Integrated glove and interlocking attachment system for individuals with limited mobility

Abstract

An integrated glove and attachment system can provide secure retention of external items while maintaining user dexterity and hand protection. The system can combine a hand wrap glove with a removable attachment module that utilizes a rotational locking mechanism to grip items of varying dimensions. The attachment module can be magnetically coupled to the glove, enabling quick attachment and removal. The glove can include weather-resistant materials and grip-enhancing surfaces. The attachment module can include a spring-loaded adjustment mechanism allowing single-handed operation through a push-and-rotate actuation sequence. The system can address challenges associated with carrying small implements during outdoor activities or work tasks where hand protection or item security are required. The magnetic coupling can enable rapid reconfiguration, allowing transfer of the attachment module between multiple gloves. The gripping mechanism can utilize an inner sleeve that twists in response to knob rotation, progressively tightening around an inserted item.

Description

PRIORITY

[0001] This application claims the benefit of priority to U.S. Provisional Application No. 63 / 757,685, entitled “INTEGRATED GLOVE AND INTERLOCKING ATTACHMENT SYSTEM FOR INDIVIDUALS WITH LIMITED MOBILITY,” filed on February 12, 2025, the entire contents of which are incorporated herein by reference.BACKGROUND

[0002] Assistive technology for individuals with limited mobility has become increasingly important in today’s society. As the population ages and medical advancements allow people with various physical limitations to live longer, more active lives, there is a growing need for innovative solutions that enable independence and improve quality of life. Traditional assistive devices often lack versatility and adaptability, limiting their effectiveness across a range of daily activities.

[0003] Existing systems for aiding individuals with limited mobility typically focus on specific tasks or body parts, resulting in a fragmented approach to assistance. Users often need to switch between multiple devices throughout the day, which can be cumbersome and time-consuming. Additionally, many current solutions are not customizable to individual needs and preferences, leading to suboptimal user experiences and reduced adoption rates.

[0004] As a result, a need exists for an integrated system that provides versatile and adaptable assistance for individuals with limited mobility across a wide range of daily activities. In addition, a need exists for a solution that can be easily customized and expanded to meet evolving user requirements while promoting independence and confidence.SUMMARY

[0005] Examples described herein include an integrated glove and interlocking attachment system designed to empower individuals with limited mobility to perform daily tasks independently. The system can include a glove apparatus with an integrated pocket, an attachment module configured to couple to the glove by making use of the integrated pocket, and methods for operating the integrated system. The attachment module can include a tube, an adjustment knob, and an inner sleeve that twists to secure external items. In some examples, the system can further include magnetic coupling components and accessory items such as zipper pulls.

[0006] An exemplary integrated glove and attachment system can include a glove having a front side and a back side. The glove can include a pocket positioned on the front side of the glove. The system can further include an attachment module configured to be coupled to the glove via the pocket, such as by having a magnet in the pocket that couples to a magnetic element on the attachment module. The attachment module can include a tube configured to receive an external item within an interior portion of the tube. The attachment module can also include an adjustment knob configured to mechanically interface with the tube and / or rotate with respect to the tube. The attachment module can further include an inner sleeve within the interior portion of the tube. The inner sleeve can have a first end coupled to a portion of the tube and a second end coupled to the adjustment knob. Rotation of the adjustment knob with respect to the tube can cause the inner sleeve to twist. The inner sleeve can be configured to mechanically engage the external item within the interior portion of the tube.

[0007] In some embodiments, the pocket on the front side of the glove can include a glove magnet. The tube of the attachment module can include a corresponding attachment magnet positioned to engage the glove magnet. For example, the glove magnet and the attachment magnet can provide magnetic coupling between the glove and the attachment module. The magnetic coupling can allow the attachment module to be removably attached to and from the glove. In an example, the adjustment knob can include a spring configured to bias the adjustment knob toward an open position. The spring can provide automatic return of the adjustment knob after actuation. The adjustment knob can also include a collar configured to rotate with the adjustment knob. The collar can include an interior protrusion configured to engage a detent in the tube or a component associated with the tube. The engagement between the interior protrusion and the detent can provide tactile feedback during rotation.

[0008] In some embodiments, the tube can include a cap configured to couple the first end of the inner sleeve to a top portion of the tube. The cap can secure the inner sleeve in position within the tube. The adjustment knob can be configured to be linearly actuated and rotated in order to cause the inner sleeve to twist. For example, a user can press the adjustment knob downward and then rotate it to tighten the inner sleeve around an external item. The system can further include a zipper pull configured to couple to at least one of the glove or attachment module. The zipper pull can include a magnet within a cavity of the zipper pull. The magnet in the zipper pull can allow the zipper pull to be magnetically coupled to the glove or attachment module.

[0009] An example method for operating an integrated glove and attachment system can include placing a glove on the hand of a user. The glove can include a pocket positioned on a palm side of the glove. The method can further include coupling an attachment module to the glove via the pocket. The attachment module can include a tube configured to receive an external item within an interior portion of the tube. The attachment module can also include an adjustment knob configured to mechanically interface with the tube and rotate with respect to the tube. The attachment module can further include an inner sleeve within the interior portion of the tube. The inner sleeve can have a first end coupled to a portion of the tube and a second end coupled to the adjustment knob. Rotation of the adjustment knob with respect to the tube can cause the inner sleeve to twist. The method can include inserting the external item into the interior portion of the tube. The method can further include actuating the adjustment knob to cause the inner sleeve to twist to an extent sufficient to secure the external item by the inner sleeve.

[0010] In an example, coupling an attachment module to the glove via the pocket can include magnetically coupling a glove magnet within the pocket to an attachment magnet associated with the attachment module. The magnetic coupling can provide secure attachment while allowing easy removal when desired. In some examples, the adjustment knob can include a spring configured to bias the adjustment knob toward an open position. The spring can facilitate repeated actuation cycles. The adjustment knob can also include a collar configured to rotate with the adjustment knob. The collar can include an interior protrusion configured to engage a detent in the tube. The engagement can provide rotational positioning feedback to the user.

[0011] In some examples, the tube can include a cap configured to couple the first end of the inner sleeve to said portion of the tube. The cap can maintain the structural integrity of the attachment module. The adjustment knob can be configured to be linearly actuated and rotated in order to cause the inner sleeve to twist. For example, the user can press down on the adjustment knob and then turn it to tighten the inner sleeve. In an example, the external item can be a zipper pull comprising a magnet within a cavity of the zipper pull. The zipper pull can be secured within the tube and can be magnetically coupled to the glove or attachment module when not in use.

[0012] Both the foregoing general description and the following detailed description are exemplary and explanatory only and are not restrictive of the examples, as claimed.BRIEF DESCRIPTION OF THE DRAWINGS

[0013] FIG. 1A is a perspective view of an example integrated glove and attachment system on a user’s hand.

[0014] FIG. 1B is another perspective view of the example integrated glove and attachment system of FIG. 1A.

[0015] FIG. 2A is a side view of an example glove body for use with an example integrated glove and attachment system.

[0016] FIG. 2B is another side view of the example glove body of FIG. 2A.

[0017] FIG. 3 is a perspective view of an example attachment module as set forth in various example embodiments herein.

[0018] FIG. 4 is an exploded perspective view of the example attachment module of FIG. 3, showing internal components.

[0019] FIG. 5 is a perspective view of several components of an example attachment module according to various example embodiments herein.

[0020] FIG. 6 is a partial cross-sectional view of an example attachment module in two positions corresponding to two different modes of operation according to various example embodiments herein.

[0021] FIG. 7 is an example method of using an integrated glove and attachment system according to various embodiments herein.

[0022] FIG. 8 is a perspective view of an example zipper pull for use with the integrated glove and attachment system according to various embodiments herein.DETAILED DESCRIPTION

[0023] Reference will now be made in detail to the present examples, including examples illustrated in the accompanying drawings.

[0024] Examples described herein include an integrated glove and attachment system configured to provide secure, adjustable retention of external items while maintaining user dexterity and hand protection. The system can combine a hand wrap glove apparatus with a removable attachment module that utilizes a rotational locking mechanism to grip items of varying dimensions. The attachment module can be magnetically coupled to the glove, enabling quick attachment and removal without permanent fastening hardware. The glove can include weather-resistant materials, grip-enhancing surfaces, and integrated storage features. The attachment module can include a spring-loaded adjustment mechanism that allows single-handed operation through a push-and-rotate actuation sequence.

[0025] The exemplary gloves described herein could be used in, during, and for several applications. For example, the gloves could be used when a user is handling a wheelchair, used for everyday tasks, used for outdoor activities, used for recreational activities, etc. Further, the exemplary gloves can include additional features specific to specific uses or environments, e.g., for example, cold weather environments, warm / hot weather environments, environments requiring high impact (and thus additional) padding, etc. The integrated system can address challenges associated with carrying and accessing small implements during outdoor activities, work tasks, or recreational pursuits where hand protection and item security are both required. For example, a user engaged in camping activities can secure utensils within the attachment module while wearing protective gloves, eliminating the need to remove hand protection to access eating implements. In another example, a worker in a cold environment can maintain thermal hand protection while retaining quick access to tools or fasteners secured in the attachment module. The magnetic coupling between glove and module can enable rapid reconfiguration, allowing a user to transfer the attachment module between multiple gloves or to remove the module when not needed.

[0026] The system architecture can include multiple functional layers and mechanical subsystems that operate cooperatively to achieve secure item retention, environmental protection, and user comfort. The glove component can provide a flexible, conforming interface with the user’s hand while incorporating structural features for module attachment. The attachment module can provide a rigid housing that contains a rotational gripping mechanism, with the housing configured to interface magnetically with the glove. The gripping mechanism can include an inner sleeve that twists in response to knob rotation, progressively tightening around an inserted item until sufficient friction force prevents item displacement.

[0027] FIG. 1A illustrates an integrated glove and attachment system 100 in an assembled configuration worn on a user's hand. The system 100 includes a glove body that wraps around the hand and wrist, providing protection and grip enhancement during various activities. An attachment module is positioned on the palm region or palm side of the glove, secured through magnetic coupling that allows for rapid attachment and removal. The attachment module 120 includes a cylindrical tube body that extends outward from the palm surface, creating a receptacle for holding external items such as utensils, tools, or other implements. An adjustment knob is located at the distal end of the tube body, accessible for single-handed operation by the gloved hand. The glove body includes an attachment region 120 on the palm side where the magnetic interface occurs, enabling the module to be positioned optimally for user access while maintaining hand mobility.

[0028] FIG. 1A further illustrates that the magnetic coupling between the attachment module and the glove can eliminate the need for the user to grip or hold the module with hand strength. Instead, the magnetic interface can maintain the module’s position against the palm surface without requiring finger pressure or grasping force. This configuration can allow the user to rely on arm strength and wrist positioning to control the module’s orientation and location in space, while the hand remains relaxed or engaged in other tasks. For example, when manipulating an item secured within the attachment module, the user can move their entire arm to position the module without clenching their hand around it. The magnetic attachment can provide sufficient retention force to keep the module coupled to the glove during arm movements, weight-bearing activities, or dynamic motions. This approach can reduce hand fatigue during extended use periods, since the user’s fingers and palm muscles are not required to maintain grip on the attachment module itself.

[0029] FIG. 1B illustrates the system 100 from an alternative viewing angle, showing the relationship between the glove contours and the protruding attachment module. The cylindrical profile of the tube body 310, in the exemplary embodiment shown, extends perpendicular to the palm surface, positioning the adjustment knob 340 within easy reach of the user's opposite hand or fingers of the same hand. The glove wraps around the thumb portion 110, providing continuous coverage while allowing the attachment module to remain accessible. This configuration enables users to insert items into the tube body 310 and actuate the adjustment knob 340 to secure those items without removing the glove or compromising hand protection.

[0030] FIG. 1B also illustrates that the glove includes an adjustment strap positioned on the back of the hand, allowing the user to modify the glove's fit during use. This strap enables tightening or loosening of the glove around the hand and wrist without requiring removal of the attachment module or any item secured within the tube body 310. For example, a user can adjust the strap tension with their opposite hand while the attachment module remains magnetically coupled to the palm region. The magnetic interface maintains its position throughout the adjustment process, since the strap operates independently of the attachment region 120. This configuration allows users to optimize glove fit in response to changing conditions, such as temperature variations that could affect hand size, without interrupting their work or releasing secured items. The strap mechanism will be described in greater detail in relation to FIGS. 2A and 2B, which illustrate an exemplary embodiment of the glove's construction and fastening components.

[0031] FIGS. 2A and 2B illustrate the glove body 110 in two different exemplary configurations, showing the adjustment strap mechanism and various construction features. FIG. 2A depicts the back panel (dorsal side) of the glove body 110 with the adjustment strap in an open or extended position, while FIG. 2B shows the front panel (palm side) of the glove body 110 with the strap secured in a closed configuration. These figures are described together as they represent different operational states and viewing perspectives of the same structural assembly.

[0032] The glove body 110 includes a front panel configured to cover the palm region of a user's hand and a back panel configured to cover the dorsal region. The front and back panels are joined along their perimeter edges to form an enclosed hand-receiving cavity. A thumb opening 250 is formed, in at least one exemplary embodiment, at the lower or side portion of the glove body 110, allowing the user's thumb to extend through the glove structure. The orientation, size, and positioning of opening 250 can be varied for several reasons, including for glove sizing, glove construction material, intended glove use, etc.

[0033] An adjustment strap mechanism can be integrated into the back panel of the glove body 110 to provide customizable fit adjustment. The adjustment strap can include a hook-and-loop strap 230 that extends from the back panel of the glove body 110, as shown in FIG. 2A. The hook-and-loop strap 230 can be configured to wrap around the user's wrist and secure to a hook-and-loop patch positioned on the exterior surface of the glove body 110. This hook-and-loop fastening arrangement can allow the user to tighten or loosen the glove’s fit by adjusting the overlap between the hook-and-loop strap 230 and the corresponding hook-and-loop patch.

[0034] The adjustment strap mechanism can further include a D-ring 210 attached to the terminal end of the hook-and-loop strap 230. The D-ring 210 can, for example, be formed from metal, leather, composite, or rigid polymer material and can provide a structural anchor point for the strap assembly. An O-ring 220 can be positioned on the glove body 110, through which the hook-and-loop strap 230 can be threaded. The O-ring 220 can serve as a retention point that prevents the hook-and-loop strap 230 from being completely removed from the glove body 110 during adjustment operations. The D-ring 210 can act as a mechanical stop that prevents the strap from pulling entirely through the O-ring 220, maintaining the strap’s connection to the glove body 110 even when the hook-and-loop fastening is released. This arrangement creates several advantages, including quick donning of gloves, quick removal, ease of donning, etc.

[0035] FIG. 2B illustrates the front panel of the glove body 110, showing the palm-side features and construction. A pocket 270 is integrated into the palm region of the front panel, positioned to align with the attachment region 120 shown in FIG. 1A. The pocket 270 can be configured as a cavity or interface region within the glove structure that accommodates a magnetic element. The pocket can be formed in other configurations and orientations, as desired. In some examples, the pocket 270 is formed as a sewn interface between the front face fabric layer and an interior lining layer, creating a space where a magnetic metal piece can be secured. In other examples, the pocket 270 can include an opening accessible from the exterior surface of the glove, allowing a user to insert or remove a magnetic element or other items. The magnetic element within or associated with the pocket 270 provides the magnetic coupling interface for the attachment module. When the attachment module is brought into proximity with the pocket region, the magnet within or associated with the pocket 270 interacts with a corresponding magnet in the attachment module, creating a secure magnetic bond that holds the module against the glove without requiring hand grip strength. The pocket 270 is constructed with durable stitching that distributes the magnetic retention forces across the fabric, preventing localized stress concentrations that could lead to tearing or separation during use.

[0036] An entrance pocket piece 260 can be integrated into the pocket 270 structure to facilitate insertion of items or magnetic elements. The entrance pocket piece can be formed from a low-friction fabric material that reduces resistance when items are slid into or removed from the pocket region. In some examples, the entrance pocket piece measures approximately 1.7 inches in length and 0.7 inches in width, though other dimensions can be used depending on the size of items to be accommodated. The entrance pocket piece can be sewn into the side seam of the pocket 270, positioned to guide items smoothly into the pocket cavity without snagging on fabric edges or stitching. The low-friction surface of the entrance pocket piece can be achieved through material selection (such as nylon or polyester with a smooth finish) or through surface treatments that reduce the coefficient of friction. This entrance piece can improve the user experience when inserting or adjusting magnetic elements within the pocket 270, and can reduce wear on the pocket fabric from repeated insertion and removal cycles.

[0037] Palm reinforcement 280 is incorporated into the front panel of the glove body 110 to provide enhanced durability and grip performance in the palm region. The palm reinforcement 280 includes a layer of non-slip material, such as a PVC-coated fabric or rubberized textile, that increases friction between the glove and gripped objects. A foam cushioning layer can be sandwiched between the palm reinforcement 280 and an interior lining layer, providing both comfort and improved conformability when grasping objects. The foam layer compresses under gripping pressure, allowing the palm reinforcement 280 to conform to the contours of held items and distribute pressure more evenly across the palm surface.

[0038] The glove body 110, in at least one exemplary embodiment, is constructed from weather-resistant materials that provide protection against moisture, wind, and ultraviolet radiation. The exterior shell, in at least one exemplary embodiment, is formed from a waterproof and breathable fabric, such as a polyester material with a polyurethane membrane and durable water repellent coating. This construction prevents external moisture from penetrating to the user's hand while allowing perspiration vapor to escape, maintaining comfort during extended wear periods. The interior lining can be formed from a similar material to provide consistent moisture management and comfort against the skin.

[0039] FIG. 3 is a perspective view of an example attachment module as set forth in various example embodiments herein. FIG. 4 illustrates an exploded view of the attachment module, showing the internal components and their spatial relationships. The attachment module includes a top cap 330 positioned at the uppermost portion of the assembly. The top cap 330 is formed from a rigid material such as a polymer and is configured to attach to the upper end of the attachment module body 310. In at least one exemplary embodiment as shown in FIGS. 3 and 4, that the top cap 330 includes a polygonal outer perimeter that matches the cross-sectional shape of the attachment module body 310, providing a continuous exterior profile when assembled. In some examples, the top cap 330 secures the inner sleeve 470 to the top end of the attachment module.

[0040] The attachment module body 310 extends vertically below the top cap 330 and provides the primary structural housing for the internal gripping mechanism. The attachment module body 310 is formed from a durable thermoplastic material such as polycarbonate-acrylonitrile butadiene styrene (PC / ABS) alloy or polyoxymethylene (POM). The body 310 includes a hexagonal exterior cross-section that provides anti-roll stability when the module is placed on a flat surface. A module magnet 320 is integrated into one face of the attachment module body 310, positioned to align with the pocket magnet in the glove when the module is coupled to the glove. In one example, the module magnet 320 is a neodymium-iron-boron (NdFeB) magnet with a nickel-copper-nickel coating for corrosion resistance. By way of example, the magnet can measure approximately 30-60 millimeters in length, 5-10 millimeters in width, and 2-3 millimeters in thickness, providing a pull force of approximately 10-40 pounds when in contact with a ferromagnetic surface.

[0041] A module magnet attachment region 410 is formed as a recessed cavity within the attachment module body 310, configured to receive and retain the module magnet 320. The cavity can be slightly shallower than the thickness of the magnet, allowing the magnet to protrude slightly beyond the surface of the body 310. This protrusion minimizes the air gap between the module magnet 320 and the glove magnet when the module is coupled to the glove, maximizing the magnetic attraction force. In another example, the magnet 320 sits flush within the attachment region 410. The module magnet 320 is secured within the attachment region 410 through press-fit engagement or adhesive bonding.

[0042] A module flange 420 is positioned at the lower end of the attachment module body 310, forming a transition between the body 310 and the adjustment collar 430. The module flange 420 extends radially outward from the body 310 and provides a mechanical stop that limits the axial travel of the adjustment collar 430.

[0043] The adjustment collar 430 is positioned below the module flange 420 and is configured to rotate relative to the attachment module body 310. The adjustment collar 430 includes a cylindrical outer surface with a diameter slightly larger than the body 310, creating a stepped profile at the interface. The collar 430 includes at least one interior protrusion that engages with corresponding detents or guide features in the attachment module body 310, defining discrete rotational positions or providing tactile feedback during rotation. The adjustment collar 430 is formed from POM or a similar low-friction polymer material to facilitate smooth rotation.

[0044] A spring sleeve 440 is positioned below, or in some examples partially within, the adjustment collar 430 and is configured to house the spring 450. The spring sleeve 440 includes a cylindrical body with an internal cavity dimensioned to receive the spring 450. The sleeve 440 is coupled to the adjustment collar 430 through mechanical engagement or adhesive bonding, such that rotation of the collar 430 causes corresponding rotation of the sleeve 440.

[0045] Although alternative springs that function similarly can be utilized in some exemplary embodiments, the spring 450, in the exemplary embodiment shown in FIG. 4, is a helical compression spring positioned within the spring sleeve 440. The spring 450 is configured to exert a force when compressed, providing sufficient return force to bias the adjustment knob 340 toward an extended rest position while remaining light enough for easy single-handed operation. The spring 450 can be formed from spring steel or stainless-steel wire, for example. The upper end of the spring 450 is attached to the spring sleeve 440 or the adjustment collar 430, while the lower end is attached to the adjustment knob 340. The spring can thus exert a rotational force as well as an axial force during operation.

[0046] The inner sleeve 470 can be positioned within the attachment module body 310 and can extend from the top cap 330 to the adjustment knob 340. The inner sleeve 470 can be formed from a flexible, high-friction material such as a polyester fabric with a polyvinyl chloride (PVC) non-slip coating. The inner sleeve 470 can have a first end coupled to the top cap 330, and a second end coupled to the adjustment knob 340 or a component that rotates with the adjustment knob 340. When the adjustment knob 340 is rotated relative to the attachment module body 310, the inner sleeve 470 can twist along its length, progressively reducing its internal diameter and tightening around an item inserted into the interior portion of the module.

[0047] The sleeve upper collar 460 is positioned at the upper end of the inner sleeve 470 and provides a mechanical coupling between the sleeve 470 and the top cap 330. The upper collar 460 is formed from a rigid polymer material and includes features that prevent the sleeve 470 from rotating at its upper end, ensuring that rotational motion of the adjustment knob 340 causes twisting of the sleeve 470 rather than simple rotation.

[0048] The sleeve lower collar 480 can be positioned at the lower end of the inner sleeve 470 and can provide a mechanical coupling between the sleeve 470 and the adjustment knob 340. The lower collar 480 can be configured to rotate with the adjustment knob 340, causing the lower end of the inner sleeve 470 to rotate while the upper end remains stationary at the top cap 330. This differential rotation can cause the sleeve 470 to twist, creating the gripping action.

[0049] The adjustment knob 340 is positioned at the lowermost portion of the assembly and provides the user interface for actuating the gripping mechanism. The adjustment knob 340 includes a cylindrical body with a knurled or textured outer surface to enhance grip. The knob 340 is configured to move axially relative to the attachment module body 310 when compressed by the user, compressing the spring 450 and disengaging rotational locking features. While compressed, the knob 340 can be rotated, causing the inner sleeve 470 to twist. When the user releases the axial compression force, the spring 450 returns the knob 340 to its extended rest position, and friction between components locks the rotational position.

[0050] While the inner sleeve 470 is shown alongside the body 310 in the exploded view of FIG. 4, the inner sleeve 470 can be configured to fit partially or entirely within the body 310 in an assembled state. For example, the upper collar 460 of the sleeve may wrap around a top edge of the body 310, while the lower collar 480 may be coupled to a component coupled to the body 310 such as the adjustment knob 340, with most or all of the inner sleeve 470 being disposed within the body 310 rather than outside the body 310.

[0051] FIG. 5 illustrates portions of the attachment module in a partially exploded configuration, showing the relationship between the top cap 330, the adjustment collar 430, and the adjustment knob 340. The top cap 330 can be positioned at the uppermost portion of the assembly and can define a top cap height 510 that establishes the vertical dimension of the cap structure. The top cap 330 can include a polygonal outer perimeter that matches the cross-sectional shape of the attachment module body 310, providing a continuous exterior profile when assembled. The top cap 330 can be configured to secure the inner sleeve 470 at its upper collar 460, preventing rotation of the sleeve at that location while allowing the lower end to rotate with the adjustment knob 340.

[0052] The adjustment collar 430 is shown positioned below the top cap 330 and can be configured to rotate relative to the adjustment knob 340. The collar 430 can include at least one interior protrusion 520 that extends radially inward from the inner surface of the collar. The interior protrusion 520 can engage with corresponding detents or guide features in the attachment module body 310, defining discrete rotational positions or providing tactile feedback during rotation. In some examples, the interior protrusion 520 can follow a helical or wave-guide path formed by bumps or recesses in the attachment module body 310, causing the collar 430 to translate axially as it rotates. This axial translation can contribute to the twisting action of the inner sleeve 470 by creating differential motion between the upper and lower ends of the sleeve.

[0053] The adjustment collar 430 can further include indexing protrusions 530 positioned on its outer surface. The indexing protrusions 530 can be arranged circumferentially around the collar 430. In some examples, the indexing protrusions 530 can engage with corresponding features 540 on the adjustment knob 340, creating discrete rotational positions that allow the user to feel when the collar has rotated through a predetermined angular increment. For example, the indexing protrusions 530 can create a clicking sensation or audible feedback as the collar 430 rotates, indicating to the user that the gripping mechanism has tightened or loosened by a specific amount. In another example, the indexing protrusions 530 maintain their engagement with the recesses 540 in the adjustment knob 340, ensuring that rotation of the adjustment knob 340 translates directly into rotation of the collar 430.

[0054] The adjustment knob 340 can be positioned at the lowermost portion of the assembly and can provide the user interface for actuating the gripping mechanism. The knob 340 can include indexing recesses 540 formed on its inner surface, positioned to receive the indexing protrusions 530 of the adjustment collar 430 as described above. The indexing recesses 540 can be arranged in a pattern that corresponds to the pattern of the indexing protrusions 530, allowing the protrusions to engage with the recesses as the knob 340 and collar 430 rotate together. In some examples, the indexing recesses 540 can be slightly deeper than the height of the indexing protrusions 530, allowing the protrusions to seat fully within the recesses when the knob 340 is in its extended rest position. When the knob 340 is compressed axially, the indexing protrusions 530 can disengage from the indexing recesses 540, allowing free rotation of the knob relative to the collar 430 or allowing the collar to rotate relative to the body 310 without resistance from the indexing mechanism.

[0055] The interaction between the indexing protrusions 530 and the indexing recesses 540 can provide a locking mechanism that maintains the rotational position of the adjustment knob 340 when the knob is not being actuated by the user. For example, when the user releases axial compression force on the knob 340, the spring 450 can return the knob to its extended rest position, causing the indexing protrusions 530 to engage with the indexing recesses 540. This engagement can create friction that resists unintended rotation of the knob 340, maintaining the gripping force applied by the inner sleeve 470 to a secured item. The indexing mechanism can also provide tactile feedback during adjustment, allowing the user to feel discrete rotational increments as the knob is turned. For example, each engagement of an indexing protrusion 530 with an indexing recess 540 can correspond to a predetermined change in the internal diameter of the inner sleeve 470, such as a reduction of 0.5 millimeters or 1 millimeter per indexing position.

[0056] The attachment module can include a hard stop mechanism that limits the rotational range of the adjustment knob 340 and prevents over-tightening of the inner sleeve 470. In some examples, the hard stop mechanism includes physical interference features between the adjustment collar 430 and the attachment module body 310 that prevent rotation beyond a predetermined angular limit. For example, the interior protrusion 520 on the adjustment collar 430 can engage with a terminal end of a guide path or recess in the attachment module body 310, creating a mechanical interference that prevents further rotation in the tightening direction. The rotational range can be approximately 125 degrees from the fully loosened position to the fully tightened position, though other ranges can be used depending on the desired gripping force and sleeve twist characteristics. When the user rotates the adjustment knob 340 to the hard stop position, further rotational force is resisted by the mechanical interference, providing tactile feedback that the maximum tightening position has been reached. This hard stop mechanism can prevent damage to the inner sleeve 470 from excessive twisting and can ensure consistent maximum gripping force across multiple actuation cycles.

[0057] FIG. 6 illustrates partial cross-sectional views of the attachment module in two different operational states, showing the internal mechanical relationships between components during compression and rotation of the adjustment knob 340. FIG. 6 shows some elements in cross sectional, but only those necessary to show the concepts being discussed herein. Each image in FIG. 6 shows the attachment module body 310 and magnet attachment region 410, but the righthand image showing a compressed operational state shows those elements closer to the end cap 340.

[0058] The lefthand cross-sectional view in FIG. 6 illustrates the attachment module in an uncompressed or rest configuration, where the adjustment knob 340 can be positioned at its maximum axial extension relative to the attachment module body 310. In this configuration, the spring 450 can be shown at or near its free length, exerting minimal compression force on the surrounding components. The uncompressed spring height 610 can be indicated by a bracket or dimension line that spans the axial length of the spring 450 in this rest state. For example, the spring 450 can exhibit a free length of approximately 14 millimeters when uncompressed, though other lengths may be used. The axial length 630 between the body portion 310 and the base of the adjustment knob 340 is indicated by a bracket 630. This dimension can represent the total internal space available for component movement when the knob 340 is in its extended rest position.

[0059] The righthand cross-sectional view in FIG. 6 illustrates the attachment module in a compressed configuration, where the adjustment knob 340 is displaced axially inward toward the attachment module body 310 by user-applied compression force. In this configuration, the spring 450 is shown in a compressed state, with reduced spacing between its coils compared to the uncompressed state shown. The compressed spring height 620 can be indicated by a bracket or dimension line that spans the reduced axial length of the spring 450 in this compressed state. For example, the spring 450 can exhibit a compressed length of approximately 12 millimeters when fully compressed, representing a compression travel of approximately 2 millimeters from the free length.

[0060] FIG. 7 illustrates a method for operating an integrated glove and attachment system according to one or more examples described herein. The method can be performed by a user to secure an external item within the attachment module while wearing the glove, enabling hands-free carrying and quick access to the item during various activities. The method includes a sequence of steps that progress from initial glove placement through final item manipulation, with each step building upon the previous configuration to achieve secure item retention.

[0061] At stage 710, the method can include placing a glove on the hand of a user. The glove can be the glove body 110 described in relation to FIGS. 2A and 2B, for example, which includes a front panel configured to cover the palm region and a back panel configured to cover the dorsal region of the user’s hand. The user inserts their hand into the glove by sliding their fingers and palm through the hand-receiving cavity formed by the joined front and back panels. The user’s thumb extends through the thumb opening 250 formed at the lower portion of the glove body 110. Once the hand is fully inserted, the user adjusts the fit of the glove using the adjustment strap mechanism integrated into the back panel. The hook-and-loop strap 230 is wrapped around the user’s palm and secured to the hook-and-loop patch positioned on the exterior surface of the glove body 110. The user can tighten or loosen the glove’s fit by adjusting the overlap between the hook-and-loop strap 230 and the corresponding hook-and-loop patch, ensuring a snug but comfortable fit that maintains hand mobility while providing secure retention of the glove on the hand. In another example embodiment, the strap 230 can be aligned to wrap around the user’s wrist rather than the palm, while retaining the same basic functionality and structure.

[0062] At stage 720, the method can include coupling an attachment module to the glove via the pocket. The attachment module can, for example, be the attachment module described in relation to FIG. 4 for example. In an example, the pocket 270 integrated into the palm region of the front panel of the glove accommodates a magnet that provides the magnetic coupling interface for the attachment module. The user brings the attachment module into proximity with the pocket region 240 on the palm side of the glove, aligning the module magnet 320 in the attachment module body 310 with the magnet within or associated with the pocket 270. When the module magnet 320 and the glove magnet are brought sufficiently close together, magnetic attraction forces pull the attachment module toward the glove, creating a secure magnetic bond that holds the module against the palm surface of the glove. The magnetic coupling eliminates the need for the user to grip or hold the module with hand strength, as the magnetic interface maintains the module's position against the palm surface without requiring finger pressure or grasping force. The user can position the attachment module at the desired location on the palm region, and the magnetic attraction holds it securely in place during subsequent operations.

[0063] At stage 730, the method can include inserting the external item into the interior portion of the tube. The external item can be any implement that the user wishes to carry and access while wearing the glove, such as a utensil, tool, or other small object. The user grasps the external item with their opposite hand or with the fingers of the gloved hand. The user then inserts the item through the opening at the top of the tube body 310, which is defined by the top cap 330. The item passes through the top cap 330 and enters the interior portion of the tube body 310, where it contacts the inner sleeve 470. The inner sleeve 470 can be in a loosened or expanded state at this stage, providing a sufficient internal diameter to accommodate the external item without significant resistance. The user advances the item to a desired depth within the tube body 310, positioning it for optimal balance and accessibility. For example, if the external item is a utensil such as a fork or spoon, the user can insert the handle end first and advance it until the eating end extends above the top cap 330, allowing easy grasping when the item needs to be retrieved.

[0064] At stage 740, the method can include actuating the adjustment knob to cause the inner sleeve to twist. The user grasps the adjustment knob 340 at the lower end of the attachment module with their opposite hand or with the fingers of the gloved hand. The user applies axial compression force to the adjustment knob 340, pushing it inward toward the attachment module body 310. This compression causes the spring 450 to compress from its free length to its compressed length, as described in relation to FIG. 6. The compression of the spring 450 disengages rotational locking features between the adjustment knob 340 and the adjustment collar 430, allowing the knob to rotate freely relative to the attachment module body 310. While maintaining the axial compression force, the user applies rotational torque to the adjustment knob 340, rotating it in a clockwise direction as viewed from the bottom of the module. The rotation of the adjustment knob 340 causes the sleeve lower collar 480 to rotate, since the lower collar 480 is mechanically coupled to the adjustment knob 340. The rotation of the sleeve lower collar 480 causes the lower end of the inner sleeve 470 to rotate while the upper end remains stationary at the sleeve upper collar 460, which is secured to the top cap 330. This differential rotation between the upper and lower ends of the inner sleeve 470 causes the sleeve to twist along its length.

[0065] At stage 750, the method can include twisting the inner sleeve to an extent sufficient to secure an item. As the user continues to rotate the adjustment knob 340 in the clockwise direction, the inner sleeve 470 continues to twist, progressively reducing its internal diameter. The twisting action causes the flexible, high-friction material of the inner sleeve 470 to wrap more tightly around the external item inserted at stage 730. The internal diameter of the inner sleeve 470 decreases until the sleeve makes firm contact with the outer surface of the external item. Further rotation increases the contact force between the inner sleeve 470 and the external item, creating friction that prevents the item from sliding or rotating within the tube body 310.

[0066] The user can continue rotating the adjustment knob 340 until the gripping force is sufficient to secure the external item against displacement during normal hand movements and activities. The user can determine when sufficient gripping force has been achieved by feeling increased resistance to rotation of the adjustment knob 340, by observing that the external item no longer moves when gently pulled or pushed, or by reaching a hard stop that prevents further rotation. Once the desired gripping force is achieved, the user releases the axial compression force on the adjustment knob 340, allowing the spring 450 to return the knob to its extended rest position. The return of the knob to the rest position causes the indexing protrusions 530 on the adjustment collar 430 to engage with the indexing recesses 540 in the adjustment knob 340, creating friction that locks the rotational position and maintains the gripping force on the external item.

[0067] At stage 760, the method can include manipulating the item with the user’s hand. With the external item securely gripped within the attachment module and the attachment module magnetically coupled to the glove on the user’s hand, the user manipulates the item by moving their hand and arm. The magnetic coupling between the attachment module and the glove allows the user to control the module’s orientation and location in space using arm strength and wrist positioning, without requiring the user to grip the module with their fingers. For example, the user can move their arm to position the external item near their mouth if the item is a utensil, or near a work surface if the item is a tool. The user can also retrieve the external item from the attachment module by reversing the process described in stages 740 and 750. The user compresses the adjustment knob 340 and rotates it in a counterclockwise direction to loosen the inner sleeve 470, reducing the gripping force on the external item. Once the gripping force is sufficiently reduced, the user pulls the external item out of the tube body 310 with their opposite hand. After using the external item, the user can re-insert it into the tube body 310 and re-tighten the adjustment knob 340 to secure it for continued carrying.

[0068] The method illustrated in FIG. 7 can provide several advantages over conventional approaches to carrying and accessing small implements during activities requiring hand protection. The integration of the attachment module with the glove can eliminate the need for separate pockets, pouches, or tool holders that would require the user to remove their gloves to access items. The magnetic coupling between the module and glove can enable quick attachment and removal of the module, allowing the user to transfer the module between multiple gloves or to remove it when not needed. The rotational gripping mechanism can accommodate items of varying dimensions and shapes, providing secure retention without requiring permanent fastening hardware or adhesives. The single-handed operation enabled by the push-and-rotate actuation sequence can allow the user to secure or release items without requiring assistance from another person or the use of both hands simultaneously.

[0069] FIG. 8 illustrates a zipper pull accessory configured to interface with the integrated glove and attachment system described herein. The zipper pull can include a zipper pull body 830 that forms the primary structural element of the accessory. The body 830 can have a generally cylindrical configuration that extends along a longitudinal axis, with an internal cavity that houses functional components. A zipper pull handle 810 can be attached to the upper portion of the zipper pull body 830. The handle 810 can be configured as an arched or loop-shaped structure that extends outward from the body 830. The handle 810 can be configured to attach to a zipper in some examples.

[0070] At the lower end of the zipper pull body 830, a zipper pull magnet 820 can be positioned within the internal cavity of the body. The zipper pull magnet 820 can be a permanent magnet formed from a ferromagnetic material such as neodymium-iron-boron (NdFeB), samarium-cobalt, or ferrite. The magnet 820 can be secured within the body 830 through press-fit engagement, adhesive bonding, or mechanical retention features.

[0071] The zipper pull magnet 820 can be configured to magnetically couple with the module magnet 320 of the attachment module or with the glove magnet housed in the pocket 270 of the glove body 110. This magnetic coupling can enable the zipper pull to be temporarily attached to the glove, allowing the user to operate the zipper without requiring finger dexterity to grip the zipper with their fingertips.

[0072] The integrated glove and interlocking attachment system can significantly improve the quality of life for individuals with limited mobility. By providing a versatile and adaptable solution for performing daily tasks, the system can promote independence, boost confidence, and enhance overall well-being. The modular design and expandable ecosystem ensure that the system can evolve with the user’s needs and incorporate new technologies as they become available.

[0073] The integrated glove and interlocking attachment system can be utilized in a wide range of potential use cases to assist individuals with limited mobility in performing various daily tasks independently. In some examples, the system can incorporate specialized attachments for personal care tasks such as holding razors, toothbrushes, combs, or hairspray dispensers, enabling users to maintain personal hygiene and grooming independently. The attachment module can accommodate utensil attachments for forks, spoons, and knives, allowing users to eat independently with improved control and stability. Writing and drawing tool attachments can enable users to hold pencils, pens, and art supplies for communication and creative activities.

[0074] For household and daily living tasks, the system can include attachments for opening doors, drawers, packages, cans, and bottles. Specialized attachments can assist with clothing tasks such as manipulating zipper pulls, fastening buttons, pulling on socks, and putting on shoes. The system can also accommodate attachments for managing medications through pill dispenser holders, and for handling keys, steering wheels, and remote controls to support independent mobility and home management.

[0075] For travel and outdoor activities, the system can include attachments for handling suitcases, bags, water bottles, wallets, and packing cubes. A leash holder attachment can enable users to walk pets with improved control. The magnetic coupling interface allows users to quickly swap between different attachment types as needed throughout the day, and the modular design enables the attachment ecosystem to expand with additional specialized tools as they are developed.

[0076] While the examples described herein generally include a glove that leaves a user’s fingers exposed, the glove can come in many varieties. For example, the glove can include full finger coverage, either individually or collectively in a mitten layout. In any of those layouts, the thumb can optionally be covered or exposed. Further, in some examples the glove and attachment system can be configured to fit over a smaller glove, so that the system can be used in cold environments. This could be accomplished by, for example, sizing the glove portion larger than otherwise necessary for the user’s hand.

[0077] Other examples of the disclosure will be apparent to those skilled in the art from consideration of the specification and practice of the examples disclosed herein. Though some of the described methods have been presented as a series of steps, it should be appreciated that one or more steps can occur simultaneously, in an overlapping fashion, or in a different order. The order of steps presented are only illustrative of the possibilities and those steps can be executed or performed in any suitable fashion. Moreover, the various features of the examples described here are not mutually exclusive. Rather any feature of any example described here can be incorporated into any other suitable example. It is intended that the specification and examples be considered as exemplary only, with a true scope and spirit of the disclosure being indicated by the following claims.

[0078] As used herein, the singular forms “a”, “an”, and “the” include plural referents unless the context clearly dictates otherwise. Thus, for example, reference to a “body” includes aspects having two or more bodies unless the context clearly indicates otherwise.

[0079] Ranges can be expressed herein as from “about” one particular value, and / or to “about” another particular value. When such a range is expressed, another aspect includes from the one particular value and / or to the other particular value. Similarly, when values are expressed as approximations, by use of the antecedent “about,” it will be understood that the particular value forms another aspect. It will be further understood that the endpoints of each of the ranges are significant both in relation to the other endpoint, and independently of the other endpoint.

[0080] As used herein, the terms “optional” or “optionally” mean that the subsequently described event or circumstance may or may not occur, and that the description includes instances where said event or circumstance occurs and instances where it does not.

[0081] Although several aspects of the disclosure have been disclosed in the foregoing specification, it is understood by those skilled in the art that many modifications and other aspects of the disclosure will come to mind to which the disclosure pertains, having the benefit of the teaching presented in the foregoing description and associated drawings. It is thus understood that the disclosure is not limited to the specific aspects disclosed hereinabove, and that many modifications and other aspects are intended to be included within the scope of the appended claims. Moreover, although specific terms are employed herein, as well as in the claims that follow, they are used only in a generic and descriptive sense, and not for the purposes of limiting the described disclosure.

Examples

Embodiment Construction

[0023]Reference will now be made in detail to the present examples, including examples illustrated in the accompanying drawings.

[0024]Examples described herein include an integrated glove and attachment system configured to provide secure, adjustable retention of external items while maintaining user dexterity and hand protection. The system can combine a hand wrap glove apparatus with a removable attachment module that utilizes a rotational locking mechanism to grip items of varying dimensions. The attachment module can be magnetically coupled to the glove, enabling quick attachment and removal without permanent fastening hardware. The glove can include weather-resistant materials, grip-enhancing surfaces, and integrated storage features. The attachment module can include a spring-loaded adjustment mechanism that allows single-handed operation through a push-and-rotate actuation sequence.

[0025]The exemplary gloves described herein could be used in, during, and for several applicati...

PRIORITY

[0001] This application claims the benefit of priority to U.S. Provisional Application No. 63 / 757,685, entitled “INTEGRATED GLOVE AND INTERLOCKING ATTACHMENT SYSTEM FOR INDIVIDUALS WITH LIMITED MOBILITY,” filed on February 12, 2025, the entire contents of which are incorporated herein by reference.BACKGROUND

[0002] Assistive technology for individuals with limited mobility has become increasingly important in today’s society. As the population ages and medical advancements allow people with various physical limitations to live longer, more active lives, there is a growing need for innovative solutions that enable independence and improve quality of life. Traditional assistive devices often lack versatility and adaptability, limiting their effectiveness across a range of daily activities.

[0003] Existing systems for aiding individuals with limited mobility typically focus on specific tasks or body parts, resulting in a fragmented approach to assistance. Users often need to switch between multiple devices throughout the day, which can be cumbersome and time-consuming. Additionally, many current solutions are not customizable to individual needs and preferences, leading to suboptimal user experiences and reduced adoption rates.

[0004] As a result, a need exists for an integrated system that provides versatile and adaptable assistance for individuals with limited mobility across a wide range of daily activities. In addition, a need exists for a solution that can be easily customized and expanded to meet evolving user requirements while promoting independence and confidence.SUMMARY

[0005] Examples described herein include an integrated glove and interlocking attachment system designed to empower individuals with limited mobility to perform daily tasks independently. The system can include a glove apparatus with an integrated pocket, an attachment module configured to couple to the glove by making use of the integrated pocket, and methods for operating the integrated system. The attachment module can include a tube, an adjustment knob, and an inner sleeve that twists to secure external items. In some examples, the system can further include magnetic coupling components and accessory items such as zipper pulls.

[0006] An exemplary integrated glove and attachment system can include a glove having a front side and a back side. The glove can include a pocket positioned on the front side of the glove. The system can further include an attachment module configured to be coupled to the glove via the pocket, such as by having a magnet in the pocket that couples to a magnetic element on the attachment module. The attachment module can include a tube configured to receive an external item within an interior portion of the tube. The attachment module can also include an adjustment knob configured to mechanically interface with the tube and / or rotate with respect to the tube. The attachment module can further include an inner sleeve within the interior portion of the tube. The inner sleeve can have a first end coupled to a portion of the tube and a second end coupled to the adjustment knob. Rotation of the adjustment knob with respect to the tube can cause the inner sleeve to twist. The inner sleeve can be configured to mechanically engage the external item within the interior portion of the tube.

[0007] In some embodiments, the pocket on the front side of the glove can include a glove magnet. The tube of the attachment module can include a corresponding attachment magnet positioned to engage the glove magnet. For example, the glove magnet and the attachment magnet can provide magnetic coupling between the glove and the attachment module. The magnetic coupling can allow the attachment module to be removably attached to and from the glove. In an example, the adjustment knob can include a spring configured to bias the adjustment knob toward an open position. The spring can provide automatic return of the adjustment knob after actuation. The adjustment knob can also include a collar configured to rotate with the adjustment knob. The collar can include an interior protrusion configured to engage a detent in the tube or a component associated with the tube. The engagement between the interior protrusion and the detent can provide tactile feedback during rotation.

[0008] In some embodiments, the tube can include a cap configured to couple the first end of the inner sleeve to a top portion of the tube. The cap can secure the inner sleeve in position within the tube. The adjustment knob can be configured to be linearly actuated and rotated in order to cause the inner sleeve to twist. For example, a user can press the adjustment knob downward and then rotate it to tighten the inner sleeve around an external item. The system can further include a zipper pull configured to couple to at least one of the glove or attachment module. The zipper pull can include a magnet within a cavity of the zipper pull. The magnet in the zipper pull can allow the zipper pull to be magnetically coupled to the glove or attachment module.

[0009] An example method for operating an integrated glove and attachment system can include placing a glove on the hand of a user. The glove can include a pocket positioned on a palm side of the glove. The method can further include coupling an attachment module to the glove via the pocket. The attachment module can include a tube configured to receive an external item within an interior portion of the tube. The attachment module can also include an adjustment knob configured to mechanically interface with the tube and rotate with respect to the tube. The attachment module can further include an inner sleeve within the interior portion of the tube. The inner sleeve can have a first end coupled to a portion of the tube and a second end coupled to the adjustment knob. Rotation of the adjustment knob with respect to the tube can cause the inner sleeve to twist. The method can include inserting the external item into the interior portion of the tube. The method can further include actuating the adjustment knob to cause the inner sleeve to twist to an extent sufficient to secure the external item by the inner sleeve.

[0010] In an example, coupling an attachment module to the glove via the pocket can include magnetically coupling a glove magnet within the pocket to an attachment magnet associated with the attachment module. The magnetic coupling can provide secure attachment while allowing easy removal when desired. In some examples, the adjustment knob can include a spring configured to bias the adjustment knob toward an open position. The spring can facilitate repeated actuation cycles. The adjustment knob can also include a collar configured to rotate with the adjustment knob. The collar can include an interior protrusion configured to engage a detent in the tube. The engagement can provide rotational positioning feedback to the user.

[0011] In some examples, the tube can include a cap configured to couple the first end of the inner sleeve to said portion of the tube. The cap can maintain the structural integrity of the attachment module. The adjustment knob can be configured to be linearly actuated and rotated in order to cause the inner sleeve to twist. For example, the user can press down on the adjustment knob and then turn it to tighten the inner sleeve. In an example, the external item can be a zipper pull comprising a magnet within a cavity of the zipper pull. The zipper pull can be secured within the tube and can be magnetically coupled to the glove or attachment module when not in use.

[0012] Both the foregoing general description and the following detailed description are exemplary and explanatory only and are not restrictive of the examples, as claimed.BRIEF DESCRIPTION OF THE DRAWINGS

[0013] FIG. 1A is a perspective view of an example integrated glove and attachment system on a user’s hand.

[0014] FIG. 1B is another perspective view of the example integrated glove and attachment system of FIG. 1A.

[0015] FIG. 2A is a side view of an example glove body for use with an example integrated glove and attachment system.

[0016] FIG. 2B is another side view of the example glove body of FIG. 2A.

[0017] FIG. 3 is a perspective view of an example attachment module as set forth in various example embodiments herein.

[0018] FIG. 4 is an exploded perspective view of the example attachment module of FIG. 3, showing internal components.

[0019] FIG. 5 is a perspective view of several components of an example attachment module according to various example embodiments herein.

[0020] FIG. 6 is a partial cross-sectional view of an example attachment module in two positions corresponding to two different modes of operation according to various example embodiments herein.

[0021] FIG. 7 is an example method of using an integrated glove and attachment system according to various embodiments herein.

[0022] FIG. 8 is a perspective view of an example zipper pull for use with the integrated glove and attachment system according to various embodiments herein.DETAILED DESCRIPTION

[0023] Reference will now be made in detail to the present examples, including examples illustrated in the accompanying drawings.

[0024] Examples described herein include an integrated glove and attachment system configured to provide secure, adjustable retention of external items while maintaining user dexterity and hand protection. The system can combine a hand wrap glove apparatus with a removable attachment module that utilizes a rotational locking mechanism to grip items of varying dimensions. The attachment module can be magnetically coupled to the glove, enabling quick attachment and removal without permanent fastening hardware. The glove can include weather-resistant materials, grip-enhancing surfaces, and integrated storage features. The attachment module can include a spring-loaded adjustment mechanism that allows single-handed operation through a push-and-rotate actuation sequence.

[0025] The exemplary gloves described herein could be used in, during, and for several applications. For example, the gloves could be used when a user is handling a wheelchair, used for everyday tasks, used for outdoor activities, used for recreational activities, etc. Further, the exemplary gloves can include additional features specific to specific uses or environments, e.g., for example, cold weather environments, warm / hot weather environments, environments requiring high impact (and thus additional) padding, etc. The integrated system can address challenges associated with carrying and accessing small implements during outdoor activities, work tasks, or recreational pursuits where hand protection and item security are both required. For example, a user engaged in camping activities can secure utensils within the attachment module while wearing protective gloves, eliminating the need to remove hand protection to access eating implements. In another example, a worker in a cold environment can maintain thermal hand protection while retaining quick access to tools or fasteners secured in the attachment module. The magnetic coupling between glove and module can enable rapid reconfiguration, allowing a user to transfer the attachment module between multiple gloves or to remove the module when not needed.

[0026] The system architecture can include multiple functional layers and mechanical subsystems that operate cooperatively to achieve secure item retention, environmental protection, and user comfort. The glove component can provide a flexible, conforming interface with the user’s hand while incorporating structural features for module attachment. The attachment module can provide a rigid housing that contains a rotational gripping mechanism, with the housing configured to interface magnetically with the glove. The gripping mechanism can include an inner sleeve that twists in response to knob rotation, progressively tightening around an inserted item until sufficient friction force prevents item displacement.

[0027] FIG. 1A illustrates an integrated glove and attachment system 100 in an assembled configuration worn on a user's hand. The system 100 includes a glove body that wraps around the hand and wrist, providing protection and grip enhancement during various activities. An attachment module is positioned on the palm region or palm side of the glove, secured through magnetic coupling that allows for rapid attachment and removal. The attachment module 120 includes a cylindrical tube body that extends outward from the palm surface, creating a receptacle for holding external items such as utensils, tools, or other implements. An adjustment knob is located at the distal end of the tube body, accessible for single-handed operation by the gloved hand. The glove body includes an attachment region 120 on the palm side where the magnetic interface occurs, enabling the module to be positioned optimally for user access while maintaining hand mobility.

[0028] FIG. 1A further illustrates that the magnetic coupling between the attachment module and the glove can eliminate the need for the user to grip or hold the module with hand strength. Instead, the magnetic interface can maintain the module’s position against the palm surface without requiring finger pressure or grasping force. This configuration can allow the user to rely on arm strength and wrist positioning to control the module’s orientation and location in space, while the hand remains relaxed or engaged in other tasks. For example, when manipulating an item secured within the attachment module, the user can move their entire arm to position the module without clenching their hand around it. The magnetic attachment can provide sufficient retention force to keep the module coupled to the glove during arm movements, weight-bearing activities, or dynamic motions. This approach can reduce hand fatigue during extended use periods, since the user’s fingers and palm muscles are not required to maintain grip on the attachment module itself.

[0029] FIG. 1B illustrates the system 100 from an alternative viewing angle, showing the relationship between the glove contours and the protruding attachment module. The cylindrical profile of the tube body 310, in the exemplary embodiment shown, extends perpendicular to the palm surface, positioning the adjustment knob 340 within easy reach of the user's opposite hand or fingers of the same hand. The glove wraps around the thumb portion 110, providing continuous coverage while allowing the attachment module to remain accessible. This configuration enables users to insert items into the tube body 310 and actuate the adjustment knob 340 to secure those items without removing the glove or compromising hand protection.

[0030] FIG. 1B also illustrates that the glove includes an adjustment strap positioned on the back of the hand, allowing the user to modify the glove's fit during use. This strap enables tightening or loosening of the glove around the hand and wrist without requiring removal of the attachment module or any item secured within the tube body 310. For example, a user can adjust the strap tension with their opposite hand while the attachment module remains magnetically coupled to the palm region. The magnetic interface maintains its position throughout the adjustment process, since the strap operates independently of the attachment region 120. This configuration allows users to optimize glove fit in response to changing conditions, such as temperature variations that could affect hand size, without interrupting their work or releasing secured items. The strap mechanism will be described in greater detail in relation to FIGS. 2A and 2B, which illustrate an exemplary embodiment of the glove's construction and fastening components.

[0031] FIGS. 2A and 2B illustrate the glove body 110 in two different exemplary configurations, showing the adjustment strap mechanism and various construction features. FIG. 2A depicts the back panel (dorsal side) of the glove body 110 with the adjustment strap in an open or extended position, while FIG. 2B shows the front panel (palm side) of the glove body 110 with the strap secured in a closed configuration. These figures are described together as they represent different operational states and viewing perspectives of the same structural assembly.

[0032] The glove body 110 includes a front panel configured to cover the palm region of a user's hand and a back panel configured to cover the dorsal region. The front and back panels are joined along their perimeter edges to form an enclosed hand-receiving cavity. A thumb opening 250 is formed, in at least one exemplary embodiment, at the lower or side portion of the glove body 110, allowing the user's thumb to extend through the glove structure. The orientation, size, and positioning of opening 250 can be varied for several reasons, including for glove sizing, glove construction material, intended glove use, etc.

[0033] An adjustment strap mechanism can be integrated into the back panel of the glove body 110 to provide customizable fit adjustment. The adjustment strap can include a hook-and-loop strap 230 that extends from the back panel of the glove body 110, as shown in FIG. 2A. The hook-and-loop strap 230 can be configured to wrap around the user's wrist and secure to a hook-and-loop patch positioned on the exterior surface of the glove body 110. This hook-and-loop fastening arrangement can allow the user to tighten or loosen the glove’s fit by adjusting the overlap between the hook-and-loop strap 230 and the corresponding hook-and-loop patch.

[0034] The adjustment strap mechanism can further include a D-ring 210 attached to the terminal end of the hook-and-loop strap 230. The D-ring 210 can, for example, be formed from metal, leather, composite, or rigid polymer material and can provide a structural anchor point for the strap assembly. An O-ring 220 can be positioned on the glove body 110, through which the hook-and-loop strap 230 can be threaded. The O-ring 220 can serve as a retention point that prevents the hook-and-loop strap 230 from being completely removed from the glove body 110 during adjustment operations. The D-ring 210 can act as a mechanical stop that prevents the strap from pulling entirely through the O-ring 220, maintaining the strap’s connection to the glove body 110 even when the hook-and-loop fastening is released. This arrangement creates several advantages, including quick donning of gloves, quick removal, ease of donning, etc.

[0035] FIG. 2B illustrates the front panel of the glove body 110, showing the palm-side features and construction. A pocket 270 is integrated into the palm region of the front panel, positioned to align with the attachment region 120 shown in FIG. 1A. The pocket 270 can be configured as a cavity or interface region within the glove structure that accommodates a magnetic element. The pocket can be formed in other configurations and orientations, as desired. In some examples, the pocket 270 is formed as a sewn interface between the front face fabric layer and an interior lining layer, creating a space where a magnetic metal piece can be secured. In other examples, the pocket 270 can include an opening accessible from the exterior surface of the glove, allowing a user to insert or remove a magnetic element or other items. The magnetic element within or associated with the pocket 270 provides the magnetic coupling interface for the attachment module. When the attachment module is brought into proximity with the pocket region, the magnet within or associated with the pocket 270 interacts with a corresponding magnet in the attachment module, creating a secure magnetic bond that holds the module against the glove without requiring hand grip strength. The pocket 270 is constructed with durable stitching that distributes the magnetic retention forces across the fabric, preventing localized stress concentrations that could lead to tearing or separation during use.

[0036] An entrance pocket piece 260 can be integrated into the pocket 270 structure to facilitate insertion of items or magnetic elements. The entrance pocket piece can be formed from a low-friction fabric material that reduces resistance when items are slid into or removed from the pocket region. In some examples, the entrance pocket piece measures approximately 1.7 inches in length and 0.7 inches in width, though other dimensions can be used depending on the size of items to be accommodated. The entrance pocket piece can be sewn into the side seam of the pocket 270, positioned to guide items smoothly into the pocket cavity without snagging on fabric edges or stitching. The low-friction surface of the entrance pocket piece can be achieved through material selection (such as nylon or polyester with a smooth finish) or through surface treatments that reduce the coefficient of friction. This entrance piece can improve the user experience when inserting or adjusting magnetic elements within the pocket 270, and can reduce wear on the pocket fabric from repeated insertion and removal cycles.

[0037] Palm reinforcement 280 is incorporated into the front panel of the glove body 110 to provide enhanced durability and grip performance in the palm region. The palm reinforcement 280 includes a layer of non-slip material, such as a PVC-coated fabric or rubberized textile, that increases friction between the glove and gripped objects. A foam cushioning layer can be sandwiched between the palm reinforcement 280 and an interior lining layer, providing both comfort and improved conformability when grasping objects. The foam layer compresses under gripping pressure, allowing the palm reinforcement 280 to conform to the contours of held items and distribute pressure more evenly across the palm surface.

[0038] The glove body 110, in at least one exemplary embodiment, is constructed from weather-resistant materials that provide protection against moisture, wind, and ultraviolet radiation. The exterior shell, in at least one exemplary embodiment, is formed from a waterproof and breathable fabric, such as a polyester material with a polyurethane membrane and durable water repellent coating. This construction prevents external moisture from penetrating to the user's hand while allowing perspiration vapor to escape, maintaining comfort during extended wear periods. The interior lining can be formed from a similar material to provide consistent moisture management and comfort against the skin.

[0039] FIG. 3 is a perspective view of an example attachment module as set forth in various example embodiments herein. FIG. 4 illustrates an exploded view of the attachment module, showing the internal components and their spatial relationships. The attachment module includes a top cap 330 positioned at the uppermost portion of the assembly. The top cap 330 is formed from a rigid material such as a polymer and is configured to attach to the upper end of the attachment module body 310. In at least one exemplary embodiment as shown in FIGS. 3 and 4, that the top cap 330 includes a polygonal outer perimeter that matches the cross-sectional shape of the attachment module body 310, providing a continuous exterior profile when assembled. In some examples, the top cap 330 secures the inner sleeve 470 to the top end of the attachment module.

[0040] The attachment module body 310 extends vertically below the top cap 330 and provides the primary structural housing for the internal gripping mechanism. The attachment module body 310 is formed from a durable thermoplastic material such as polycarbonate-acrylonitrile butadiene styrene (PC / ABS) alloy or polyoxymethylene (POM). The body 310 includes a hexagonal exterior cross-section that provides anti-roll stability when the module is placed on a flat surface. A module magnet 320 is integrated into one face of the attachment module body 310, positioned to align with the pocket magnet in the glove when the module is coupled to the glove. In one example, the module magnet 320 is a neodymium-iron-boron (NdFeB) magnet with a nickel-copper-nickel coating for corrosion resistance. By way of example, the magnet can measure approximately 30-60 millimeters in length, 5-10 millimeters in width, and 2-3 millimeters in thickness, providing a pull force of approximately 10-40 pounds when in contact with a ferromagnetic surface.

[0041] A module magnet attachment region 410 is formed as a recessed cavity within the attachment module body 310, configured to receive and retain the module magnet 320. The cavity can be slightly shallower than the thickness of the magnet, allowing the magnet to protrude slightly beyond the surface of the body 310. This protrusion minimizes the air gap between the module magnet 320 and the glove magnet when the module is coupled to the glove, maximizing the magnetic attraction force. In another example, the magnet 320 sits flush within the attachment region 410. The module magnet 320 is secured within the attachment region 410 through press-fit engagement or adhesive bonding.

[0042] A module flange 420 is positioned at the lower end of the attachment module body 310, forming a transition between the body 310 and the adjustment collar 430. The module flange 420 extends radially outward from the body 310 and provides a mechanical stop that limits the axial travel of the adjustment collar 430.

[0043] The adjustment collar 430 is positioned below the module flange 420 and is configured to rotate relative to the attachment module body 310. The adjustment collar 430 includes a cylindrical outer surface with a diameter slightly larger than the body 310, creating a stepped profile at the interface. The collar 430 includes at least one interior protrusion that engages with corresponding detents or guide features in the attachment module body 310, defining discrete rotational positions or providing tactile feedback during rotation. The adjustment collar 430 is formed from POM or a similar low-friction polymer material to facilitate smooth rotation.

[0044] A spring sleeve 440 is positioned below, or in some examples partially within, the adjustment collar 430 and is configured to house the spring 450. The spring sleeve 440 includes a cylindrical body with an internal cavity dimensioned to receive the spring 450. The sleeve 440 is coupled to the adjustment collar 430 through mechanical engagement or adhesive bonding, such that rotation of the collar 430 causes corresponding rotation of the sleeve 440.

[0045] Although alternative springs that function similarly can be utilized in some exemplary embodiments, the spring 450, in the exemplary embodiment shown in FIG. 4, is a helical compression spring positioned within the spring sleeve 440. The spring 450 is configured to exert a force when compressed, providing sufficient return force to bias the adjustment knob 340 toward an extended rest position while remaining light enough for easy single-handed operation. The spring 450 can be formed from spring steel or stainless-steel wire, for example. The upper end of the spring 450 is attached to the spring sleeve 440 or the adjustment collar 430, while the lower end is attached to the adjustment knob 340. The spring can thus exert a rotational force as well as an axial force during operation.

[0046] The inner sleeve 470 can be positioned within the attachment module body 310 and can extend from the top cap 330 to the adjustment knob 340. The inner sleeve 470 can be formed from a flexible, high-friction material such as a polyester fabric with a polyvinyl chloride (PVC) non-slip coating. The inner sleeve 470 can have a first end coupled to the top cap 330, and a second end coupled to the adjustment knob 340 or a component that rotates with the adjustment knob 340. When the adjustment knob 340 is rotated relative to the attachment module body 310, the inner sleeve 470 can twist along its length, progressively reducing its internal diameter and tightening around an item inserted into the interior portion of the module.

[0047] The sleeve upper collar 460 is positioned at the upper end of the inner sleeve 470 and provides a mechanical coupling between the sleeve 470 and the top cap 330. The upper collar 460 is formed from a rigid polymer material and includes features that prevent the sleeve 470 from rotating at its upper end, ensuring that rotational motion of the adjustment knob 340 causes twisting of the sleeve 470 rather than simple rotation.

[0048] The sleeve lower collar 480 can be positioned at the lower end of the inner sleeve 470 and can provide a mechanical coupling between the sleeve 470 and the adjustment knob 340. The lower collar 480 can be configured to rotate with the adjustment knob 340, causing the lower end of the inner sleeve 470 to rotate while the upper end remains stationary at the top cap 330. This differential rotation can cause the sleeve 470 to twist, creating the gripping action.

[0049] The adjustment knob 340 is positioned at the lowermost portion of the assembly and provides the user interface for actuating the gripping mechanism. The adjustment knob 340 includes a cylindrical body with a knurled or textured outer surface to enhance grip. The knob 340 is configured to move axially relative to the attachment module body 310 when compressed by the user, compressing the spring 450 and disengaging rotational locking features. While compressed, the knob 340 can be rotated, causing the inner sleeve 470 to twist. When the user releases the axial compression force, the spring 450 returns the knob 340 to its extended rest position, and friction between components locks the rotational position.

[0050] While the inner sleeve 470 is shown alongside the body 310 in the exploded view of FIG. 4, the inner sleeve 470 can be configured to fit partially or entirely within the body 310 in an assembled state. For example, the upper collar 460 of the sleeve may wrap around a top edge of the body 310, while the lower collar 480 may be coupled to a component coupled to the body 310 such as the adjustment knob 340, with most or all of the inner sleeve 470 being disposed within the body 310 rather than outside the body 310.

[0051] FIG. 5 illustrates portions of the attachment module in a partially exploded configuration, showing the relationship between the top cap 330, the adjustment collar 430, and the adjustment knob 340. The top cap 330 can be positioned at the uppermost portion of the assembly and can define a top cap height 510 that establishes the vertical dimension of the cap structure. The top cap 330 can include a polygonal outer perimeter that matches the cross-sectional shape of the attachment module body 310, providing a continuous exterior profile when assembled. The top cap 330 can be configured to secure the inner sleeve 470 at its upper collar 460, preventing rotation of the sleeve at that location while allowing the lower end to rotate with the adjustment knob 340.

[0052] The adjustment collar 430 is shown positioned below the top cap 330 and can be configured to rotate relative to the adjustment knob 340. The collar 430 can include at least one interior protrusion 520 that extends radially inward from the inner surface of the collar. The interior protrusion 520 can engage with corresponding detents or guide features in the attachment module body 310, defining discrete rotational positions or providing tactile feedback during rotation. In some examples, the interior protrusion 520 can follow a helical or wave-guide path formed by bumps or recesses in the attachment module body 310, causing the collar 430 to translate axially as it rotates. This axial translation can contribute to the twisting action of the inner sleeve 470 by creating differential motion between the upper and lower ends of the sleeve.

[0053] The adjustment collar 430 can further include indexing protrusions 530 positioned on its outer surface. The indexing protrusions 530 can be arranged circumferentially around the collar 430. In some examples, the indexing protrusions 530 can engage with corresponding features 540 on the adjustment knob 340, creating discrete rotational positions that allow the user to feel when the collar has rotated through a predetermined angular increment. For example, the indexing protrusions 530 can create a clicking sensation or audible feedback as the collar 430 rotates, indicating to the user that the gripping mechanism has tightened or loosened by a specific amount. In another example, the indexing protrusions 530 maintain their engagement with the recesses 540 in the adjustment knob 340, ensuring that rotation of the adjustment knob 340 translates directly into rotation of the collar 430.

[0054] The adjustment knob 340 can be positioned at the lowermost portion of the assembly and can provide the user interface for actuating the gripping mechanism. The knob 340 can include indexing recesses 540 formed on its inner surface, positioned to receive the indexing protrusions 530 of the adjustment collar 430 as described above. The indexing recesses 540 can be arranged in a pattern that corresponds to the pattern of the indexing protrusions 530, allowing the protrusions to engage with the recesses as the knob 340 and collar 430 rotate together. In some examples, the indexing recesses 540 can be slightly deeper than the height of the indexing protrusions 530, allowing the protrusions to seat fully within the recesses when the knob 340 is in its extended rest position. When the knob 340 is compressed axially, the indexing protrusions 530 can disengage from the indexing recesses 540, allowing free rotation of the knob relative to the collar 430 or allowing the collar to rotate relative to the body 310 without resistance from the indexing mechanism.

[0055] The interaction between the indexing protrusions 530 and the indexing recesses 540 can provide a locking mechanism that maintains the rotational position of the adjustment knob 340 when the knob is not being actuated by the user. For example, when the user releases axial compression force on the knob 340, the spring 450 can return the knob to its extended rest position, causing the indexing protrusions 530 to engage with the indexing recesses 540. This engagement can create friction that resists unintended rotation of the knob 340, maintaining the gripping force applied by the inner sleeve 470 to a secured item. The indexing mechanism can also provide tactile feedback during adjustment, allowing the user to feel discrete rotational increments as the knob is turned. For example, each engagement of an indexing protrusion 530 with an indexing recess 540 can correspond to a predetermined change in the internal diameter of the inner sleeve 470, such as a reduction of 0.5 millimeters or 1 millimeter per indexing position.

[0056] The attachment module can include a hard stop mechanism that limits the rotational range of the adjustment knob 340 and prevents over-tightening of the inner sleeve 470. In some examples, the hard stop mechanism includes physical interference features between the adjustment collar 430 and the attachment module body 310 that prevent rotation beyond a predetermined angular limit. For example, the interior protrusion 520 on the adjustment collar 430 can engage with a terminal end of a guide path or recess in the attachment module body 310, creating a mechanical interference that prevents further rotation in the tightening direction. The rotational range can be approximately 125 degrees from the fully loosened position to the fully tightened position, though other ranges can be used depending on the desired gripping force and sleeve twist characteristics. When the user rotates the adjustment knob 340 to the hard stop position, further rotational force is resisted by the mechanical interference, providing tactile feedback that the maximum tightening position has been reached. This hard stop mechanism can prevent damage to the inner sleeve 470 from excessive twisting and can ensure consistent maximum gripping force across multiple actuation cycles.

[0057] FIG. 6 illustrates partial cross-sectional views of the attachment module in two different operational states, showing the internal mechanical relationships between components during compression and rotation of the adjustment knob 340. FIG. 6 shows some elements in cross sectional, but only those necessary to show the concepts being discussed herein. Each image in FIG. 6 shows the attachment module body 310 and magnet attachment region 410, but the righthand image showing a compressed operational state shows those elements closer to the end cap 340.

[0058] The lefthand cross-sectional view in FIG. 6 illustrates the attachment module in an uncompressed or rest configuration, where the adjustment knob 340 can be positioned at its maximum axial extension relative to the attachment module body 310. In this configuration, the spring 450 can be shown at or near its free length, exerting minimal compression force on the surrounding components. The uncompressed spring height 610 can be indicated by a bracket or dimension line that spans the axial length of the spring 450 in this rest state. For example, the spring 450 can exhibit a free length of approximately 14 millimeters when uncompressed, though other lengths may be used. The axial length 630 between the body portion 310 and the base of the adjustment knob 340 is indicated by a bracket 630. This dimension can represent the total internal space available for component movement when the knob 340 is in its extended rest position.

[0059] The righthand cross-sectional view in FIG. 6 illustrates the attachment module in a compressed configuration, where the adjustment knob 340 is displaced axially inward toward the attachment module body 310 by user-applied compression force. In this configuration, the spring 450 is shown in a compressed state, with reduced spacing between its coils compared to the uncompressed state shown. The compressed spring height 620 can be indicated by a bracket or dimension line that spans the reduced axial length of the spring 450 in this compressed state. For example, the spring 450 can exhibit a compressed length of approximately 12 millimeters when fully compressed, representing a compression travel of approximately 2 millimeters from the free length.

[0060] FIG. 7 illustrates a method for operating an integrated glove and attachment system according to one or more examples described herein. The method can be performed by a user to secure an external item within the attachment module while wearing the glove, enabling hands-free carrying and quick access to the item during various activities. The method includes a sequence of steps that progress from initial glove placement through final item manipulation, with each step building upon the previous configuration to achieve secure item retention.

[0061] At stage 710, the method can include placing a glove on the hand of a user. The glove can be the glove body 110 described in relation to FIGS. 2A and 2B, for example, which includes a front panel configured to cover the palm region and a back panel configured to cover the dorsal region of the user’s hand. The user inserts their hand into the glove by sliding their fingers and palm through the hand-receiving cavity formed by the joined front and back panels. The user’s thumb extends through the thumb opening 250 formed at the lower portion of the glove body 110. Once the hand is fully inserted, the user adjusts the fit of the glove using the adjustment strap mechanism integrated into the back panel. The hook-and-loop strap 230 is wrapped around the user’s palm and secured to the hook-and-loop patch positioned on the exterior surface of the glove body 110. The user can tighten or loosen the glove’s fit by adjusting the overlap between the hook-and-loop strap 230 and the corresponding hook-and-loop patch, ensuring a snug but comfortable fit that maintains hand mobility while providing secure retention of the glove on the hand. In another example embodiment, the strap 230 can be aligned to wrap around the user’s wrist rather than the palm, while retaining the same basic functionality and structure.

[0062] At stage 720, the method can include coupling an attachment module to the glove via the pocket. The attachment module can, for example, be the attachment module described in relation to FIG. 4 for example. In an example, the pocket 270 integrated into the palm region of the front panel of the glove accommodates a magnet that provides the magnetic coupling interface for the attachment module. The user brings the attachment module into proximity with the pocket region 240 on the palm side of the glove, aligning the module magnet 320 in the attachment module body 310 with the magnet within or associated with the pocket 270. When the module magnet 320 and the glove magnet are brought sufficiently close together, magnetic attraction forces pull the attachment module toward the glove, creating a secure magnetic bond that holds the module against the palm surface of the glove. The magnetic coupling eliminates the need for the user to grip or hold the module with hand strength, as the magnetic interface maintains the module's position against the palm surface without requiring finger pressure or grasping force. The user can position the attachment module at the desired location on the palm region, and the magnetic attraction holds it securely in place during subsequent operations.

[0063] At stage 730, the method can include inserting the external item into the interior portion of the tube. The external item can be any implement that the user wishes to carry and access while wearing the glove, such as a utensil, tool, or other small object. The user grasps the external item with their opposite hand or with the fingers of the gloved hand. The user then inserts the item through the opening at the top of the tube body 310, which is defined by the top cap 330. The item passes through the top cap 330 and enters the interior portion of the tube body 310, where it contacts the inner sleeve 470. The inner sleeve 470 can be in a loosened or expanded state at this stage, providing a sufficient internal diameter to accommodate the external item without significant resistance. The user advances the item to a desired depth within the tube body 310, positioning it for optimal balance and accessibility. For example, if the external item is a utensil such as a fork or spoon, the user can insert the handle end first and advance it until the eating end extends above the top cap 330, allowing easy grasping when the item needs to be retrieved.

[0064] At stage 740, the method can include actuating the adjustment knob to cause the inner sleeve to twist. The user grasps the adjustment knob 340 at the lower end of the attachment module with their opposite hand or with the fingers of the gloved hand. The user applies axial compression force to the adjustment knob 340, pushing it inward toward the attachment module body 310. This compression causes the spring 450 to compress from its free length to its compressed length, as described in relation to FIG. 6. The compression of the spring 450 disengages rotational locking features between the adjustment knob 340 and the adjustment collar 430, allowing the knob to rotate freely relative to the attachment module body 310. While maintaining the axial compression force, the user applies rotational torque to the adjustment knob 340, rotating it in a clockwise direction as viewed from the bottom of the module. The rotation of the adjustment knob 340 causes the sleeve lower collar 480 to rotate, since the lower collar 480 is mechanically coupled to the adjustment knob 340. The rotation of the sleeve lower collar 480 causes the lower end of the inner sleeve 470 to rotate while the upper end remains stationary at the sleeve upper collar 460, which is secured to the top cap 330. This differential rotation between the upper and lower ends of the inner sleeve 470 causes the sleeve to twist along its length.

[0065] At stage 750, the method can include twisting the inner sleeve to an extent sufficient to secure an item. As the user continues to rotate the adjustment knob 340 in the clockwise direction, the inner sleeve 470 continues to twist, progressively reducing its internal diameter. The twisting action causes the flexible, high-friction material of the inner sleeve 470 to wrap more tightly around the external item inserted at stage 730. The internal diameter of the inner sleeve 470 decreases until the sleeve makes firm contact with the outer surface of the external item. Further rotation increases the contact force between the inner sleeve 470 and the external item, creating friction that prevents the item from sliding or rotating within the tube body 310.

[0066] The user can continue rotating the adjustment knob 340 until the gripping force is sufficient to secure the external item against displacement during normal hand movements and activities. The user can determine when sufficient gripping force has been achieved by feeling increased resistance to rotation of the adjustment knob 340, by observing that the external item no longer moves when gently pulled or pushed, or by reaching a hard stop that prevents further rotation. Once the desired gripping force is achieved, the user releases the axial compression force on the adjustment knob 340, allowing the spring 450 to return the knob to its extended rest position. The return of the knob to the rest position causes the indexing protrusions 530 on the adjustment collar 430 to engage with the indexing recesses 540 in the adjustment knob 340, creating friction that locks the rotational position and maintains the gripping force on the external item.

[0067] At stage 760, the method can include manipulating the item with the user’s hand. With the external item securely gripped within the attachment module and the attachment module magnetically coupled to the glove on the user’s hand, the user manipulates the item by moving their hand and arm. The magnetic coupling between the attachment module and the glove allows the user to control the module’s orientation and location in space using arm strength and wrist positioning, without requiring the user to grip the module with their fingers. For example, the user can move their arm to position the external item near their mouth if the item is a utensil, or near a work surface if the item is a tool. The user can also retrieve the external item from the attachment module by reversing the process described in stages 740 and 750. The user compresses the adjustment knob 340 and rotates it in a counterclockwise direction to loosen the inner sleeve 470, reducing the gripping force on the external item. Once the gripping force is sufficiently reduced, the user pulls the external item out of the tube body 310 with their opposite hand. After using the external item, the user can re-insert it into the tube body 310 and re-tighten the adjustment knob 340 to secure it for continued carrying.

[0068] The method illustrated in FIG. 7 can provide several advantages over conventional approaches to carrying and accessing small implements during activities requiring hand protection. The integration of the attachment module with the glove can eliminate the need for separate pockets, pouches, or tool holders that would require the user to remove their gloves to access items. The magnetic coupling between the module and glove can enable quick attachment and removal of the module, allowing the user to transfer the module between multiple gloves or to remove it when not needed. The rotational gripping mechanism can accommodate items of varying dimensions and shapes, providing secure retention without requiring permanent fastening hardware or adhesives. The single-handed operation enabled by the push-and-rotate actuation sequence can allow the user to secure or release items without requiring assistance from another person or the use of both hands simultaneously.

[0069] FIG. 8 illustrates a zipper pull accessory configured to interface with the integrated glove and attachment system described herein. The zipper pull can include a zipper pull body 830 that forms the primary structural element of the accessory. The body 830 can have a generally cylindrical configuration that extends along a longitudinal axis, with an internal cavity that houses functional components. A zipper pull handle 810 can be attached to the upper portion of the zipper pull body 830. The handle 810 can be configured as an arched or loop-shaped structure that extends outward from the body 830. The handle 810 can be configured to attach to a zipper in some examples.

[0070] At the lower end of the zipper pull body 830, a zipper pull magnet 820 can be positioned within the internal cavity of the body. The zipper pull magnet 820 can be a permanent magnet formed from a ferromagnetic material such as neodymium-iron-boron (NdFeB), samarium-cobalt, or ferrite. The magnet 820 can be secured within the body 830 through press-fit engagement, adhesive bonding, or mechanical retention features.

[0071] The zipper pull magnet 820 can be configured to magnetically couple with the module magnet 320 of the attachment module or with the glove magnet housed in the pocket 270 of the glove body 110. This magnetic coupling can enable the zipper pull to be temporarily attached to the glove, allowing the user to operate the zipper without requiring finger dexterity to grip the zipper with their fingertips.

[0072] The integrated glove and interlocking attachment system can significantly improve the quality of life for individuals with limited mobility. By providing a versatile and adaptable solution for performing daily tasks, the system can promote independence, boost confidence, and enhance overall well-being. The modular design and expandable ecosystem ensure that the system can evolve with the user’s needs and incorporate new technologies as they become available.

[0073] The integrated glove and interlocking attachment system can be utilized in a wide range of potential use cases to assist individuals with limited mobility in performing various daily tasks independently. In some examples, the system can incorporate specialized attachments for personal care tasks such as holding razors, toothbrushes, combs, or hairspray dispensers, enabling users to maintain personal hygiene and grooming independently. The attachment module can accommodate utensil attachments for forks, spoons, and knives, allowing users to eat independently with improved control and stability. Writing and drawing tool attachments can enable users to hold pencils, pens, and art supplies for communication and creative activities.

[0074] For household and daily living tasks, the system can include attachments for opening doors, drawers, packages, cans, and bottles. Specialized attachments can assist with clothing tasks such as manipulating zipper pulls, fastening buttons, pulling on socks, and putting on shoes. The system can also accommodate attachments for managing medications through pill dispenser holders, and for handling keys, steering wheels, and remote controls to support independent mobility and home management.

[0075] For travel and outdoor activities, the system can include attachments for handling suitcases, bags, water bottles, wallets, and packing cubes. A leash holder attachment can enable users to walk pets with improved control. The magnetic coupling interface allows users to quickly swap between different attachment types as needed throughout the day, and the modular design enables the attachment ecosystem to expand with additional specialized tools as they are developed.

[0076] While the examples described herein generally include a glove that leaves a user’s fingers exposed, the glove can come in many varieties. For example, the glove can include full finger coverage, either individually or collectively in a mitten layout. In any of those layouts, the thumb can optionally be covered or exposed. Further, in some examples the glove and attachment system can be configured to fit over a smaller glove, so that the system can be used in cold environments. This could be accomplished by, for example, sizing the glove portion larger than otherwise necessary for the user’s hand.

[0077] Other examples of the disclosure will be apparent to those skilled in the art from consideration of the specification and practice of the examples disclosed herein. Though some of the described methods have been presented as a series of steps, it should be appreciated that one or more steps can occur simultaneously, in an overlapping fashion, or in a different order. The order of steps presented are only illustrative of the possibilities and those steps can be executed or performed in any suitable fashion. Moreover, the various features of the examples described here are not mutually exclusive. Rather any feature of any example described here can be incorporated into any other suitable example. It is intended that the specification and examples be considered as exemplary only, with a true scope and spirit of the disclosure being indicated by the following claims.

[0078] As used herein, the singular forms “a”, “an”, and “the” include plural referents unless the context clearly dictates otherwise. Thus, for example, reference to a “body” includes aspects having two or more bodies unless the context clearly indicates otherwise.

[0079] Ranges can be expressed herein as from “about” one particular value, and / or to “about” another particular value. When such a range is expressed, another aspect includes from the one particular value and / or to the other particular value. Similarly, when values are expressed as approximations, by use of the antecedent “about,” it will be understood that the particular value forms another aspect. It will be further understood that the endpoints of each of the ranges are significant both in relation to the other endpoint, and independently of the other endpoint.

[0080] As used herein, the terms “optional” or “optionally” mean that the subsequently described event or circumstance may or may not occur, and that the description includes instances where said event or circumstance occurs and instances where it does not.

[0081] Although several aspects of the disclosure have been disclosed in the foregoing specification, it is understood by those skilled in the art that many modifications and other aspects of the disclosure will come to mind to which the disclosure pertains, having the benefit of the teaching presented in the foregoing description and associated drawings. It is thus understood that the disclosure is not limited to the specific aspects disclosed hereinabove, and that many modifications and other aspects are intended to be included within the scope of the appended claims. Moreover, although specific terms are employed herein, as well as in the claims that follow, they are used only in a generic and descriptive sense, and not for the purposes of limiting the described disclosure.

Examples

Embodiment Construction

[0023]Reference will now be made in detail to the present examples, including examples illustrated in the accompanying drawings.

[0024]Examples described herein include an integrated glove and attachment system configured to provide secure, adjustable retention of external items while maintaining user dexterity and hand protection. The system can combine a hand wrap glove apparatus with a removable attachment module that utilizes a rotational locking mechanism to grip items of varying dimensions. The attachment module can be magnetically coupled to the glove, enabling quick attachment and removal without permanent fastening hardware. The glove can include weather-resistant materials, grip-enhancing surfaces, and integrated storage features. The attachment module can include a spring-loaded adjustment mechanism that allows single-handed operation through a push-and-rotate actuation sequence.

[0025]The exemplary gloves described herein could be used in, during, and for several applicati...

Claims

1. An integrated glove and attachment system, comprising:a glove having a front side and a back side, the glove including a pocket positioned on the front side of the glove;an attachment module configured to be coupled to the glove, the attachment module comprises:a tube having an interior portion;an adjustment knob configured to mechanically interface with the tube and rotate with respect to the tube; andan inner sleeve within the interior portion of the tube, the inner sleeve having a first end coupled to a portion of the tube and a second end coupled to the adjustment knob, such that rotation of the adjustment knob with respect to the tube causes the inner sleeve to twist,wherein the inner sleeve is configured to mechanically engage an external item within the interior portion of the tube.

2. The integrated glove and attachment system of claim 1, wherein the pocket on the front side of the glove includes a glove magnet, and wherein the tube of the attachment module includes a corresponding attachment magnet positioned to engage the glove magnet.

3. The integrated glove and attachment system of claim 1, wherein the adjustment knob includes a spring configured to bias the adjustment knob toward an open position.

4. The integrated glove and attachment system of claim 1, wherein the adjustment knob comprises a collar configured to rotate with the adjustment knob, the collar including an interior protrusion configured to engage a detent in the tube.

5. The integrated glove and attachment system of claim 1, wherein the tube includes a cap configured to couple the first end of the inner sleeve to said portion of the tube.

6. The integrated glove and attachment system of claim 1, wherein the adjustment knob is configured to be linearly actuated and rotated in order to cause the inner sleeve to twist.

7. The integrated glove and attachment system of claim 1, further comprising a zipper pull configured to couple to at least one of the glove or attachment module and comprising a magnet within a cavity of the zipper pull.

8. A method for operating an integrated glove and attachment system, the method comprising:placing a glove on the hand of a user, wherein the glove comprises a pocket positioned on a palm side of the glove;coupling an attachment module to the glove via the pocket, wherein the attachment module comprises:a tube having an interior portion;an adjustment knob configured to mechanically interface with the tube and rotate with respect to the tube; andan inner sleeve within the interior portion of the tube, the inner sleeve having a first end coupled to a portion of the tube and a second end coupled to the adjustment knob, such that rotation of the adjustment knob with respect to the tube causes the inner sleeve to twistinserting an external item into the interior portion of the tube; andactuating the adjustment knob to cause the inner sleeve to twist to an extent sufficient to secure the external item by the inner sleeve.

9. The method of claim 8, wherein coupling an attachment module to the glove via the pocket comprises magnetically coupling a glove magnet within the pocket to an attachment magnet associated with the attachment module.

10. The method of claim 8, wherein the adjustment knob includes a spring configured to bias the adjustment knob toward an open position.

11. The method of claim 8, wherein the adjustment knob comprises a collar configured to rotate with the adjustment knob, the collar including an interior protrusion configured to engage a detent in the tube.

12. The method of claim 8, wherein the tube includes a cap configured to couple the first end of the inner sleeve to said portion of the tube.

13. The method of claim 8, wherein the adjustment knob is configured to be linearly actuated and rotated in order to cause the inner sleeve to twist.

14. The method of claim 8, wherein the external item is a zipper pull comprising a magnet within a cavity of the zipper pull.

15. An integrated glove and attachment system, comprising:a glove comprising:a pocket positioned on a palm side of the glove;a glove-side magnet positioned within the pocket;an attachment module comprising:a tube;an attachment magnet coupled to the tube and configured to magnetically couple to the glove-side magnet;an adjustment knob configured to mechanically interface with the tube and rotate with respect to the tube;an inner sleeve within an interior portion of the tube, the inner sleeve secured in the tube such that rotation of the adjustment knob with respect to the tube causes the inner sleeve to twist,wherein the inner sleeve is configured to mechanically engage an item within the interior portion of the tube based on the twisting.

16. The integrated glove and attachment system of claim 15, wherein the adjustment knob includes a spring configured to bias the adjustment knob toward an open position.

17. The integrated glove and attachment system of claim 15, wherein the adjustment knob comprises a collar configured to rotate with the adjustment knob, the collar including an interior protrusion configured to engage a detent in the tube.

18. The integrated glove and attachment system of claim 15, wherein the tube includes a cap configured to couple the first end of the inner sleeve to said portion of the tube.

19. The integrated glove and attachment system of claim 15, wherein the adjustment knob is configured to be linearly actuated and rotated in order to cause the inner sleeve to twist.

20. The integrated glove and attachment system of claim 15, further comprising a zipper pull configured to couple to at least one of the glove or attachment module and comprising a magnet within a cavity of the zipper pull.

Images