should be understood the drawings, and the detailed description thereto, are not intended to limit the present disclosure to the form disclosed, but to the contrary, the present disclosure is to cover all modifications, equivalents and alternatives falling within the spirit and scope of embodiments of the present disclosure as defined by the appended claims.

The headings used herein are for organizational purposes only and are not meant to be used to limit the scope of the description or the claims. As used throughout this application, the word “may” be used in a permissive sense (i.e., meaning having the potential to), rather than the mandatory sense (i.e., meaning must). Similarly, the words “include,” “including,” and “includes” mean including but not limited to. To facilitate understanding, like reference numerals have been used, where possible, to designate like elements common to the figures.

The phrases “at least one,” “one or more,” and “and/or” are open-ended expressions that are both conjunctive and disjunctive in operation. For example, each of the expressions “at least one of A, B and C,” “at least one of A, B, or C,” “one or more of A, B, and C,” “one or more of A, B, or C” and “A, B, and/or C” means A alone, B alone, C alone, A and B together, A and C together, B and C together, or A, B and C together.

The term “a” or “an” entity refers to one or more of that entity. As such, the terms “a” (or “an”), “one or more” and “at least one” can be used interchangeably herein. It is also to be noted the terms “comprising,” “including,” and “having” can be used interchangeably.

Certain features that are described in this specification in the context of separate embodiments can also be implemented in combination in a single embodiment. Conversely, various features that are described in the context of a single embodiment can also be implemented in combination in multiple embodiments separately or in any suitable sub-combination. Moreover, although features may be described above as acting in certain combinations and even initially claimed as such, one or more features from a claimed combination can in some cases be excised from the combination, and the claimed combination may be directed to a sub-combination or variation of a sub-combination.

Similarly, while method steps may be depicted in the drawings in a particular order, this should not be understood as requiring that such operations be performed in the particular order shown or in a sequential order, or that all illustrated operations be performed, to achieve desirable results.

Moreover, the separation of various system components in the embodiments described above should not be understood as requiring such separation in all embodiments, and it should be understood that the described program components and systems can generally be integrated together in a single product or packaged into multiple products.

Thus, particular embodiments of the subject matter have been described. Other embodiments are within the scope of the following claims. In some cases, the actions recited in the claims can be performed in a different order and still achieve desirable results. In addition, the processes depicted in the accompanying figures do not necessarily require the particular order shown, or sequential order, to achieve desirable results. In certain implementations, multitasking and parallel processing may be advantageous. Nevertheless, it will be understood that various modifications may be made without departing from the spirit and scope of the claimed disclosure.