1. A gaming chair system (100) comprising: an ergonomic stile (102) joined to a seat base (104) to form lumbar support segments (106); a dynamic anti-tip unit (108) removably connected to said stile (102) via flexible joints (110), wherein said anti-tip unit (108) comprises device legs (112) attached to an upper bar (114); and fastener straps (116) linking said device legs (112) to said chair legs to maintain stability through said gaming chair system (100).

2. The gaming chair system of claim 1, wherein said ergonomic stile (102) is further equipped with adjustable pivot points operatively connected to said lumbar support segments (106), enabling dynamic modification of lumbar support angles in response to user posture changes to enhance ergonomic comfort.

3. The gaming chair system of claim 1, wherein said dynamic anti-tip unit (108) comprises telescoping device legs (112) connected to said upper bar (114) via sliding joints, allowing extension and retraction of said device legs (112) to adapt to varying chair heights and user movements, thereby maintaining optimal stability.

4. The gaming chair system of claim 1, further comprising a damping unit integrated within said flexible joints (110) connecting said dynamic anti-tip unit (108) to said ergonomic stile (102), which absorbs oscillatory forces during user shifts to reduce instability and enhance seat steadiness.

5. The gaming chair system of claim 1, wherein said fastener straps (116) are adjustable tensioners operatively connected to said device legs (112) and said chair legs through articulated clamps, allowing precise modulation of strap tension to accommodate different user weights and seating positions, thereby optimizing stability.

6. The gaming chair system of claim 1, further comprising a rotational linkage interconnecting said upper bar (114) with said ergonomic stile (102) via pivoting connectors, facilitating synchronized movement of said anti-tip unit (108) and lumbar support segments (106) to maintain balanced support during dynamic user interactions.

7. The gaming chair system of claim 1, wherein said ergonomic stile (102) is reinforced with a cross-brace structure linked to said lumbar support segments (106) through hinge joints, providing additional structural integrity and distributing mechanical stresses evenly across the chair system (100).

8. The gaming chair system of claim 1, further comprising an integrated sensor array connected to said dynamic anti-tip unit (108) and said ergonomic stile (102) via flexible conduits, which monitors user movements and automatically adjusts the position of said device legs (112) to maintain continuous stability.

9. The gaming chair system of claim 1, wherein said upper bar (114) is constructed with a multi-axis swivel unit operatively connected to said device legs (112) through articulated pivots, allowing multidirectional adjustments of the anti-tip unit (108) to respond to lateral and forward-backward user shifts.

10. The gaming chair system of claim 1, further comprising a modular attachment interface integrated with said fastener straps (116) and connected to said chair legs through adjustable hinges, enabling easy customization and reconfiguration of the anti-tip device (108) based on specific user requirements and seating environments. GAMING CHAIR SYSTEM WITH ERGONOMIC SUPPORT AND STABILITY Abstract The present disclosure discloses a gaming chair system comprising an ergonomic stile joined to a seat base to form lumbar support segments. A dynamic anti-tip unit is removably connected to said stile via flexible joints. Said anti-tip unit comprises device legs attached to an upper bar. Fastener straps link said device legs to chair legs to maintain stability through said gaming chair system. , Claims:Claims :

1. A gaming chair system (100) comprising: an ergonomic stile (102) joined to a seat base (104) to form lumbar support segments (106); a dynamic anti-tip unit (108) removably connected to said stile (102) via flexible joints (110), wherein said anti-tip unit (108) comprises device legs (112) attached to an upper bar (114); and fastener straps (116) linking said device legs (112) to said chair legs to maintain stability through said gaming chair system (100).

2. The gaming chair system of claim 1, wherein said ergonomic stile (102) is further equipped with adjustable pivot points operatively connected to said lumbar support segments (106), enabling dynamic modification of lumbar support angles in response to user posture changes to enhance ergonomic comfort.

3. The gaming chair system of claim 1, wherein said dynamic anti-tip unit (108) comprises telescoping device legs (112) connected to said upper bar (114) via sliding joints, allowing extension and retraction of said device legs (112) to adapt to varying chair heights and user movements, thereby maintaining optimal stability.

4. The gaming chair system of claim 1, further comprising a damping unit integrated within said flexible joints (110) connecting said dynamic anti-tip unit (108) to said ergonomic stile (102), which absorbs oscillatory forces during user shifts to reduce instability and enhance seat steadiness.

5. The gaming chair system of claim 1, wherein said fastener straps (116) are adjustable tensioners operatively connected to said device legs (112) and said chair legs through articulated clamps, allowing precise modulation of strap tension to accommodate different user weights and seating positions, thereby optimizing stability.

6. The gaming chair system of claim 1, further comprising a rotational linkage interconnecting said upper bar (114) with said ergonomic stile (102) via pivoting connectors, facilitating synchronized movement of said anti-tip unit (108) and lumbar support segments (106) to maintain balanced support during dynamic user interactions.

7. The gaming chair system of claim 1, wherein said ergonomic stile (102) is reinforced with a cross-brace structure linked to said lumbar support segments (106) through hinge joints, providing additional structural integrity and distributing mechanical stresses evenly across the chair system (100).

8. The gaming chair system of claim 1, further comprising an integrated sensor array connected to said dynamic anti-tip unit (108) and said ergonomic stile (102) via flexible conduits, which monitors user movements and automatically adjusts the position of said device legs (112) to maintain continuous stability.

9. The gaming chair system of claim 1, wherein said upper bar (114) is constructed with a multi-axis swivel unit operatively connected to said device legs (112) through articulated pivots, allowing multidirectional adjustments of the anti-tip unit (108) to respond to lateral and forward-backward user shifts.

10. The gaming chair system of claim 1, further comprising a modular attachment interface integrated with said fastener straps (116) and connected to said chair legs through adjustable hinges, enabling easy customization and reconfiguration of the anti-tip device (108) based on specific user requirements and seating environments.

Description:

GAMING CHAIR SYSTEM WITH ERGONOMIC SUPPORT AND STABILITY
Field of the Invention
[0001] The present disclosure generally relates to seating systems. Further, the present disclosure particularly relates to a gaming chair system providing ergonomic support and enhanced stability.
Background
[0002] The background description includes information that may be useful in understanding the present invention. It is not an admission that any of the information provided herein is prior art or relevant to the presently claimed invention, or that any publication specifically or implicitly referenced is prior art.
[0003] Seating systems have been widely used across various applications, including office environments, vehicle interiors, and recreational setups. Further, seating systems used in gaming setups have gained prominence due to the increased demand for extended usage comfort and ergonomic support. Moreover, such seating systems are designed to provide enhanced support to users engaged in prolonged usage. Various seating systems incorporate adjustable backrests, armrests, and lumbar support structures to improve comfort. However, conventional seating systems are frequently associated with drawbacks related to stability and posture maintenance.
[0004] One commonly known seating system incorporates a fixed backrest with a reclining mechanism. Such a seating system provides limited lumbar support, leading to improper posture over prolonged durations. Moreover, reclining mechanisms integrated into such seating systems are generally prone to instability due to the shifting weight distribution during user movements. Further, such seating systems frequently lack additional stability structures, leading to an increased risk of tipping over when sudden movements are performed. Additionally, conventional seating systems with reclining mechanisms often introduce difficulties in adjusting support levels, which results in discomfort for users requiring customized support settings.
[0005] Another known seating system comprises a frame structure with an attached cushioning arrangement. Such a seating system provides a static seating posture without any lumbar support adjustments. Furthermore, such a seating system generally lacks provisions to restrict sudden tipping movements, resulting in potential instability. Moreover, such a seating system does not incorporate structural reinforcements to counterbalance shifting weight distributions during usage. Additionally, reliance on static cushioning arrangements leads to limited adaptability for different users, contributing to discomfort during extended use.
[0006] Further, various other seating systems incorporate stability-enhancing structures, such as widened base supports or extended leg attachments. However, such seating systems frequently introduce bulkier designs, making mobility and usability cumbersome. Moreover, additional stability structures in such seating systems generally compromise ergonomic positioning, leading to an imbalance between support and comfort. Furthermore, various existing seating systems that integrate lumbar support mechanisms rely on rigid structures, restricting dynamic posture adjustments. Additionally, such seating systems often require complex assembly procedures, limiting accessibility for users seeking easily installable seating solutions.
[0007] In light of the above discussion, there exists an urgent need for solutions that overcome the problems associated with conventional systems and/or techniques for providing enhanced ergonomic support and stability in seating systems.
Summary
[0008] The following presents a simplified summary of various aspects of this disclosure in order to provide a basic understanding of such aspects. This summary is not an extensive overview of all contemplated aspects, and is intended to neither identify key or critical elements nor delineate the scope of such aspects. Its purpose is to present some concepts of this disclosure in a simplified form as a prelude to the more detailed description that is presented later.
[0009] The following paragraphs provide additional support for the claims of the subject application.
[00010] An objective of the present disclosure is to provide a gaming chair system capable of offering enhanced ergonomic support and stability while accommodating dynamic user movements. The system aims to address posture-related discomfort and instability issues associated with conventional seating solutions.
[00011] In an aspect, the present disclosure provides a gaming chair system comprising an ergonomic stile joined to a seat base to form lumbar support segments. A dynamic anti-tip unit is removably connected to said stile via flexible joints. Said anti-tip unit comprises device legs attached to an upper bar. Fastener straps link said device legs to chair legs to maintain stability through said gaming chair system.
[00012] Furthermore, said ergonomic stile comprises adjustable pivot points operatively connected to said lumbar support segments to enable dynamic modification of lumbar support angles in response to user posture changes, thereby enhancing ergonomic comfort. Moreover, said dynamic anti-tip unit comprises telescoping device legs connected to said upper bar via sliding joints, allowing extension and retraction of said device legs to adapt to varying chair heights and user movements, thereby maintaining optimal stability. Additionally, a damping unit is integrated within said flexible joints connecting said dynamic anti-tip unit to said ergonomic stile, wherein said damping unit absorbs oscillatory forces during user shifts to reduce instability and enhance seat steadiness.
[00013] Further, said fastener straps comprise adjustable tensioners operatively connected to said device legs and said chair legs through articulated clamps, allowing precise modulation of strap tension to accommodate different user weights and seating positions, thereby optimizing stability. Additionally, a rotational linkage interconnects said upper bar with said ergonomic stile via pivoting connectors, facilitating synchronized movement of said anti-tip unit and lumbar support segments to maintain balanced support during dynamic user interactions. Moreover, said ergonomic stile is reinforced with a cross-brace structure linked to said lumbar support segments through hinge joints, providing additional structural integrity and distributing mechanical stresses evenly across said gaming chair system.
[00014] Furthermore, an integrated sensor array is connected to said dynamic anti-tip unit and said ergonomic stile via flexible conduits, wherein said sensor array monitors user movements and automatically adjusts the position of said device legs to maintain continuous stability. Additionally, said upper bar comprises a multi-axis swivel unit operatively connected to said device legs through articulated pivots, allowing multidirectional adjustments of said anti-tip unit to respond to lateral and forward-backward user shifts. Moreover, a modular attachment interface is integrated with said fastener straps and connected to said chair legs through adjustable hinges, enabling easy customization and reconfiguration of said anti-tip unit based on specific user requirements and seating environments.
Brief Description of the Drawings
[00015] The features and advantages of the present disclosure would be more clearly understood from the following description taken in conjunction with the accompanying drawings in which:
[00016] FIG. 1 illustrates a gaming chair system (100), in accordance with the embodiments of the present disclosure.
[00017] FIG. 2 illustrates a flow diagram of the gaming chair system 100, for ergonomic support and stability, in accordance with the embodiments of the present disclosure.
Detailed Description
[00018] In the following detailed description of the invention, reference is made to the accompanying drawings that form a part hereof, and in which is shown, by way of illustration, specific embodiments in which the invention may be practiced. In the drawings, like numerals describe substantially similar components throughout the several views. These embodiments are described in sufficient detail to claim those skilled in the art to practice the invention. Other embodiments may be utilized and structural, logical, and electrical changes may be made without departing from the scope of the present invention. The following detailed description is, therefore, not to be taken in a limiting sense, and the scope of the present invention is defined only by the appended claims and equivalents thereof.
[00019] The use of the terms “a” and “an” and “the” and “at least one” and similar referents in the context of describing the invention (especially in the context of the following claims) are to be construed to cover both the singular and the plural, unless otherwise indicated herein or clearly contradicted by context. The use of the term “at least one” followed by a list of one or more items (for example, “at least one of A and B”) is to be construed to mean one item selected from the listed items (A or B) or any combination of two or more of the listed items (A and B), unless otherwise indicated herein or clearly contradicted by context. The terms “comprising,” “having,” “including,” and “containing” are to be construed as open-ended terms (i.e., meaning “including, but not limited to,”) unless otherwise noted. Recitation of ranges of values herein are merely intended to serve as a shorthand method of referring individually to each separate value falling within the range, unless otherwise indicated herein, and each separate value is incorporated into the specification as if it were individually recited herein. All methods described herein can be performed in any suitable order unless otherwise indicated herein or otherwise clearly contradicted by context. The use of any and all examples, or exemplary language (e.g., “such as”) provided herein, is intended merely to better illuminate the invention and does not pose a limitation on the scope of the invention unless otherwise claimed. No language in the specification should be construed as indicating any non-claimed element as essential to the practice of the invention.
[00020] Pursuant to the "Detailed Description" section herein, whenever an element is explicitly associated with a specific numeral for the first time, such association shall be deemed consistent and applicable throughout the entirety of the "Detailed Description" section, unless otherwise expressly stated or contradicted by the context.
[00021] As used herein, the term gaming chair system is used to refer to any seating system adapted for use in gaming environments, including seating systems providing ergonomic support and stability enhancements. Such a gaming chair system may incorporate structural reinforcements to maintain user posture over extended durations. Additionally, such a gaming chair system may be utilized in various environments including home gaming setups, professional esports arenas, and entertainment centers. Further, such a gaming chair system may include components facilitating user comfort through lumbar support structures, reclining mechanisms, and adjustable features. Additionally, such a gaming chair system may be constructed from materials including metal frames, polymer reinforcements, cushioned seat bases, and fabric or leather upholstery. Moreover, such a gaming chair system may be adaptable for integration with peripheral accessories including footrests, armrests, and headrests. Furthermore, such a gaming chair system may incorporate stability mechanisms to prevent tipping during dynamic user movements.
[00022] As used herein, the term ergonomic stile is used to refer to a structural frame member adapted to provide lumbar support in seating systems. Such an ergonomic stile may be joined to other structural components to define a support framework. Additionally, such an ergonomic stile may be formed from materials including metal alloys, reinforced polymers, or composite materials to provide strength and durability. Further, such an ergonomic stile may incorporate curvature and contouring to align with the natural curvature of a user’s spine. Additionally, such an ergonomic stile may facilitate controlled flexing or adjustability to accommodate different seating postures. Moreover, such an ergonomic stile may be integrated with additional reinforcements to distribute mechanical stresses effectively. Furthermore, such an ergonomic stile may serve as a primary support element in a seating system, maintaining back support while enabling stability.
[00023] As used herein, the term seat base is used to refer to a lower structural component supporting a user’s weight in a seating system. Such a seat base may be constructed from rigid materials including metal, reinforced plastic, or composite materials to provide structural integrity. Additionally, such a seat base may incorporate cushioning layers comprising foam, gel, or other padding materials to enhance comfort. Further, such a seat base may be designed to accommodate different user body types by incorporating width and depth variations. Moreover, such a seat base may integrate attachment points for additional components including armrests, lumbar supports, and stability mechanisms. Additionally, such a seat base may be adapted to interface with a support frame to maintain overall structural balance. Furthermore, such a seat base may incorporate surface treatments or ergonomic shaping to enhance prolonged sitting comfort.
[00024] As used herein, the term lumbar support segments is used to refer to structural components incorporated within a seating system to provide support to the lower back region. Such lumbar support segments may be constructed from materials including flexible polymers, memory foam, or reinforced cushioning to accommodate varying pressure distributions. Additionally, such lumbar support segments may be integrated with adjustable mechanisms to modify support angles and pressure levels based on user preferences. Further, such lumbar support segments may be contoured to align with the natural curvature of the lumbar spine to promote proper posture. Moreover, such lumbar support segments may be joined to structural elements of a seating system to maintain stability during prolonged usage. Additionally, such lumbar support segments may be designed to absorb and distribute mechanical forces, reducing stress on the lower back region. Furthermore, such lumbar support segments may provide additional reinforcement to enhance seating system durability and longevity.
[00025] As used herein, the term dynamic anti-tip unit is used to refer to a structural assembly integrated into a seating system to provide stability against tipping or imbalance. Such a dynamic anti-tip unit may include components adapted to distribute weight evenly and restrict sudden tipping movements. Additionally, such a dynamic anti-tip unit may be constructed from durable materials including metal, reinforced plastic, or composite materials to ensure strength and rigidity. Further, such a dynamic anti-tip unit may be removably connected to a seating system to allow reconfiguration or replacement as required. Moreover, such a dynamic anti-tip unit may incorporate flexible or adjustable elements to accommodate different seating environments and user weight distributions. Additionally, such a dynamic anti-tip unit may integrate mechanisms allowing movement adjustments in response to shifting user postures. Furthermore, such a dynamic anti-tip unit may enhance overall stability by counteracting unintended lateral or forward-backward tilting forces.
[00026] As used herein, the term flexible joints is used to refer to mechanical linkages facilitating controlled movement between interconnected components within a seating system. Such flexible joints may be formed from resilient materials including elastomers, rubberized compounds, or flexible metallic elements to enable limited motion. Additionally, such flexible joints may allow for rotational or angular displacement to accommodate dynamic user movements without compromising stability. Further, such flexible joints may be operatively connected to structural components to absorb oscillatory forces and minimize abrupt shifts. Moreover, such flexible joints may be designed to enable smooth motion transitions between interconnected elements within a seating system. Additionally, such flexible joints may contribute to structural flexibility, allowing controlled movement without excessive rigidity. Furthermore, such flexible joints may provide impact absorption capabilities to reduce mechanical stress on interconnected seating components during usage.
[00027] As used herein, the term device legs is used to refer to structural extensions forming part of a stability mechanism in a seating system. Such device legs may be adapted to extend from a support structure to maintain contact with the ground surface. Additionally, such device legs may be constructed from rigid materials including metal alloys, reinforced polymers, or composite materials to provide structural integrity. Further, such device legs may be joined to other stability-enhancing components to reinforce balance and prevent unintended movement. Moreover, such device legs may incorporate telescoping or adjustable elements to accommodate variations in seating height and floor surface conditions. Additionally, such device legs may interface with fastening or anchoring components to maintain a secure position during usage. Furthermore, such device legs may be designed to resist deformation or structural fatigue over extended durations of operation.
[00028] As used herein, the term upper bar is used to refer to a horizontal structural element interconnecting stability-enhancing components within a seating system. Such an upper bar may be constructed from metal, reinforced polymer, or composite material to provide durability and strength. Additionally, such an upper bar may serve as a mounting point for additional structural reinforcements within a stability mechanism. Further, such an upper bar may be integrated with pivoting or articulated connectors to facilitate controlled movement between interconnected elements. Moreover, such an upper bar may be adapted to distribute mechanical forces evenly across linked components to maintain structural balance. Additionally, such an upper bar may interface with adjustable mechanisms enabling modifications in response to dynamic user movements. Furthermore, such an upper bar may be shaped or contoured to align with the design and functionality of interconnected seating components.
[00029] As used herein, the term fastener straps is used to refer to adjustable securing components used to link structural elements within a seating system. Such fastener straps may be constructed from high-strength materials including woven fabric, reinforced polymer, or composite fibers to provide durability. Additionally, such fastener straps may be operatively connected to stability-enhancing components to maintain a secure connection between interconnected elements. Further, such fastener straps may incorporate adjustable tensioning mechanisms to accommodate different user weights and seating configurations. Moreover, such fastener straps may be joined to anchoring components using articulated clamps, buckles, or hook-and-loop fastening mechanisms. Additionally, such fastener straps may be designed to distribute mechanical forces evenly to prevent excessive strain on interconnected elements. Furthermore, such fastener straps may provide additional reinforcement to maintain overall system stability during dynamic user interactions.
[00030] As used herein, the term chair legs is used to refer to structural support extensions forming part of a seating system base. Such chair legs may be constructed from materials including metal, reinforced polymer, or composite materials to provide strength and durability. Additionally, such chair legs may be positioned to maintain balance and prevent tipping during usage. Further, such chair legs may incorporate mounting points for additional reinforcements, including fastener straps and stability mechanisms. Moreover, such chair legs may be shaped or contoured to accommodate different flooring surfaces while maintaining structural integrity. Additionally, such chair legs may interface with load-distribution components to optimize weight-bearing capacity. Furthermore, such chair legs may incorporate structural reinforcements to prevent excessive flexing or deformation under user weight loads.
[00031] FIG. 1 illustrates a gaming chair system (100), in accordance with the embodiments of the present disclosure. In an embodiment, an ergonomic stile 102 is joined to a seat base 104 to form lumbar support segments 106. Said ergonomic stile 102 comprises a structural framework providing support to a backrest portion of a gaming chair system 100. Said ergonomic stile 102 is constructed from materials including metal alloys, reinforced polymers, or composite materials to provide structural rigidity and durability. Said ergonomic stile 102 extends vertically from a rear section of said seat base 104 and is contoured to align with a user’s

spinal curvature. Said ergonomic stile 102 incorporates an internal reinforcement structure to distribute weight loads evenly, thereby maintaining stability during extended use. Said ergonomic stile 102 is joined to said seat base 104 through mechanical fasteners, adhesive bonding, or welded connections, depending on material composition. Said lumbar support segments 106 are formed as an integral part of said ergonomic stile 102 and are contoured to provide additional reinforcement to a user’s lower back region. Said lumbar support segments 106 are adapted to flex in response to applied pressure, allowing said gaming chair system 100 to accommodate different user postures. Said lumbar support segments 106 are further integrated with optional padding or cushioning to enhance comfort. Said lumbar support segments 106 include multiple sections joined by flexible hinges, enabling controlled movement while maintaining structural integrity. Said ergonomic stile 102 further includes attachment points for additional support elements, including armrests, headrests, or stability mechanisms. Said ergonomic stile 102 is treated with coatings or surface finishes to enhance resistance against environmental factors, including moisture, dust, and mechanical wear.
[00032] In an embodiment, a dynamic anti-tip unit 108 is removably connected to said ergonomic stile 102 via flexible joints 110. Said dynamic anti-tip unit 108 is adapted to provide stability by counteracting unintended tilting forces experienced during user movements. Said dynamic anti-tip unit 108 comprises device legs 112 attached to an upper bar 114 to form a structural support assembly. Said device legs 112 extend downward to engage a floor surface, thereby preventing excessive tipping. Said device legs 112 are constructed from rigid materials including metal, reinforced plastic, or composite structures to provide durability. Said device legs 112 incorporate adjustable length settings to accommodate different chair heights and floor surfaces. Said upper bar 114 extends horizontally across said dynamic anti-tip unit 108, interconnecting said device legs 112 to maintain structural stability. Said upper bar 114 is joined to said device legs 112 through mechanical fasteners or welded connections. Said upper bar 114 is further reinforced with additional support elements to prevent flexing under load. Said flexible joints 110 provide controlled movement between said dynamic anti-tip unit 108 and said ergonomic stile 102, enabling said dynamic anti-tip unit 108 to adjust in response to user weight shifts. Said flexible joints 110 are formed from resilient materials, including elastomers or reinforced hinges, to facilitate limited movement without compromising stability. Said dynamic anti-tip unit 108 is removably secured to said ergonomic stile 102 through locking mechanisms, including latches, clamps, or threaded fasteners, allowing installation or removal based on user requirements.
[00033] In an embodiment, fastener straps 116 are used to link said device legs 112 to chair legs of said gaming chair system 100 to maintain stability. Said fastener straps 116 are constructed from high-strength woven fabric, reinforced polymer, or composite fibers to provide durability and load-bearing capacity. Said fastener straps 116 are positioned to secure said device legs 112 against lateral or forward-backward movement during dynamic user interactions. Said fastener straps 116 are joined to said device legs 112 and said chair legs through articulated clamps, buckles, or hook-and-loop fastening mechanisms. Said fastener straps 116 incorporate adjustable tensioning mechanisms allowing users to modify strap tension based on weight distribution and seating preferences. Said fastener straps 116 further include reinforced stitching or integrated reinforcements to prevent fraying or mechanical failure over extended use. Said fastener straps 116 are positioned to maintain a secure connection between said device legs 112 and said chair legs, ensuring continued stability. Said fastener straps 116 may be interchangeable or replaceable to accommodate different user preferences or operational requirements. Said fastener straps 116 are further integrated with optional cushioning or padding to minimize pressure points and prevent excessive wear on contact surfaces. Said fastener straps 116 provide structural reinforcement to maintain stability and prevent unintended shifting of said gaming chair system 100.
[00034] In an embodiment, an ergonomic stile 102 is further equipped with adjustable pivot points operatively connected to lumbar support segments 106, enabling dynamic modification of lumbar support angles in response to user posture changes. Said adjustable pivot points are positioned along a vertical axis of ergonomic stile 102 to provide controlled movement of lumbar support segments 106. Said adjustable pivot points comprise mechanical linkages allowing angular displacement of lumbar support segments 106 to accommodate different seating positions. Said adjustable pivot points are constructed from reinforced metal or polymer-based materials to provide structural durability while maintaining flexibility for controlled movement. Said adjustable pivot points are integrated with locking mechanisms, including friction-based clamps or ratchet systems, to maintain selected lumbar support angles during prolonged use. Said adjustable pivot points facilitate incremental adjustments, allowing users to modify lumbar support angles based on comfort preferences. Said adjustable pivot points further enable automatic repositioning of lumbar support segments 106 in response to weight shifts or seated movement, preventing excessive pressure on specific areas of the spine. Said adjustable pivot points may be supplemented with damping elements to regulate movement resistance and prevent sudden shifts in lumbar support positioning. Said adjustable pivot points are securely affixed to ergonomic stile 102 using mechanical fasteners or integrated hinge joints to ensure stability while allowing smooth articulation of lumbar support segments 106.
[00035] In an embodiment, a dynamic anti-tip unit 108 comprises telescoping device legs 112 connected to an upper bar 114 via sliding joints, allowing extension and retraction of device legs 112 to adapt to varying chair heights and user movements. Said telescoping device legs 112 consist of multiple interlocking sections, each capable of axial displacement to modify length based on stability requirements. Said telescoping device legs 112 are constructed from rigid materials, including aluminum, steel, or reinforced polymers, to provide structural reinforcement while maintaining lightweight properties. Said telescoping device legs 112 are operatively connected to an upper bar 114 through sliding joints enabling smooth extension or retraction without abrupt resistance. Said sliding joints incorporate guide rails or low-friction bushings to facilitate controlled movement of telescoping device legs 112. Said sliding joints further include locking mechanisms to secure extended or retracted positions of device legs 112, preventing unintentional collapse during user movement. Said telescoping device legs 112 accommodate variations in chair height by adjusting extension levels based on floor surface conditions. Said telescoping device legs 112 integrate structural reinforcements at junctions to distribute mechanical stress evenly across extended sections, preventing material fatigue. Said telescoping device legs 112 are further integrated with base contact elements, including rubberized or textured feet, to provide grip and prevent unwanted slippage on different flooring surfaces.
[00036] In an embodiment, a damping unit is integrated within flexible joints 110 connecting a dynamic anti-tip unit 108 to an ergonomic stile 102, absorbing oscillatory forces during user shifts to reduce instability and enhance seat steadiness. Said damping unit comprises energy-absorbing elements, including viscoelastic materials, hydraulic cylinders, or spring-based mechanisms, to counteract sudden weight shifts or external forces. Said damping unit is positioned at the interface between flexible joints 110 and ergonomic stile 102 to regulate movement of dynamic anti-tip unit 108. Said damping unit is constructed to operate bidirectionally, allowing controlled displacement of dynamic anti-tip unit 108 while preventing excessive motion. Said damping unit incorporates adjustable resistance settings, enabling modification of damping intensity based on user weight and movement tendencies. Said damping unit is securely housed within flexible joints 110 to prevent exposure to external debris or mechanical interference. Said damping unit further integrates temperature-resistant materials to maintain consistent damping performance across varying environmental conditions.
[00037] In an embodiment, fastener straps 116 are adjustable tensioners operatively connected to device legs 112 and chair legs through articulated clamps, allowing precise modulation of strap tension to accommodate different user weights and seating positions. Said fastener straps 116 are formed from high-tensile woven fabric, polymer-reinforced fibers, or composite materials to provide load-bearing capabilities. Said fastener straps 116 incorporate an adjustable tensioning mechanism, including ratcheting buckles, hook-and-loop fasteners, or cord-based cinching systems, enabling controlled strap length adjustments. Said fastener straps 116 are secured to device legs 112 and chair legs using articulated clamps, which provide rotational flexibility to maintain uniform tension distribution. Said articulated clamps are designed with pivoting joints, enabling movement to align with dynamic user interactions while preventing excessive strap slackening. Said fastener straps 116 further incorporate reinforced stitching or secondary fastening layers to prevent material degradation over prolonged usage. Said fastener straps 116 provide resistance against lateral and forward-backward shifting of device legs 112, preventing undesired movement of dynamic anti-tip unit 108.
[00038] In an embodiment, a rotational linkage interconnects an upper bar 114 with an ergonomic stile 102 via pivoting connectors, facilitating synchronized movement of a dynamic anti-tip unit 108 and lumbar support segments 106 to maintain balanced support during dynamic user interactions. Said rotational linkage comprises pivoting arms or articulated levers allowing controlled rotational motion between an upper bar 114 and ergonomic stile 102. Said pivoting connectors incorporate low-friction bearings or lubricated bushings to enable smooth articulation without excessive resistance. Said rotational linkage ensures that movements affecting dynamic anti-tip unit 108 translate proportionally to lumbar support segments 106, maintaining consistent spinal support regardless of user position changes. Said rotational linkage integrates locking mechanisms to restrict excessive rotational movement when required, preventing instability due to overextension. Said pivoting connectors are reinforced with structural ribs or secondary linkages to provide additional strength and prevent premature wear.
[00039] In an embodiment, an ergonomic stile 102 is reinforced with a cross-brace structure linked to lumbar support segments 106 through hinge joints, providing additional structural integrity and distributing mechanical stresses evenly across a gaming chair system 100. Said cross-brace structure comprises one or more horizontal or diagonal reinforcing bars connected across ergonomic stile 102 to enhance stability. Said cross-brace structure is constructed from high-strength materials, including aluminum, steel, or composite reinforcements, to provide long-term durability. Said hinge joints facilitate movement of lumbar support segments 106 without compromising reinforcement provided by a cross-brace structure. Said cross-brace structure prevents excessive flexing or warping of ergonomic stile 102 under load conditions.
[00040] In an embodiment, an integrated sensor array is connected to a dynamic anti-tip unit 108 and an ergonomic stile 102 via flexible conduits, monitoring user movements and automatically adjusting the position of device legs 112 to maintain continuous stability. Said sensor array comprises pressure sensors, gyroscopic motion detectors, or infrared proximity sensors detecting shifts in user posture. Said sensor array transmits real-time data to an actuator mechanism, which modulates extension or retraction of device legs 112 accordingly. Said flexible conduits house electrical wiring, preventing exposure to external damage.
[00041] In an embodiment, an upper bar 114 is constructed with a multi-axis swivel unit operatively connected to device legs 112 through articulated pivots, allowing multidirectional adjustments of a dynamic anti-tip unit 108 to respond to lateral and forward-backward user shifts. Said multi-axis swivel unit enables rotational movement along multiple planes, ensuring dynamic anti-tip unit 108 remains balanced in response to user weight shifts. Said articulated pivots incorporate reinforced bearings or bushings to prevent excessive wear.
[00042] In an embodiment, a modular attachment interface is integrated with fastener straps 116 and connected to chair legs through adjustable hinges, enabling easy customization and reconfiguration of an anti-tip device 108 based on specific user requirements and seating environments. Said modular attachment interface allows repositioning of fastener straps 116 without requiring permanent modifications. Said adjustable hinges provide flexibility for different installation configurations. Said modular attachment interface further incorporates quick-release mechanisms to facilitate attachment and removal as needed.
[00043] FIG. 2 illustrates a flow diagram of the gaming chair system 100, for ergonomic support and stability, in accordance with the embodiments of the present disclosure. An ergonomic stile 102 is joined to a seat base 104, forming lumbar support segments 106 that provide structural reinforcement to the backrest. A dynamic anti-tip unit 108 is removably connected to said ergonomic stile 102 via flexible joints 110, allowing controlled movement and impact absorption. Said dynamic anti-tip unit 108 comprises device legs 112 attached to an upper bar 114, ensuring weight distribution and structural balance. Fastener straps 116 link said device legs 112 to chair legs, preventing excessive tilting by stabilizing lateral and forward-backward movements. Said ergonomic stile 102, lumbar support segments 106, and dynamic anti-tip unit 108 work collectively to maintain user posture while minimizing instability. Said fastener straps 116 secure said dynamic anti-tip unit 108, reinforcing connection points between device legs 112 and chair legs to prevent shifting during movement.
[00044] In an embodiment, a gaming chair system 100 includes an ergonomic stile 102 joined to a seat base 104 to form lumbar support segments 106, improving user posture by providing structural reinforcement to the backrest area. Said ergonomic stile 102 stabilizes the seating position and distributes mechanical loads efficiently. A dynamic anti-tip unit 108 is removably connected to said ergonomic stile 102 via flexible joints 110, enabling controlled movement and impact absorption during user shifts. Said dynamic anti-tip unit 108 comprises device legs 112 attached to an upper bar 114, extending outward to counteract tilting forces and maintain balance. Fastener straps 116 link said device legs 112 to chair legs, reinforcing structural support and stabilizing said gaming chair system 100 by mitigating lateral and forward-backward movement.
[00045] In an embodiment, said ergonomic stile 102 includes adjustable pivot points operatively connected to lumbar support segments 106, allowing dynamic modification of lumbar support angles in response to user posture changes. Said adjustable pivot points enable targeted support by accommodating different spinal curvatures. Said ergonomic stile 102 allows lumbar support segments 106 to flex based on applied user pressure, reducing strain on the lower back. Said adjustable pivot points incorporate resistance mechanisms, preventing abrupt movements and allowing smooth angular adjustments. Said ergonomic stile 102 enhances adaptability for different seating preferences while maintaining stability.
[00046] In an embodiment, said dynamic anti-tip unit 108 comprises telescoping device legs 112 connected to an upper bar 114 via sliding joints, facilitating extension and retraction to accommodate varying chair heights and user movements. Said telescoping device legs 112 dynamically adjust length, stabilizing said gaming chair system 100 on different floor surfaces. Said sliding joints provide controlled motion, enabling device legs 112 to reposition without sudden shifts. Said upper bar 114 distributes weight evenly across device legs 112, preventing structural imbalance.
[00047] In an embodiment, a damping unit is integrated within flexible joints 110 connecting said dynamic anti-tip unit 108 to said ergonomic stile 102. Said damping unit absorbs oscillatory forces generated by user shifts, preventing excessive movement and minimizing instability. Said damping unit incorporates resilient materials that compress and expand to dissipate applied forces gradually. Said damping unit reduces unwanted vibrations in said gaming chair system 100, preventing disruptive motion during extended use.
[00048] In an embodiment, fastener straps 116 include adjustable tensioners operatively connected to said device legs 112 and chair legs via articulated clamps. Said adjustable tensioners allow fine-tuned strap tension modulation based on user weight and seating position. Said articulated clamps provide secure attachment points, reducing the risk of strap slippage. Said fastener straps 116 prevent excessive device leg 112 movement by stabilizing said gaming chair system 100 across different surfaces and weight distributions.
[00049] In an embodiment, a rotational linkage interconnects said upper bar 114 with said ergonomic stile 102 via pivoting connectors, facilitating synchronized movement of said dynamic anti-tip unit 108 and lumbar support segments 106. Said rotational linkage enables coordinated motion between support structures, preventing conflicting forces from destabilizing said gaming chair system 100. Said pivoting connectors allow gradual adjustments to user movements without introducing abrupt shifts. Said rotational linkage distributes mechanical stress evenly across interconnected elements, enhancing durability.
[00050] In an embodiment, said ergonomic stile 102 is reinforced with a cross-brace structure linked to lumbar support segments 106 through hinge joints. Said cross-brace structure provides additional support, preventing excessive flexing or deformation under applied loads. Said hinge joints facilitate limited movement, allowing lumbar support segments 106 to adjust dynamically while maintaining overall rigidity. Said cross-brace structure prevents localized stress accumulation by distributing forces evenly across said ergonomic stile 102.
[00051] In an embodiment, an integrated sensor array is connected to said dynamic anti-tip unit 108 and said ergonomic stile 102 via flexible conduits. Said sensor array monitors user movements in real time, allowing automatic adjustments to device leg 112 positioning based on detected shifts. Said flexible conduits provide signal transmission pathways without restricting movement of said dynamic anti-tip unit 108. Said sensor array enhances system responsiveness by detecting instability patterns and counteracting them through real-time structural modifications.
[00052] In an embodiment, said upper bar 114 includes a multi-axis swivel unit operatively connected to said device legs 112 through articulated pivots. Said multi-axis swivel unit allows multidirectional adjustments of said dynamic anti-tip unit 108, preventing excessive tilting forces in multiple directions. Said articulated pivots provide controlled rotation, enabling device legs 112 to respond dynamically to lateral and forward-backward movements. Said upper bar 114 maintains alignment during movement adjustments, ensuring continuous stabilization.
[00053] In an embodiment, a modular attachment interface is integrated with fastener straps 116 and connected to chair legs via adjustable hinges. Said modular attachment interface allows reconfiguration of said dynamic anti-tip unit 108 based on user requirements and seating environments. Said adjustable hinges provide flexibility in attachment positioning, ensuring compatibility with different chair leg structures. Said modular attachment interface facilitates interchangeability, allowing modifications without requiring permanent structural changes.
[00054]
[00055] Example embodiments herein have been described above with reference to block diagrams and flowchart illustrations of methods and apparatuses. It will be understood that each block of the block diagrams and flowchart illustrations, and combinations of blocks in the block diagrams and flowchart illustrations, respectively, can be implemented by various means including hardware, software, firmware, and a combination thereof. For example, in one embodiment, each block of the block diagrams and flowchart illustrations, and combinations of blocks in the block diagrams and flowchart illustrations can be implemented by computer program instructions. These computer program instructions may be loaded onto a general purpose computer, special purpose computer, or other programmable data processing apparatus to produce a machine, such that the instructions which execute on the computer or other programmable data processing apparatus create means for implementing the functions specified in the flowchart block or blocks.
[00056] Operations in accordance with a variety of aspects of the disclosure is described above would not have to be performed in the precise order described. Rather, various steps can be handled in reverse order or simultaneously or not at all.
[00057] While several implementations have been described and illustrated herein, a variety of other means and/or structures for performing the function and/or obtaining the results and/or one or more of the advantages described herein may be utilized, and each of such variations and/or modifications is deemed to be within the scope of the implementations described herein. More generally, all parameters, dimensions, materials, and configurations described herein are meant to be exemplary and that the actual parameters, dimensions, materials, and/or configurations will depend upon the specific application or applications for which the teachings is/are used. Those skilled in the art will recognize, or be able to ascertain using no more than routine experimentation, many equivalents to the specific implementations described herein. It is, therefore, to be understood that the foregoing implementations are presented by way of example only and that, within the scope of the appended claims and equivalents thereto, implementations may be practiced otherwise than as specifically described and claimed. Implementations of the present disclosure are directed to each individual feature, system, article, material, kit, and/or method described herein. In addition, any combination of two or more such features, systems, articles, materials, kits, and/or methods, if such features, systems, articles, materials, kits, and/or methods are not mutually inconsistent, is included within the scope of the present disclosure.

Claims
I/We Claim:
1. A gaming chair system (100) comprising:
an ergonomic stile (102) joined to a seat base (104) to form lumbar support segments (106);
a dynamic anti-tip unit (108) removably connected to said stile (102) via flexible joints (110), wherein said anti-tip unit (108) comprises device legs (112) attached to an upper bar (114);
and fastener straps (116) linking said device legs (112) to said chair legs to maintain stability through said gaming chair system (100).
2. The gaming chair system of claim 1, wherein said ergonomic stile (102) is further equipped with adjustable pivot points operatively connected to said lumbar support segments (106), enabling dynamic modification of lumbar support angles in response to user posture changes to enhance ergonomic comfort.
3. The gaming chair system of claim 1, wherein said dynamic anti-tip unit (108) comprises telescoping device legs (112) connected to said upper bar (114) via sliding joints, allowing extension and retraction of said device legs (112) to adapt to varying chair heights and user movements, thereby maintaining optimal stability.
4. The gaming chair system of claim 1, further comprising a damping unit integrated within said flexible joints (110) connecting said dynamic anti-tip unit (108) to said ergonomic stile (102), which absorbs oscillatory forces during user shifts to reduce instability and enhance seat steadiness.
5. The gaming chair system of claim 1, wherein said fastener straps (116) are adjustable tensioners operatively connected to said device legs (112) and said chair legs through articulated clamps, allowing precise modulation of strap tension to accommodate different user weights and seating positions, thereby optimizing stability.
6. The gaming chair system of claim 1, further comprising a rotational linkage interconnecting said upper bar (114) with said ergonomic stile (102) via pivoting connectors, facilitating synchronized movement of said anti-tip unit (108) and lumbar support segments (106) to maintain balanced support during dynamic user interactions.
7. The gaming chair system of claim 1, wherein said ergonomic stile (102) is reinforced with a cross-brace structure linked to said lumbar support segments (106) through hinge joints, providing additional structural integrity and distributing mechanical stresses evenly across the chair system (100).
8. The gaming chair system of claim 1, further comprising an integrated sensor array connected to said dynamic anti-tip unit (108) and said ergonomic stile (102) via flexible conduits, which monitors user movements and automatically adjusts the position of said device legs (112) to maintain continuous stability.
9. The gaming chair system of claim 1, wherein said upper bar (114) is constructed with a multi-axis swivel unit operatively connected to said device legs (112) through articulated pivots, allowing multidirectional adjustments of the anti-tip unit (108) to respond to lateral and forward-backward user shifts.
10. The gaming chair system of claim 1, further comprising a modular attachment interface integrated with said fastener straps (116) and connected to said chair legs through adjustable hinges, enabling easy customization and reconfiguration of the anti-tip device (108) based on specific user requirements and seating environments.

GAMING CHAIR SYSTEM WITH ERGONOMIC SUPPORT AND STABILITY
Abstract
The present disclosure discloses a gaming chair system comprising an ergonomic stile joined to a seat base to form lumbar support segments. A dynamic anti-tip unit is removably connected to said stile via flexible joints. Said anti-tip unit comprises device legs attached to an upper bar. Fastener straps link said device legs to chair legs to maintain stability through said gaming chair system.
, Claims:Claims
I/We Claim:
1. A gaming chair system (100) comprising:
an ergonomic stile (102) joined to a seat base (104) to form lumbar support segments (106);
a dynamic anti-tip unit (108) removably connected to said stile (102) via flexible joints (110), wherein said anti-tip unit (108) comprises device legs (112) attached to an upper bar (114);
and fastener straps (116) linking said device legs (112) to said chair legs to maintain stability through said gaming chair system (100).
2. The gaming chair system of claim 1, wherein said ergonomic stile (102) is further equipped with adjustable pivot points operatively connected to said lumbar support segments (106), enabling dynamic modification of lumbar support angles in response to user posture changes to enhance ergonomic comfort.
3. The gaming chair system of claim 1, wherein said dynamic anti-tip unit (108) comprises telescoping device legs (112) connected to said upper bar (114) via sliding joints, allowing extension and retraction of said device legs (112) to adapt to varying chair heights and user movements, thereby maintaining optimal stability.
4. The gaming chair system of claim 1, further comprising a damping unit integrated within said flexible joints (110) connecting said dynamic anti-tip unit (108) to said ergonomic stile (102), which absorbs oscillatory forces during user shifts to reduce instability and enhance seat steadiness.
5. The gaming chair system of claim 1, wherein said fastener straps (116) are adjustable tensioners operatively connected to said device legs (112) and said chair legs through articulated clamps, allowing precise modulation of strap tension to accommodate different user weights and seating positions, thereby optimizing stability.
6. The gaming chair system of claim 1, further comprising a rotational linkage interconnecting said upper bar (114) with said ergonomic stile (102) via pivoting connectors, facilitating synchronized movement of said anti-tip unit (108) and lumbar support segments (106) to maintain balanced support during dynamic user interactions.
7. The gaming chair system of claim 1, wherein said ergonomic stile (102) is reinforced with a cross-brace structure linked to said lumbar support segments (106) through hinge joints, providing additional structural integrity and distributing mechanical stresses evenly across the chair system (100).
8. The gaming chair system of claim 1, further comprising an integrated sensor array connected to said dynamic anti-tip unit (108) and said ergonomic stile (102) via flexible conduits, which monitors user movements and automatically adjusts the position of said device legs (112) to maintain continuous stability.
9. The gaming chair system of claim 1, wherein said upper bar (114) is constructed with a multi-axis swivel unit operatively connected to said device legs (112) through articulated pivots, allowing multidirectional adjustments of the anti-tip unit (108) to respond to lateral and forward-backward user shifts.
10. The gaming chair system of claim 1, further comprising a modular attachment interface integrated with said fastener straps (116) and connected to said chair legs through adjustable hinges, enabling easy customization and reconfiguration of the anti-tip device (108) based on specific user requirements and seating environments.