ADJUSTABLE UTILITY BELT

Description

FIELD OF INVENTION

The present disclosure relates to utility belts, and more particularly to a size adjustable utility belt comprising separable belt sections with multiple layers and openings for carrying various pieces of equipment.

BACKGROUND

Utility belts have long been used by military personnel, law enforcement officers, and civilians to carry various pieces of equipment and tools. These belts serve as platforms for attaching items such as holsters, magazine pouches, communication devices, medical supplies, and other gear that users need readily accessible during their activities.

Traditional utility belts face several challenges in their design and implementation. Many existing utility belts are manufactured in fixed sizes, requiring organizations to stock multiple belt sizes to accommodate personnel with different waist measurements. This approach increases inventory costs and complicates the distribution process, particularly for large-scale deployments where a wide range of sizes may be needed.

Weight considerations present another challenge in utility belt design. Conventional utility belts often rely on thick leather or heavy-duty materials to provide the structural support needed to carry substantial loads of equipment. While these materials offer durability and strength, they also add considerable weight to the belt system, which can contribute to user fatigue during extended wear periods.

Compatibility with existing equipment systems represents an additional consideration in utility belt design. Modern tactical and professional environments often utilize standardized attachment systems, such as MOLLE (Modular Lightweight Load-carrying Equipment) interfaces and various belt-mounted accessories. Utility belts that cannot accommodate these existing systems may limit users'ability to integrate their preferred equipment configurations.

The modularity and adjustability of utility belt systems also affects their practical utility. Users may need to reconfigure their equipment loadout based on specific mission requirements or operational conditions. Belt systems that lack flexibility in both sizing and equipment arrangement may not adequately serve users who require adaptable carrying solutions.

Accordingly, it is an object of the present invention to provide a modular utility belt design that is fully adjustable, ambidextrous and can be configured to accommodate a wide variety of commercially available items.

It is a further object of the present invention to provide an adjustable utility belt made of lightweight durable modern materials able to support a large amount of gear.

SUMMARY

This summary is provided to introduce a selection of concepts in a simplified form that are further described below in the detailed description. This summary is not intended to identify key features or essential features of the claimed subject matter, nor is it intended to be used as an aid in determining the scope of the claimed subject matter.

According to an aspect of the present disclosure, a modular adjustable utility belt is provided. In an example embodiment, the modular adjustable utility belt comprises a first belt section and a second belt section, wherein the first belt section and the second belt section are separable from each other as independent belt portions, and wherein the first belt section and the second belt section are arranged to overlap and interconnect along a length of the first belt section and the second belt section to adjust an overall size of the utility belt. The first belt section and the second belt section each comprise a front face layer having a first series of openings laterally spaced along a length adapted for receiving a securing member, a stiffening layer having a complementary series of openings to the front face layer, a backing layer having a complementary series of openings to the stiffening layer, and a hook and loop layer having a complementary series of openings to the backing layer. The front face layer, the stiffening layer, the backing layer and the hook and loop layer are interconnected to define each of the first belt section and the second belt section, and the securing member extends through the openings in the front face layer, the stiffening layer, the backing layer and the hook and loop layer to secure the first belt section to the second belt section in an overlapping arrangement. The front face layer, the stiffening layer, the backing layer and the hook and loop layer include a second series of aligned complementary openings spaced along their length adapted for receiving at least one of a securing member or connecting strap from a piece of equipment to be attached to the utility belt.

In various embodiments, the first series of openings may comprise circular openings disposed along a top portion of the front face layer and laterally spaced along the length of the first belt section and the second belt section. The securing member may comprise a screw portion and a receiver portion, wherein the screw portion is received into and secured together with the receiver portion. The backing layer may include backing layer circular openings that are larger than the circular openings in the front face layer, and the receiver portion may be recessed within the backing layer circular openings such that the receiver portion does not extend outward beyond a plane of the hook and loop layer.

The second series of complementary openings may comprise rectangular slots laterally spaced along the length of the first belt section and the second belt section and positioned below the first series of openings. The second series of complementary openings may further comprise elongated openings laterally spaced along the length of the first belt section and the second belt section and positioned below the rectangular slots. The elongated openings may include connector catch portions extending upward toward the rectangular slots to prevent lateral movement of equipment securing members. The front face layer, the stiffening layer, the backing layer and the hook and loop layer may be interconnected by stitching lines that define separation pockets extending between the stiffening layer and the backing layer to allow equipment connecting straps to pass through the belt structure.

In some embodiments, the stiffening layer may comprise a flexible composite material that is more rigid than the front face layer, the backing layer, and the hook and loop layer. The stiffening layer may comprise a plastic laminate material as a lightweight rigid material option.

According to another aspect, an adjustable utility belt may comprise separable first and second belt sections arranged to overlap along their lengths, with each belt section comprising multiple layers including a front face layer, a stiffening layer, and a backing layer. The multiple layers may have aligned openings extending therethrough. A securing strap may be carried at points along the length of the first belt section and the second belt section for securing the belt sections together. The securing strap may comprise a first distal end portion having strap slots, a middle strap portion extending from the first distal end portion, and a second distal end portion extending from the middle strap portion and configured to pass through the strap slots. The securing strap may pass through the aligned openings in the first belt section and the second belt section, and the second distal end portion may engage with the first distal end portion to secure the belt sections together in an overlapping arrangement.

The first distal end portion may comprise flexible strap material folded back over itself and surrounding a strap stiffening layer disposed between layers of the flexible strap material. The second distal end portion may comprise two layers of the flexible strap material folded back over itself and surrounding a strap stiffening layer, and the second distal end portion may be narrower than the first distal end portion to allow insertion through the strap slots. Each belt section may include a hook and loop layer mounted to the backing layer with openings aligned with the other layers, and the securing strap may pass through the openings from a hook and loop layer side to a front face layer side of the belt sections. The securing strap may comprise hook and loop material that provides self-adhering connection capabilities when a hook surface of the securing strap contacts a loop surface of the same strap. Multiple securing straps may be used simultaneously at different positions along the length of the first belt section and the second belt section to provide enhanced connection security and load distribution across multiple connection points.

According to a further aspect, an adjustable utility belt may comprise separable first and second belt sections arranged to overlap for size adjustment, with each belt section comprising layered materials including a stiffening layer positioned between a front face layer and a backing layer. A first series of openings may extend through the layered materials to define an arrangement of continuous passages laterally spaced along each belt section. A second series of openings may extend through the layered materials to define an arrangement of continuous passages laterally spaced along each belt section and vertically spaced from the first series of openings. A securing member may extend through at least one of the first series of openings in the first belt section and the second belt section when positioned in an overlapping arrangement to secure the belt sections together. Each belt section may further comprise a hook and loop layer positioned adjacent to the backing layer. The layered materials may be interconnected by stitching lines that define separation pockets extending between the stiffening layer and the backing layer to allow equipment connecting straps to pass through the belt structure. The securing member may comprise a strap extending through at least one of the first series of openings and at least one of the second series of openings to secure the belt sections together.

The foregoing general description of the illustrative embodiments and the following detailed description thereof are merely exemplary aspects of the teachings of this disclosure and are not restrictive.

BRIEF DESCRIPTION OF FIGURES

The invention will be more readily understood from a reading of the following specification and by reference to the accompanying drawings forming a part thereof. Non-limiting and non-exhaustive examples are described with reference to the following figures.

FIG. 1 illustrates a front view of a front face layer for an adjustable utility belt, according to aspects of the present disclosure.

FIG. 2 illustrates a front view of a stiffening layer for the adjustable utility belt, according to aspects of the present disclosure.

FIG. 3 illustrates a front view of a backing layer for the adjustable utility belt, according to aspects of the present disclosure.

FIG. 4 illustrates a front face view of separated first and second belt sections, according to aspects of the present disclosure.

FIG. 5 illustrates a rear backing view of the separated first and second belt sections of FIG. 4, according to aspects of the present disclosure.

FIG. 6 illustrates a detailed rear backing view of a portion of a utility belt section, according to aspects of the present disclosure.

FIG. 7 illustrates a detailed front face view of a portion of the utility belt section of FIG. 6, according to aspects of the present disclosure.

FIG. 8 illustrates a side cross-sectional view of a section of the utility belt, according to aspects of the present disclosure.

FIG. 9 illustrates a side cross-sectional view of the section of the utility belt of FIG. 8, according to aspects of the present disclosure.

FIG. 10 illustrates a detailed rear backing view of overlapped sections of the utility belt, according to aspects of the present disclosure.

FIG. 11 illustrates a detailed rear backing view of the overlapped sections of the utility belt of FIG. 10, according to aspects of the present disclosure.

FIG. 12 illustrates a rear backing elevation view of overlapping sections of the utility belt, according to aspects of the present disclosure.

FIG. 13 illustrates a detailed view of a distal end portion of the belt sections, according to aspects of the present disclosure.

FIG. 14 illustrates a detailed view of an opposite distal end portion of the belt sections of FIG. 13, according to aspects of the present disclosure.

FIG. 15 illustrates a front elevation view of alternative belt section configurations with gear mount openings, according to aspects of the present disclosure.

FIG. 16 illustrates a perspective view of an assembled utility belt of FIG. 15 with attached equipment, according to aspects of the present disclosure.

FIG. 17 illustrates a front face elevation view of an alternative embodiment with securing straps, according to aspects of the present disclosure.

FIG. 18 illustrates a rear backing elevation view of the alternative embodiment of FIG. 17, according to aspects of the present disclosure.

FIG. 19 illustrates a front view of a securing strap for connecting belt sections, according to aspects of the present disclosure.

FIG. 20 illustrates a detailed side cross-section view of a first distal end portion of the securing strap of FIG. 19, according to aspects of the present disclosure.

FIG. 21 illustrates a detailed side cross-section view of a second distal end portion of the securing strap of FIG. 19, according to aspects of the present disclosure.

FIG. 22 illustrates a perspective view of overlapping belt sections with a securing strap connection mechanism, according to aspects of the present disclosure.

FIG. 23 illustrates a perspective view of the overlapping belt sections with the securing strap connection mechanism of FIG. 22, according to aspects of the present disclosure.

FIG. 24 illustrates a perspective view of overlapping belt sections with a securing strap connection mechanism of FIG. 22, according to aspects of the present disclosure.

FIG. 25 illustrates a perspective view of overlapping belt sections with the securing strap in a completed configuration, according to aspects of the present disclosure.

It will be understood by those skilled in the art that one or more aspects of this invention can meet certain objectives, while one or more other aspects can meet certain other objectives. Each objective may not apply equally, in all its respects, to every aspect of this invention. As such, the preceding objects can be viewed in the alternative with respect to any one aspect of this invention. These and other objects and features of the invention will become more fully apparent when the following detailed description is read in conjunction with the accompanying figures and examples. However, it is to be understood that both the foregoing summary of the invention and the following detailed description are of a preferred embodiment and not restrictive of the invention or other alternate embodiments of the invention. In particular, while the invention is described herein with reference to a number of specific embodiments, it will be appreciated that the description is illustrative of the invention and is not constructed as limiting of the invention. Various modifications and applications may occur to those who are skilled in the art, without departing from the spirit and the scope of the invention, as described by the appended claims. Likewise, other objects, features, benefits and advantages of the present invention will be apparent from this summary and certain embodiments described below, and will be readily apparent to those skilled in the art. Such objects, features, benefits and advantages will be apparent from the above in conjunction with the accompanying examples, figures and all reasonable inferences to be drawn therefrom, alone or with consideration of the references incorporated herein.

DETAILED DESCRIPTION

The following description sets forth exemplary aspects of the present disclosure. It should be recognized, however, that such description is not intended as a limitation on the scope of the present disclosure. Rather, the description also encompasses combinations and modifications to those exemplary aspects described herein.

The present disclosure relates to a modular adjustable utility belt system designed to provide enhanced flexibility and adaptability for carrying various equipment. The utility belt may comprise a first belt section and a second belt section, wherein the sections are separable from each other as independent belt portions. This separable configuration allows for modular assembly and disassembly of the belt components as needed.

The first belt section and second belt section may be arranged to overlap and interconnect along a length of the sections to adjust an overall size of the utility belt. This overlapping arrangement provides a mechanism for accommodating different waist sizes and user requirements through variable positioning of the belt sections relative to each other. The interconnection between the sections may be achieved through various securing mechanisms that pass through strategically positioned openings in the belt sections.

The utility belt may comprise multiple layers of strong, flexible, lightweight materials that are stacked together to form each belt section. These layers may include various types of materials selected for different functional properties, such as structural support, flexibility, weight reduction and attachment compatibility. The lightweight construction provides significant advantages over traditional heavy-duty leather or thick fabric belt systems, potentially reducing user fatigue during extended wear periods while maintaining the structural integrity needed to support substantial equipment loads. In some aspects, the lightweight materials may include advanced synthetic fabrics, composite materials, or engineered textiles that offer high strength-to-weight ratios. Each layer may include a series of openings that align with corresponding openings in adjacent layers to create continuous passages through the belt structure.

The openings in the belt sections may serve dual purposes: securing the first belt section to the second belt section in the overlapping arrangement, and providing attachment points for equipment and accessories. The strategic positioning of these openings along the length of each belt section allows for multiple adjustment positions and equipment mounting configurations. The modular design enables users to customize the belt configuration based on specific operational requirements while maintaining structural integrity and load-bearing capacity.

Referring to FIGS. 1, 4, and 5, the utility belt system may comprise a first belt section 10 and a second belt section 12 that function as separable independent belt portions. The first belt section 10 and the second belt section 12 may be manufactured as distinct components that can be completely separated from each other when not in use or during assembly and disassembly operations. This separable configuration provides modularity that allows for individual maintenance, replacement, or reconfiguration of either belt section without affecting the other section.

The first belt section 10 and the second belt section 12 may be arranged to overlap along their respective lengths to adjust an overall size of the utility belt. The overlapping arrangement may involve positioning a portion of the first belt section 10 over or under a corresponding portion of the second belt section 12, creating a layered configuration where both sections contribute to the structural integrity of the assembled belt. The degree of overlap between the first belt section 10 and the second belt section 12 may be varied to accommodate different waist measurements and sizing requirements.

The overlapping configuration may allow for continuous adjustment of the belt size rather than discrete sizing increments. By sliding the first belt section 10 and the second belt section 12 relative to each other along their lengths, users may achieve precise fit adjustments. This sliding adjustment mechanism may provide a range of sizing options that can accommodate multiple users or allow a single user to adjust the belt for different clothing configurations or equipment loads.

The first belt section 10 and the second belt section 12 may be designed with complementary profiles that facilitate stable overlapping engagement. The sections may include alignment features or surface textures that help maintain proper positioning during overlap adjustment. The overlapping arrangement may distribute mechanical loads across both sections, potentially providing enhanced load-bearing capacity compared to single-section belt designs.

In the overlapping configuration, the first belt section 10 and the second belt section 12 may maintain their individual structural characteristics while functioning together as a unified belt system. Each section may retain its ability to support attached equipment independently, while the overlapped region may provide additional reinforcement for high-stress applications. The modular nature of the first belt section 10 and the second belt section 12 may enable field replacement or upgrade of individual sections without requiring complete belt system replacement.

The first belt section 10 and the second belt section 12 may each comprise a front face layer 14 that forms an exterior surface of the belt sections. The front face layer 14 may include a first front face layer section 14a associated with the first belt section 10 and a second front face layer section 14b associated with the second belt section 12. The front face layer 14 may be constructed from lightweight flexible materials that provide durability while maintaining flexibility for user comfort and belt adjustment operations.

In some cases, the front face layer 14 may be made using Squadron® woven nylon fabric material as a lightweight flexible material option. Squadron® material may provide a combination of strength, flexibility, and weight reduction characteristics suitable for tactical and utility applications. Alternative lightweight flexible materials may also be used for the front face layer 14 depending on specific application requirements and performance criteria.

The first front face layer section 14a and the second front face layer section 14b may each include a first series of openings laterally spaced along a length of the respective belt sections. These openings may be adapted for receiving a securing member that connects the first belt section 10 to the second belt section 12 in the overlapping arrangement. The lateral spacing of the openings along the length of each belt section may provide multiple positioning options for the securing member, thereby enabling adjustment of the overall belt size.

The first series of openings may comprise circular openings 16 disposed generally along a top portion of the first front face layer section 14a and the second front face layer section 14b. The circular openings 16 may be laterally spaced along the length of the front face layer sections to provide multiple connection points for securing members. The circular configuration of these openings may facilitate insertion and positioning of securing members while distributing mechanical loads around the opening perimeter.

The first front face layer section 14a and the second front face layer section 14b may also include rectangular slots 18 laterally spaced along the length of the belt sections. The rectangular slots 18 may be positioned below the circular openings 16 and may provide attachment points for equipment connecting straps and accessories. In some cases, each rectangular slot 18 may be vertically aligned below one of the circular openings 16 to create organized rows of attachment options along the length of each belt section.

The front face layer sections may further include elongated openings 20 laterally spaced along the length of the first front face layer section 14a and the second front face layer section 14b. The elongated openings 20 may be positioned below the rectangular slots 18 and may provide additional equipment attachment capabilities. In some cases, each elongated opening 20 may be vertically aligned below one of the rectangular slots 18 to maintain the organized arrangement of attachment features.

The elongated openings 20 may include connector catch portions 22 extending upward toward the rectangular slots 18. The connector catch portions 22 may provide an optional configuration that prevents lateral movement of equipment securing members and associated attachment hardware. The connector catch portions 22 may receive securing members such as screws or other fasteners associated with mounting straps, holsters, or other equipment pieces. The upward extension of the connector catch portions 22 toward the rectangular slots 18 may create a mechanical interference that restricts lateral sliding movement of attached equipment along the belt sections.

The first front face layer section 14a may include a first pair of vertical slots 24 disposed on a distal end portion of the first front face layer section 14a. Similarly, the second front face layer section 14b may include a second pair of vertical slots 26 disposed on a distal end portion of the second front face layer section 14b. The first pair of vertical slots 24 and the second pair of vertical slots 26 may extend along a vertical axis direction generally perpendicular relative to a horizontal axis direction along which the rectangular slots 18 extend. This perpendicular orientation may provide attachment options for straps and connecting mechanisms that require vertical threading or positioning relative to the belt sections.

Referring to FIGS. 2, 8, and 9, the first belt section 10 and the second belt section 12 may each comprise a stiffening layer 28 that provides structural rigidity to the belt assembly while maintaining flexibility for user comfort and adjustment operations. The stiffening layer 28 may be positioned beneath the front face layer 14 in the layered construction of each belt section. The stiffening layer 28 may comprise a lightweight but more rigid material compared to the front face layer 14, providing enhanced load-bearing capacity and dimensional stability to the belt sections.

The stiffening layer 28 may include a first stiffening layer section 11 associated with the first belt section 10 and a second stiffening layer section 13 associated with the second belt section 12. The first stiffening layer section 11 and the second stiffening layer section 13 may be configured to align with the first front face layer section 14a and the second front face layer section 14b, respectively, in the stacked arrangement of the belt assembly.

In some cases, the stiffening layer 28 may comprise Tegris® manufactured by Milliken as a flexible but stiff composite material. Tegris® material may provide a combination of lightweight construction, structural rigidity, and flexibility characteristics suitable for tactical utility belt applications. The composite nature of Tegris® material offers enhanced strength-to-weight ratios compared to traditional materials, such as leather and heavy fabrics, while maintaining the flexibility needed for belt adjustment and user comfort.

Alternatively, the stiffening layer 28 may comprise a plastic laminate material as a lightweight rigid material option. Plastic laminate materials may provide structural support characteristics while maintaining relatively low weight compared to metal or thick fabric stiffening options. The plastic laminate construction may offer resistance to environmental factors such as moisture and temperature variations that may be encountered in field applications. In some aspects, the plastic laminate material may comprise high-density polyethylene (HDPE) laminates that provide chemical resistance and impact strength while maintaining flexibility. The stiffening layer 28 may also comprise polypropylene laminate materials that offer low moisture absorption and good fatigue resistance characteristics. In some cases, the plastic laminate may include polyvinyl chloride (PVC) based materials that provide weather resistance and dimensional stability. The stiffening layer 28 may alternatively comprise thermoplastic polyurethane (TPU) laminates that offer enhanced flexibility and abrasion resistance properties. Polycarbonate laminate materials may also be used for the stiffening layer 28 to provide high impact strength and optical clarity characteristics. In some aspects, the plastic laminate may include acrylonitrile butadiene styrene (ABS) materials that offer good mechanical properties and chemical resistance for utility belt applications.

The stiffening layer 28 may have a complementary series of openings to the front face layer 14 that align with the openings in the front face layer 14 to provide continuous passages through the layered belt structure. The first stiffening layer section 11 and the second stiffening layer section 13 may include a complementary series of second circular openings 16a that correspond to and align with the circular openings 16 in the front face layer 14. The second circular openings 16a may be positioned and sized to create continuous passages through both the stiffening layer 28 and the front face layer 14 when the layers are stacked together.

The first stiffening layer section 11 and the second stiffening layer section 13 may also include a complementary series of second rectangular openings 18a for aligning with the rectangular slots 18 of the front face layer 14. The second rectangular openings 18a may be positioned below the second circular openings 16a in a vertically aligned arrangement that corresponds to the arrangement of openings in the front face layer 14. The alignment of the second rectangular openings 18a with the rectangular slots 18 may create continuous passages that accommodate equipment connecting straps and attachment hardware.

The first stiffening layer section 11 may include a first pair of stiffening layer vertical slots 24a disposed on a distal end portion of the first stiffening layer section 11. The first pair of stiffening layer vertical slots 24a may align with the first pair of vertical slots 24 in the first front face layer section 14a to create continuous vertical passages through both layers. Similarly, the second stiffening layer section 13 may include a second pair of stiffening layer vertical slots 26a disposed on the second stiffening layer section 13. The second pair of stiffening layer vertical slots 26a may align with the second pair of vertical slots 26 in the second front face layer section 14b.

The stiffening layer 28 may include second connector catch portions 22a formed into a lower edge of the first stiffening layer section 11 and the second stiffening layer section 13. The second connector catch portions 22a may align with the connector catch portions 22 in the front face layer 14 when the layers are stacked together. The second connector catch portions 22a may provide an optional configuration that enhances the mechanical interference characteristics of the connector catch portions 22 by providing additional material thickness and structural support.

Referring to FIGS. 4-9, when the stiffening layer 28 is stacked with the front face layer 14, the various openings, slots, and catch portions may align to provide continuous passages through the layers. The alignment of the second circular openings 16a with the circular openings 16, the second rectangular openings 18a with the rectangular slots 18, and the second connector catch portions 22a with the connector catch portions 22 may create a unified opening system that extends through multiple layers of the belt construction. This alignment may facilitate the insertion of securing members and equipment attachment hardware through the complete thickness of the belt sections while maintaining structural integrity and load distribution characteristics.

Referring to FIGS. 3, 8, and 9, the first belt section 10 and the second belt section 12 may each comprise a backing layer 30 that provides additional structural support and attachment functionality to the belt assembly. The backing layer 30 may be positioned beneath the stiffening layer 28 in the layered construction of each belt section, creating a multi-layer assembly that distributes mechanical loads across multiple material interfaces. The backing layer 30 may serve as an intermediate layer between the stiffening layer 28 and additional functional layers in the belt construction.

The backing layer 30 may include a first backing layer section 15 associated with the first belt section 10 and a second backing layer section 17 associated with the second belt section 12. The first backing layer section 15 and the second backing layer section 17 may be configured to align with the first stiffening layer section 11 and the second stiffening layer section 13, respectively, in the stacked arrangement of the belt assembly. The first backing layer section 15 and the second backing layer section 17 may maintain the same general profile and dimensions as the corresponding stiffening layer sections to ensure proper alignment and load distribution.

In some cases, the backing layer 30 may be comprised of the same flexible material as the front face layer 14. This material consistency may provide uniform flexibility characteristics across multiple layers of the belt construction while maintaining compatibility between different layers during flexing and adjustment operations. The use of the same flexible material for the backing layer 30 and the front face layer 14 may also simplify manufacturing processes and material sourcing requirements for the belt assembly.

The backing layer 30 may have a complementary series of openings to the stiffening layer 28 that align with the openings in the stiffening layer 28 and the front face layer 14 to provide continuous passages through the complete layered belt structure. The first backing layer section 15 and the second backing layer section 17 may include backing layer circular openings 32 that correspond to and align with the second circular openings 16a in the stiffening layer 28 and the circular openings 16 in the front face layer 14.

The backing layer circular openings 32 may be larger than the circular openings 16 in the front face layer 14 and the second circular openings 16a in the stiffening layer 28. This size differential may allow for recessing of securing member heads within the backing layer circular openings 32, preventing the securing member heads from extending beyond the outer surface of the backing layer 30. The recessed configuration may provide a flush or low-profile mounting arrangement that reduces snagging potential and improves the overall ergonomics of the belt assembly when worn against the user's body.

The first backing layer section 15 and the second backing layer section 17 may also include third rectangular openings 18b for aligning with the second rectangular openings 18a of the stiffening layer 28 and the rectangular slots 18 of the front face layer 14. The third rectangular openings 18b may be positioned below the backing layer circular openings 32 in a vertically aligned arrangement that corresponds to the arrangement of openings in the other layers. The alignment of the third rectangular openings 18b with the openings in the other layers may create continuous passages that accommodate equipment connecting straps and attachment hardware through the complete thickness of the belt sections.

The first backing layer section 15 may include a first pair of backing layer vertical slots 24b disposed on a distal end portion of the first backing layer section 15. The first pair of backing layer vertical slots 24b may align with the first pair of stiffening layer vertical slots 24a in the first stiffening layer section 11 and the first pair of vertical slots 24 in the first front face layer section 14a to create continuous vertical passages through all layers. Similarly, the second backing layer section 17 may include a second pair of backing layer vertical slots 26b disposed on the second backing layer section 17. The second pair of backing layer vertical slots 26b may align with the second pair of stiffening layer vertical slots 26a in the second stiffening layer section 13 and the second pair of vertical slots 26 in the second front face layer section 14b.

The backing layer 30 may include third connector catch portions 22b formed into a lower edge of the first backing layer section 15 and the second backing layer section 17. The third connector catch portions 22b may align with the second connector catch portions 22a in the stiffening layer 28 and the connector catch portions 22 in the front face layer 14 when the layers are stacked together. The third connector catch portions 22b may provide an optional configuration that further enhances the mechanical interference characteristics by providing additional material thickness and structural support for preventing lateral movement of attached equipment.

Referring to FIGS. 5, 6, and 8-10, the first belt section 10 and the second belt section 12 may each comprise a hook and loop layer 34 that forms an innermost surface of the belt assembly. The hook and loop layer 34 may be positioned after the backing layer 30 in the layered construction, creating the final layer in the multi-layer belt structure. The hook and loop layer 34 may provide a functional interface surface for connection to complementary attachment systems.

The hook and loop layer 34 may have a complementary series of openings to the backing layer 30 that align with the openings in the backing layer 30, the stiffening layer 28, and the front face layer 14. The hook and loop layer 34 may include openings that correspond to the backing layer circular openings 32, the third rectangular openings 18b, the first pair of backing layer vertical slots 24b, the second pair of backing layer vertical slots 26b, and the third connector catch portions 22b in the backing layer 30. The alignment of openings in the hook and loop layer 34 with the openings in the other layers may maintain the continuous passage system through the complete belt assembly.

The hook and loop layer 34 may provide a connection interface for an inner belt having a complementary hook and loop connector. The hook and loop connection system may allow the utility belt assembly to be securely attached to an inner belt worn by the user, providing additional stability and load distribution. The hook and loop interface may enable quick attachment and detachment of the utility belt from the inner belt system, facilitating rapid configuration changes or belt removal as needed during operations.

Referring to FIGS. 6 and 7, the layered construction of the first belt section 10 and the second belt section 12 may involve a detailed stitching assembly that secures the multiple layers together while creating functional features for equipment attachment. The stitching pattern may provide structural integrity to the belt assembly while defining specific zones for equipment connecting strap passage and attachment hardware positioning.

As shown in FIG. 7, the front face layer 14 and the stiffening layer 28 may be secured together by first stitching lines 36 running horizontally across the length of the belt sections. The first stitching lines 36 may be positioned above the circular openings 16 and between the rectangular slots 18 and the elongated openings 20. This positioning of the first stitching lines 36 may create secure attachment zones while maintaining access to the openings for securing member insertion and equipment attachment operations.

The horizontal arrangement of the first stitching lines 36 may provide continuous bonding between the front face layer 14 and the stiffening layer 28 such that the two layers do not generally separate at any points along the length of the first belt section 10 and the second belt section 12. The first stitching lines 36 may distribute mechanical loads across the interface between the front face layer 14 and the stiffening layer 28, enhancing the structural integrity of the belt assembly during equipment loading and user movement.

Referring to FIG. 6, the backing layer 30 and the hook and loop layer 34 may be secured together in a similar manner with second stitch lines 38 running horizontally across the length of the belt sections. The second stitch lines 38 may be positioned above the backing layer circular openings 32 and between the third rectangular openings 18b and the third connector catch portions 22b. This positioning of the second stitch lines 38 may create secure attachment zones in the rear portion of the belt assembly while maintaining access to the openings for securing member positioning and equipment attachment.

The second stitch lines 38 may provide continuous bonding between the backing layer 30 and the hook and loop layer 34 such that the two layers do not generally separate at any points along the length of the first belt section 10 and the second belt section 12. The horizontal arrangement of the second stitch lines 38 may distribute mechanical loads across the interface between the backing layer 30 and the hook and loop layer 34, providing structural stability to the innermost layers of the belt assembly.

Referring to FIGS. 6, 7, 8, and 9, all four layers comprising the front face layer 14, the stiffening layer 28, the backing layer 30, and the hook and loop layer 34 may be stitched together along vertical stitch lines 40. The vertical stitch lines 40 may extend between the first stitching lines 36 and the second stitch lines 38, creating a stitching pattern that spans the complete thickness of the belt assembly. The vertical stitch lines 40 may be laterally spaced between the circular openings 16, the rectangular slots 18, and the elongated openings 20 to maintain access to these attachment features while providing structural connection between all layers.

The vertical stitch lines 40 may define a series of separation pockets 42 that extend in a vertically aligned manner between the layers of the belt assembly. As shown in FIG. 9, the separation pockets 42 may be positioned between the stiffening layer 28 and the backing layer 30, creating enclosed spaces that allow equipment connecting straps and attachment hardware to pass through the belt structure. The separation pockets 42 may provide a controlled pathway for connecting straps to pass between the stiffening layer 28 and the backing layer 30 while maintaining the structural integrity of the belt assembly.

The separation pockets 42 may allow equipment connecting straps to pass through the third rectangular openings 18b and the elongated openings 20 as needed for attachment to the first belt section 10 and the second belt section 12. The vertical alignment of the separation pockets 42 may facilitate threading of connecting straps through multiple openings in the belt assembly, enabling secure attachment of equipment while distributing loads across multiple layers of the belt structure.

The interconnection of the front face layer 14, the stiffening layer 28, the backing layer 30, and the hook and loop layer 34 through the first stitching lines 36, the second stitch lines 38, and the vertical stitch lines 40 may define the structural framework of the first belt section 10 and the second belt section 12. This interconnected layer assembly may provide a unified belt structure that maintains dimensional stability while allowing for flexibility during belt adjustment and user movement operations.

The front face layer 14, the stiffening layer 28, the backing layer 30, and the hook and loop layer 34 may include a second series of complementary openings spaced along a length of the belt sections that are adapted for receiving at least one of a securing member or connecting strap from a piece of equipment to be attached to the utility belt. The second series of complementary openings may comprise the rectangular slots 18, the second rectangular openings 18a, the third rectangular openings 18b, the elongated openings 20, the connector catch portions 22, the second connector catch portions 22a, and the third connector catch portions 22b that align through the layered structure to provide continuous passages for equipment attachment hardware.

Referring to FIGS. 8 and 9, the side cross-sectional views illustrate the stacked arrangement of the multi-layer belt construction that forms the first belt section and the second belt section. The layered assembly may comprise the front face layer 14 positioned on one exterior side of the belt structure, with the hook and loop layer 34 positioned on the opposite exterior side. The stiffening layer 28 and the backing layer 30 may be disposed between the front face layer 14 and the hook and loop layer 34, creating a four-layer composite structure.

The stacked arrangement may position the front face layer 14 as the outermost layer that faces away from the user's body when the belt is worn. The stiffening layer 28 may be positioned immediately beneath the front face layer 14, providing structural rigidity to the belt assembly. The backing layer 30 may be disposed between the stiffening layer 28 and the hook and loop layer 34, serving as an intermediate layer that contributes to the overall structural integrity of the belt construction. The hook and loop layer 34 may form the innermost surface of the belt assembly, positioned to interface with the user's body or an inner belt system.

As shown in FIG. 9, the separation pockets 42 may extend vertically between the layers of the belt assembly, creating controlled spaces within the multi-layer construction. The separation pockets 42 may be positioned between the stiffening layer 28 and the backing layer 30, forming enclosed channels that allow equipment connecting straps and attachment hardware to pass through the belt structure while maintaining separation between different functional layers. The vertical extension of the separation pockets 42 may facilitate threading of connecting straps through the rectangular slots, the third rectangular openings, and the elongated openings as needed for equipment attachment operations.

The layered construction may provide structural rigidity through the combination of the stiffening layer 28 with the supporting layers, while maintaining flexibility through the use of flexible materials in the front face layer 14, the backing layer 30, and the hook and loop layer 34. The multi-layer arrangement may distribute mechanical loads across multiple material interfaces, enhancing the load-bearing capacity of the belt assembly while maintaining the flexibility needed for user comfort and belt adjustment operations. The lightweight construction characteristics may be achieved through the selection of advanced materials that provide high strength-to-weight ratios across all layers of the assembly.

The various layers of the belt construction may be adjusted to accommodate different application requirements and manufacturing preferences. The front face layer 14 or the hook and loop layer 34 may be excluded from the layered assembly in some configurations, allowing for simplified construction or specialized functionality. In some cases, layers may be combined in a molded arrangement with other layers to create integrated multi-functional components that reduce the total number of separate layers while maintaining the desired performance characteristics.

In some cases, the front face layer 14 may comprise laminated nylon mounted directly to the stiffening layer 28, where the stiffening layer 28 comprises a flexible composite material such as Tegris® manufactured by Milliken. This direct mounting arrangement may eliminate the need for separate bonding operations between the front face layer 14 and the stiffening layer 28, creating a unified composite structure that combines the surface properties of laminated nylon with the structural characteristics of the flexible composite layer material. The laminated nylon may provide abrasion resistance and aesthetic properties, while the Tegris® composite material may provide the structural rigidity and lightweight characteristics needed for the belt assembly.

The backing layer 30 may comprise either a flexible material layer, a hook and loop layer, or both layers depending on the specific application requirements. In configurations where the backing layer 30 comprises a hook and loop layer, the backing layer 30 may provide the hook and loop functionality while also serving as a structural layer in the belt assembly. In configurations where the backing layer 30 comprises both a flexible material layer and a hook and loop layer, the backing layer 30 may provide enhanced structural support along with the hook and loop interface functionality.

In some arrangements, the hook and loop layer 34 may be attached directly to the stiffening layer 28 with no backing layer 30 or front face layer 14. This simplified configuration may reduce the total thickness and weight of the belt assembly while maintaining the structural rigidity provided by the stiffening layer 28 and the interface functionality provided by the hook and loop layer 34. The direct attachment of the hook and loop layer 34 to the stiffening layer 28 may be achieved through adhesive bonding, mechanical fastening, or integrated manufacturing processes that combine the hook and loop material with the stiffening layer material.

The front face layer 14 may be constructed and arranged to match the shape of the backing layer 30 and the stiffening layer 28 as shown in FIGS. 2 and 3. This shape matching may involve configuring the front face layer 14 with the same profile, dimensions, and opening arrangements as the other layers to ensure proper alignment and functionality in the stacked assembly. The shape matching may facilitate manufacturing operations and ensure consistent performance characteristics across different layer configurations and assembly variations.

Referring to FIGS. 10 and 11, the first belt section 10 and the second belt section 12 may be interconnected through a securing member 44 that provides a mechanical connection system for joining the belt sections in an overlapping arrangement. The securing member 44 may comprise a two-part fastening system that extends through aligned openings in both belt sections to create a secure connection while allowing for adjustment of the overall belt length. The securing member 44 may provide a reliable connection mechanism that maintains the structural integrity of the belt assembly during use while enabling field adjustment and reconfiguration as needed.

The securing member 44 may include a screw portion 46 and a receiver portion 48 that interconnect to form a complete fastening assembly. The screw portion 46 may comprise a threaded fastener element that engages with the receiver portion 48 to create a mechanical connection between the first belt section 10 and the second belt section 12. The receiver portion 48 may comprise a threaded receptacle or nut element that receives and engages with the screw portion 46 to complete the fastening connection.

The screw portion 46 may be received into and secured together with the receiver portion 48 through a threaded engagement mechanism. The threaded connection between the screw portion 46 and the receiver portion 48 may provide a secure mechanical joint that resists loosening during normal use while allowing for intentional adjustment or removal when needed. The screw-receiver connection system may enable users to tighten or loosen the connection between the first belt section 10 and the second belt section 12 as required for different fit adjustments or equipment configurations.

As shown in FIG. 10, the receiver portion 48 may be recessed into the backing layer circular openings 32 in the backing layer 30 and the hook and loop layer 34. The backing layer circular openings 32 may be sized larger than the circular openings 16 in the front face layer 14 and the second circular openings 16a in the stiffening layer 28 to accommodate the receiver portion 48 in a recessed configuration. The recessed positioning of the receiver portion 48 may prevent the receiver portion 48 from extending outward beyond the plane of the hook and loop layer 34, creating a flush or low-profile mounting arrangement.

The recessed configuration of the receiver portion 48 within the backing layer circular openings 32 may provide ergonomic advantages by eliminating protruding hardware elements that could cause discomfort or snagging when the belt is worn against the user's body. The flush mounting arrangement may also reduce the overall thickness profile of the belt assembly in the connection regions, contributing to user comfort during extended wear periods.

The securing member 44 may extend through the openings in the various layers to secure the first belt section 10 to the second belt section 12 in an overlapping arrangement. The screw portion 46 may pass through the circular openings 16 in the front face layer 14, the second circular openings 16a in the stiffening layer 28, and the backing layer circular openings 32 in the backing layer 30 and the hook and loop layer 34 of both belt sections when the sections are positioned in the overlapping configuration.

The overlapping arrangement may involve positioning a portion of the first belt section 10 over or under a corresponding portion of the second belt section 12 such that the circular openings 16, the second circular openings 16a, and the backing layer circular openings 32 in both sections align to create continuous passages for the securing member 44. The securing member 44 may pass through these aligned openings and engage to create a mechanical connection that holds the first belt section 10 and the second belt section 12 together in the desired overlapping position.

Referring to FIG. 12, the overall length of the utility belt may be adjusted by positioning the securing member 44 through different sets of aligned openings along the length of the first belt section 10 and the second belt section 12. The lateral spacing of the openings defined by the stacked layers including circular openings 16, the second circular openings 16a, and the backing layer circular openings 32 along the length of each belt section may provide multiple positioning options for the securing member 44, thereby enabling incremental adjustment of the degree of overlap between the belt sections.

By adjusting the position of the securing member 44 to different sets of aligned openings, users may increase or decrease the amount of overlap between the first belt section 10 and the second belt section 12, resulting in corresponding changes to the overall circumference and fit of the assembled utility belt. The securing member 44 may be repositioned to openings that are closer to the distal ends of the belt sections to reduce the overlap and increase the overall belt length, or to openings that are farther from the distal ends to increase the overlap and decrease the overall belt length.

Multiple securing members 44 may be used simultaneously to provide enhanced connection security and load distribution between the first belt section 10 and the second belt section 12. The use of multiple securing members 44 may distribute mechanical loads across multiple connection points, reducing stress concentrations and improving the overall structural integrity of the belt assembly. The multiple securing members 44 may be positioned through different sets of aligned openings to provide redundant connections that maintain belt integrity even if one securing member becomes loose or fails during use.

Referring to FIGS. 13 and 14, the distal end portions of the first belt section 10 and the second belt section 12 may include additional connection features that work in conjunction with the securing member 44 to provide comprehensive belt adjustment and closure capabilities. The first pair of vertical slots 24, the first pair of backing layer vertical slots 24b, the second pair of vertical slots 26, and the second pair of backing layer vertical slots 26b may accommodate straps and connecting mechanisms that provide alternative or supplementary connection methods for joining the opposite ends of the belt sections together.

Referring to FIGS. 12, 13, and 14, the overlapping arrangement of the first belt section 10 and the second belt section 12 may be illustrated in the rear backing elevation view, showing how the belt sections may be positioned relative to each other to achieve size adjustment of the utility belt assembly. The overlapping configuration may involve positioning the first belt section 10 and the second belt section 12 such that a portion of one section overlays a corresponding portion of the other section, creating a layered arrangement where both sections contribute to the structural integrity and functionality of the assembled belt.

In the overlapping arrangement shown in FIG. 12, the first belt section 10 may be positioned on the left side of the assembly, while the second belt section 12 may extend from the center toward the right side of the assembly. The degree of overlap between the first belt section 10 and the second belt section 12 may be varied by adjusting the relative positioning of the belt sections along their respective lengths. The backing layer circular openings 32 may be visible along the length of both the first belt section 10 and the second belt section 12, providing multiple connection points for the securing member 44 to join the sections together at different overlap positions.

Referring to FIGS. 13 and 14, the distal end portions of the first belt section 10 and the second belt section 12 may include straps 50 that extend from the vertical slots to provide additional connection and adjustment capabilities for the utility belt assembly. The straps 50 may comprise flexible elongated elements that extend outward from the first pair of vertical slots 24 and the second pair of vertical slots 26 at the distal end portions of the belt sections. The straps 50 may be threaded through the aligned vertical slots in the multiple layers of each belt section, including the first pair of backing layer vertical slots 24b and the second pair of backing layer vertical slots 26b.

The straps 50 may carry connecting mechanisms 52 that provide a means for fastening the opposite ends of the first belt section 10 and the second belt section 12 together. The connecting mechanisms 52 may comprise various types of fastening hardware such as belt buckles, snap connectors, hook and loop fasteners, or other interlocking devices that enable secure connection between the straps 50 extending from the distal end portions of the belt sections. The connecting mechanisms 52 may be attached to or integrated with the straps 50 to create a complete end-to-end connection system for the utility belt assembly.

The straps 50 with the connecting mechanisms 52 may accommodate various belt buckle configurations and other interlocking devices that are commonly used in tactical and utility belt applications. The connecting mechanisms 52 may include traditional belt buckles with prong and hole engagement systems, quick-release buckles with lever or button activation mechanisms, or specialized tactical buckles designed for rapid engagement and disengagement operations. The flexibility of the strap and connecting mechanism system may allow for compatibility with a wide range of commercially available belt hardware.

The length of the straps 50 and the associated connecting mechanisms 52 may be adjusted to further modify the overall length of the utility belt assembly beyond the adjustment capabilities provided by the overlapping arrangement of the belt sections. By increasing the length of the straps 50, the overall circumference of the assembled utility belt may be increased to accommodate larger waist measurements or thicker clothing configurations. Conversely, by decreasing the length of the straps 50 or positioning the connecting mechanisms 52 closer to the distal end portions of the belt sections, the overall circumference may be reduced for smaller sizing requirements.

The combination of the overlapping adjustment mechanism provided by the securing member 44 and the strap length adjustment mechanism provided by the straps 50 and connecting mechanisms 52 may enable the utility belt assembly to accommodate an even wider variety of sizes compared to either adjustment mechanism alone. The dual adjustment system may provide both coarse adjustment through the overlapping arrangement and fine adjustment through the strap length modification, allowing for precise fit customization across a broad range of user requirements.

The straps 50 may be constructed from flexible materials that complement the materials used in the belt sections, such as the same lightweight flexible materials used for the front face layer 14 or the backing layer 30. The material consistency between the straps 50 and the belt sections may provide uniform flexibility and durability characteristics across the complete belt assembly. The straps 50 may be sized and configured to pass through the vertical slots while providing sufficient length for connection to the connecting mechanisms 52 and adjustment of the overall belt circumference.

Referring to FIGS. 15 and 16, an alternative embodiment of the utility belt system may be provided wherein the rectangular slots 18 and the elongated openings 20 are replaced with gear mount circular openings 54 disposed below the circular openings 16 that receive the securing members 44. The gear mount circular openings 54 may provide an alternative attachment interface for mounting equipment and gear to the utility belt while maintaining the same layered arrangement of the front face layer 14, the stiffening layer 28, the backing layer 30, and the hook and loop layer 34.

As shown in FIG. 15, the gear mount circular openings 54 may be laterally spaced along the length of the belt sections and positioned below the circular openings 16 in a vertically aligned arrangement. The gear mount circular openings 54 may replace the rectangular slots 18, the second rectangular openings 18a, the third rectangular openings 18b, the elongated openings 20, the connector catch portions 22, the second connector catch portions 22a, and the third connector catch portions 22b that are present in other embodiments. The circular configuration of the gear mount circular openings 54 provide a different mounting interface that accommodates various types of equipment attachment hardware and connecting mechanisms.

The gear mount circular openings 54 may extend through all layers of the belt construction, including the front face layer 14, the stiffening layer 28, the backing layer 30, and the hook and loop layer 34. The alignment of the gear mount circular openings 54 through the multiple layers may create continuous passages that accommodate equipment mounting hardware while maintaining the structural integrity of the layered belt assembly. The circular configuration of the gear mount circular openings 54 may distribute mechanical loads around the opening perimeter, providing enhanced load-bearing characteristics for attached equipment.

The gear mount circular openings 54 may allow for various vertical, horizontal, or angular alignments of equipment mounted to the belt sections. The circular shape of the gear mount circular openings 54 may accommodate rotating or pivoting attachment mechanisms that enable equipment to be positioned at different orientations relative to the belt sections. Equipment may be mounted in vertical orientations with attachment hardware extending perpendicular to the belt surface, horizontal orientations with attachment hardware extending parallel to the belt surface, or angular orientations with attachment hardware positioned at intermediate angles between vertical and horizontal positions.

The flexibility of equipment positioning provided by the gear mount circular openings 54 may enable users to customize the arrangement of attached equipment based on specific operational requirements, user preferences, or ergonomic considerations. Equipment such as holsters, magazine pouches, tool carriers, and other tactical accessories may be positioned at optimal angles for accessibility and comfort while maintaining secure attachment to the belt assembly.

Referring to FIG. 16, the assembled utility belt with the gear mount circular openings 54 may demonstrate the modular attachment capability of the alternative embodiment design. Various pieces of equipment may be mounted to the belt through the gear mount circular openings 54, showing the practical application of the circular mounting interface. The equipment may include magazine pouches, holsters, and other tactical accessories that are arranged along the length of the belt sections using the gear mount circular openings 54 as attachment points.

The belt sections in the alternative embodiment may maintain the same layered arrangement as described in other embodiments, with the front face layer 14 forming the exterior surface, the stiffening layer 28 providing structural rigidity, the backing layer 30 serving as an intermediate support layer, and the hook and loop layer 34 forming the innermost interface surface. The securing members 44 may continue to provide the connection mechanism between the first belt section and the second belt section through the circular openings 16, while the gear mount circular openings 54 serve as the primary equipment attachment interface.

The gear mount circular openings 54 may be sized and positioned to accommodate standard equipment mounting hardware commonly used in tactical and utility applications. The circular configuration may provide compatibility with various types of mounting screws, bolts, pins, and other fastening elements that are used to secure equipment to belt systems. The gear mount circular openings 54 may also accommodate quick-release mounting mechanisms that enable rapid attachment and detachment of equipment during field operations.

The various layers of the belt construction in the embodiment shown in FIGS. 15 and 16 may also be adjusted to accommodate different application requirements and manufacturing preferences. The front face layer 14 or the hook and loop layer 34 may be excluded from the layered assembly in some configurations, allowing for simplified construction or specialized functionality. In some cases, layers may be combined in a molded arrangement with other layers to create integrated multi-functional components that reduce the total number of separate layers while maintaining the desired performance characteristics.

In some cases, the front face layer 14 may comprise laminated nylon mounted directly to the stiffening layer 28, where the stiffening layer 28 comprises a flexible composite material such as Tegris® manufactured by Milliken. This direct mounting arrangement may eliminate the need for separate bonding operations between the front face layer 14 and the stiffening layer 28, creating a unified composite structure that combines the surface properties of laminated nylon with the structural characteristics of the flexible composite layer material. The laminated nylon may provide abrasion resistance and aesthetic properties, while the Tegris® composite material may provide the structural rigidity and lightweight characteristics needed for the belt assembly.

The backing layer 30 may comprise either a flexible material layer, a hook and loop layer, or both layers depending on the specific application requirements. In configurations where the backing layer 30 comprises a hook and loop layer, the backing layer 30 may provide the hook and loop functionality while also serving as a structural layer in the belt assembly. In configurations where the backing layer 30 comprises both a flexible material layer and a hook and loop layer, the backing layer 30 may provide enhanced structural support along with the hook and loop interface functionality.

In some arrangements, the hook and loop layer 34 may be attached directly to the stiffening layer 28 with no backing layer 30 or front face layer 14. This simplified configuration may reduce the total thickness and weight of the belt assembly while maintaining the structural rigidity provided by the stiffening layer 28 and the interface functionality provided by the hook and loop layer 34. The direct attachment of the hook and loop layer 34 to the stiffening layer 28 may be achieved through adhesive bonding, mechanical fastening, or integrated manufacturing processes that combine the hook and loop material with the stiffening layer material.

The front face layer 14 may be constructed and arranged to match the shape of the backing layer 30 and the stiffening layer 28 as shown in FIGS. 2 and 3. This shape matching may involve configuring the front face layer 14 with the same profile, dimensions, and opening arrangements as the other layers to ensure proper alignment and functionality in the stacked assembly. The shape matching may facilitate manufacturing operations and ensure consistent performance characteristics across different layer configurations and assembly variations.

The gear mount circular openings 54 may be sized differently across the various layers to accommodate specific mounting hardware requirements or to provide stepped mounting interfaces for different types of equipment. In some cases, the gear mount circular openings 54 in the backing layer 30 may be larger than those in the front face layer 14 and stiffening layer 28 to allow for recessed mounting of equipment attachment hardware, similar to the configuration described for the backing layer circular openings 32 in other embodiments.

Referring to FIGS. 17-21, an alternative embodiment of the utility belt system may be provided wherein the circular openings 16, the second circular openings 16a, and the backing layer circular openings 32 are removed from the belt construction, and the securing members 44 are replaced by securing straps 56 for connecting the first belt section 10 and the second belt section 12 together. The securing straps 56 may provide a flexible connection mechanism that eliminates the need for rigid fastening hardware while maintaining secure attachment between the belt sections in the overlapping arrangement.

The securing straps 56 may be carried at various points along the length of the first belt section 10 and the second belt section 12 for securing the sections together through the rectangular slots 18, the second rectangular openings 18a, the third rectangular openings 18b, and the elongated openings 20. The securing straps 56 may pass through these existing openings in the layered belt construction to create mechanical connections between the belt sections without requiring additional circular openings or rigid securing members.

The securing straps 56 may comprise strips of flexible material that can pass through the openings in the belt sections and connect back on themselves to form secure connections. In some cases, the securing straps 56 may comprise strips of hook and loop material that provide self-adhering connection capabilities when the hook surface of a securing strap contacts the loop surface of the same strap. The hook and loop configuration may enable rapid engagement and disengagement of the securing straps 56 while providing secure holding force during normal use operations.

Alternatively, the securing straps 56 may comprise other flexible strip materials that are capable of passing through the openings in the belt sections and connecting back on themselves through various mechanical connection methods. The flexible strip materials may include woven fabric strips, synthetic polymer strips, or composite material strips that provide the flexibility needed for threading through the belt openings while maintaining sufficient strength for securing the belt sections together under load conditions.

Referring to FIGS. 19, 20, and 21, the securing straps 56 may comprise a flexible strap material 62 that forms the primary structural element of each securing strap. The flexible strap material 62 may be constructed from lightweight flexible materials that provide durability and flexibility characteristics suitable for repeated threading and connection operations. In some cases, the flexible strap material 62 may comprise the same material as the front face layer 14, such as Squadron® woven nylon fabric material, providing material consistency across different components of the belt system.

Each securing strap 56 may include a first distal end portion 60 that comprises a reinforced section of the securing strap designed to provide enhanced structural characteristics and connection functionality. The first distal end portion 60 may be formed by folding the flexible strap material 62 back over itself to create a multi-layer construction that surrounds a strap stiffening layer 64 disposed between the layers of the flexible strap material 62. The folded configuration of the flexible strap material 62 in the first distal end portion 60 may provide increased thickness and structural rigidity compared to single-layer portions of the securing strap 56.

The strap stiffening layer 64 may be disposed between the folded layers of the flexible strap material 62 in the first distal end portion 60 to provide enhanced structural support and dimensional stability to the reinforced end section. The strap stiffening layer 64 may comprise a rigid or semi-rigid material that maintains the shape and structural integrity of the first distal end portion 60 during connection and disconnection operations. The strap stiffening layer 64 may be constructed from materials similar to those used in the stiffening layer 28 of the belt sections, such as plastic laminate materials or flexible composite materials.

The first distal end portion 60 may include strap slots 68 disposed on a first side 66 of the flexible strap material 62. The strap slots 68 may comprise openings or cuts formed through the flexible strap material 62 that are sized and positioned to receive portions of the securing strap 56 during connection operations. The strap slots 68 may be arranged as a pair of parallel slots that extend through the thickness of the first distal end portion 60, providing entry and exit points for threading portions of the securing strap through the reinforced end section.

Each securing strap 56 may include a middle strap portion 70 that extends between the first distal end portion 60 and a second distal end portion 72 to provide the necessary length and flexibility for threading the securing strap through the openings in the belt sections. The middle strap portion 70 may comprise a single layer of the flexible strap material 62, providing a thinner and more flexible section compared to the multi-layer construction of the first distal end portion 60. The single-layer construction of the middle strap portion 70 may facilitate threading through the rectangular slots 18, the second rectangular openings 18a, the third rectangular openings 18b, and the elongated openings 20 while providing sufficient strength for securing the belt sections together.

The middle strap portion 70 may provide lateral spacing and material length for weaving the securing strap 56 through the various openings in the first belt section 10 and the second belt section 12 during connection operations. The length of the middle strap portion 70 may be configured to accommodate the threading path required for connecting the belt sections while providing sufficient material for secure engagement with the first distal end portion 60. The flexibility of the single-layer middle strap portion 70 may enable the securing strap 56 to conform to the contours of the belt sections and pass through multiple openings without binding or excessive resistance.

Each securing strap 56 may include a second distal end portion 72 that comprises a tapered end section designed to facilitate insertion through the strap slots 68 in the first distal end portion 60. The second distal end portion 72 may comprise two layers of the flexible strap material 62 folded back over itself and surrounding a strap stiffening layer 64 disposed between the layers, similar to the construction of the first distal end portion 60. The folded construction of the second distal end portion 72 may provide enhanced structural characteristics while maintaining a tapered profile for insertion operations.

The second distal end portion 72 may be narrower than the first distal end portion 60, allowing the second distal end portion 72 to be received into the strap slots 68 during connection operations. The narrower profile of the second distal end portion 72 may facilitate threading through the strap slots 68 while providing sufficient engagement area for secure connection with the first distal end portion 60. The width differential between the first distal end portion 60 and the second distal end portion 72 may be configured to provide a secure fit within the strap slots 68 while allowing for easy insertion and removal during adjustment operations.

The securing straps 56 may provide a flexible connection mechanism that eliminates the need for rigid securing members while maintaining adjustable connection capabilities between the first belt section 10 and the second belt section 12. The strap-based connection system may accommodate various degrees of overlap between the belt sections by positioning the securing straps 56 through different combinations of the rectangular slots 18, the third rectangular openings 18b, and the elongated openings 20 along the length of the belt sections. The flexibility of the securing straps 56 may enable the belt system to conform to different body contours and movement patterns while maintaining secure connections between the belt sections.

Referring to FIGS. 22 and 23, the securing straps 56 may be used to connect the first belt section 10 and the second belt section 12 together through a multi-step threading and engagement process that creates secure mechanical connections between the belt sections. The connection process may begin with positioning the first belt section 10 and the second belt section 12 in an overlapping arrangement where the rectangular slots 18 and the elongated openings 20 in both sections are accessible for threading operations. The securing straps 56 may be threaded through the rectangular slots 18 of both the first belt section 10 and the second belt section 12 to establish the initial connection pathway between the belt sections.

The securing straps 56 may pass through the rectangular slots 18 from the hook and loop layer 34 side to the front face layer 14 side of the belt sections during the initial threading operation. This threading direction may position the securing straps 56 to extend from the inner surface of the belt assembly toward the outer surface, creating a connection pathway that spans the complete thickness of the layered belt construction. The passage of the securing straps 56 through the rectangular slots 18 may involve threading the middle strap portion 70 through the aligned third rectangular openings 18b, the second rectangular openings 18a, and the rectangular slots 18 in the respective layers of both belt sections.

Following the initial threading through the rectangular slots 18 of both belt sections 10 and 12, the second distal end portion 72 of each securing strap 56 may be inserted through the strap slots 68 in the first distal end portion 60 to create the primary connection engagement between the end portions of the securing strap. The narrower profile of the second distal end portion 72 may facilitate insertion through the strap slots 68, while the strap stiffening layer 64 in both the first distal end portion 60 and the second distal end portion 72 may provide structural support during the engagement operation. The insertion of the second distal end portion 72 through the strap slots 68 may create a mechanical connection that prevents separation of the securing strap 56 while allowing for controlled adjustment of the connection tension.

As shown in FIG. 24, the second distal end portion 72 may then be passed through the elongated openings 20 in the belt sections, transitioning from the outside of the front face layer 14 to the inside of the belt assembly. This threading operation may position the second distal end portion 72 on the inner side of the belt assembly, creating a pathway for the final connection step.

Referring to FIGS. 24 and 25, the second distal end portion 72 may be wrapped around a bottom edge portion 76 of the first belt section 10 and the second belt section 12 to position the second distal end portion 72 for final engagement with the first distal end portion 60. The bottom edge portion 76 may comprise the lower edge region of the belt sections 10, 12 where the layered construction terminates, or where the bottom edge of front face layers 14a, 14b stop, providing a wrapping surface for the second distal end portion 72 during the connection process. The wrapping operation may involve bending the second distal end portion 72 around the bottom edge portion 76 such that the second distal end portion 72 extends back toward the first distal end portion 60 on the outer surface of the belt assembly.

The wrapping of the second distal end portion 72 around the bottom edge portion 76 may create a mechanical advantage that increases the holding force of the securing strap connection while distributing loads across the bottom edge region of the belt sections. The bottom edge portion 76 may serve as a fulcrum point that enhances the mechanical engagement between the first distal end portion 60 and the second distal end portion 72, preventing inadvertent loosening of the connection during normal use operations.

Referring to FIG. 25, the connection process may be completed by inserting the second distal end portion 72 into a securing slot 74 disposed in the first distal end portion 60. The securing slot 74 may comprise an opening or receptacle formed in the first distal end portion 60 that is sized and positioned to receive and retain the second distal end portion 72 in a secure engagement configuration. The securing slot 74 may be oriented and dimensioned to accommodate the width and thickness of the second distal end portion 72 while providing sufficient engagement depth to prevent inadvertent withdrawal during use.

The insertion of the second distal end portion 72 into the securing slot 74 may create the final mechanical connection that completes the securing strap engagement between the first belt section 10 and the second belt section 12. The securing slot 74 may provide a positive retention mechanism that maintains the position of the second distal end portion 72 relative to the first distal end portion 60, preventing loosening or separation of the connection under normal loading conditions. The engagement between the second distal end portion 72 and the securing slot 74 may be configured to allow for intentional disengagement when adjustment or removal of the securing strap 56 is desired.

The completed connection configuration shown in FIG. 25 demonstrates the final arrangement where the securing strap 56 extends through multiple openings in both belt sections and engages with itself to create a secure mechanical connection. The threading path of the securing strap 56 through the rectangular slots 18, the strap slots 68, the elongated openings 20, around the bottom edge portion 76, and into the securing slot 74 may create a complex engagement pattern that distributes connection loads across multiple points in the belt assembly while providing secure retention characteristics.

The securing strap connection process may be reversible, allowing for disconnection and reconnection of the belt sections as needed for size adjustment, maintenance, or reconfiguration operations without the use of tools. The disconnection process may involve withdrawing the second distal end portion 72 from the securing slot 74, unwrapping the second distal end portion 72 from around the bottom edge portion 76, threading the second distal end portion 72 back through the elongated openings 20 and the strap slots 68, and withdrawing the securing strap 56 from the rectangular slots 18. The reversible nature of the connection process may enable field adjustment and maintenance operations without requiring specialized tools or permanent modification of the belt components.

Multiple securing straps 56 may be used simultaneously at different positions along the length of the first belt section 10 and the second belt section 12 to provide enhanced connection security and load distribution. The use of multiple securing straps 56 may distribute mechanical loads across multiple connection points, reducing stress concentrations and improving the overall structural integrity of the belt assembly during use. The multiple securing straps 56 may be positioned through different sets of rectangular slots 18 and elongated openings 20 to provide redundant connections that maintain belt integrity even if one securing strap becomes loose or fails during operations.

The adjustable utility belt system operates through the coordinated interaction of multiple structural and functional elements that work together to provide size adjustment, equipment attachment, and secure closure capabilities. The operational functionality relies on the precise alignment and integration of layered materials, strategically positioned openings, and mechanical connection systems that enable the belt to accommodate various user requirements while maintaining structural integrity under load conditions.

The layered construction of each belt section creates a composite structure where individual layers contribute specific functional characteristics while working together as a unified assembly. The front face layer provides the exterior surface properties and initial structural interface, while the stiffening layer contributes the primary load-bearing and dimensional stability characteristics needed to support attached equipment. The backing layer serves as an intermediate structural element that bridges between the stiffening layer and the innermost hook and loop layer, which provides the interface functionality for connection to complementary belt systems.

The alignment of openings through the multiple layers creates continuous passages that serve dual operational functions within the belt system. The circular openings in each layer align to form passages that accommodate securing members for connecting the belt sections together, while the rectangular openings and elongated openings align to create passages for equipment attachment hardware and connecting straps. This dual-purpose opening system enables the belt to function simultaneously as an adjustable sizing mechanism and as a modular equipment mounting platform.

The overlapping operation of the belt sections provides the primary size adjustment mechanism through variable positioning of the sections relative to each other. When the belt sections are positioned in an overlapping arrangement, the aligned circular openings in both sections create multiple potential connection points along the length of the overlap region. The securing members may be positioned through different sets of aligned openings to achieve different degrees of overlap, directly controlling the overall circumference of the assembled belt.

The securing member system operates through mechanical engagement between threaded components that pass through the aligned circular openings in both belt sections. The screw portion extends through the openings from the exterior surface of one belt section, passes through the overlapped region, and engages with the receiver portion positioned within the recessed circular openings of the opposite belt section. The threaded engagement creates a secure mechanical connection that maintains the desired overlap position while distributing connection loads across the layered structure of both belt sections.

The recessed positioning of the receiver portion within the larger circular openings in the backing layer and hook and loop layer prevents the securing hardware from extending beyond the inner surface of the belt assembly. This recessed configuration eliminates protruding elements that could cause discomfort or interference when the belt is worn against the user's body or over an inner belt system, while maintaining the mechanical integrity of the connection system.

The separation pocket system operates through the controlled spacing created by the stitching pattern that connects the multiple layers together. The vertical stitching lines create enclosed channels between the stiffening layer and the backing layer that allow equipment connecting straps to pass through the belt structure while maintaining separation between different functional layers. These separation pockets enable equipment attachment hardware to thread through the rectangular openings and elongated openings while accessing the interior space of the belt construction for secure mounting operations.

Equipment attachment operations utilize the separation pocket system in conjunction with the aligned rectangular and elongated openings to create secure mounting interfaces for various types of gear and accessories. Equipment connecting straps may pass through the rectangular openings from the exterior surface, thread through the separation pockets between the stiffening and backing layers, and exit through the elongated openings to complete the attachment pathway. The connector catch portions provide additional mechanical interference that prevents lateral movement of attached equipment along the belt surface.

The vertical slot system at the distal end portions of the belt sections operates in conjunction with flexible straps and connecting mechanisms to provide additional size adjustment and closure functionality beyond the primary overlapping mechanism. The straps extend through the aligned vertical slots in all layers of the belt construction, creating flexible connection elements that can accommodate various types of buckles, clasps, or other closure hardware. The length of these straps may be adjusted independently of the overlapping mechanism to provide fine-tuning of the overall belt circumference.

The dual adjustment system created by the combination of the overlapping mechanism and the end strap system provides comprehensive size accommodation across a wide range of user requirements. The overlapping mechanism provides coarse adjustment through discrete positioning of the securing members at different opening locations, while the end strap system provides continuous fine adjustment through variable strap length and connecting mechanism positioning. This dual system enables the belt to accommodate different waist sizes, clothing thicknesses, and equipment loading configurations while maintaining secure closure and structural integrity.

The modular nature of the belt system enables operational flexibility through the separable design of the belt sections. Each section may function independently for maintenance, cleaning, or partial equipment configuration, while the sections may be rapidly connected together for operational use. The separable design also enables field replacement of individual sections without requiring complete belt system replacement, reducing logistical requirements and maintenance costs.

The hook and loop interface system operates to provide secure attachment to complementary inner belt systems while allowing for rapid engagement and disengagement operations. The hook and loop layer creates a distributed attachment interface across the inner surface of the belt assembly, providing stable connection to inner belts while accommodating the flexibility needed for belt adjustment and user movement. The hook and loop connection distributes loads across a large surface area, reducing stress concentrations and improving overall system stability.

The lightweight material construction enables the belt system to support substantial equipment loads while minimizing the weight burden on the user. The combination of advanced synthetic materials in the front face layer, composite materials in the stiffening layer, and engineered fabrics in the backing and hook and loop layers creates a high strength-to-weight ratio that maintains structural performance while reducing user fatigue during extended wear periods.

The operational integration of all system components creates a comprehensive utility belt platform that accommodates variable sizing requirements, modular equipment attachment, and reliable closure mechanisms while maintaining the lightweight and flexible characteristics needed for user comfort and operational effectiveness. The coordinated functionality of the layered construction, opening alignment system, securing mechanisms, and adjustment features enables the belt to serve as a versatile platform for carrying various types of equipment across different operational scenarios and user requirements.

Referring to FIGS. 15 and 16, the alternative gear mount embodiment of the adjustable utility belt system operates through the same fundamental layered construction and overlapping connection mechanisms as other embodiments, while providing enhanced equipment attachment versatility through the circular opening configuration. The operational functionality of the alternative gear mount embodiment maintains the size adjustment capabilities provided by the overlapping belt sections and securing member system, while offering different equipment mounting options through the specialized circular opening arrangement.

Referring to FIG. 15, the alternative gear mount embodiment can operate with the same multi-layer construction comprising the front face layer, stiffening layer, backing layer, and hook and loop layer that are interconnected through stitching patterns to create unified belt sections. The circular openings that accommodate the securing members for connecting the belt sections together remain positioned along the upper portion of each belt section, maintaining the same overlapping adjustment mechanism that enables size customization through variable positioning of the securing members at different connection points along the length of the belt sections. The various layers of the belt construction in the embodiment shown in FIGS. 15 and 16 may also be adjusted to accommodate different application requirements and manufacturing preferences as detailed herein above.

The gear mount circular openings in the alternative gear mount embodiment operate as the primary equipment attachment interface, replacing the rectangular slots and elongated openings used in other embodiments while providing enhanced mounting flexibility. The gear mount circular openings extend through all layers of the belt construction, creating continuous passages that accommodate various types of equipment mounting hardware while maintaining the structural integrity of the layered assembly. The circular configuration of these openings distributes mechanical loads uniformly around the opening perimeter, providing enhanced load-bearing characteristics compared to rectangular or elongated opening configurations.

The operational advantage of the gear mount circular openings lies in their ability to accommodate equipment attachment hardware in multiple orientational configurations without requiring specific alignment or positioning constraints. Equipment may be mounted in vertical orientations where attachment hardware extends perpendicular to the belt surface, providing optimal positioning for items such as holsters, magazine pouches, or tool carriers that benefit from upright mounting arrangements. The circular openings equally accommodate horizontal mounting orientations where attachment hardware extends parallel to the belt surface, enabling equipment positioning that minimizes profile height or accommodates specific ergonomic requirements.

The gear mount circular openings also enable angular mounting configurations where equipment attachment hardware may be positioned at intermediate angles between vertical and horizontal orientations. This angular mounting capability allows users to customize equipment positioning based on specific operational requirements, user preferences, or ergonomic considerations that may vary depending on the type of equipment being carried, the operational environment, or individual user characteristics. The rotational freedom provided by the circular opening configuration enables equipment to be oriented at any angle around the opening circumference, providing unlimited positioning options within the constraints of the equipment attachment hardware.

The operational flexibility of the gear mount circular openings accommodates rotating or pivoting attachment mechanisms that enable dynamic equipment positioning during use. Equipment mounted through the gear mount circular openings may be designed to rotate or pivot around the circular opening axis, allowing users to adjust equipment orientation without disconnecting or remounting the equipment. This dynamic positioning capability may be particularly beneficial for equipment that requires different orientations for storage, access, or operational use, enabling users to optimize equipment positioning for different phases of operation without requiring complete reconfiguration of the belt system.

Referring to FIG. 16, the operational implementation of the alternative gear mount embodiment demonstrates the practical application of the circular opening mounting system with various types of equipment attached to the belt assembly. The gear mount circular openings accommodate standard equipment mounting hardware commonly used in tactical and utility applications, including mounting screws, bolts, pins, and other fastening elements that secure equipment to the belt system. The circular configuration provides compatibility with various types of mounting mechanisms while maintaining secure attachment under operational loading conditions.

The alternative gear mount embodiment operates with the same securing member system that connects the overlapping belt sections together, maintaining the size adjustment functionality through variable positioning of the securing members at different circular opening locations along the length of the belt sections. The securing members pass through the aligned circular openings in both belt sections when positioned in the overlapping arrangement, creating secure mechanical connections that maintain the desired overlap position while enabling adjustment of the overall belt circumference to accommodate different sizing requirements.

The operational integration of the gear mount circular openings with the layered belt construction can also maintain the separation pocket system that allows equipment connecting straps and attachment hardware to pass between the stiffening layer and backing layer. The gear mount circular openings provide access to these separation pockets, enabling equipment attachment hardware to thread through the belt structure while maintaining separation between different functional layers as may be needed for threading various equipment straps between securing member points. This integration ensures that the gear mount embodiment maintains the same structural characteristics and load distribution capabilities as other embodiments while providing enhanced equipment mounting versatility.

The alternative gear mount embodiment operates to accommodate quick-release mounting mechanisms that enable rapid attachment and detachment of equipment during field operations. The circular configuration of the gear mount openings provides compatibility with various quick-release systems that may utilize spring-loaded pins, twist-lock mechanisms, or lever-actuated fasteners to secure equipment to the belt system. The operational advantage of quick-release compatibility enables users to rapidly reconfigure equipment arrangements, replace equipment components, or transfer equipment between different belt systems without requiring tools or extended manipulation procedures.

The operational effectiveness of the alternative gear mount embodiment relies on the precise sizing and positioning of the gear mount circular openings to accommodate standard equipment mounting hardware while maintaining adequate spacing for multiple equipment items along the length of each belt section. The lateral spacing of the gear mount circular openings provides multiple mounting positions that enable users to distribute equipment weight evenly across the belt system while maintaining access to individual equipment items without interference between adjacent mounted components.

The alternative gear mount embodiment operates with the same end strap and connecting mechanism system that provides additional size adjustment and closure functionality beyond the primary overlapping mechanism. The vertical slots at the distal end portions of the belt sections accommodate straps and connecting mechanisms that work in conjunction with the overlapping adjustment system to provide comprehensive size accommodation across a wide range of user requirements. The combination of the overlapping mechanism and the end strap system enables the gear mount embodiment to provide the same dual adjustment capabilities as other embodiments while offering enhanced equipment mounting versatility through the circular opening configuration.

The operational performance of the alternative gear mount embodiment maintains the lightweight construction characteristics achieved through the selection of advanced materials across all layers of the belt assembly. The gear mount circular openings do not compromise the structural integrity or weight characteristics of the belt system, while providing enhanced equipment attachment capabilities that may reduce the need for additional mounting accessories or adapter hardware. The operational efficiency of the alternative gear mount system may contribute to overall weight reduction by eliminating the need for specialized mounting plates, brackets, or interface components that might otherwise be required for equipment attachment operations.

Referring to FIGS. 17-25, the securing strap embodiment of the adjustable utility belt system operates through a flexible connection mechanism that eliminates the need for rigid securing members while providing enhanced size adjustability and connection versatility. The securing strap system functions by utilizing the existing rectangular slots and elongated openings in the layered belt construction to create mechanical connections between the belt sections through flexible strap elements that thread through multiple openings and engage with themselves to form secure closures.

The operational functionality of the securing strap embodiment relies on the interaction between the reinforced strap construction and the opening system in the belt sections to create a threading pathway that spans both belt sections in the overlapping arrangement. The securing straps operate by passing through the rectangular slots in both belt sections, creating an initial connection pathway that bridges the gap between the sections while maintaining the flexibility needed for size adjustment operations. The threading operation positions the securing straps to extend from the inner surface of the belt assembly toward the outer surface, creating a connection pathway that spans the complete thickness of the layered belt construction.

The reinforced construction of the securing strap end portions provides the structural integrity needed to maintain secure connections under operational loading conditions while enabling repeated connection and disconnection operations without degradation of the connection mechanism. The first distal end portion operates as a reinforced anchor point that provides enhanced structural characteristics through the multi-layer construction surrounding the strap stiffening layer, creating a stable platform for receiving and retaining the second distal end portion during connection operations. The strap stiffening layer within the first distal end portion maintains the dimensional stability and structural integrity of the reinforced section during engagement and disengagement operations.

The strap slots in the first distal end portion operate as precision-sized openings that receive the second distal end portion during the connection process, creating a mechanical engagement that prevents separation of the securing strap while allowing for controlled adjustment of the connection tension. The positioning and sizing of the strap slots enable the second distal end portion to pass through the reinforced section while providing sufficient engagement area for secure retention during use. The interaction between the strap slots and the second distal end portion creates a positive connection mechanism that maintains the securing strap in the engaged position under normal loading conditions.

The second distal end portion operates as a tapered insertion element that facilitates threading through the strap slots while providing sufficient structural characteristics for secure engagement with the first distal end portion. The narrower profile of the second distal end portion compared to the first distal end portion enables insertion through the strap slots while maintaining adequate cross-sectional area for load-bearing operations. The strap stiffening layer within the second distal end portion provides structural support that prevents deformation or failure of the tapered section during insertion and engagement operations.

The middle strap portion operates as the flexible connection element that provides the length and flexibility needed for threading through the belt section openings while maintaining sufficient strength for securing the belt sections together under load conditions. The single-layer construction of the middle strap portion enables the securing strap to conform to the contours of the belt sections and pass through multiple openings without binding or excessive resistance, while providing the material length needed to accommodate various degrees of overlap between the belt sections.

Referring to FIGS. 22 and 23, the operational sequence for connecting the belt sections through the securing strap system begins with positioning the belt sections in the desired overlapping arrangement and threading the securing straps through the rectangular slots of both sections. The threading operation involves passing the middle strap portion through the aligned rectangular openings in all layers of both belt sections, creating a connection pathway that spans the overlapped region while maintaining access to the reinforced end portions for subsequent engagement operations.

The threading direction from the hook and loop layer side to the front face layer side positions the securing straps to extend from the inner surface of the belt assembly toward the outer surface, creating optimal positioning for the subsequent engagement steps in the connection process. The passage of the securing straps through the rectangular slots involves threading through the aligned openings in the backing layer, stiffening layer, and front face layer of both belt sections, creating a secure pathway that distributes connection loads across the complete layered structure of the belt assembly.

The engagement of the second distal end portion with the first distal end portion through the strap slots creates the primary mechanical connection that secures the belt sections together in the overlapping arrangement. The insertion of the second distal end portion through the strap slots positions the reinforced end portions in mechanical engagement while maintaining the threading pathway through the rectangular slots in both belt sections. The structural characteristics of both reinforced end portions provide the load-bearing capacity needed to maintain secure connections under operational conditions while enabling intentional adjustment or disconnection when needed.

The operational advantage of the strap slot engagement system lies in the ability to create secure mechanical connections without requiring separate fastening hardware or tools, while maintaining the flexibility needed for field adjustment and reconfiguration operations. The engagement between the reinforced end portions creates a positive retention mechanism that prevents inadvertent loosening or separation of the connection under normal loading conditions, while allowing for controlled disengagement when adjustment of the belt size or configuration is desired.

Referring to FIG. 24, the threading of the second distal end portion through the elongated openings creates an additional connection pathway that enhances the security and load distribution characteristics of the securing strap system. The passage of the second distal end portion through the elongated openings from the outside of the front face layer to the inside of the belt assembly creates a threading pattern that engages multiple opening systems within the belt construction, distributing connection loads across both the rectangular slots and the elongated openings.

The transition of the second distal end portion from the exterior surface to the interior surface of the belt assembly through the elongated openings positions the reinforced end section for the wrapping operation around the bottom edge portion of the belt sections. The threading through the elongated openings creates an additional mechanical engagement point that prevents lateral movement of the securing strap along the belt surface while providing enhanced load distribution across multiple opening systems within the layered belt construction.

The wrapping operation around the bottom edge portion creates a mechanical advantage that increases the holding force of the securing strap connection while distributing loads across the bottom edge region of the belt sections. The bottom edge portion serves as a fulcrum point that enhances the mechanical engagement between the reinforced end portions, creating a leverage effect that increases the retention force of the connection system while preventing inadvertent loosening during normal use operations.

Referring to FIG. 25, the final engagement of the second distal end portion with the securing slot in the first distal end portion completes the securing strap connection system and creates the final mechanical retention mechanism that maintains the belt sections in the desired overlapping configuration. The securing slot operates as a precision-sized receptacle that receives and retains the second distal end portion in a secure engagement configuration while providing sufficient engagement depth to prevent inadvertent withdrawal during use.

The insertion of the second distal end portion into the securing slot creates a positive retention mechanism that maintains the position of the reinforced end portions relative to each other while completing the complex threading pattern that extends through multiple opening systems in both belt sections. The securing slot engagement provides the final mechanical connection that locks the securing strap in the fully engaged position, preventing loosening or separation of the connection under operational loading conditions.

The completed connection configuration demonstrates the operational effectiveness of the securing strap system in creating secure mechanical connections between the belt sections through a threading pattern that engages the rectangular slots, strap slots, elongated openings, bottom edge portion, and securing slot. The complex engagement pattern distributes connection loads across multiple points in the belt assembly while providing secure retention characteristics that maintain the desired overlap position during use.

The operational advantage of the securing strap system lies in the ability to provide infinite size adjustability along the length of the belt sections through variable positioning of the securing straps at different opening locations. The securing strap system enables continuous adjustment of the overlap between belt sections by positioning the securing straps through any combination of rectangular slots and elongated openings along the length of the belt sections to accommodate gear mounting positions.

The securing strap system results in the flexibility to accommodate various threading pathways and engagement positions without requiring precise alignment with predetermined specific opening locations. The securing straps may be positioned through rectangular slots and elongated openings at any point along the length of the belt sections where the openings are available, enabling users to achieve precise fit adjustments.

The operational flexibility of the securing strap system enables field adjustment and reconfiguration operations without requiring tools or specialized hardware, while maintaining the structural integrity and load-bearing capacity needed for operational use. The reversible nature of the connection process allows for rapid disconnection and reconnection of the belt sections as needed for size adjustment, maintenance, or reconfiguration operations, providing operational advantages in dynamic environments where belt configuration may need to be modified frequently.

The securing strap system operates to provide enhanced connection security through the use of multiple securing straps positioned at different locations along the length of the belt sections. Multiple securing straps distribute mechanical loads across multiple connection points, reducing stress concentrations and improving the overall structural integrity of the belt assembly during use. The redundant connection capability ensures that the belt system maintains secure connections even if individual securing straps become loose or fail during operations, providing enhanced reliability compared to single-point connection systems.

The operational integration of the securing strap system with the existing opening structure of the belt sections enables the strap-based connection mechanism to function without requiring modifications to the layered construction or opening arrangements used in other embodiments. The securing straps utilize the same rectangular slots and elongated openings that serve equipment attachment functions in other embodiments, creating a dual-purpose opening system that accommodates both equipment mounting and belt section connection operations through the same structural elements.

While the present subject matter has been described in detail with respect to specific exemplary embodiments and methods thereof, it will be appreciated that those skilled in the art, upon attaining an understanding of the foregoing may readily produce alterations to, variations of, and equivalents to such embodiments. Accordingly, the scope of the present disclosure is by way of example rather than by way of limitation, and the subject disclosure does not preclude inclusion of such modifications, variations and/or additions to the present subject matter as would be readily apparent to one of ordinary skill in the art using the teachings disclosed herein. The scope of the invention should, therefore, be determined not with reference to the above description, but should instead be determined with reference to the appended claims, along with the full scope of equivalents to which such claims are entitled. The disclosures of all articles and references, including patent applications and publications, are incorporated by reference for all purposes. The omission in the following claims of any aspect of subject matter that is disclosed herein is not a disclaimer of such subject matter, nor should it be regarded that the inventor did not consider such subject matter to be part of the disclosed inventive subject matter.