CONTAINER AND METHOD FOR HANDLING BEVERAGE SUBSTANCES

Description

FIELD OF THE INVENTION

The present invention generally relates to the field of beverage pods. In particular, the present invention is directed to a container for handling beverage substances.

BACKGROUND

Single-serve beverage brewing systems are popular for their convenience, but disposable containers raise environmental concerns. Existing reusable containers often struggle with durability, secure closure, and compatibility with various brewing systems. Many fail to prevent leakage or maintain consistent brewing quality, and some materials wear out quickly.

SUMMARY OF THE DISCLOSURE

In an aspect, a container for handling beverage substances includes a first chamber, wherein the first chamber comprises a first exterior shell having a flange located at an upper area of the first chamber, a second chamber removably attached to the first chamber, wherein the second chamber comprises a second exterior shell having a rim located at an upper perimeter of the second chamber, and a lid coupled to the flange and the rim.

In another aspect, a method for handling beverage substances includes manufacturing methods to create a first chamber, wherein the first chamber comprises a first exterior shell having a flange located at an upper area of the first chamber, a second chamber removably attached to the first chamber, wherein the second chamber comprises a second exterior shell having a rim located at an upper perimeter of the second chamber, and a lid coupled to the flange and the rim.

These and other aspects and features of non-limiting embodiments of the present invention will become apparent to those skilled in the art upon review of the following description of specific non-limiting embodiments of the invention in conjunction with the accompanying drawings.

BRIEF DESCRIPTION OF THE DRAWINGS

For the purpose of illustrating the invention, the drawings show aspects of one or more embodiments of the invention. However, it should be understood that the present invention is not limited to the precise arrangements and instrumentalities shown in the drawings, wherein:

FIG. 1A is an exemplary illustration of a container in a closed configuration with lid attached to a first chamber and a second chamber;

FIG. 1B is an exemplary illustration of a container in a semi-opened configuration, wherein a lid is partially removed;

FIG. 1C is an exemplary illustration of a container in an open configuration, wherein a lid is completely removed and a beverage substance is visible;

FIG. 1D is an exemplary embodiment of a container in a closed configuration, wherein a lid with a plurality of pores is shown and an exterior shell with ridges is shown;

FIG. 2A is an exemplary illustration of the container from an isometric view with a plurality of recesses shown;

FIG. 2B is an exemplary illustration of the container from a side view;

FIG. 3A is an illustration of an embodiment of the exterior chamber shape with a lid in a closed configuration;

FIG. 3B is an illustration of an embodiment of the exterior chamber shape with a lid in an open configuration;

The drawings are not necessarily to scale and may be illustrated by phantom lines, diagrammatic representations and fragmentary views. In certain instances, details that are not necessary for an understanding of the embodiments or that render other details difficult to perceive may have been omitted.

DETAILED DESCRIPTION

At a high level, aspects of the present disclosure are directed to container for handling beverage substance. The container includes a first chamber, wherein the first chamber comprises a first exterior shell having a flange located at an upper area of the first chamber, a second chamber removably attached to the first chamber, wherein the second chamber comprises a second exterior shell having a rim located at an upper perimeter of the second chamber, and a lid coupled to the flange and the rim.

Referring now to FIGS. 1A-D, an exemplary embodiment of container 100a-d for handling beverage substances is illustrated. Container 100a-d includes first chamber 104, wherein first chamber 104 comprises first exterior shell 108, having flange 112 located at upper area 116 of first chamber 104, second chamber 120, wherein second chamber 120 comprises second exterior shell 124, wherein second exterior shell 124 comprises rim 128 located at upper perimeter 132 of second chamber 120, and lid 136 coupled to flange 112 and rim 128. As used in this disclosure, a “first chamber” is an initial compartment or enclosed space within a multi-chamber system designed to perform a specific function related to the overall process or application. In a non-limiting example first chamber may have a uniform or varying diameter of 50-50 mm. Without limitation, first chamber may be 35-55 mm in height, from the top to bottom. As used in this disclosure, a “first exterior shell” is the outermost layer or casing of a multi-layered structure, designed to provide primary protection, structural integrity, and environmental barrier for the components housed within. First exterior shell 108 of first chamber 104 may be curved and/or cylindrical in shape. Alternatively, first exterior shell 108 may be cube-like and/or prism-like shaped. First chamber 104 may be any shape and/or size; however the dimensions of lid 136 would necessarily need to be configured to that same size and/or shape. Furthermore, first exterior shell 108 of first chamber 104 may include detents, rivets, beads, and/or any other locking/fastening means as described throughout this disclosure and/or any disclosure as herein incorporated. First chamber 104 may be made of any material as described throughout this disclosure, including without limitation glass, plastic, metal, metal alloys, and/or the like. In a non-limiting example, first exterior shell 108 may have a diameter of 30-50 mm. In another non-limiting example, first exterior shell 108 may be 0.25-5 mm thick. In a non-limiting example, first exterior shell 108 may be coupled to flange 112 located in upper area 116 of first chamber 104. As used in this disclosure, a “flange” is a projecting flat rim, collar, or rib on an object. In a non-limiting example, flange of first chamber 104 may protrude 0-10 mm outward from the circumference of first chamber 104. In a non-limiting example, flange may be made of any material as described throughout this disclosure, including without limitation glass, plastic, metal, metal alloys, and/or the like. As used in this disclosure, an “upper area” is the top portion or region of an object, structure, or space. Without limitation, first chamber 104 may include upper area 116 towards the top most section of first chamber 104. In a non-limiting example, upper area 116 of first chamber 104 may have a diameter of 45-55 mm. In a non-limiting example, upper area 116 may be larger, smaller, or the same size in diameter as the diameter of the rest of first chamber 104. In a non-limiting example, upper area may be made of any material as described throughout this disclosure, including without limitation glass, plastic, metal, metal alloys, and/or the like.

With continued reference to FIGS. 1A-D, as used in this disclosure, a “second chamber” is a subsequent enclosed compartment or space within a multi-chamber system. In a non-limiting example, second chamber is located inside of first chamber 104. In a non-limiting example, second chamber 120 may be 35-55 mm in height from top to bottom. In a non-limiting example, second chamber 120 may be smaller in size than first chamber 104 to fit within the first container. As used in this disclosure, a “second exterior shell” is the innermost layer or casing of a multi-layered structure, designed to provide protection and structural integrity for the components housed within. In a non-limiting example, second exterior shell 124 may come into direct contact with beverage substance 152. Second exterior shell 124 of second chamber 120 may be curved and/or cylindrical in shape. Alternatively, second exterior shell 124 may be cube-like and/or prism-like shaped. Second chamber 120 may be any shape and/or size; however the dimensions of lid 136 would necessarily need to be configured to that same size and/or shape. Furthermore, second exterior shell 124 of second chamber 120 may include detents, rivets, beads, and/or any other locking/fastening means as described throughout this disclosure and/or any disclosure as herein incorporated. second chamber 120 may be made of any material as described throughout this disclosure, including without limitation glass, plastic, metal, metal alloys, and/or the like. . . . In another non-limiting example, second exterior shell 124 may be 0.25-5 mm thick.

As used in this disclosure, a “rim” is the outer edge or boundary of a circular or rounded object. In a non-limiting example, rim 128 may be protruding away from upper perimeter 132 of second chamber 120 area a distance of 0-5 mm, or rim 128 may be flat to the perimeter of upper perimeter 132 of second chamber 120. As used in this disclosure, an “upper perimeter” is the boundary or outer edge of the topmost section of an object or structure, encircling upper area 116 and defining its extent. In a non-limiting example, rim 128 of second chamber 120 may be located at a horizontal plane that is below or above flange 112 of first chamber 104. Without limitation, rim 128 may be attached to flange 112 or may be separated. In some embodiments, rim 128 of second chamber 120 may include a layer of adhesive and/or polymer to aid in the sealing process. A layer may be described as a lining and/or a coating. As used throughout this disclosure a lining may vary in thickness in comparison to a coating. A lining may be thinner in comparison to a coating of polymer and/or adhesive. Alternatively, a coating of polymer may describe a thicker layer of polymer and/or adhesive. In a non-limiting example, rim 128 may be made of any material as described throughout this disclosure, including without limitation glass, plastic, metal, metal alloys, and/or the like.

With continued reference to FIGS. 1A-D, as used in this disclosure, a “lid” is a removable or hinged cover designed to fit the opening of a container. In a non-limiting example, lid 136 may provide a means to close, seal, or protect the contents inside of first chamber 104 and/or second chamber 120. For example, without limitation, lid 136 may provide beverage substance 152 protection against environmental elements and ensure freshness of beverage substance 152. In a non-limiting example, lid 136 may be made of any material as described throughout this disclosure, including without limitation glass, plastic, metal, metal alloys, and/or the like. Without limitation lid 136 may be proportional in diameter to the diameter of first chamber 104 and/or the diameter of second chamber 120. In a non-limiting example, lid 136 may be coupled to rim 128, flange 112, and/or both rim 128 and flange 112. In a non-limiting example, lid 136 may be 0-3 mm thick. In an embodiment containing a recessed rim may allow lid 136 to sit snuggly within second chamber 120, configured to be flush with the open end of first chamber 104. This may be compared to an embodiment where rim 128 is not recessed and therefore flush with the open end of first chamber 104 and the open end of second chamber 120. In this embodiment, lid 136 may sit on top of rim 128 and flange 112, therefore fully covering first exterior shell 108 from a top view vantage point. Furthermore, rim 128 and/or flange 112 in an embodiment may include an adhesive and/or polymer layer. The polymeric coating may have a specified weight and thickness. Nonlimiting exemplary embodiments of polymeric coating may include pullulan, hydroxypropyl methylcellulose, hydroxyethyl cellulose, hydroxypropyl cellulose, polyvinyl pyrrolidone, carboxymethyl cellulose, polyvinyl alcohol, sodium alginate, polyethylene glycol, xanthan gum, tragacanth gum, guar gum, acacia gum, gum arabic, polyacrylic acid, methyl methacrylate copolymer, amylose, high amylose starch, hydroxypropylated high amylose starch, dextrin, pectin, chitin, chitosan, levan, elsinan, collagen, gelatin, zein, gluten, soy protein isolate, whey protein isolate, casein, polysaccharides, natural gums, polypeptides, polyacrylates, starch, gum karaya, and/or mixtures thereof. Without limitation, flange 112 and rim 128 may include biodegradable adhesive 140. As used in this disclosure, a “biodegradable adhesive” is a type of adhesive that can be broken down by natural processes. In a non-limiting example, biodegradable adhesive 140 may include starch-based adhesives, protein-based adhesives, cellulous-based adhesives, and the like.

With continued reference to FIGS. 1A-D, first chamber 104, second chamber 120, and lid 136 may be constructed out of a metal. As used in this disclosure, “metal” is material characterized by high electrical and thermal conductivity, luster, malleability, ductility, and the ability to form positive ions and metallic bonds. In a non-limiting example the metal may include aluminum, stainless steel, tin plated steel, titanium, a combination thereof, and the like.

With continued reference to FIGS. 1A-D, first chamber 104, second chamber 120, and lid 136 may be constructed out of a biodegradable material. As used in this disclosure, a “biodegradable material” is a material that can be broken down by natural processes. For example, without limitation, the natural process may include breaking down the biodegradable material using microorganisms such as bacteria, fungi, and enzymes, into natural elements like water, carbon dioxide, and biomass, without causing harm to the environment. In a non-limiting example, the biodegradable material may include polylactic acid (PLA), polyhydroxyalkanoates (PHA), cellulose, starch-based plastics, and the like.

With continued reference to FIGS. 1A-D, in a non-limiting example, rim 128 may be heat scaled to lid 136. In a non-limiting example, rim 128 may be heat sealed to lid 136 using a thermal bonding process. This process may involve applying heat to rim 128 and lid 136 to melt a thin layer of material on their surfaces, which then fuses together upon cooling, creating a strong, airtight seal.

With continued reference to FIGS. 1A-D, lid 136 may be welded to flange 112 and rim 128. In another non-limiting example, rim 128 may be heat sealed to lid 136 using ultrasonic welding. This method may use high-frequency ultrasonic acoustic vibrations to create localized heat through friction, which melts the materials at the interface and forms a solid-state weld upon cooling. In another non-limiting example, rim 128 may be heat sealed to lid 136 using induction sealing. This technique may involve placing a conductive material, such as a metal foil, between rim 128 and lid 136. An induction coil generates an electromagnetic field that heats the conductive material, causing it to melt and bond rim 128 to lid 136. In another non-limiting example, rim 128 may be heat sealed to lid 136 using a hot-melt adhesive. Without limitation, the adhesive may be applied in a molten state to rim 128, and lid 136 is then pressed onto rim 128. Continuing, as the adhesive cools and solidifies, it forms a strong bond between rim 128 and lid 136.

With continued reference to FIGS. 1A-D, lid 136 may include a frangible seal. As used in this disclosure, a “frangible seal” is a type of seal designed to break or rupture easily under an applied force. In a non-limiting example, the frangible seal may be used to allow a user to peel back lid 136. For instance, without limitation, the frangible seal may be a thin layer of material that is scored or perforated in a specific pattern, making it easy to tear along the designated lines when a user applies a pulling force. Continuing, this design may provide that lid 136 be removed without excessive effort and provide convenient access to beverage substance 152 contained within second chamber 120. In another non-limiting example, the frangible seal may be implemented using a multi-layered film where one of the layers is designed to rupture under stress. Continuing, this may involve a combination of materials with different tensile strengths, where the weaker layer breaks first, allowing the stronger layer to be peeled back. Such a configuration may be particularly useful in maintaining the integrity of the seal during storage and transportation, while still enabling easy opening by the end user. Additionally and or alternatively, the frangible seal may incorporate a pull-tab mechanism that facilitates the application of force in a controlled manner. Lift tab 144 may be an integral part of lid 136 or attached separately, and when pulled, lift tab 144 may initiate the rupture of the frangible scal along a predefined path. Continuing, this method may provide a simplified opening process and minimize the risk of spillage or contamination, as the seal breaks in a predictable and controlled manner.

With continued reference to FIGS. 1A-D, the frangible seal may be configured to have a variable peel strength. As used in this disclosure, a “peel strength” is a measure of the force required to separate two bonded materials by peeling one surface from the other surface. In a non-limiting example the peel strength may require 1-3 Newtons of force to remove lid 136 from first chamber 104 and second chamber 120. In a non-limiting example, the peel strength may be directly proportional to the diameter of lid 136. For instance, without limitation, the formula to determine the peel strength required for lid 136 may be calculated using the following formula:

Peel ⁢ Strength = F w

where F is the force required to peel the adhesive (measured in Newtons) and w is the width of the adhesive strip (measured in inches). Without limitation, to determine the peel strength of a cylindrical sample the formula may be modified to account for the curved geometry. In this case, the peel strength may be calculated using the circumference, C, of the cylinder as the width:

Peel ⁢ Strength = F w .

With continued reference to FIGS. 1A-D, lid 136 further may include lift tab 144 which may be configured to facilitate a removal of lid 136 from flange 112 and rim 128. As used in this disclosure, a “lift tab” is a protruding or specially designed section of lid 136 that provides a grip for a user to easily lift, peel, or remove lid 136. In some embodiments, lift tab may be configured as part of lid 136. Alternatively, lift tab 144 may be separated from lid 136 and attached in the process of manufacturing. In an embodiment where lift tab 144 is separate from lid 136, lift tab 144 may be attached with an adhesive and/or through a separate process using polymer layers. Lift tab 144 may extend across the entire lid through the center, around the edges, and or in another pattern capable of maintaining its integrity when force is applied. Lift tab 144 may include plastic, paper, metal, and/or metal alloy components or threads to enhance the strength of the tab. Additionally, in either embodiment lift tab 144 may be incorporated into first chamber 104 in a way that when not in use lift tab 144 may sit flush with first exterior shell 108. In some embodiments, first exterior shell 108 may include a perforation that may be configured to transform into lift tab 144 when force is applied to it. Lift tab 144 may also embody the ability to be printed, stamped, and or the like with text and/or images.

With continued reference to FIGS. 1A-D, lid 136 may include one or more of a semi-permeable material and a perforated material. As used in this disclosure, a “semi-permeable material” is a type of membrane that allows certain molecules or ions to pass through while blocking others based on size, charge, or other properties. In a non-limiting example, the semi-permeable material may be used to allow the passage of gases such as oxygen and carbon dioxide, which can help maintain the freshness of beverage substance 152 inside second chamber 120. This may be particularly useful for beverage substances that are sensitive to oxidation, such as coffee or tea, as it helps to preserve their flavor and aroma over time. As used in this disclosure, a “perforated material” is a substance that has been mechanically altered with numerous small holes or openings that allow the passage of air, liquids, or other substances. The perforated material may be used to facilitate the brewing process by allowing hot water to pass through beverage substance 152 while retaining the solid particles within second chamber 120. This ensures that the resulting beverage is free from unwanted particulates. The perforations may be designed with specific sizes and patterns to optimize the flow rate and filtration efficiency, depending on the type of beverage being prepared. For example, without limitation, the perforations may be circular, oval, square, hexagonal, and the like in shape. In a non-limiting example, the perforated material with the specific pore shape may contribute differently to the flow dynamics and filtration effectiveness of the brewing process.

With continued reference to FIGS. 1A-D, container 100a-d may include a filter comprising one or more of a paper, a cloth, and a metal mesh. As used in this disclosure, a “filter” is a device or material designed to remove impurities, particles, or specific substances from a fluid (liquid or gas) by passing it through a porous medium or mesh, thereby allowing only the desired components to pass through while trapping unwanted contaminants. In a non-limiting example, lid 136 is the filter. Without limitation, the filter may be an additional material layered below or above lid 136. As used in this disclosure, “paper” is a thin, flexible material produced by pressing together moist fibers, typically derived from wood, rags, or grasses, and drying them into sheets As used in this disclosure, “cloth” is a flexible, woven or knitted material made from fibers. In a non-limiting example, the fibers may include cotton, wool, silk, or synthetic substances. As used in this disclosure, “metal mesh” is a woven or welded grid of metal wires or strands that create a network of uniformly sized openings. The metal mesh may be made from various metals, including but not limited to stainless steel, aluminum, copper, and brass. The filter may include plurality of pores 148, wherein plurality of pores 148 are of a uniform size, a uniform shape, and uniformly spaced. As used in this disclosure, a “pore” is a small opening or hole in a surface. In a non-limiting example, plurality of pores 148 may allow the passage of gases, liquids, or small particles. The filter may be designed to provide structural support while allowing the passage of air, liquids, or small particles through plurality of pores 148. The size and shape of a pore of plurality of pores 148 of the filter may be customized to meet specific filtration or structural requirements. For example, without limitation, plurality of pores 148 may be circular, oval, square, hexagonal, and the like in shape. The filter may be a versatile component in various applications, including filtration, reinforcement, and separation processes.

Without limitation, an embodiment may include a filter disc disposed within the cavity of first chamber 104, a formed filter material adhered to the interior of second chamber 120. In a non-limiting example, filter may be consistent with one or more aspects of the filter described in attorney docket number 1326-003USU1, U.S. patent application Ser. No. 18/599,862, filed on Mar. 8, 2024, and entitled “HIGHLY RECYCLABLE BEVERAGE PODS AND METHOD OF MANUFACTURE,” which is incorporated by reference herein in its entirety.

With continued reference to FIGS. 1A-D, the filter may be configured to separate beverage substance 152 from a beverage liquid to produce a filtered liquid. As used in this disclosure, a “beverage substance” is the is any material used in the preparation of beverages by brewing, steeping, or dissolving in a liquid. For example, without limitation beverage substance 152 may include coffee grounds, tea leaves, powdered drink mixes, or other ingredients that infuse, dissolve, or otherwise combine with a liquid to create a consumable beverage. As used in this disclosure, a “beverage liquid” is the liquid added to beverage substance 152 and/or passed through beverage substance 152 to extract flavors, aromas, or nutrients. As used in this disclosure, a “filtered liquid” is a fluid that has been passed through a filtration process to remove impurities, particulates, or unwanted substances, resulting in a cleaner and purer liquid suitable for consumption or further use. In a non-limiting example, the filtered liquid is the final output of brewing beverage substance 152. For example, this may be the consumable coffee.

With continued reference to FIGS. 1A-D, second chamber 120 may be configured to hold a single serving of beverage substance 152 and first chamber 104 is proportionally scaled. As used in this disclosure, a “single serving” is a portion size intended for consumption by one person. In a non-limiting example, the single serving may be pre-measured or pre-packaged to contain an appropriate amount for an individual's use. For instance, a single serving of coffee may be 8-12 grams of coffee grinds.

With continued reference to FIGS. 1A-D, second chamber 120 may be configured to hold a multi-serving of beverage substance 152 and first chamber 104 is proportionally scaled. As used in this disclosure, a “multi-serving” is a portion size intended for consumption by more than one person. In a non-limiting example, the multi-serving may be pre-measured or pre-packaged to contain an appropriate amount for more than one person's consumption. For instance, a multi-serving of coffee may be 60-120 grams of coffee grinds.

With continued reference to FIGS. 1A-D, second chamber 120 may be vacuum and/or heat sealed to lid 136 so that beverage substance 152 is preserved. “Heat sealed” as used in this disclosure is a method of bonding one or more components together using heat. This may include applying heat to one or more components to be joined, causing them to melt or soften. Pressure may then be applied to create a bond as the materials cool and solidify. In some instances, this may be performed utilizing a heat sealer. In a non-limiting example, the vacuum sealing process may involve the use of a vacuum chamber machine. As used in this disclosure, a “vacuum chamber machine” is a device designed to create a vacuum environment by removing air and other gases from an enclosed space. The machine may consist of a sealed chamber, a vacuum pump, and control mechanisms to regulate the vacuum process. The vacuum pump may extract air from the chamber, reducing the internal pressure and creating a vacuum. The environment may be useful for various applications, including packaging, preservation, and scientific experiments, as it minimizes the presence of air and other gases that can cause oxidation, contamination, or other undesirable effects. Without limitation, second chamber 120, containing beverage substance 152, may be placed inside the vacuum chamber machine, and lid 136 may be positioned on top. The vacuum chamber machine may then remove the air from the chamber and apply pressure to seal lid 136 to second chamber 120. This method ensures a strong, airtight seal that helps to extend the shelf life of beverage substance 152 by protecting it from moisture, contaminants, and other external elements. The vacuum-sealed second chamber can then be stored or transported without compromising the quality of beverage substance 152.

With continued reference to FIGS. 1A-D, first exterior shell 108 may include an inner surface having at least a recess 156 in a longitudinally protruding shape, and wherein the at least a ridge is configured to restrict movement of a second container upon engaging with at least a recess along an outer surface of the second container's first exterior shell. As used in this disclosure, a “ridge” is a surface that sticks out from the container body wall. For example, and without limitation, a ridge may extend from the first exterior or the intersecting horizontal plane and vertical plane at the top of the container body, across the horizontal, axial, or transverse lane. This extension may occur away from first exterior shell 108. A ridge may be flat and/or curved over the side of first exterior shell 108. In a non-limiting example, the ridge may be made of any material as described throughout this disclosure, including without limitation glass, plastic, metal, metal alloys, and/or the like. In a non-limiting example, the ridge may protrude 0-5 mm away from first exterior shell 108. As used in this disclosure, a “longitudinally protruding shape” is a form or structure that extends outward along the lengthwise direction of an object. In the context of first exterior shell 108, this means that the shape protrudes along the vertical axis of the chamber, providing additional structural integrity and rigidity. The longitudinally protruding shape may take various forms, such as ridges, ribs, or other elongated features, and is designed to enhance the overall strength and durability of the chamber by distributing stress and preventing deformation.

With continued reference to FIGS. 1A-D, first exterior shell 108 may include a cylindrical shape with a semi-conical bottom area. As used in this disclosure, a “semi-conical bottom area” is a portion of first exterior shell 108 that tapers or narrows in a conical shape towards the bottom. In a non-limiting example semi-conical bottom area 160 may not form a complete cone. Without limitation, semi-conical bottom area 160 may provide a gradual transition from the cylindrical shape of first exterior shell 108 of first chamber 104 to a smaller, more compact base. Semi-conical bottom area 160 may enhance the structural stability of the chamber and facilitate the flow of liquids or other substances towards the bottom, making it easier to dispense or extract the contents of beverage substance 152.

With continued reference to FIGS. 1A-D, first exterior shell 108 may include an outer surface having at least a ridge in a longitudinally indentation shape. As used in this disclosure, a “recess” is an indentation or hollowed-out area on the surface of an object. In a non-limiting example, first exterior shell 108 may include a plurality of recesses. The plurality of recesses, without limitation, may include a concave feature that is designed to provide additional structural integrity and rigidity. The plurality of recesses may take various shapes and sizes, such as grooves, slots, depressions, and the like. In a non-limiting example, the recess may be made of any material as described throughout this disclosure, including without limitation glass, plastic, metal, metal alloys, and/or the like. As used in this disclosure, a “longitudinally indentation shape” is a form or structure that is indented or recessed along the lengthwise direction of an object. Without limitation, the longitudinally indentation shape may run along the vertical axis of the chamber, creating a concave feature. Without limitation, the plurality of recesses may be oriented along the lengthwise direction of the chamber. Continuing, this design may help to distribute stress and prevent deformation, enhancing the overall strength and durability of first chamber 104.

Referring now to FIG. 2A and FIG. 2B, an exemplary illustration of the container from an isometric view, 200a, and a side view, 200b. Container 200a-b may include plurality of recesses 204 along first exterior shell. Without limitation, plurality of recesses 204 may be configured to enhance the structural integrity of first chamber. Each recess 204 may be a longitudinally indentation shape that runs along the vertical axis of the chamber, creating a concave feature. The design of the recesses 204 may help to distribute stress and prevent deformation, thereby enhancing the overall strength and durability of first chamber. Without limitation, a recess of the plurality of recesses 204 may correspond to a ridge 220, wherein the ridge 220 extends longitudinally along the interior surface 224. Without limitation, the ridge May provide additional structural support. Without limitation, the ridge 220 may be designed to interlock with complementary features on the second chamber, ensuring a secure fit. For instance, without limitation the ridge 220 may be interlocked with a second apparatus and prevent rotational movement. In a non-limiting example, the ridge 220 may be designed to allow for easy assembly and disassembly. For example, the ridges 220 may be tapered or angled in a way that guides the second apparatus into the correct position as it is inserted into the first chamber. Continuing, once fully inserted, the ridge 220 may provide a secure connection that may be easily disengaged by applying a specific amount of force or by twisting the components in a particular direction.

FIG. 2B shows an illustration of the container from a side view 200b. The container includes flange 208 located at the upper area of the first chamber and semi-conical bottom area 212. The plurality of recesses 204 may be visible along the first exterior shell, extending from the flange 208 to the semi-conical bottom area 212. In a non-limiting example, the plurality of recesses 204 provide additional structural integrity and rigidity to the first chamber by distributing stress along the lengthwise direction of the chamber. Without limitation, semi-conical bottom area 212 may have a radius of 0-5 mm. In a non-limiting example, the semi-conical bottom area 212 may enhance the structural stability of the chamber and facilitates the flow of liquids or other substances towards the bottom, making dispensing or extracting the contents of the beverage substance easier.

With continued reference to FIG. 2A-B, the container may also include collar 216. As used in this disclosure, a “collar” is a structural feature that encircles the neck or opening of the container. In a non-limiting example, collar 216 may provide reinforcement, support, and/or a point for attaching closures or other components. In a non-limiting example, collar 216 may be designed to facilitate the easy stacking and separation of empty containers, making storage and recycling handling more efficient. Continuing, the collar may be structured to be slightly wider or differently shaped than the body of the container, thereby allowing empty containers to nestle securely within one another. Continuing, collar 216 design may prevent the containers from becoming tightly stuck together and may make it simpler to pull the containers apart when needed. Continuing, collar 216 may be useful in recycling processes, where quick and easy handling of large volumes of empty containers may be required. Additionally and or alternatively, collar 216 may be designed to serve as a stacking aid by providing a stable base when inverted. For example, without limitation, collar 216 may act as a rim that prevents the containers from sliding too deeply into one another, ensuring they are easy to separate. This stacking feature not only saves space but also makes the cups more accessible for end-users, reducing the effort needed to retrieve a single container from a stack. In another non-limiting example, collar 216 may provide a handhold for automated sorting machines in facilities, which may grip collar 216 to maneuver and process the containers efficiently. Continuing, in a non-limiting example, in manufacturing and packaging, collar 216 may be used to align and stabilize containers on conveyor belts, ensuring they remain upright and correctly oriented during filling and scaling operations.

Referring now to FIG. 3A and FIG. 3B, an illustration of an embodiment of an exterior chamber shape with a lid in a closed configuration, 300a, and the lid in an open configuration, 300b. The lid 304 may be coupled to the first chamber 308, which features a semi-conical bottom area. The semi-conical bottom area of the first chamber 308 may provide a gradual transition from the cylindrical shape of the first exterior shell to a smaller, more compact base. This design may enhance the structural stability of the chamber and facilitate the flow of liquids or other substances towards the bottom, making dispensing or extracting the contents of the beverage substance easier.

FIG. 3B shows an illustration of an embodiment of the exterior chamber shape with a lid in an open configuration 300b. The lid 312 may be separated from the first chamber 316, revealing the interior structure. The lid 312 may include lift tab 320, which facilitates the removal of the lid from the first chamber 316. The semi-conical bottom area of the first chamber 316 is visible, demonstrating how the shape of the first chamber changes when the lid is removed. The semi-conical bottom area provides a stable base and aids in the efficient flow of the beverage substance.

With continued reference to FIG. 3A-B, lid 312 may include a recess 324. In a non-limiting example, recess 324 may provide a guide for a coffee machine's needles or puncturing mechanism. Continuing, during the brewing process, these needles may pierce the lid to allow hot water to enter and the filtered liquid to exit. Continuing, recess 324 may ensure that the needles align correctly with the designated puncture points, reducing the risk of misalignment, which can cause improper brewing or damage to the machine. Continuing, the alignment may help maintain the integrity of the brewing process, ensuring a consistent and high-quality filtered liquid each use. Additionally and or alternatively, recess 324 on lid 312 may provide structural stability to the container. Continuing, recess 324 may help distribute any pressure that is applied during sealing and storage, and help prevent lid 312 from bulging or deforming. Continuing, this structural reinforcement may provide an airtight seal, preserving the freshness of the beverage substance inside. Additionally and or alternatively, recess 324 may be designed to interlock with other pods, thereby facilitating stacking and storage. Continuing, recess 324 may assist in streamlining the packaging process by allowing a plurality of pods to be neatly and securely stacked, reducing the risk of shifting and damage during transportation. In another non-limiting example, recess 324 may provide an interlocking design to simplify storage in a consumer's home.

Exemplary embodiments have been disclosed above and illustrated in the accompanying drawings. It will be understood by those skilled in the art that various changes, omissions and additions may be made to that which is specifically disclosed herein without departing from the spirit and scope of the present invention.