INTERLOCKING SUSPENSION SYSTEM FOR INDEPENDENT BACKPACK AND STRAP ADJUSTMENT

Abstract

A system may include a main pack configured to be worn on a user's back. A system may include a ventral pocket sash assembly configured to be worn over a shoulder and across a torso of the user, the ventral pocket sash assembly including one or more pockets positioned on a front portion of the user. A system may include an interlocking suspension system connecting the ventral pocket sash assembly to the main pack, the interlocking suspension system comprising. A system may include a three-point connection system comprising. A system may include a third strap connecting a bottom side of the ventral pocket sash assembly to the main pack, wherein the ventral pocket sash assembly and the main pack are independently adjustable to maintain the one or more pockets in a front and center position on the user's torso.

Description

BACKGROUND OF THE INVENTION

Traditional backpack designs have long been utilized for carrying personal items, with the main pack typically worn on the user's back. These designs often include shoulder straps and a waist belt to distribute weight evenly across the user's body. However, such configurations can limit accessibility to items while on the move, as the main compartment is positioned behind the user. To address this, some designs have incorporated additional front pockets or pouches, either attached to the shoulder straps or integrated into a chest strap. These additions aim to provide easier access to frequently used items but often result in an uneven weight distribution, leading to discomfort during extended use.

In an effort to improve accessibility and weight distribution, some wearable containers have introduced modular systems that allow for the attachment of various pouches and accessories to the main pack. These systems often use a series of loops, clips, or Velcro to secure additional components. While these modular systems offer customization, they can be cumbersome to adjust and may not provide the stability needed to keep the added components in a consistent position, especially during dynamic activities such as hiking or running.

Another approach has been the development of sling bags or crossbody bags, which are designed to be worn across the torso. These bags typically feature a single strap and are positioned on the user's front or side, allowing for quick access to the contents. However, sling bags often lack the capacity and support of traditional backpacks, making them less suitable for carrying heavier loads. Additionally, the single strap design can lead to uneven weight distribution, causing strain on one shoulder.

However, none of these approaches have provided a comprehensive solution that combines the features described in this disclosure.

SUMMARY OF THE INVENTION

In general, in a first aspect, the invention features a wearable container. The wearable container includes a main pack configured to be worn on a user's back, and a ventral pocket sash assembly configured to be worn over a shoulder and across a torso of the user. The ventral pocket sash assembly includes one or more pockets positioned on a front portion of the user. An interlocking suspension system connects the ventral pocket sash assembly to the main pack. The interlocking suspension system comprises a three-point connection system, which includes a first strap connecting a top side of the ventral pocket sash assembly to a swivel mount buckle affixed to the main pack, a second strap connecting the ventral pocket sash assembly to a second buckle affixed to the main pack, and a third strap connecting a bottom side of the ventral pocket sash assembly to the main pack. The ventral pocket sash assembly and the main pack are independently adjustable to maintain the one or more pockets in a front and center position on the user's torso.

In general, in a second aspect, the invention features a wearable container. The wearable container includes a main pack configured to be worn on a user's back, and a ventral pocket sash assembly configured to be worn over a shoulder and across a torso of the user. The ventral pocket sash assembly includes one or more pockets positioned on a front portion of the user. An interlocking suspension system connects the ventral pocket sash assembly to the main pack. The interlocking suspension system comprises a three-point connection system, which includes a first strap connecting a top side of the ventral pocket sash assembly to a swivel mount buckle associated with the main pack, a second strap connecting the ventral pocket sash assembly to a second buckle affixed to the main pack, and a third strap connecting a bottom side of the ventral pocket sash assembly to the main pack. The ventral pocket sash assembly and the main pack are independently adjustable to maintain the one or more pockets in a front and center position on the user's torso.

Embodiments of the invention may include one or more of the following features. These features may be used singly, or in combination with each other. The interlocking suspension system may further comprise an internal elastic component integrated within the main pack, configured to provide automatic adjustment and form-fitting placement by absorbing movement and reducing pressure on the user's shoulders and back. The one or more pockets may be sized and configured to securely hold items selected from the group consisting of mobile devices, handheld gaming devices, identification cards, credit cards, passports, and energy bars. The wearable container may further comprise a dual-adjustment system allowing the lengths of the ventral pocket sash assembly and the main pack straps to be independently adjusted. The swivel mount buckle may allow for rotation in multiple planes to accommodate adjustments for user comfort, enabling ambidextrous use. The ventral pocket sash assembly may include reinforced webbing located where the ventral pocket sash assembly enters an opening in the main pack, with zigzag stitching for durability and minimal elastic give. The internal elastic component may comprise a spring mechanism configured to auto-adjust tension between the ventral pocket sash assembly and the main pack during user movement. The interlocking suspension system may be configured to minimize bouncing of the main pack during physical activity. The wearable container may further comprise metal buckles and hardware to enhance durability and utility. The main pack may include a water-resistant enclosure to protect contents from environmental elements.

The above advantages and features are of representative embodiments only, and are presented only to assist in understanding the invention. It should be understood that they are not to be considered limitations on the invention as defined by the claims. Additional features and advantages of embodiments of the invention will become apparent in the following description, from the drawings, and from the claims.

Aspects described below include a non-transitory computer-readable storage medium comprising computer-executable instructions that, responsive to execution by a processor, cause a system to perform any one of the described methods.

Aspects described below also include a system with means for providing an interlocking suspension system for independent backpack and strap adjustment.

BRIEF DESCRIPTION OF THE FIGURES

The appended figures depict certain features of the various aspects described herein and are not to be considered limiting of the scope of this disclosure.

FIG. 1 depicts a wearable container with a main pack and ventral pocket strap assembly, as shown in some embodiments.

FIG. 2 depicts the ventral pocket strap assembly with pockets and buckles, as shown in some embodiments.

FIG. 3 depicts the interlocking suspension system and other bottom view features, as shown in some embodiments.

FIG. 4 depicts the main pack with side profile features.

FIG. 5 depicts the internal elastic component providing automatic adjustment and reducing pressure, as shown in some embodiments.

FIG. 6 depicts various components of the interlocking suspension system, including loops and buckles, as shown in some embodiments.

FIG. 7 depicts a subassembly on a front compartment, as shown in some embodiments.

FIG. 8 depicts a subassembly on a back compartment, as shown in some embodiments.

DETAILED DESCRIPTION

In the following detailed description, numerous specific details are set forth by way of examples to provide a thorough understanding of the relevant teachings. However, it should be apparent that the present teachings may be practiced without such details. In other instances, well-known structures, functions, methods, procedures, components, and/or circuitry have been described at a relatively high level, without detail, to avoid unnecessarily obscuring aspects of the present teachings.

Unless the context clearly requires otherwise, throughout the description and the claims, the words “comprise,” “comprising,” and the like are to be construed in an inclusive sense as opposed to an exclusive or exhaustive sense; that is to say, in the sense of “including, but not limited to.” Words using the singular or plural number also include the plural or singular number respectively. Additionally, the words “herein,” “above,” “below” and words of similar import, when used in this application, shall refer to this application as a whole and not to any particular portions of this application. When the claims use the word “or” in reference to a list of two or more items, that word covers all of the following interpretations of the word: any of the items in the list, all of the items in the list and any combination of the items in the list. When the word “each” is used to refer to an element that was previously introduced as being at least one in number, the word “each” does not necessarily imply a plurality of the elements, but can also mean a singular element.

As noted, existing wearable packs with torso sashes lack ergonomics for comfort, leading to pain and discomfort during prolonged or heavy use. To address the challenges associated with traditional backpacks with sashes, techniques are described to implement an interlocking suspension system for independent backpack and strap adjustment.

Referring to FIG. 1, the figure illustrates a wearable container designed to enhance user comfort and accessibility through an innovative interlocking suspension system. The main pack 150 is configured to be worn on a user's back, providing a stable and ergonomic support structure. This main pack may include a water-resistant enclosure to protect contents from environmental elements, ensuring durability and utility in various conditions.

In certain aspects, the ventral pocket strap assembly 110 is configured to be worn over a shoulder and across the torso of the user. This assembly includes one or more pockets 120 positioned on the front portion of the user, allowing for convenient access to stored items such as mobile devices, handheld gaming devices, identification cards, credit cards, passports, and energy bars. The pockets are designed to securely hold these items, providing both accessibility and security.

The ventral pocket strap assembly 110 may be constructed from high-strength, lightweight materials such as nylon or polyester fabrics, which offer durability and comfort. The strap assembly 110 may have an adjustable length ranging from 30 to 55 inches to accommodate users of varying sizes. The one or more pockets 120 integrated into the ventral pocket strap assembly 110 may include compartments with dimensions suitable for standard mobile devices, approximately 3 inches in width and 6 inches in height, and may feature secure closures like zippers or hook-and-loop fasteners to prevent items from falling out during movement. In some aspects, the interlocking suspension system connects the ventral pocket strap assembly to the main pack.

The interlocking suspension system may utilize load-bearing stitching techniques, such as bartack stitches, to enhance the structural integrity where the straps connect to the main pack 150. The first strap 130, for example, may include a quick-release mechanism, allowing the user to easily detach the ventral pocket strap assembly 110 from the main pack 150 when necessary. This quick-release mechanism may be beneficial in situations where the user needs to remove the front assembly rapidly, such as during security checks or in emergency scenarios.

This system comprises a three-point connection system, which includes various subsystem straps including 130 connecting the ventral pocket strap assembly to a swivel mount buckle 160 associated with the main pack. The swivel mount buckle allows for rotation in multiple planes, accommodating adjustments for user comfort and enabling ambidextrous use. This feature enhances the versatility of the wearable container, allowing it to be comfortably worn by users with different preferences and needs.

In various aspects, a second buckle 140 connects the strap subsystem at a lower/far side of the ventral pocket strap assembly (also known as ventral pocket sash assembly) to a second buckle, while a loop connects the opposite side of the second buckle to the main pack. This configuration allows the ventral pocket strap assembly and the main pack to be independently adjustable, maintaining the one or more pockets in a front and center position on the user's torso regardless of adjustments. This independent adjustability is crucial for ensuring that the pockets remain accessible and do not shift during movement.

The second strap 140 may incorporate an adjustable slider, enabling the user to fine-tune the tension and position of the ventral pocket strap assembly 110. The buckle connected to the second strap 140 may be a side-release buckle made from acetal plastic, which offers a balance of strength and lightweight properties. The loop connecting the opposite side of the buckle to the main pack 150 may be an elasticated section, allowing for dynamic movement and slight stretching as the user moves, enhancing comfort during activities such as hiking or running.

In several aspects, the interlocking suspension system may further comprise an internal elastic component integrated within the main pack. This internal elastic component is configured to provide automatic adjustment and form-fitting placement by compensating for and absorbing movement and reducing pressure on the user's shoulders and back. The internal elastic component may include a spring mechanism that auto-adjusts tension between the ventral pocket strap assembly and the main pack during user movement, enhancing comfort and reducing strain.

This internal elastic component may consist of an elastic band or a coiled spring mechanism housed within a fabric channel inside the main pack 150. The elastic component may have an elongation capacity of up to 150% of its resting length, providing sufficient flexibility to absorb the natural movements of the user. The spring mechanism may be manufactured from stainless steel or a resilient polymer to prevent corrosion and maintain performance over time.

In other aspects, the ventral pocket strap assembly includes reinforced webbing located where the strap assembly enters an opening in the main pack. This webbing features zigzag stitching for durability and minimal elastic give, ensuring that the strap assembly remains secure and robust during use. The reinforced webbing contributes to the overall durability of the wearable container, making it suitable for various activities and environments.

The reinforced webbing may be composed of high-denier fiber materials, such as 1000D Cordura, which is known for its abrasion resistance and durability. The zigzag stitching used in this area may be executed with heavy-duty thread, such as bonded nylon thread with a tensile strength of 15 pounds, ensuring that the stitching withstands the stresses of regular use. The stitch length and width may be standardized at 4 stitches per inch and 5 millimeters, respectively, to optimize the balance between flexibility and strength.

In many aspects, the interlocking suspension system is configured to minimize bouncing of the main pack during physical activity. This feature is particularly beneficial for users engaged in dynamic activities, as it helps maintain stability and comfort. The system may also include metal buckles and hardware to enhance durability and utility, ensuring secure connections between components and providing a robust structure that withstands regular use.

This bouncing minimization be achieved through the strategic placement of the straps and the incorporation of the internal elastic component. By allowing slight give and dynamic adjustment, the system can adapt to the user's movements, reducing the inertial forces that cause bouncing. Additionally, the main pack 150 may be contoured to fit the curvature of the user's back, with padding materials such as closed-cell foam providing comfort and further stabilizing the load.

Preferably, metal hardware may be treated with anti-corrosion finishes, such as electroplating or powder coating, to withstand exposure to moisture, salt, and other environmental factors. The hardware may comply with military or industrial standards, such as MIL-DTL-32439 for load capacity and durability. In some embodiments, the metal components may be designed with tool-less interfaces, allowing users to replace or adjust parts without specialized equipment. Furthermore, the utility of the system may be expanded through the inclusion of accessory attachment points compatible with standardized gear mounting systems like PALS (Pouch Attachment Ladder System) webbing.

In certain aspects, the main pack may further comprise a dual-adjustment system allowing the lengths of the ventral pocket strap assembly and the main pack straps to be independently adjusted. This dual-adjustment capability provides users with the flexibility to customize the fit of the wearable container, enhancing comfort and usability. The main pack straps may include adjustable buckles located at both the shoulder and lower back regions, enabling users to customize the fit vertically and horizontally. This dual-adjustment system may employ incremental adjustment notches or friction buckles to allow for precise changes without slipping during use.

In some aspects, the design of the wearable container emphasizes both functionality and aesthetics. The use of high-quality materials and thoughtful design elements ensures that the container not only performs well but also appeals to users seeking a stylish and practical solution for carrying their belongings.

The exterior of the main pack 150 and ventral pocket strap assembly 110 may feature reflective accents or strips made from retro-reflective materials to enhance visibility in low-light conditions. The choice of colors and finishes may range from muted earth tones suitable for outdoor environments to vibrant hues favored in urban settings. The materials used may also be treated with water-repellent coatings, such as DWR (Durable Water Repellent), to provide additional protection against moisture.

In various aspects, the integration of the interlocking suspension system with the main pack and ventral pocket strap assembly demonstrates a sophisticated approach to wearable container design. By allowing for independent adjustability and incorporating features such as the internal elastic component and swivel mount buckle, the system provides a comprehensive solution that addresses user needs for comfort, accessibility, and durability.

The system may be compatible with additional modular accessories, such as detachable pouches or hydration systems. Attachment points may be provided using standardized MOLLE (Modular Lightweight Load-carrying Equipment) webbing, allowing users to expand the functionality of the wearable container according to their specific needs. In several aspects, the wearable container is designed to be versatile and adaptable, suitable for a wide range of users and activities. Whether used for daily commuting, travel, or outdoor adventures, the container offers a reliable and user-friendly option for carrying essential items.

For example, users engaged in photography may attach lens cases or tripod holders, while hikers may add trekking pole loops or rain cover compartments. The adaptability of the container enhances its appeal across different user groups and applications.

In other aspects, the detailed design and construction of the wearable container reflect a commitment to quality and innovation. By focusing on user experience and incorporating advanced features, the container sets a new standard for ergonomic and functional design in wearable technology.

The seams of the main pack 150 may be constructed using flat-felled seams to prevent fraying and to provide a clean interior finish. Stress points may be reinforced with rivets or additional stitching, and all zippers may be YKK brand or equivalent, known for reliability and smooth operation. In many aspects, the wearable container's ability to maintain the pockets in a front and center position, regardless of adjustments, highlights its practicality and user-centric design. This feature ensures that users can easily access their belongings without compromising comfort or stability.

The ventral pocket strap assembly 110 may include ergonomic shaping to contour to the user's body, distributing weight evenly and reducing pressure points. The padding on the straps may be made from breathable mesh fabrics to promote airflow and reduce heat buildup. In certain aspects, the inclusion of a water-resistant enclosure in the main pack further enhances the container's utility, providing protection against environmental elements and ensuring that contents remain safe and dry.

The main pack 150 may feature a roll-top closure or sealed seams to increase resistance to water ingress. Internally, the pack may have separate compartments or liners to organize items and provide additional protection for sensitive equipment like electronics.

In some aspects, the use of metal buckles and hardware not only enhances durability but also adds a touch of sophistication to the overall design. Metals such as anodized aluminum or coated steel may be used for hardware components, offering a balance between strength and weight. The hardware may be designed with smooth edges and secure locking mechanisms to prevent accidental release and to ensure user safety. These elements contribute to the container's robust construction and aesthetic appeal.

In various aspects, the wearable container's design and features are informed by a deep understanding of user needs and preferences. Metals such as anodized aluminum or coated steel may be used for hardware components, offering a balance between strength and weight. The hardware may be designed with smooth edges and secure locking mechanisms to prevent accidental release and to ensure user safety. By prioritizing comfort, accessibility, and durability, the container offers a comprehensive solution that meets the demands of modern users.

In several aspects, the integration of advanced materials and construction techniques ensures that the wearable container is both lightweight and strong, providing a comfortable and reliable option for carrying personal items. Materials like ripstop nylon or Dyneema® composite fabrics may be used to reduce weight without sacrificing durability. The overall weight of the empty container may be kept under 2 pounds (approximately 0.9 kilograms), making it convenient for users who require mobility and ease of transport.

In other aspects, the thoughtful design of the ventral pocket strap assembly and interlocking suspension system reflects a commitment to innovation and excellence in wearable technology. By addressing key user concerns and incorporating advanced features, the container sets a new benchmark for performance and usability.

In many aspects, the wearable container's ability to adapt to different user needs and preferences underscores its versatility and appeal. The container may offer customization options, allowing users to select colors, materials, or additional features at the time of purchase. This level of personalization enhances the user experience and fosters a stronger connection between the user and the product. Whether used for work, travel, or leisure, the container offers a practical and stylish solution for carrying essential items.

In certain aspects, the detailed description of the wearable container's features and components provides a comprehensive understanding of its design and functionality. The interplay between mechanical components, material choices, and ergonomic considerations demonstrates a holistic approach to product development.

This paragraph describes one example of a preferred embodiment. In some aspects, the materials used in the front (sling extended) configuration of the wearable container are specifically selected for their performance and aesthetic qualities. In this embodiment, the main body material 1 is a 700D polyester with a light layer of TPU backing, providing durability and water resistance. The main body material 2 is airmesh, offering breathability and comfort against the skin. Foam 1, used in the back panel and bottom panel, is 2 mm EVA foam, providing cushioning and support. The back zipper is a size #8 YKK reverse coil zipper, known for its reliability and smooth operation. The 1.5″ nylon webbing is used for the straps, providing strength and flexibility. The 1.75″ high-density elastic is incorporated into the design to allow for dynamic movement and comfort. The mid and front zipper is a size #5 YKK reverse coil zipper, ensuring secure closure and easy access. The 10 mm discreet binding provides an edge finish, enhancing the overall appearance. The 1.75″ binding is wrapped once and bartacked with 3 mm thick tacks for added strength. The 0.25″ elastic web catch and 12 mm elastic binding are used to secure various components, ensuring a snug fit. The lycra side pockets offer additional storage options, while the interior liner is made from 210D polyester, providing a smooth and protective interior surface. The details in this paragraph are not required nor are they necessary for the vast majority of embodiments.

The wearable container exemplifies how thoughtful engineering and design can culminate in a product that meets practical needs while also providing comfort and aesthetic value. By highlighting the key elements and their interactions, the description offers valuable insights into the container's innovative approach to wearable technology.

Referring to FIG. 2, the illustration provides a top-down view of one embodiment of the wearable container, showcasing important features relating to the ventral pocket strap assembly designed to be worn over a shoulder and across a user's torso. This assembly is integral to the wearable container, providing both functionality and convenience. The mounted swivel buckle has padding which may be EVA foam such as 2 mm EVA foam for example, which may also be applied elsewhere on the ventral pocket strap assembly 210, also known as the sash. Some pockets on sash 210 may be configured to hold the largest phones on the market, in some aspects. Further shown are one or more pockets 230 positioned on the front portion of the user, allowing for easy access to stored items. These pockets 230 may be configured to securely hold various items such as mobile devices, handheld gaming devices, identification cards, credit cards, passports, and energy bars, ensuring that essential items are readily accessible.

In certain aspects, the ventral pocket strap assembly 210 is connected to a main pack (not shown in this figure) via an interlocking suspension system. This system includes a three-point connection system designed to provide stability and adjustability. A first strap connects the ventral pocket strap assembly 210 to a swivel mount buckle, facilitating multi-plane rotation for user comfort. This swivel mount buckle may enable ambidextrous use, allowing the user to wear the strap assembly over either shoulder with ease.

In some aspects, a second strap connects the ventral pocket strap assembly 210 to a buckle 220, while a loop connects the opposite side of the buckle to the main pack. This configuration allows for independent adjustment of the ventral pocket strap assembly and the main pack, ensuring that the pockets 230 remain in a front and center position on the user's torso regardless of adjustments. The independent adjustability is a key feature, providing a customized fit for various body types and preferences.

In various aspects, the interlocking suspension system may further comprise an internal elastic component integrated within the main pack. This internal elastic component is configured to provide automatic adjustment and form-fitting placement by absorbing movement and reducing pressure on the user's shoulders and back. The inclusion of this component enhances the comfort and usability of the wearable container, particularly during physical activities.

In several aspects, the ventral pocket strap assembly 210 includes reinforced webbing with zigzag stitching, enhancing durability and providing minimal elastic give. This construction ensures that the strap assembly can withstand regular use and environmental stresses, maintaining its integrity over time. The reinforced webbing is strategically located where the strap assembly enters the main pack, providing additional support at this critical junction.

In other aspects, the interlocking suspension system is designed to minimize bouncing of the main pack during physical activity. This feature is particularly beneficial for users engaged in dynamic movements, as it helps maintain the stability and position of the main pack, reducing discomfort and potential distractions.

In many aspects, the wearable container may further comprise metal buckles and hardware to enhance durability and utility. These components ensure secure connections between the various parts of the system, contributing to the overall robustness and reliability of the wearable container.

Additionally, the figure highlights a detailed view of the pockets 240, which may include various compartments for organizing items such as credit cards with robust wallet-form pockets. In certain aspects, the sash, known as the ventral pocket strap assembly, may incorporate one or more pockets 240 positioned on the front portion of the user. These pockets are designed to securely hold various items, such as mobile devices, handheld gaming devices, identification cards, credit cards, passports, and energy bars. The configuration of these pockets ensures that they remain in a front and center position on the user's torso, allowing for easy access and convenience during use.

These pockets 240 may vary in size and dimension to accommodate different items. For example, a primary pocket might measure approximately 15 centimeters in height, 10 centimeters in width, and 2 centimeters in depth, suitable for holding standard-sized mobile devices. The pockets may include features such as elasticized openings, zipper closures, or magnetic snaps to secure contents effectively. Internally, the pockets could be lined with soft materials like microfiber to prevent scratches on electronic devices. Some embodiments may also include RFID-blocking layers within the pockets to protect sensitive information stored on identification cards and credit cards.

Elastic web loop keeper 250 is shown at a far end of the sash to hold onto excess length of strap material and increase smooth functionality when adjusting and pulling. A second buckle 220 is depicted at a first lower corner of the backpack, providing secure attachment and adjustment capabilities when used in conjunction with the “male” buckle on the sash. Another second buckle is shown at a second lower corner of the backpack, showcasing the option for flexibly wearing the sash at either angle preferred by the user. The design prioritizes user comfort, accessibility, and adjustability, making it suitable for a wide range of activities and environments. The combination of features, including the swivel mount buckle, internal elastic component, and reinforced webbing, demonstrates a thoughtful approach to addressing user needs and enhancing the functionality of the wearable container.

Referring to FIG. 3, the illustration depicts a ventral pocket strap assembly 310 designed to be worn over a shoulder and across a user's torso. This assembly is integral to the wearable container, providing both functionality and ergonomic support. The ventral pocket strap assembly 310 includes one or more pockets positioned on the front portion of the user, allowing for convenient access to stored items such as mobile devices, identification cards, and passports. The pockets are designed to securely hold these items, ensuring they remain accessible and protected during use.

In certain aspects, the ventral pocket strap assembly 310 is connected to a main pack 350, which is configured to be worn on the user's back. The main pack 350 serves as the primary storage component of the wearable container, offering ample space for additional items. The main pack may include a water-resistant enclosure to protect contents from environmental elements, enhancing the utility of the wearable container in various conditions.

In some aspects, the interlocking suspension system is a key feature of the wearable container, connecting the ventral pocket strap assembly 310 to the main pack 350. This system comprises a three-point connection system, which includes a first strap sash joint 320 connecting the top side of the ventral pocket strap assembly to a swivel mount buckle. The swivel mount buckle allows for rotation in multiple planes, accommodating adjustments for user comfort and enabling ambidextrous use. This feature is particularly beneficial for users who require flexibility in how the wearable container is worn.

In various aspects, the second strap 340 connects the ventral pocket strap assembly 310 to a buckle, while a loop connects the opposite side of the buckle to the main pack 350. This configuration ensures that the ventral pocket strap assembly and the main pack are independently adjustable, maintaining the pockets in a front and center position on the user's torso. The independent adjustability of these components allows for a customized fit, catering to the unique preferences and needs of each user.

In several aspects, the ventral pocket strap assembly 310 includes air mesh embodiment 330 which may be assembled zigzag stitching for durability and minimal elastic give. This construction enhances the longevity of the wearable container, ensuring it can withstand regular use and various physical activities. The reinforced webbing is strategically located where the ventral pocket strap assembly enters an opening in the main pack 350, providing additional support and stability.

In other aspects, the interlocking suspension system may further comprise an internal elastic component integrated within the elastic strap joint 322. This internal elastic component is configured to provide automatic adjustment and form-fitting placement by absorbing movement and reducing pressure on the user's shoulders and back. The inclusion of this component enhances the comfort and usability of the wearable container, making it suitable for extended wear.

In many aspects, the wearable container may also feature metal buckles and hardware including elastic web catch 360 to enhance durability and utility. These components ensure secure connections between the various parts of the wearable container, including the ability to secure the hardware buckles when not in use by tucking them in behind elastic such as the elastic web catches 360, contributing to its overall robustness and reliability. The metal buckles and hardware are designed to withstand the rigors of daily use, providing users with a dependable and long-lasting product.

In certain aspects, the interlocking suspension system is designed to minimize bouncing of the main pack 350 during physical activity. This feature is particularly advantageous for users who engage in activities such as hiking, cycling, or running, where stability and comfort are paramount. By reducing the movement of the main pack, the wearable container offers a more stable and enjoyable experience for the user.

In some aspects, the wearable container may include a dual-adjustment system allowing the lengths of the ventral pocket strap assembly 310 and the main pack straps to be independently adjusted. This system provides users with the flexibility to customize the fit of the wearable container, ensuring optimal comfort and support.

In various aspects, the main pack 350 may include additional features such as a water-resistant enclosure to protect contents from environmental elements. This feature enhances the versatility of the wearable container, making it suitable for use in a wide range of conditions and environments.

In several aspects, the wearable container is designed to accommodate a variety of user needs and preferences, offering a customizable and adaptable solution for carrying personal items. The combination of ergonomic design, durable materials, and innovative features makes the wearable container a valuable addition to any user's collection of personal accessories.

In other aspects, the wearable container may be constructed from a variety of materials, including lightweight fabrics, durable synthetics, and reinforced textiles. These materials are selected for their ability to provide strength, flexibility, and comfort, ensuring the wearable container meets the demands of everyday use.

In many aspects, the design of the wearable container emphasizes both functionality and aesthetics, offering users a product that is both practical and visually appealing. The sleek and modern design of the wearable container makes it suitable for a wide range of settings, from casual outings to professional environments.

In certain aspects, the wearable container may be available in a variety of colors and styles, allowing users to select a product that aligns with their personal preferences and fashion sense. This customization option enhances the appeal of the wearable container, making it a versatile and attractive choice for users of all ages and lifestyles.

In some aspects, the wearable container may be equipped with additional features such as reflective elements, security pockets, and adjustable straps. These features enhance the functionality and safety of the wearable container, providing users with a comprehensive solution for carrying their personal items.

In various aspects, the wearable container is designed to integrate seamlessly with other personal accessories, such as hydration systems, electronic devices, and travel gear. This integration capability makes the wearable container a versatile and adaptable solution for users who require a multifunctional product.

In several aspects, the wearable container may be designed to accommodate a range of body types and sizes, offering a comfortable and secure fit for users of all shapes and proportions. The adjustable features of the wearable container ensure that it can be tailored to meet the specific needs of each user, providing a personalized and comfortable experience.

In other aspects, the wearable container may be designed to support a variety of activities and environments, from urban commuting to outdoor adventures. The durable construction and versatile design of the wearable container make it suitable for a wide range of applications, providing users with a reliable and adaptable solution for carrying their personal items.

In many aspects, the wearable container may be designed to enhance the user's overall experience, offering a product that is both functional and enjoyable to use. The thoughtful design and innovative features of the wearable container make it a valuable addition to any user's collection of personal accessories, providing a practical and stylish solution for carrying their belongings.

Referring to FIG. 3, the illustration depicts a ventral pocket strap assembly 310 designed to be worn over a shoulder and across a user's torso.

The ventral pocket sash assembly 310 may be constructed from high-strength, wear-resistant materials such as ballistic nylon or reinforced polyester. These materials are selected for their durability and ability to withstand environmental stressors, ensuring longevity of the wearable container. The ventral pocket sash assembly 310 may have a width ranging from 5 to 8 centimeters to distribute weight evenly across the user's shoulder and torso, reducing pressure points and enhancing ergonomic comfort. Internally, the sash assembly may include padding made from closed-cell foam or gel inserts, providing cushioning and conforming to the body's contours. The outer surface of the sash assembly 310 may feature a series of attachment points or MOLLE (Modular Lightweight Load-carrying Equipment) webbing, allowing users to customize the placement of additional pouches or accessories.

The ventral pocket strap assembly 310 includes one or more pockets positioned on the front portion of the user, allowing for convenient access to stored items such as mobile devices, identification cards, and passports.

Each pocket may incorporate secure closure mechanisms, such as waterproof zippers with auto-lock sliders or magnetic snap fasteners, to prevent accidental opening and to protect contents from moisture and debris. The pockets may vary in size and shape to accommodate different items; for example, a pocket designated for mobile devices may measure approximately 16 centimeters in height and 9 centimeters in width, suitable for most smartphones and handheld devices. Additionally, the interior lining of the pockets may be made from a soft microfiber fabric to prevent scratches on electronic screens and to provide a gentle cushioning effect. Some pockets may include internal organizers or elastic loops to secure smaller items like pens, cables, or memory cards, enhancing the utility of the storage spaces.

In certain aspects, the ventral pocket strap assembly 310 is connected to a main pack 350, which is configured to be worn on the user's back.

The main pack 350 may feature a capacity between 20 and 35 liters, making it suitable for daily commuting, travel, or outdoor activities. The main pack 350 may be constructed from water-resistant materials, such as laminated fabrics with a polyurethane (PU) or thermoplastic polyurethane (TPU) coating, providing protection against rain and splashes. The back panel of the main pack 350 may include an airflow channel system, consisting of contoured foam padding with mesh covering, to enhance ventilation and reduce perspiration buildup during extended wear. The main pack may also incorporate internal compartments or sleeves—for instance, a padded laptop sleeve capable of accommodating devices up to 15 inches in size, secured with a retaining strap or elastic closure.

In some aspects, the interlocking suspension system is a key feature of the wearable container, connecting the ventral pocket strap assembly 310 to the main pack 350.

The interlocking suspension system may utilize a combination of mechanical fasteners and adaptive components to facilitate a secure yet flexible connection between the ventral pocket sash assembly 310 and the main pack 350. The system's design allows for dynamic movement, enabling the main pack to pivot or shift slightly in response to the user's motions, thereby reducing strain and enhancing balance. The materials used in the suspension system components, such as the swivel mount buckle and straps, may include high-tensile polymers or anodized aluminum alloys to ensure strength and durability without adding excessive weight.

The swivel mount buckle allows for rotation in multiple planes, accommodating adjustments for user comfort and enabling ambidextrous use.

Specifically, the swivel mount buckle may provide 360-degree rotation along the vertical axis and up to 45 degrees of tilt along the horizontal axis, allowing the ventral pocket sash assembly 310 to conform to the user's body movements seamlessly. The swivel mechanism may incorporate low-friction bearings or bushings made from materials like polytetrafluoroethylene (PTFE) to ensure smooth operation and to resist wear over time. This feature enables users to switch the sash assembly from one shoulder to the other quickly, catering to both left-handed and right-handed individuals and providing versatility in how the wearable container is carried.

In various aspects, the second strap 340 connects the ventral pocket strap assembly 310 to a buckle, while a loop connects the opposite side of the buckle to the main pack 350.

The second strap 340 may include an adjustable length mechanism, such as a slide buckle or cam lock, allowing users to fine-tune the tension and positioning of the ventral pocket sash assembly 310. The buckle connected to the second strap 340 may feature a quick-release mechanism, enabling the user to detach or attach the ventral pocket sash assembly 310 rapidly, which is advantageous in situations where the user needs to remove the main pack 350 without disturbing the front pockets. The loop connecting the opposite side of the buckle to the main pack 350 may be reinforced with bartack stitching or rivets to enhance load-bearing capacity and prevent detachment under stress.

The second strap 340 may also incorporate elastic segments to provide additional flexibility and comfort during movement. These elastic segments can be strategically placed to allow for dynamic adjustments, accommodating the user's body movements without compromising the stability of the ventral pocket sash assembly 310. In some embodiments, the strap may be constructed from a combination of nylon and elastic materials, joined using techniques such as bartacking or ultrasonic welding to ensure a robust and durable connection. This hybrid construction allows the strap to maintain its shape and strength while offering the necessary stretch for ergonomic support. Additionally, the strap's surface may be treated with a non-slip coating to prevent unwanted shifting during use, further enhancing the user's comfort and control.

In several aspects, the ventral pocket strap assembly 310 includes air mesh embodiment 330 with zigzag stitching for durability and minimal elastic give. The air mesh embodiment 330 may be made from mil-spec nylon or ultra-high-molecular-weight polyethylene (UHMWPE) fibers, providing exceptional tensile strength while remaining lightweight. The zigzag stitching pattern used in attaching the webbing may utilize high-strength bonded nylon threads, ensuring that the stitching can withstand repeated stress and strain without failure. The minimal elastic give of the webbing ensures that the ventral pocket sash assembly 310 maintains its shape and does not stretch out over time, preserving the intended positioning of the pockets on the user's torso.

In other aspects, the interlocking suspension system may further comprise an internal elastic component integrated within the main pack 350. The internal elastic component may include an integrated spring mechanism or elastomeric elements designed to absorb shock and reduce the impact of sudden movements. For example, a coil spring fabricated from tempered steel may be enclosed within a housing inside the main pack 350, connected to the attachment points of the ventral pocket sash assembly 310. Alternatively, the elastic component may consist of elastic cords or bands made from natural or synthetic rubber materials, providing controlled elasticity to accommodate the dynamic forces experienced during activities such as running or jumping. This component functions to dampen oscillations and prevent the main pack 350 from swaying excessively, thereby enhancing stability and user comfort.

In many aspects, the wearable container may also feature metal buckles and hardware 360 to enhance durability and utility. The metal buckles and hardware 360 may be constructed from corrosion-resistant materials such as stainless steel or anodized aluminum. These materials are chosen for their ability to resist environmental degradation, ensuring that the wearable container remains functional in humid or marine environments. The hardware may include D-rings, triglides, and carabiner clips, providing additional attachment points for accessories or external gear. The design of the buckles may incorporate ergonomic considerations, such as rounded edges and textured surfaces, to facilitate easy operation even when the user is wearing gloves or has limited dexterity.

In certain aspects, the interlocking suspension system is designed to minimize bouncing of the main pack 350 during physical activity. This may be achieved through the strategic placement of tensioning straps and the use of compression panels on the sides of the main pack 350. Tensioning straps may be adjusted to draw the load closer to the user's back, thereby lowering the center of gravity and reducing pendulum effects during movement. Compression panels, possibly made from stretchable mesh fabrics, help to secure the contents within the main pack 350, preventing internal shifting that can contribute to instability. Additionally, the interlocking suspension system may incorporate anti-sway stabilizers—rigid or semi-rigid structures that limit side-to-side movement without restricting the user's natural range of motion.

In some aspects, the wearable container may include a dual-adjustment system allowing the lengths of the ventral pocket strap assembly 310 and the main pack straps to be independently adjusted. This dual-adjustment system enables users to customize the fit precisely, accommodating various torso lengths and body shapes. The adjustment mechanisms may include ladder locks or ratcheting systems that allow for incremental changes in strap length. The main pack straps may also feature load-lifter straps at the top connection points, enabling the user to adjust the angle of the main pack 350 relative to their back, thereby optimizing weight distribution. The independent adjustment of the ventral pocket sash assembly 310 ensures that the front pockets remain accessible and correctly positioned, regardless of adjustments made to the main pack straps.

In various aspects, the main pack 350 may include additional features such as a water-resistant enclosure to protect contents from environmental elements. The water-resistant enclosure may comprise a roll-top closure system or waterproof zippers with sealed seams to prevent water ingress. The main pack 350 may also include a built-in rain cover stored in a dedicated pocket at the base of the pack, which can be deployed quickly in inclement weather. The interior of the main pack 350 may feature sealed liners or dry-bag compartments made from impermeable materials like thermoplastic elastomers (TPE) to provide an extra layer of protection for sensitive items such as electronics or important documents.

In several aspects, the wearable container is designed to accommodate a variety of user needs and preferences, offering a customizable and adaptable solution for carrying personal items. For instance, the main pack 350 may include modular internal dividers or attachment points compatible with camera gear inserts, allowing photographers to organize equipment securely. The ventral pocket sash assembly 310 may offer interchangeable pockets, enabling users to swap out components based on their activities—for example, replacing a general-purpose pocket with a specialized hydration holster or a first-aid kit pouch. Such modularity enhances the wearable container's versatility across different scenarios and user requirements.

In other aspects, the wearable container may be constructed from a variety of materials, including lightweight fabrics, durable synthetics, and reinforced textiles. These materials may include ripstop nylon for tear resistance, Cordura fabrics for abrasion resistance, and Dyneema composite fabrics for ultralight strength. The selection of materials may be guided by the intended use case; for example, ultralight materials may be prioritized for backpacking applications, while heavier-duty fabrics may be preferred for urban commute or tactical use. The wearable container may also incorporate eco-friendly materials, such as recycled polyester or organic cotton blends, catering to environmentally conscious users.

In many aspects, the design of the wearable container emphasizes both functionality and aesthetics, offering users a product that is both practical and visually appealing. The overall design may feature clean lines, streamlined profiles, and minimalistic hardware to create a modern appearance. Aesthetic elements may include color accents, reflective logos for visibility in low-light conditions, and textured fabrics that add visual interest. The ergonomic shaping of the main pack 350 and ventral pocket sash assembly 310 may enhance not only comfort but also the sleek appearance of the wearable container when worn.

In some embodiments, as illustrated in FIG. 5, the wearable container includes additional features such as reflective elements and adjustable sternum straps for enhanced safety and stability. These reflective elements may be strategically placed on the ventral pocket sash assembly subsystem 510 and main pack to increase visibility during nighttime or low-light conditions, promoting user safety. The adjustable sternum strap may connect the ventral pocket sash assembly subsystem 510 across the chest, providing additional support and preventing the straps from slipping off the shoulders during vigorous activities.

In certain embodiments, the wearable container may incorporate a feedback system that allows users to monitor their posture and load distribution. For example, sensors embedded within the main pack 350 or ventral pocket sash assembly 310 may collect data on weight distribution and body alignment. This data may be transmitted to a user interface on a connected smartphone or wearable device, providing real-time feedback and suggestions for adjustments to improve ergonomics. Such a system enhances the user's experience by promoting healthier carrying habits and reducing the risk of strain or injury.

Incorporating the concept of modularity, the wearable container may offer interchangeable components that allow users to customize the system according to their specific needs. For instance, the ventral pocket sash assembly 310 may be detached and replaced with alternative assemblies designed for different purposes, such as a hydration system compatible sash or a high-visibility sash for use in construction or cycling. The main pack 350 may also accept add-on components like expansion packs, additional external pockets, or tool attachments, enhancing the functionality of the wearable container in various contexts.

In some embodiments, the interlocking suspension system may include a load-balancing mechanism that dynamically adjusts tension across the straps based on the user's movement and the weight distribution within the main pack 350. This mechanism may utilize tension sensors and micro-adjustment units controlled by embedded firmware, ensuring optimal load distribution at all times. By maintaining equilibrium, the system reduces fatigue and improves the user's endurance during prolonged periods of activity.

Furthermore, the wearable container may be designed with sustainability considerations, utilizing materials and manufacturing processes that reduce environmental impact. This may involve sourcing recycled materials for fabrics and hardware, implementing dyeing processes that minimize water usage, and designing the product for longevity and repairability to extend its useful life. Such considerations align the wearable container with the growing demand for environmentally responsible products.

In summary, the wearable container integrates advanced materials, ergonomic design principles, and innovative suspension mechanisms to deliver a versatile and user-friendly carrying solution. The combination of the ventral pocket sash assembly 310, main pack 350, and interlocking suspension system provides users with a customizable, comfortable, and functional product suitable for a wide range of activities and environments. The detailed features and configurations described contribute to the overall utility and appeal of the wearable container, addressing the needs of modern users seeking both practicality and style in their personal accessories.

Referring to FIG. 4, the illustration depicts a main pack 410 designed to be worn on a user's back. This main pack is a central component of the wearable container, providing the primary storage and support structure. The main pack 410 is configured to include a water-resistant enclosure, which may protect the contents from environmental elements such as rain or dust. This feature is particularly beneficial for users who engage in outdoor activities, ensuring that their belongings remain dry and secure.

In certain aspects, the main pack 410 may be constructed from durable materials such as reinforced nylon or polyester, which offer both strength and flexibility. These materials may be selected for their ability to withstand wear and tear, providing longevity to the product. The main pack 410 may also include multiple compartments and pockets, allowing for organized storage of various items.

In some aspects, the ventral pocket strap assembly, although not explicitly shown in FIG. 4, is an integral part of the system, designed to be worn over a shoulder and across the user's torso. This assembly includes one or more pockets positioned on the front portion of the user, allowing for easy access to essential items such as mobile devices, identification cards, and passports. The ventral pocket strap assembly is connected to the main pack 410 via an interlocking suspension system, which may include a three-point connection system.

In various aspects, the interlocking suspension system may comprise a first strap connecting the top side of the ventral pocket strap assembly to a swivel mount buckle affixed to the main pack 410. This swivel mount buckle may allow for rotation in multiple planes, accommodating adjustments for user comfort and enabling ambidextrous use. A second strap may connect the ventral pocket strap assembly to a second buckle affixed to the main pack 410, while a third strap may connect the bottom side of the ventral pocket strap assembly to the main pack 410. This configuration allows for independent adjustment of the ventral pocket strap assembly and the main pack 410, maintaining the pockets in a front and center position on the user's torso.

In several aspects, the main pack 410 may include reinforced webbing 420 located where the ventral pocket strap assembly enters an opening in the main pack. This webbing may feature zigzag stitching for enhanced durability and minimal elastic give, ensuring that the connection points withstand the stresses of regular use. Eyelets 430 may be placed on both sides of the bungee cord at the point of entry into the container. These eyelets should help protect the penetrations from wear over time as a bungee cord is pulled taught and used to secure water bottles and the like, as described below+. The reinforced webbing 420 may be made from high-strength materials such as Kevlar or ballistic nylon, providing additional support and resilience.

In other aspects, the system may include an internal elastic component integrated within the main pack 410. This component may comprise a spring mechanism configured to provide automatic adjustment and form-fitting placement by absorbing movement and reducing pressure on the user's shoulders and back. The internal elastic component may enhance the user's comfort by distributing the load evenly across the back and shoulders, minimizing fatigue during prolonged use.

In many aspects, the main pack 410 may also feature additional components such as a side wall 440 secured by a bungee cord 450. This bungee cord can operate with a bungee cord lock 460. This side wall 440 may serve as a bottle holder and may be designed to accommodate various sizes of water bottles, providing convenient access to hydration during activities. The bungee cord 450 may include adjustable features, allowing the user to secure the bottle firmly in place. The bungee cord lock may be wrapped through the side wall and fully into the interior of the bag, ensuring a tight fit.

In certain aspects, the wearable container may further comprise metal buckles and hardware to enhance durability and utility. These components may be made from corrosion-resistant materials such as stainless steel or anodized aluminum, ensuring that they maintain their functionality and appearance over time.

In some aspects, the design of the main pack 410 and its associated components may be optimized for minimal bouncing during physical activity. This feature is particularly advantageous for users who engage in dynamic movements, such as running or hiking, as it helps maintain stability and comfort.

In various aspects, the main pack 410 may be equipped with a dual-adjustment system, allowing the lengths of the ventral pocket strap assembly and the main pack straps to be independently adjusted. This system may enable users to customize the fit of the wearable container to their specific body shape and preferences, enhancing overall comfort and usability.

In several aspects, the main pack 410 may include additional features such as reflective strips or logos, enhancing visibility and safety during low-light conditions. These elements may be strategically placed on the main pack 410 to maximize their effectiveness.

In other aspects, the main pack 410 may be designed to accommodate various accessories, such as detachable pouches or modular attachments. These accessories may be secured to the main pack 410 using compatible attachment points, providing users with the flexibility to customize their storage options.

In many aspects, the main pack 410 and its components may be available in a range of colors and styles, allowing users to select a design that suits their personal preferences and lifestyle. The aesthetic appeal of the wearable container may be enhanced by the use of high-quality materials and finishes, contributing to its overall marketability.

In certain aspects, the main pack 410 may be designed with ergonomic considerations, ensuring that it conforms to the natural contours of the user's back. This ergonomic design may reduce strain and improve comfort, particularly during extended periods of wear.

In some aspects, the main pack 410 may include ventilation features, such as mesh panels or air channels, to promote airflow and reduce heat buildup. These features may enhance the user's comfort, particularly in warm or humid conditions.

In various aspects, the main pack 410 may be compatible with existing standards or technologies, such as hydration systems or electronic device integration. This compatibility may expand the functionality of the wearable container, making it suitable for a wide range of applications.

In several aspects, the main pack 410 may be designed to support the automatic adjustment and form-fitting placement of the ventral pocket strap assembly, ensuring that the one or more pockets remain in a front and center position on the user's torso. This design may enhance the user's convenience and accessibility to stored items.

In other aspects, the main pack 410 may be constructed with sustainability in mind, using eco-friendly materials and manufacturing processes. This approach may appeal to environmentally conscious consumers and contribute to the overall sustainability of the product.

In many aspects, the main pack 410 may be designed to accommodate a variety of user needs and preferences, making it a versatile and adaptable solution for different activities and environments. The combination of innovative features and thoughtful design may position the wearable container as a leading option in the market.

In conclusion, the main pack 410 and its associated components represent a comprehensive and innovative solution for independent backpack and strap adjustment. The integration of advanced materials, ergonomic design, and customizable features may provide users with a superior level of comfort, functionality, and style. The detailed description of FIG. 4 highlights the key aspects of the wearable container, offering a clear understanding of its capabilities and potential applications.

Referring to FIG. 5, the illustration depicts a elastic strap subsystem 510 designed to be worn over a shoulder and across a user's torso. This assembly is integral to the wearable container, providing both functionality and ergonomic support. The elastic strap subsystem 510 enters the body of the backpack, or container, approximately underneath the reinforced webbing 420, which is strategically located where the other strap subsystem enters an opening in the main pack. This entrance area is characterized by zigzag stitching 530, enhancing durability and providing minimal elastic give, which may contribute to the overall stability and longevity of the wearable container.

The reinforced webbing 420 may be constructed from high-tensile strength materials such as woven nylon or Kevlar fibers, providing exceptional durability and resistance to wear and tear. The zigzag stitching 530 used on the webbing 420 is not only aesthetic but also serves a functional purpose by distributing stress evenly across the seams, thereby enhancing the load-bearing capacity of the strap assembly. The stitching pattern may be implemented using industrial-grade threads capable of withstanding tensile forces of up to 200 Newtons, ensuring reliability under various load conditions.

In some aspects, the interlocking suspension system is a key feature of the wearable container, connecting the elastic strap subsystem 510 to the main pack. This system includes a three-point connection system, which may comprise an elastic strap 540 connecting the top side of the ventral pocket strap assembly to a swivel mount buckle affixed to the main pack. The swivel mount buckle allows for rotation in multiple planes, accommodating adjustments for user comfort and enabling ambidextrous use.

The interlocking suspension system may employ engineering principles rooted in load distribution and ergonomics. By connecting the elastic strap subsystem 510 and the main pack through the entrance with zigzag stitching 530, the design may ensure that weight is evenly distributed across the user's torso and back with elastic give on subsystem 510's connected systems described below. This configuration may minimize pressure points and reduces the risk of musculoskeletal strain during prolonged use. The materials selected for the straps, such as high-density polyethylene or reinforced polyester, may provide a balance between flexibility and strength, allowing for dynamic movement while maintaining structural integrity.

In various aspects, an elastic strap 540 connects to the subsystem 510 through a connection 560. This connection provides additional stability and ensures that the ventral pocket strap assembly and the main pack are independently adjustable. The connection 560 connects, in some embodiments, a vinyl strap in subsystem 510 to elastic strap 540, which in turn terminates at termination 550 as the far bottom side of the ventral pocket strap assembly terminating and joining to the main pack, completing the three-point connection system and further maintaining the pockets in a front and center position on the user's torso through elastic compensation to shaking during use.

The internal elastic component may be composed of an alloy spring mechanism, such as tempered steel or a shape-memory alloy like Nitinol, which offers both elasticity and durability. This spring mechanism could have a spring constant calibrated to respond appropriately to typical user movements, absorbing shocks from activities like walking or running. For instance, the spring may have a compression range of 2 to 5 centimeters, providing sufficient give to adjust to motion without compromising the position of the main pack. The integration of this component may involve housing the spring within a dedicated compartment in the main pack, lined with damping materials to prevent noise or wear.

In several aspects, the interlocking suspension system may further comprise an internal elastic component integrated within the main pack. This component is configured to provide automatic adjustment and form-fitting placement by absorbing movement and reducing pressure on the user's shoulders and back. The internal elastic component may include a spring mechanism, which is designed to auto-adjust tension between the ventral pocket strap assembly and the main pack during user movement, thereby enhancing comfort and reducing strain.

In other aspects, the wearable container may include a dual-adjustment system, allowing the lengths of the ventral pocket strap assembly and the main pack straps to be independently adjusted. This feature provides users with the flexibility to customize the fit of the wearable container according to their preferences and needs.

In many aspects, the main pack of the wearable container is configured to be worn on a user's back and may include a water-resistant enclosure to protect contents from environmental elements. This enclosure ensures that the items stored within the main pack remain dry and secure, even in adverse weather conditions.

The water-resistant enclosure may utilize materials such as thermoplastic polyurethane (TPU) coatings applied to high-density fabrics like nylon or polyester. Sealed seams could be implemented using heat-bonding techniques to prevent water ingress at stitch lines. The enclosure might be rated to withstand water exposure equivalent to an IPX6 rating, protecting against heavy sprays and rain. Additionally, zipper elements may feature water-resistant designs, such as polyurethane-coated zippers or zipper garages, to enhance the overall protective capabilities of the main pack.

In certain aspects, the wearable container may further comprises wrapping 590 to enhance durability and utility of the joint between internal nylon strap 570 and elastic strap 540. These components ensure secure connections between the various elements of the wearable container, contributing to its overall robustness and reliability. The wearable container is the backpack. An airmesh is preferably underneath the elastic strap subsystem for comfort.

The strap adjustment mechanism 570 may consist of a cam buckle or slide adjuster made from lightweight aluminum or reinforced plastic, allowing users to fine-tune the strap length with precision. The mechanism could incorporate incremental locking positions to prevent slippage during movement. The securing clip 598 might be designed as a quick-release buckle, facilitating easy donning and doffing of the wearable container. Bartack may be used instead of the securing clip where 598 is shown. Materials for the clip could include acetal polymers known for their strength and resistance to temperature variations.

In some aspects, additional features of the wearable container may include a joint 560 which is not wrapped, or a securing clip 598 for added stability. These elements allow users to fine-tune the fit and positioning of the wearable container, ensuring optimal comfort and functionality during use. Securing clip 598 is replaced by bartack mechanisms to secure the wrapping and join the strap subsystems 540 and 570, in some embodiments. In these bartacked embodiments, the fabric is overlapped, and may include 1.75″ nylon webbing and 1.75″ high density elastic as the two fabric straps being overlapped. This overlapping is then wrapped, preferably once, and then bartacked to the materials with a tight wrap fit. Preferably, it is not bartacked onto the back panel. 3 mm thick tacks may be used.

In various aspects, the interlocking suspension system is designed to minimize bouncing of the main pack during physical activity. This feature is particularly beneficial for users who engage in dynamic movements, as it helps maintain the stability and balance of the wearable container.

This minimization of movement may be achieved through the strategic placement of the three-point connection system and the internal elastic component. Dynamic load analysis suggests that distributing attachment points across the torso reduces the pendulum effect commonly experienced with traditional backpacks. Computational modeling may have been utilized during the design phase to optimize the position and tension of straps, ensuring that the center of mass remains close to the body's natural center of gravity during motion.

In several aspects, the design of the wearable container emphasizes both practicality and user comfort. Ergonomic considerations include the curvature of the back of the pack, shown with various mesh and material patterns in FIG. 5, which may be contoured to match the anatomical shape of the shoulder and back. Padding materials, such as closed-cell foam or gel inserts, might be incorporated into the strap assembly or backing to alleviate pressure on sensitive areas. Breathable fabrics, like mesh composites with moisture-wicking properties, could be used on contact surfaces to enhance ventilation and reduce perspiration accumulation during extended wear. The integration of reinforced webbing, internal elastic components, and adjustable straps ensures that the wearable container can be tailored to suit a wide range of user preferences and activities.

In other aspects, the elastic strap subsystem 510 is also known as the suspension strap. The suspension strap technology and the main pack are designed to work in harmony, providing a seamless and cohesive user experience without their active involvement or in some aspects, knowledge. The connection points between the elastic strap subsystem 510 and the main pack may feature swivel joints or ball-and-socket mechanisms that allow multidirectional movement. These joints could be fabricated from high-strength polymers or metal alloys, providing durability while enabling the wearable container to adapt to the user's movements. The harmonious interaction between components ensures that adjustments made to one part of the system do not adversely affect the positioning or stability of another, maintaining consistent functionality. The thoughtful arrangement of components and the use of high-quality materials contribute to the overall effectiveness and appeal of the wearable container.

In many aspects, the wearable container represents a versatile and innovative solution for individuals seeking a reliable and adaptable carrying system. The combination of ergonomic design, advanced materials, and customizable features makes it well-suited for a variety of applications and environments.

In certain aspects, the wearable container may be particularly advantageous for users who require quick and easy access to their belongings while on the move. The strategic placement of pockets and the adjustable nature of the straps ensure that users can efficiently manage their items without compromising on comfort or convenience.

In some aspects, the wearable container may also offer competitive advantages over existing technologies, addressing common issues such as discomfort, limited adjustability, and inadequate protection from environmental elements. By incorporating advanced features and materials, the wearable container provides a superior user experience and meets the demands of modern consumers.

In various aspects, the detailed design and construction of the wearable container reflect a commitment to quality and innovation. The integration of cutting-edge technologies and thoughtful design elements ensures that the wearable container delivers exceptional performance and reliability.

In several aspects, the wearable container may be adapted to suit different use cases and environments, offering a flexible and versatile solution for a wide range of users. The ability to customize the fit and functionality of the wearable container makes it an attractive option for individuals with diverse needs and preferences.

In other aspects, the wearable container may be particularly well-suited for outdoor enthusiasts, travelers, and professionals who require a dependable and adaptable carrying system. The combination of ergonomic design, durable materials, and advanced features ensures that the wearable container can withstand the rigors of daily use and provide lasting value to its users.

In many aspects, the wearable container represents a significant advancement in the field of personal carrying systems, offering a unique blend of functionality, comfort, and style. The incorporation of advanced materials and innovative design elements positions the wearable container as a leader in ergonomic backpack solutions. Comparative studies with traditional backpacks may demonstrate reduced physical strain and improved accessibility. The modular nature of the design allows for future enhancements, such as integrating smart technologies like biometric sensors or solar panels for charging devices, thus expanding the potential applications and user base.

The thoughtful integration of innovative features and high-quality materials sets the wearable container apart from traditional carrying solutions and positions it as a leading choice for discerning consumers.

Referring to FIG. 6, the illustration depicts various components of an interlocking suspension system designed for a wearable container, such as a backpack. This system is integral to the functionality of the ventral pocket sash assembly and the main pack, ensuring secure and adjustable connections.

In certain embodiments, the interlocking suspension system may be engineered to optimize weight distribution across the user's body, thereby enhancing ergonomics during extended use. The system may employ biomechanical principles to align the center of gravity closer to the user's natural posture. Materials utilized in the construction may include advanced composites or hybrid textiles combining high-tensile fibers such as aramid or ultra-high-molecular-weight polyethylene (UHMWPE), providing strength while reducing overall weight. Additionally, stress points within the system may be reinforced with bar-tack stitching or bonded laminates to withstand loads exceeding 150 pounds.

In certain aspects, the figure includes a set of loops 610. These loops may be configured to control the zippers, providing flexibility and ease of attachment. The loops 610 may be constructed from durable materials such as reinforced nylon or polyester, which may offer strength and resilience under tension.

Moreover, the loops 610 may have a breaking strength of at least 250 pounds, ensuring reliability under heavy loads. They may feature a width between 1 to 2 inches to distribute pressure evenly and minimize wear on the connecting straps. The surface of the loops 610 may be treated with abrasion-resistant coatings or have woven patterns to increase friction and prevent slippage. In some aspects, the loops may incorporate reflective threads or markings to enhance visibility in low-light conditions.

In some aspects, a swivel mount buckle 620 is depicted. This component may allow for rotation in multiple planes, accommodating user comfort and enabling ambidextrous use. The swivel mount buckle 620 may be affixed to the main pack, facilitating the connection of the first strap from the ventral pocket sash assembly. In some aspects, the swivel mount buckle 620 may include a ball-and-socket joint allowing for 360-degree rotation and up to 45 degrees of angular movement in any direction. This design accommodates a range of motion, reducing restrictions during activities such as climbing or cycling. In some aspects, these features may be critical to differentiating the sash product from less ergonomic alternatives, especially in combination with other aspects. The swivel mechanism may utilize low-friction bearings or bushings made from materials like PTFE (polytetrafluoroethylene) to ensure smooth operation and longevity. The attachment point on the main pack for the swivel mount buckle 620 may be reinforced with additional layers of fabric or a backing plate composed of high-density polyethylene (HDPE) to distribute stress and prevent material fatigue.

The design of the swivel mount buckle 620 may include, or mate with, a circular connector 622, which may be used to secure the straps in place, ensuring stability during movement. Furthermore, the circular connector 622 may be designed to operate with a quick-connect/disconnect mechanism which is embedded in the underside of 620, such as a push-button release or a twist-lock feature, allowing the user to easily attach or detach the ventral pocket sash assembly. Circular connector 622 may come in a set of circular connectors which include, for example, four of these “circular” connectors which may be different shapes such as ovals or rectangles. Alternatively, there may be only one in the center and it may be larger in order to fit into a ball socket or other receptacle on the primary buckle 620. The connector 622 may be compatible with various strap widths and may include an adjustable tension feature to customize the amount of resistance before allowing the buckle to break off or be removed. This may be helpful in cases of emergency. Materials for the circular connector 622 may include plastics, anodized aluminum or impact-resistant polymers to balance strength and weight considerations.

In various aspects, the figure also shows a buckle 630. This buckle may connect the ventral pocket sash assembly to either lower corner of the main pack, facilitating independent adjustment. The buckle 630 may be designed to allow for quick release and secure fastening, enhancing the usability of the wearable container. The materials used for the buckle 630 may include high-strength plastics or metals, providing durability and reliability.

Alternatively, the buckle 630 may be constructed from acetal resin, known for its stiffness and dimensional stability, making it ideal for precision components. The design of the buckle 630 may incorporate angled edges or chamfers to reduce snagging on clothing or gear. It may also include an integrated locking mechanism, such as a side-release feature with interlocking teeth, to prevent accidental disengagement. In some embodiments, the buckle 630 may be tested to meet or exceed standards like ASTM F1774 for load-bearing equipment.

In several aspects, another buckle 640 is shown, providing additional securement and adjustment capabilities. This buckle 640 may be an alternative to buckle 630, a key part of the three-point connection system, ensuring that the ventral pocket sash assembly and the main pack remain independently adjustable so that when wearing the container, no matter what body type or size a person is, they can comfortably secure themselves within the sash with the pockets where they comfortably can reach them and without choking or squeezing due to only being able to adjust one end of the sash. The design of the buckle 640 may incorporate ergonomic features to enhance user interaction and comfort. Specifically, the buckle 640 may feature oversized release tabs that are accessible even when wearing gloves, facilitating ease of use in various environmental conditions. The buckle may be contoured to match the curvature of the user's body, minimizing pressure points and enhancing comfort. Additionally, the buckle 640 may be color-coded or include tactile indicators to assist with proper attachment in low-visibility situations.

In other aspects, these components work together to maintain the one or more pockets in a front and center position on the user's torso, regardless of adjustments. The interlocking suspension system is designed to minimize bouncing during physical activity, providing a stable and comfortable experience for the user. To achieve this, the system may incorporate elasticized sections or shock-absorbing elements within the straps, such as elastomeric inserts or segmented bungee cords. These components may absorb and dampen kinetic energy generated during movement, thereby reducing oscillations of the main pack. Computational fluid dynamics (CFD) and finite element analysis (FEA) may have been utilized during the design process to optimize the placement and properties of these elements for maximal stability. The system may include metal buckles and hardware to enhance durability and utility, ensuring secure connections between components.

In many aspects, the components are configured to support the automatic adjustment and form-fitting placement of the main pack, reducing pressure on the user's shoulders and back. Moreover, the main pack may include an articulated frame system or adjustable harness that contours to the user's anatomy. The frame may be constructed from lightweight materials like carbon fiber composites or aluminum alloys, featuring hinged segments that allow for flexibility and movement. Padding materials with memory foam properties may be incorporated in contact areas to enhance comfort. Ventilation channels or mesh fabrics may be included to promote airflow and regulate temperature against the user's back. This may be achieved through the integration of an internal elastic component within the main pack, as described in the claims. The internal elastic component may comprise a spring mechanism, which may absorb shocks and adjust tension dynamically during user movement.

In various aspects, the spring mechanism may be a gas-charged piston or a linear compression spring enclosed within a telescoping housing. The mechanism may offer adjustable preload settings, allowing the user to calibrate the tension based on the weight of the load or personal comfort preferences. The spring may be fabricated from alloys such as music wire or stainless steel, chosen for their elasticity and fatigue resistance. Additionally, damping materials like polyurethane foam may be incorporated to modulate the rebound characteristics of the spring mechanism.

In conclusion, FIG. 6 illustrates the detailed components of the interlocking suspension system, highlighting the innovative design and functionality that contribute to the overall performance of the wearable container. The described components and their interactions provide a comprehensive understanding of how the system operates, supporting the claims and enabling potential future enhancements or variations.

Referring to FIG. 7, the illustration depicts a front wall on a front compartment zipper of the main pack 712 configured to be worn on a user's back. The main pack 712 may include a mesh enclosure pocket 730, which is designed to protect contents from environmental elements such as moisture and dust. In certain aspects, the main pack 712 may be constructed from durable materials like reinforced nylon or polyester, providing strength and flexibility.

In some aspects, the main pack 712 features a reverse coil zipper 750. The reverse coil zipper 750 may be a #8 gauge zipper known for its durability and smooth operation. This zipper 750 may provide secure closure and easy access to the interior of the main pack 712. The use of a reverse coil design may assist in keeping debris and moisture away from the zipper teeth, enhancing the water-resistant properties of the mesh enclosure pocket 730.

In various aspects, the main pack includes polypropylene (PP) binding 710 measuring approximately 0.25 inches in width. The PP binding 710 may reinforce the edges and seams of the main pack, contributing to its structural integrity. The binding 710 may be applied using techniques such as zigzag stitching 710, which may offer enhanced durability and minimal elastic give. The zigzag stitching 710 may be strategically placed at stress points to prevent wear and tear over time.

In several aspects, a plastic D-ring 720 is attached to the main pack. The plastic D-ring 720 may be an ITW-branded component measuring approximately 0.5 inches. This D-ring 720 may serve as an attachment point for accessories such as keychains, allowing the user to secure small items externally. The placement of the D-ring 720 may be positioned for easy access while maintaining a low profile to prevent snagging.

In other aspects, the main pack incorporates a mesh pocket 730. The mesh pocket 730 may provide additional storage space for items that require ventilation or quick access. For example, the mesh pocket 730 may be suitable for carrying water bottles, umbrellas, or damp garments. The mesh material may allow for airflow, aiding in drying and reducing odors.

In certain aspects, the main pack may include adjustable straps (not shown) that allow the user to customize the fit. The straps may feature adjustment mechanisms such as slide buckles or ladder locks, enabling independent adjustment of the ventral pocket sash assembly and the main pack. This dual-adjustment system may maintain the ventral pocket sash assembly in a front and center position on the user's torso, enhancing comfort and accessibility.

In some aspects, the main pack may integrate an internal elastic component (not shown) configured to provide automatic adjustment and reduce pressure on the user's shoulders and back. This internal elastic component may comprise a spring mechanism that absorbs movement and adjusts tension between the ventral pocket sash assembly and the main pack during user motion. The elastic component may enhance ergonomic support and contribute to a form-fitting placement of the wearable container.

In various aspects, metal buckles and hardware (not shown) may be utilized in the main pack 712 to enhance durability and utility. Components such as swivels, clasps, and adjustment buckles may be made from materials like stainless steel or anodized aluminum. The metal hardware may offer robust performance, resisting corrosion and mechanical wear over time.

In several aspects, the main pack 712 may include a water-resistant mesh enclosure pocket 730 designed with sealed seams and protective flaps over openings. The water-resistant mesh enclosure pocket 730 may employ materials and construction methods that prevent moisture ingress, safeguarding the contents from environmental exposure. In some embodiments, the mesh enclosure pocket 730 may be treated with hydrophobic coatings or utilize laminates to enhance water resistance.

In other aspects, the main pack 712 may be designed to minimize bouncing during physical activity. The interlocking suspension system (not shown) connecting the ventral pocket sash assembly to the main pack 712 may distribute weight evenly and provide stability. This system may reduce unwanted movement and improve the user's comfort during activities such as walking, running, or hiking.

In many aspects, the main pack 712 may be compatible with additional accessories and attachments. For instance, the design may accommodate modular pouches, hydration systems, or tool holders. Attachment points such as MOLLE (Modular Lightweight Load-carrying Equipment) webbing or hook-and-loop panels may be included to expand functionality.

In certain aspects, the main pack 712 may have approximate dimensions suitable for everyday use. While specific measurements are not critical, in some embodiments, the main pack 712 may measure approximately 14 inches in height, 10 inches in width, and 7 inches in depth. These dimensions may provide ample storage capacity while maintaining a compact and manageable size for the user.

In some aspects, the construction of the main pack 712 may involve materials such as ballistic nylon, Cordura®, or other high-denier fabrics. These materials may offer abrasion resistance and longevity. The interior of the main pack 712 may feature linings or compartments made from lighter materials for organizational purposes.

In various aspects, the main pack 712 may incorporate ergonomic features to enhance user comfort. Padded back panels and shoulder straps may be included to distribute weight evenly and reduce pressure points. Ventilated mesh fabric may be utilized in contact areas to promote airflow and reduce perspiration.

In several aspects, the main pack 712 may include security features such as concealed zippers or lockable compartments. These features may provide added protection for the contents, especially in urban environments or while traveling.

In other aspects, the main pack 712 may be designed with aesthetic considerations. The exterior may feature clean lines and minimal branding, or alternatively, customizable panels for personalization. Color options and fabric textures may be offered to suit user preferences.

In many aspects, the main pack 712 may be designed for ease of manufacturing and assembly. The components may be modular, allowing for efficient production processes. Standardized parts such as the reverse coil zipper 750, PP binding 710, and plastic D-ring 720 may streamline sourcing and reduce costs.

In certain aspects, the main pack 712 may include reflective elements or high-visibility materials for safety. These features may enhance the user's visibility in low-light conditions, contributing to personal safety during activities like evening commutes or outdoor excursions.

In some aspects, the main pack 712 may be designed to comply with specific regulations or standards, such as carry-on luggage size restrictions or material safety guidelines. Compliance may broaden the applicability of the wearable container across different markets and regions.

Throughout these aspects, the main pack 712 serves as a foundational component of the wearable container, integrating with the ventral pocket sash assembly and the interlocking suspension system to provide a versatile and functional solution for carrying personal items securely and comfortably.

Referring to FIG. 8, the illustration depicts a front wall on a back compartment zipper, an internal configuration of a main pocket 810 inside a main compartment of a wearable container. The main pocket 810 is designed to may include a water-resistant enclosure to protect contents from environmental elements. The main pocket 810 integrates with an interlocking suspension system that connects to a ventral pocket sash assembly, allowing for independent adjustment and maintaining the one or more pockets in a front and center position on the user's torso.

In certain aspects, the main pocket 810 includes an internal pocket 840 configured as a foam-padded sleeve slit pocket. The internal pocket 840 may be lined with 2 mm polyethylene foam padding to provide cushioning and protection for items stored within. In some embodiments, the foam padding may have a thickness of approximately 2 millimeters to offer adequate protection while maintaining a slim profile.

In some aspects, the internal pocket 840 features a closure mechanism comprising a Velcro closure flap 830. The Velcro closure flap 830 may be designed to securely close the pocket opening, preventing items from falling out while allowing easy access when needed. The flap 830 may be sized appropriately to cover the pocket opening fully; in certain embodiments, it may approximately measure 1.5 inches by 0.75 inches.

In various aspects, the edges of the internal pocket 840 are reinforced with polypropylene binding 820. The polypropylene binding 820 may be approximately 0.25 inches wide and serves to enhance the durability of the pocket edges, preventing fraying and wear over time. The use of polypropylene material provides strength while maintaining flexibility.

In several aspects, the internal pocket 840 incorporates structural features known as darts. The darts may be sewn into the fabric to provide shape and dimension to the pocket, allowing it to expand slightly to accommodate thicker items while maintaining a sleek appearance when not in use. The darts contribute to the pocket's ability to adjust to various contents without compromising the overall form.

In other aspects, the main pocket 810 includes a front wall on a back compartment zipper 860. This zipper 860 may provide an access point to the internal pocket 840 and other compartments within the main pocket 810. The zipper 860 allows for secure closure and easy access to the contents, enhancing the usability of the wearable container. In some embodiments, the zipper 860 may be configured with a water-resistant design to protect against environmental elements.

In many aspects, the internal configuration of the main pocket 810 is designed to integrate seamlessly with the interlocking suspension system. The interlocking suspension system may include an internal elastic component, as described in claim 2, which may provide automatic adjustment and form-fitting placement by absorbing movement and reducing pressure on the user's shoulders and back. The internal elastic component may comprise a spring mechanism configured to auto-adjust tension between the ventral pocket sash assembly and the main pocket 810 during user movement, as detailed in claim 7.

In certain aspects, the internal pocket 840 is part of a dual-adjustment system that allows the lengths of the ventral pocket sash assembly and the main pack straps to be independently adjusted, as mentioned in claim 4. This capability may ensure that the wearable container can be customized for optimal fit and comfort, accommodating various user preferences and body types.

In some aspects, the internal configuration of the main pocket 810 is designed to minimize bouncing during physical activity, as described in claim 8. The integration of the internal elastic component and the secure closure mechanisms may contribute to the stability of the main pocket 810, ensuring that contents remain secure during movement.

In various aspects, metal buckles and hardware may be incorporated into the main pocket 810 to enhance durability and utility, as outlined in claim 9. These components may ensure secure connections between the internal pocket 840, the ventral pocket sash assembly, and other elements of the wearable container. The use of metal hardware may provide increased strength compared to plastic alternatives.

In several aspects, the materials used in constructing the main pocket 810 and internal pocket 840 may include durable fabrics and reinforcements. The use of polypropylene binding 820 and zigzag stitching may enhance the structural integrity of the pocket edges, providing minimal elastic give and increasing longevity. The zigzag stitching technique may allow for flexibility while maintaining strong seams.

In other aspects, the internal pocket 840 may be configured to securely hold items selected from the group consisting of mobile devices, handheld gaming devices, identification cards, credit cards, passports, and energy bars, as specified in claim 3. The foam padding and secure closure mechanisms may ensure that these items are protected from impact and remain accessible to the user.

In many aspects, the design of the internal pocket 840, including the foam padding, Velcro closure flap 840, polypropylene binding 820, and darts 850, contributes to the overall functionality and user experience of the wearable container. The integration of these components may provide a secure, protective, and convenient storage solution within the main pocket 810.

In certain aspects, the main pocket 810 and its internal components are designed to integrate effectively with the ventral pocket sash assembly and the interlocking suspension system. The coordination of these elements may allow for a wearable container that is ergonomic, adjustable, and suitable for various activities and environments.

In some aspects, the main pocket 810 may be constructed from materials that are resistant to wear and tear, enhancing its durability over time. The careful selection of materials and incorporation of reinforcing elements may result in a reliable and long-lasting wearable container.

In various aspects, the combination of the internal pocket 840 and the main pocket 810 may offer organized storage options for the user. The inclusion of the foam-padded sleeve slit pocket may provide a designated space for delicate items, while other compartments within the main pocket 810 may accommodate larger or bulkier items.

In several aspects, the wearable container is designed with user comfort and convenience in mind. The integration of the internal elastic component, adjustable straps, and ergonomic features may result in a comfortable fit that reduces strain during extended use.

The detailed configuration of the internal pocket 840, main pocket 810, and associated components demonstrates an innovative approach to providing a versatile and practical wearable container. The thoughtful design considerations, material selections, and integration of adjustable systems enhance the overall usefulness of the product.

Conclusion

For clarity of explanation, the above description has focused on a representative sample of all possible embodiments, a sample that teaches the principles of the invention and conveys the best mode contemplated for carrying it out. The invention is not limited to the described embodiments. Well known features may not have been described in detail to avoid unnecessarily obscuring the principles relevant to the claimed invention. Throughout this application and its associated file history, when the term “invention” is used, it refers to the entire collection of ideas and principles described; in contrast, the formal definition of the exclusive protected property right is set forth in the claims, which exclusively control. The description has not attempted to exhaustively enumerate all possible variations. Other undescribed variations or modifications may be possible. Where multiple alternative embodiments are described, in many cases it will be possible to combine elements of different embodiments, or to combine elements of the embodiments described here with other modifications or variations that are not expressly described. A list of items does not imply that any or all of the items are mutually exclusive, nor that any or all of the items are comprehensive of any category, unless expressly specified otherwise. In many cases, one feature or group of features may be used separately from the entire apparatus or methods described. Many of those undescribed alternatives, variations, modifications, and equivalents are within the literal scope of the following claims, and others are equivalent. The claims may be practiced without some or all of the specific details described in the specification. In many cases, method steps described in this specification can be performed in different orders than that presented in this specification, or in parallel rather than sequentially, or in different computers of a computer network, rather than all on a single computer. It is to be understood that the present technology contemplates that, to the extent possible, one or more features of any implementation can be combined with one or more features of any other implementation.

While the above description details certain embodiments of the invention and describes the best mode contemplated, no matter how detailed the above appears in text, the invention can be practiced in many ways. Therefore, implementation details may vary considerably while still being encompassed by the invention disclosed herein. Particular terminology used when describing certain features or aspects of the invention should not be taken to imply that the terminology is being redefined herein to be restricted to any specific characteristics, features, or aspects of the invention with which that terminology is associated.

Claims

1. A wearable container comprising: a main pack configured to be worn on a user's back;a ventral pocket sash assembly configured to be worn over a shoulder and across a torso of the user, the ventral pocket sash assembly including one or more pockets positioned on a front portion of the user;an interlocking suspension system connecting the ventral pocket sash assembly to the main pack, the interlocking suspension system comprising:a three-point connection system comprising:a first strap connecting a top side of the ventral pocket sash assembly to a swivel mount buckle affixed to the main pack;a second strap connecting the ventral pocket sash assembly to a second buckle affixed to the main pack; anda third strap connecting a bottom side of the ventral pocket sash assembly to the main pack;wherein the ventral pocket sash assembly and the main pack are independently adjustable to maintain the one or more pockets in a front and center position on the user's torso.

2. The wearable container of claim 1, wherein the interlocking suspension system further comprises an internal elastic component integrated within the main pack, the internal elastic component configured to provide automatic adjustment and form-fitting placement by absorbing movement and reducing pressure on the user's shoulders and back.

3. The wearable container of claim 1, wherein the one or more pockets are sized and configured to securely hold items selected from the group consisting of mobile devices, handheld gaming devices, identification cards, credit cards, passports, and energy bars.

4. The wearable container of claim 1, further comprising a dual-adjustment system allowing the lengths of the ventral pocket sash assembly and the main pack straps to be independently adjusted.

5. The wearable container of claim 1, wherein the swivel mount buckle allows for rotation in multiple planes to accommodate adjustments for user comfort, enabling ambidextrous use.

6. The wearable container of claim 1, wherein the ventral pocket sash assembly includes reinforced webbing located where the ventral pocket sash assembly enters an opening in the main pack, with zigzag stitching for durability and minimal elastic give.

7. The wearable container of claim 2, wherein the internal elastic component comprises a spring mechanism configured to auto-adjust tension between the ventral pocket sash assembly and the main pack during user movement.

8. The wearable container of claim 1, wherein the interlocking suspension system is configured to minimize bouncing of the main pack during physical activity.

9. The wearable container of claim 1, further comprising metal buckles and hardware to enhance durability and utility.

10. The wearable container of claim 1, wherein the main pack includes a water resistant enclosure to protect contents from environmental elements.

11. A wearable container comprising: a main pack configured to be worn on a user's back;a ventral pocket sash assembly configured to be worn over a shoulder and across a torso of the user, the ventral pocket sash assembly including one or more pockets positioned on a front portion of the user;an interlocking suspension system connecting the ventral pocket sash assembly to the main pack, the interlocking suspension system comprising:a three-point connection system comprising:a first strap connecting a top side of the ventral pocket sash assembly to a swivel mount buckle associated with the main pack;a second strap connecting the ventral pocket sash assembly to a a second buckle affixed to the main pack; anda third strap connecting a bottom side of the ventral pocket sash assembly to the main pack;wherein the ventral pocket sash assembly and the main pack are independently adjustable to maintain the one or more pockets in a front and center position on the user's torso.

12. The wearable container of claim 11, wherein the interlocking suspension system further comprises an internal elastic component integrated within the main pack, configured to provide automatic adjustment and form-fitting placement by compensating for movement and load changes.

13. The wearable container of claim 11, wherein the swivel mount buckle allows for rotation in multiple planes to accommodate adjustments for user comfort, enabling ambidextrous use.

14. The wearable container of claim 11, wherein the one or more pockets are sized and configured to securely hold items selected from the group consisting of mobile devices, handheld gaming devices, identification cards, credit cards, passports, and energy bars.

15. The wearable container of claim 11, wherein the ventral pocket sash assembly includes reinforced webbing located where the ventral pocket sash assembly enters an opening in the main pack, with zigzag stitching for durability and minimal elastic give.

16. The wearable container of claim 12, wherein the internal elastic component comprises a spring mechanism configured to absorb shocks and reduce strain on the user's shoulders and back.

17. The wearable container of claim 11, further comprising a dual-adjustment system allowing independent adjustment of the ventral pocket sash assembly and the main pack straps.

18. The wearable container of claim 11, wherein the interlocking suspension system is configured to minimize bouncing of the main pack during physical activity.

19. The wearable container of claim 11, wherein the main pack includes a water resistant enclosure to protect contents from environmental elements.

20. The wearable container of claim 11, further comprising metal buckles and hardware to enhance durability and utility.