MODULAR ACOUSTIC POD

Abstract

A modular pod includes a door, walls, and a ceiling, with the walls containing an insulation product for acoustic insulation. The exterior surface of the walls can be covered in a recycled non-woven felt material. A ventilation system is provided, including a ventilation plinth located at the base of at least one wall inside the pod and at least one exhaust fan in the ceiling for exhausting air out of the pod. The ventilation plinth is an elongated channel with openings on both the exterior and interior sides of the pod. The interior walls of the channel of the ventilation plinth are lined with an acoustic dampener to minimize the entry of noise through the air inlet of the ventilation. The pod's construction allows for assembly entirely from the interior, allowing it to be installed against a wall or in a corner.

Claims

1. A modular acoustic pod, comprising: a plurality of wall panels, a door, and a top panel configured to collectively enclose the pod; wherein each of the wall panels comprises a first insulation layer for enhancing thermal and acoustic performance, the first insulation layer comprising a material derived from post-consumer fabric for environmental sustainability; and wherein each of the wall panels further comprises an exterior surface layer and an interior surface layer, the exterior surface layer and the interior surface layer each being fabricated from a material selected from the group consisting of felt, fabric, wood, and laminate.

2. The modular acoustic pod of claim 1, wherein each of the wall panels further comprises a second insulation layer and a panel is disposed between the first insulation layer and the second insulation layer, the second insulation layer comprising a material derived from post-consumer fabric.

3. The modular acoustic pod of claim 1, wherein at least one of the exterior surface layer or the interior surface layer is fabricated from a nonwoven felt material, the nonwoven felt material being derived from a post-consumer fabric.

4. The modular acoustic pod of claim 1, wherein each of the wall panels further comprises a backing panel that supports the exterior surface layer, the backing panel providing additional structural integrity and facilitating attachment of the exterior surface layer.

5. The modular acoustic pod of claim 3, wherein the nonwoven felt material includes recycled denim.

6. The modular acoustic pod of claim 2, wherein both the first insulation layer and the second insulation layer comprise a material derived from used denim.

7. The modular acoustic pod of claim 2, wherein at least one of the exterior surface layer or the interior surface layer is fabricated from a nonwoven felt material, the nonwoven felt material being derived from a post-consumer fabric.

8. A modular acoustic pod, comprising: a plurality of wall panels, a top panel, a door, a doorframe, and a plurality of struts; wherein the plurality of struts are configured to assemble the wall panels, top panel, door, and doorframe into an enclosed structure; wherein a plurality of C-channels are employed at the junctions of the components to assist with assembly and to eliminate air gaps between the components to increase sound deadening within the pod; and wherein the design of the pod is modular, allowing for the components to be assembled, disassembled, and reconfigured with ease to adapt to various spatial requirements and user preferences.

9. The modular acoustic pod of claim 8, wherein the modularity is further facilitated by the plurality of struts being configured to engage with the wall panels, top panel, door, and doorframe without the use of permanent fasteners.

10. The modular acoustic pod of claim 9, wherein the C-channels are designed to receive edges of the wall panels, top panel, and doorframe, ensuring a tight fit and alignment while maintaining the structural integrity of the pod.

11. The modular acoustic pod of claim 10, further comprising at least one window panel, wherein the window panel is constructed with an integrated frame that aligns with and attaches to the C-channels, maintaining the modularity and air gap elimination features of the pod.

12. The modular acoustic pod of claim 8, further comprising at least one window panel, wherein the window panel is constructed with an integrated frame that aligns with and attaches to the C-channels, maintaining the modularity and air gap elimination features of the pod.

13. The modular acoustic pod of claim 12, wherein the at least one window panel is interchangeable with the wall panels and is designed to be repositioned within the pod structure to customize the exterior views and interior lighting conditions.

14. A modular acoustic pod, comprising: a plurality of wall panels, a top panel, and a door, wherein the top panel includes a roof and a ceiling separated by a gap that is in fluid communication with air inside the pod; a ventilation plinth located at a base of at least one of the wall panels, the ventilation plinth being configured to allow air to enter the pod; an exhaust fan mounted to the roof of the top panel, the exhaust fan configured to draw air out of the pod through the gap between the roof and the ceiling; wherein the ventilation system is designed to facilitate a continuous flow of air from the ventilation plinth through the pod to the exhaust fan.

15. The modular acoustic pod of claim 14, wherein the ventilation plinth comprises an elongated channel, a plurality of inlet openings on an exterior side at one end, and a plurality of outlet openings on an interior side at an opposite end, such that air enters through the inlet openings, travels down the channel, and passes through the outlet openings to enter the pod.

16. The modular acoustic pod of claim 14, wherein the ventilation plinth includes interior walls along the channel, the interior walls being lined with an acoustic dampener.

17. The modular acoustic pod of claim 15, wherein the ventilation plinth includes interior walls along the channel, the interior walls being lined with an acoustic dampener.

18. The modular acoustic pod of claim 14, wherein the exhaust fan is configured to move air through the pod at a flow rate of at least 50 cubic meters per hour.

19. The modular acoustic pod of claim 14, wherein the ceiling is positioned to define a gap opening with the wall panel, the gap opening being proximate to the wall panel, and wherein the exhaust fan is located centrally from the wall panel such that air enters into the gap at a side of the pod and then flows across the top panel to the exhaust fan.

20. The modular acoustic pod of claim 14, wherein the gap between the roof and the ceiling is substantially 1 cm tall.

Description

BRIEF DESCRIPTION OF THE DRAWINGS

[0013] FIG. 1 illustrates an isometric view of a modular pod with wall panels and a doorframe, in accordance with an embodiment of the disclosure;

[0014] FIG. 2 depicts an exploded view of the modular pod, showcasing its various components and their arrangement, in accordance with an embodiment of the disclosure;

[0015] FIG. 3 provides an exploded view of the modular pod's door assembly, highlighting the individual components, in accordance with an embodiment of the disclosure;

[0016] FIG. 4 shows a detailed view of the modular pod's frame assembly, emphasizing the secure fit and structural integrity, in accordance with an embodiment of the disclosure;

[0017] FIG. 5 presents a cross-sectional view of a structural frame component for a modular pod, demonstrating the secure fit and structural integrity, in accordance with an embodiment of the disclosure;

[0018] FIG. 6 depicts a cross-sectional view of a modular pod's wall assembly, highlighting the various layers and materials used, in accordance with an embodiment of the disclosure;

[0019] FIG. 7 illustrates an isometric view of a pair of the modular pod's top panels, emphasizing the modularity and ease of assembly, in accordance with an embodiment of the disclosure;

[0020] FIG. 8 depicts an isometric view of an exhaust fan, highlighting its design and functionality, in accordance with an embodiment of the disclosure;

[0021] FIG. 9 shows an isometric view of a ventilation plinth, emphasizing the efficient airflow and acoustic performance, in accordance with an embodiment of the disclosure;

[0022] FIG. 10 presents an isometric view of a ventilation plinth, highlighting the efficient airflow and acoustic performance, in accordance with an embodiment of the disclosure;

[0023] FIG. 11 illustrates a cross-sectional view of a modular pod's ventilation system, demonstrating the efficient ventilation within the pod, in accordance with an embodiment of the disclosure;

[0024] FIG. 12 depicts a cross-sectional view of a modular pod's ventilation system, emphasizing the efficient ventilation within the pod, in accordance with an embodiment of the disclosure;

[0025] FIG. 13 shows various isometric views of a modular pod in different configurations and door positions, highlighting the adaptability and modularity, in accordance with an embodiment of the disclosure;

[0026] FIG. 14 depicts an isometric view of a pair of modular pods showing the modularity in which the pods can be connected or disassembled as desired; and

[0027] FIG. 15 illustrates a close-up view of a wheelchair ramp, emphasizing the functionality in ensuring accessibility for wheelchair users, in accordance with an embodiment of the disclosure.

DETAILED DESCRIPTION

[0028] The following description sets forth exemplary aspects of the present disclosure. It should be recognized, however, that such description is not intended as a limitation on the scope of the present disclosure. Rather, the description also encompasses combinations and modifications to those exemplary aspects described herein.

[0029] The present disclosure relates to a self-contained room or pod designed with a focus on acoustic performance, sustainability, and modularity. In some aspects, the pod may include a door and walls that can incorporate glass panels. The walls of the pod may contain a denim insulation product for acoustic insulation. In some cases, the exterior surface of the walls can be covered in a recycled non-woven felt material made from recycled denim jeans.

[0030] In some embodiments, the pod may be equipped with a ventilation system to maintain fresh air and a comfortable temperature within the pod. This system may include a ventilation plinth located at the base of at least one wall inside the pod and at least one exhaust fan in the ceiling for exhausting air out of the pod. The ventilation plinth may be an elongated channel with a plurality of openings on both the exterior and interior sides of the pod. The interior walls of the channel of the ventilation plinth may be lined with strips of a cellular rubber band which functions as an acoustic damper to minimize or potentially eliminate any sound entering into the pod through the ventilation plinth.

[0031] In some cases, the pod's construction allows for assembly entirely from the inside, a distinctive feature compared to traditional construction methods. This internal assembly approach enables the pod to be erected in constrained spaces, such as corners or against walls, without the external access during construction. The pod's framework is designed to facilitate assembly from the inside, which is a distinctive feature compared to traditional construction methods. This internal assembly approach enables the pod to be erected in constrained spaces, such as corners or against walls, without the external access during construction.

[0032] In some embodiments, the pod's design also considers accessibility, with doors of proper width to allow for wheelchair access, and the option for a rubber doorstep ramp to accommodate wheelchairs crossing the door threshold easily.

[0033] In some aspects, the pod's construction materials could be varied to achieve different aesthetic or functional outcomes. For instance, the wall panels could be made from other types of recycled materials, such as plastic or metal, to enhance durability or alter the pod's appearance. The insulation could also be made from other types of recycled textiles or natural fibers, such as wool or hemp, to provide different thermal or acoustic properties. The non-woven felt material used on the exterior surface of the walls could be replaced with other types of recycled textiles or eco-friendly materials, such as cork or bamboo, to provide a different texture or look.

[0034] In some cases, the design of the ventilation system could be altered to accommodate different environmental conditions or user preferences. For example, additional ventilation plinths could be added to increase airflow, or the size and placement of the ventilation plinths could be adjusted to optimize air circulation. The exhaust fan could be replaced with a different model that offers different performance characteristics, such as higher airflow capacity or quieter operation. The ventilation system could also be equipped with additional features, such as air filters to improve air quality, or temperature and humidity sensors to monitor and adjust the interior climate.

[0035] In some embodiments, the frame and panel construction of the pod could be modified to allow for different configurations or assembly methods. For example, the frame could be designed with different types of channels or connectors to facilitate easier assembly or disassembly. The panels could be designed to be interchangeable or reversible, allowing users to easily change the appearance or function of the pod. The panels could also be designed with integrated features, such as built-in shelves or desks, to maximize space utilization.

[0036] In some aspects, the door design could be varied to enhance accessibility or security. For example, the door could be designed to open in both directions, or to slide open instead of swinging open, to accommodate different space constraints. The door could also be equipped with a lock or other security features to protect the privacy of the pod's occupants. The door could also be designed with a window or peephole to allow for visibility into or out of the pod.

[0037] In some cases, the interior design of the pod could be customized to suit different user preferences or functional requirements. For example, the interior could be equipped with adjustable lighting, sound systems, or other amenities to enhance comfort and productivity. The interior could also be designed with different color schemes or decorative elements to create a more personalized or aesthetically pleasing environment.

[0038] In some embodiments, the size and shape of the pod could be varied to accommodate different space constraints or user requirements. For example, the pod could be designed in a larger size to accommodate multiple occupants, or in a smaller size for individual use. The pod could also be designed in different shapes, such as rectangular, circular, or hexagonal, to fit into different spaces or to create a more distinctive appearance.

[0039] In some aspects, the pod could be designed to integrate with other systems or technologies to enhance its functionality. For example, the pod could be equipped with smart home technologies to allow for remote control of the ventilation system, lighting, or other features. The pod could also be designed to integrate with building management systems to optimize energy efficiency or security. The pod could also be designed to connect with other pods to create larger, modular spaces.

[0040] Referring to FIG. 1, a modular pod 100 is depicted in an isometric view. The pod 100 includes wall panels 102, which are connected to window panels 104 and a doorframe 108. A door 106 is centrally positioned within the doorframe 108, providing access to the interior of the pod 100. The top panel 110 is situated on top of the structure, featuring exhaust fan holes 114 for ventilation purposes. Wall sections 112 are aligned with the wall panel 102, providing structural support. The base of the pod 100 includes a ventilation plinth 144 with inlet openings 146, facilitating airflow into the pod 100.

[0041] In some aspects, the interior of the pod 100 may be equipped with adjustable lighting, sound systems, or other amenities to enhance comfort and productivity. For instance, the pod 100 may include an adjustable lighting system that allows users to control the brightness and color temperature of the lights, creating a comfortable and conducive environment for work or relaxation. The pod 100 may also include a sound system that can play music or ambient sounds, enhancing the user's experience within the pod 100.

[0042] In some cases, the interior of the pod 100 could be designed with different color schemes or decorative elements to create a more personalized or aesthetically pleasing environment. For example, the wall panels 102 and ceiling 120 of the pod 100 could be covered with fabric or wallpaper in various colors and patterns. Decorative elements such as artwork, mirrors, or plants could also be incorporated into the interior design of the pod 100.

[0043] In some embodiments, the size and shape of the pod 100 could be varied to accommodate different space constraints or user requirements. For instance, the pod 100 could be designed in a larger size to accommodate multiple occupants, or in a smaller size for individual use. The pod 100 could also be designed in different shapes, such as rectangular, circular, or hexagonal, to fit into different spaces or to create a more distinctive appearance.

[0044] In some aspects, the pod 100 could be designed to integrate with other systems or technologies to enhance its functionality. For example, the pod 100 could be equipped with smart home technologies to allow for remote control of the ventilation system, lighting, or other features. The pod 100 could also be designed to integrate with building management systems to optimize energy efficiency or security. The pod 100 could also be designed to connect with other pods to create larger, modular spaces. For instance, multiple pods 100 could be connected side by side or stacked vertically to create a multi-room structure. This modularity allows for flexible configuration and expansion of the pod 100 to suit different spatial requirements and user preferences.

[0045] Referring to FIG. 2, an exploded view of a modular pod 100 is depicted. The pod 100 includes multiple wall panels 102 and window panels 104, which are connected to a doorframe 108 that houses a door 106. The top panel 110, which features exhaust fans 116, is positioned above the structure. The roof 118 and ceiling 120 are shown as separate components of the top panel 110. Wall sections 112 provide additional structural support. Struts 124 are used to connect and stabilize the various panels and sections. The base of the pod 100 includes a ventilation plinth 144 with inlet openings 146, ensuring proper airflow within the pod 100. The design highlights the modularity and ease of assembly of the pod 100, allowing for customization and efficient construction.

[0046] In some embodiments, the wall panels 102 of the pod 100 can be made from other types of recycled materials, such as plastic or metal, to enhance durability or alter the pod's appearance. For instance, the wall panels 102 could be made from recycled plastic bottles, providing a lightweight and durable alternative to traditional construction materials. Alternatively, the wall panels 102 could be made from recycled metal, such as aluminum or steel, offering enhanced strength and durability. These alternative materials could also provide a different aesthetic appeal, allowing users to customize the appearance of the pod 100 to suit their preferences.

[0047] In some cases, the non-woven felt material used on the exterior surface of the walls could be replaced with other types of recycled textiles or eco-friendly materials, such as cork or bamboo, to provide a different texture or look. For example, the exterior surface of the walls could be covered with a layer of cork, which is a renewable and biodegradable material that offers excellent thermal and acoustic insulation properties. Alternatively, the exterior surface of the walls could be covered with a layer of bamboo, which is a fast-growing and sustainable material that provides a natural and aesthetically pleasing look.

[0048] In some aspects, the panels could be designed to be interchangeable or reversible, allowing users to easily change the appearance or function of the pod 100. For instance, the wall panels 102 could be designed with a different color or texture on each side, allowing users to flip the panels to change the look of the pod 100. Similarly, the window panels 104 could be designed with different levels of transparency or tinting on each side, allowing users to adjust the amount of light entering the pod 100.

[0049] In some embodiments, the panels could also be designed with integrated features, such as built-in shelves or desks, to maximize space utilization. For example, the wall panels 102 could include built-in shelves for storing books, office supplies, or decorative items. Alternatively, the wall panels 102 could include a fold-down desk or table, providing a convenient workspace within the pod 100. These integrated features could be designed to fold or retract into the wall panels 102 when not in use, maintaining the sleek and minimalist design of the pod 100.

[0050] Referring to FIG. 3, an exploded view of a modular pod's door assembly is depicted. The door 106 is shown separated from the doorframe 108, highlighting the individual components. The doorframe 108 includes vertical and horizontal sections designed to securely hold the door 106 in place. This design emphasizes the modular nature of the assembly, allowing for easy installation and maintenance.

[0051] In some embodiments, the door 106 could be designed to open in both directions, or to slide open instead of swinging open, to accommodate different space constraints. For instance, the door 106 could be designed as a sliding door that moves along a track, allowing for easy opening and closing without requiring additional space for the door 106 to swing open. This could be particularly beneficial in smaller spaces or in configurations where the pod 100 is placed close to other objects or structures.

[0052] In some cases, the door 106 could also be equipped with a lock or other security features to protect the privacy of the pod's occupants. For example, the door 106 could include a built-in lock that can be operated with a physical or digital key. Alternatively, the door 106 could be equipped with a smart lock that can be controlled remotely via a smartphone or other device, providing enhanced security and convenience for the user.

[0053] In some aspects, the door 106 could also be designed with a window or peephole to allow for visibility into or out of the pod 100. For instance, the door 106 could include a small window made of transparent or semi-transparent material, allowing occupants to see outside the pod 100 without opening the door 106. Alternatively, the door 106 could include a peephole or viewing port, allowing occupants to see who is outside the door 106 before opening it. These features could enhance the functionality and usability of the pod 100, providing additional convenience and security for the occupants.

[0054] Referring to FIG. 4, a detailed view of the modular pod's frame assembly is depicted. A window panel 104 is securely held in place by a C-channel 126, which provides structural support and alignment. A strut 124 is positioned vertically, connecting the frame components and ensuring stability. A floor insulation strip 140 runs horizontally along the base, contributing to the pod's thermal and acoustic insulation. The design highlights the modularity and ease of assembly of the pod 100, emphasizing the secure fit and structural integrity provided by the C-channel 126 and strut 124.

[0055] In some embodiments, the frame of the pod 100 could be designed with different types of channels or connectors to facilitate easier assembly or disassembly. For instance, the C-channel 126 could be replaced with a different type of channel, such as a U-channel or a T-channel, to accommodate different assembly methods or structural requirements. Alternatively, the connectors used to join the frame components could be designed with quick-release mechanisms or tool-free designs, allowing for easier and faster assembly or disassembly of the pod 100. These variations could enhance the flexibility and user-friendliness of the pod 100, allowing it to be easily assembled, disassembled, or reconfigured as desired.

[0056] Referring to FIG. 5, a cross-sectional view of a structural frame component for a modular pod 100 is depicted. The frame features a strut 124, which provides vertical support and stability. The C-channel 126 is designed to securely hold wall panels, windows, or other structural elements in place. This design ensures a secure fit and structural integrity, facilitating the modular assembly of the pod 100. The strut 124 and C-channel 126 are integral parts of the pod's frame, providing the structural support and alignment for the various components of the pod 100. The strut 124 extends vertically, connecting the base of the pod 100 to the top panel 110, while the C-channel 126 extends horizontally, securely holding the wall panels, windows, or other structural elements in place. This arrangement of the strut 124 and C-channel 126 ensures a secure and stable structure, allowing the pod 100 to withstand various loads and stresses. The strut 124 and C-channel 126 may be made of a durable material, such as metal or plastic, to ensure the longevity and robustness of the pod 100. In some cases, the strut 124 and C-channel 126 may be designed with different shapes or sizes to accommodate different assembly methods or structural requirements. For instance, the strut 124 could be designed with a different cross-sectional shape, such as a square or a rectangle, to provide enhanced stability or to accommodate different types of wall panels or windows. Similarly, the C-channel 126 could be designed with a wider or narrower opening to securely hold different types of wall panels, windows, or other structural elements. These variations could enhance the flexibility and adaptability of the pod 100, allowing it to be easily assembled, disassembled, or reconfigured as desired.

[0057] Referring to FIG. 6, a cross-sectional view of a modular pod's wall assembly 102 is depicted. A strut 124 provides vertical support and stability, while a C-channel 126 securely holds the wall panel 102 in place. The interior upholstery layer 128 is positioned adjacent to the first insulation layer 130, which is followed by a perforated panel 132. The second insulation layer 134 is situated next to the exterior upholstery layer 136, which is supported by and secure to a backing panel 138. This design ensures a secure fit and structural integrity, facilitating the modular assembly of the pod 100.

[0058] In some embodiments of the modular acoustic pod 100, a preferred material for the first insulation layer 130 and/or the second insulation layer 134 is denim insulation made from post-consumer fabric. This material is particularly advantageous due to its excellent acoustic dampening properties, contributing to the pod's ability to achieve a remarkable sound deadening of 30 decibels inside the pod 100. The denim insulation is derived from recycled denim jeans, which not only provides effective thermal insulation but also serves as an eco-friendly solution by repurposing textile waste. The use of post-consumer fabric aligns with the growing trend towards environmental sustainability and the circular economy, where materials are kept in use for as long as possible. The denim insulation is also advantageous for its safety and health benefits, as it typically does not contain fiberglass, reducing the risk of skin irritation and respiratory issues often associated with traditional insulation materials. Furthermore, the denim material is treated for fire resistance, ensuring that safety standards are met without compromising the pod's acoustic and thermal performance. The incorporation of this sustainable and user-friendly insulation material underscores the pod's innovative design, which prioritizes acoustic performance, environmental responsibility, and occupant well-being.

[0059] In some embodiments, the insulation in the wall panels 102 and ceiling 120 could be made from other types of recycled textiles or natural fibers, such as wool or hemp, to provide different thermal or acoustic properties. For instance, the first insulation layer 130 and the second insulation layer 134 could be made from recycled wool fibers, providing enhanced thermal insulation and sound absorption properties. The wool fibers could be sourced from post-consumer wool garments, contributing to the sustainability of the pod 100. Alternatively, the insulation layers could be made from hemp fibers, which are a renewable and biodegradable resource. Hemp fibers offer excellent thermal insulation properties and are resistant to mold and pests, making them a suitable choice for insulation in the pod 100. These alternative insulation materials could enhance the thermal and acoustic performance of the pod 100, while also contributing to its eco-friendly design.

[0060] In some embodiments of the modular acoustic pod 100, a preferred material for the interior upholstery layer 128 and/or the exterior upholstery layer 136 is a felt nonwoven material made from post-consumer fabric, such as denim. This choice of material is not accidental; it is selected for its tactile aesthetics as well as its contribution to the pod's overall sustainability. The process of creating this nonwoven felt involves mechanically interlocking the fibers, rather than weaving or knitting them, which results in a fabric that is soft, durable, and excellent for insulation purposes.

[0061] The use of post-consumer denim in the fabrication of the nonwoven felt material aligns with eco-friendly practices by giving new life to textile waste, thus reducing the environmental impact associated with the production of new materials. The denim used in this material is sourced from post-consumer waste, meaning it comes from used denim garments that have been collected and recycled. This not just diverts waste from landfills but also requires less energy and water compared to producing new fibers, further enhancing the environmental benefits of the pod 100.

[0062] Moreover, the nonwoven felt material made from recycled denim is often rich in cotton, which is a natural fiber known for its breathability and moisture-wicking properties. This contributes to the comfort and well-being of the pod's occupants by helping to regulate the interior climate. The denim fibers can also be blended with other recycled or natural fibers to achieve specific textures and performance characteristics, offering additional versatility in the pod's design. The incorporation of this material into the pod's upholstery layers underscores the commitment to creating a product that is not just functional and aesthetically pleasing, but also responsible and sustainable.

[0063] The utilization of sourced denim in the creation of the nonwoven felt material introduces a range of aesthetic variations, as the inherent differences in color and texture of the recycled fabric contribute to a visually engaging and texturally rich surface. This results in a nonwoven felt that is not purely homogenous, but rather displays a tapestry of hues and textures that enhance the pod's interior with a distinct and appealing character. The choice of denim for the nonwoven felt thus serves a dual purpose, marrying environmental sustainability with an aesthetically and texturally pleasing design element that adds to the overall sensory experience of the pod 100.

[0064] Referring to FIG. 7, an isometric view of a pair of the modular pod's top panels 110 is depicted. Each top panel 110 includes an exhaust fan hole 114 on the roof 118. The ceiling 120 is situated below the roof 118, with ceiling brackets 122 providing structural support, alignment, and a gap to permit airflow between the ceiling 120 and the roof 118. The gap length 142 extends along the depth of the top panel 110 ensuring proper airflow within the pod 100. This design emphasizes the modularity and ease of assembly of the pod 100, ensuring efficient ventilation and structural integrity within the pod 100.

[0065] In some embodiments, the ventilation system of the pod 100 could also be equipped with additional features, such as air filters to improve air quality, or temperature and humidity sensors to monitor and adjust the interior climate. For instance, an air filter could be integrated into the ventilation system to remove dust, pollen, or other airborne particles from the air entering the pod 100 through the ventilation plinth 144. This could improve the air quality within the pod 100, providing a healthier and more comfortable environment for the occupants. Alternatively, temperature and humidity sensors could be installed within the pod 100 to monitor the interior climate. These sensors could be connected to a control system that adjusts the operation of the ventilation system and the exhaust fans 116 based on the measured temperature and humidity levels. This could ensure a comfortable temperature and humidity level within the pod 100, enhancing the comfort of the occupants.

[0066] Referring to FIG. 8, an isometric view of an exhaust fan 116 is depicted. The exhaust fan 116 is preferably an axial fan that features a square frame with four mounting holes, one at each corner, allowing for secure attachment. The central hub of the exhaust fan 116 is connected to five aerodynamically curved blades designed to optimize airflow. The blades are evenly spaced around the hub, ensuring balanced rotation and efficient air movement. The frame includes structural reinforcements along the edges, enhancing the exhaust fan 116's stability and durability. Additionally, the exhaust fan 116 preferably utilizes fluid dynamic bearings which support quiet operation, reducing noise levels to enhance the acoustic performance of the modular pod 100. It is understood by those having ordinary skill in the art that fans utilizing fluid dynamic bearings offer notable acoustic advantages, as these bearings are engineered to minimize operational noise. The fluid dynamic bearings operate with a thin layer of lubricating fluid, which effectively dampens the noise generated by the fan's moving parts, resulting in quieter performance. This characteristic is particularly beneficial in environments where maintaining a low noise level is paramount, such as in the modular acoustic pods, where the goal is to create a serene and distraction-free space. The reduced vibration from these bearings further contributes to the overall acoustic efficiency, ensuring that the fan's operation does not detract from the pod's sound-insulating properties.

[0067] The exhaust fan 116 should be capable of exhausting air out of the pod 100 at a flow rate of at least 50 cubic meters per hour, ensuring efficient ventilation and air quality maintenance within the pod 100. Optionally, more than one exhaust fan 116 may be provided to achieve or exceed the desired flow rate requirements, allowing for customization based on the specific ventilation demands of the pod's environment.

[0068] Fans utilizing fluid dynamic bearings offer notable acoustic advantages, as these bearings are engineered to minimize operational noise. The fluid dynamic bearings operate with a thin layer of lubricating fluid, which effectively dampens the noise generated by the fan's moving parts, resulting in quieter performance. This characteristic is particularly beneficial in environments where maintaining a low noise level is paramount, such as in the modular acoustic pods, where the goal is to create a serene and distraction-free space. The reduced vibration from these bearings further contributes to the overall acoustic efficiency, ensuring that the fan's operation does not detract from the pod's sound-insulating properties.

[0069] The fan is engineered to operate at a low decibel level, ensuring that its operation is barely noticeable to the occupants of the pod 100. Furthermore, the exhaust fan 116 is equipped with special vibration mounting screws that serve to eliminate vibration, thereby preventing the transmission of any vibratory noise through the structure of the pod 100. This attention to detail in the design of the exhaust fan 116 is integral to the modular pod's ventilation system, contributing to effective air circulation while maintaining quiet operation and minimizing disturbance to the pod's occupants.

[0070] In some embodiments, the exhaust fan 116 could be replaced with a different model that offers different performance characteristics, such as higher airflow capacity or quieter operation. For instance, the exhaust fan 116 could be replaced with a model that features a larger number of blades or a different blade design to increase the airflow capacity. This could enhance the ventilation within the pod 100, ensuring a comfortable temperature and fresh air supply for the occupants. Alternatively, the exhaust fan 116 could be replaced with a model that operates at a lower noise level, providing a quieter environment within the pod 100. This could be particularly beneficial in applications where noise reduction is a priority, such as in office spaces or study rooms. These variations could enhance the functionality and user-friendliness of the pod 100, allowing it to be customized to suit different user preferences and requirements.

[0071] Referring to FIGS. 9 and 10, isometric views of a ventilation plinth 144 are presented, illustrating the component from various angles to emphasize its structural features and functionality. The ventilation plinth 144 incorporates inlet openings 146 at one end and outlet openings 148 at the opposite end, orchestrating a streamlined passage for air to traverse the plinth. Constructed with opposed plinth walls 150 connected by a bottom or floor surface, these elements collectively form an elongated channel that guides the airflow from the exterior into the interior of the modular pod 100. The robust structure of the plinth walls 150, which may be fabricated from durable materials like metal or plastic, not only supports the plinth but also encases the internal components, including an acoustic dampener 152 that lines the interior channel to effectively dampen sound and reduce noise infiltration through the ventilation system.

[0072] The acoustic dampener 152, potentially made from materials such as cellular rubber or foam, plays a dual role by absorbing intrusive sound waves and enhancing the acoustic isolation within the pod 100. This open cell structure allows for the absorption and dissipation of sound waves, thereby reducing noise transmission into the pod 100 and contributing to a quieter environment within. This is particularly beneficial in environments where maintaining a quiet atmosphere is a priority, such as in workspaces or areas designated for concentration. The strategic placement and design of the ventilation plinth 144 are paramount to the pod's ventilation system, serving as a conduit for fresh air to enter and stale air to be expelled, thereby promoting a continuous flow of air that contributes to a comfortable and fresh interior climate.

[0073] To cater to varying requirements and preferences, the design of the ventilation plinth 144 can be customized. The addition of extra plinths can boost airflow, while modifications to the size and location of the plinths can improve air distribution throughout the pod 100. For example, situating the plinths near the corners of the pod 100 can lead to a more uniform distribution of air, whereas central placement can focus the airflow. Alterations to the dimensions and form of the inlet openings 146 and outlet openings 148, as well as the material specifications or thickness of the plinth walls 150 and the selection of the acoustic dampener 152, can be tailored to meet specific aesthetic desires, functional requirements, and environmental conditions. These adaptable features underscore the pod's enhanced functionality and user-centric design, ensuring that the pod 100 remains a versatile and accommodating space for its occupants.

[0074] Referring to FIG. 11, a cross-sectional view of a modular pod's ventilation system is depicted. The top panel 110 includes the roof 118 and the ceiling 120, with exhaust fans 116 integrated into the roof 118. Wall sections 112 provide vertical support and are connected to the wall panels 102. The ventilation plinth 144 is located at the base of the wall panels 102, facilitating airflow from the exterior to the interior of the pod 100. The arrows indicate the direction of airflow, which enters through the ventilation plinth 144, moves upward along the wall sections 112, and exits through the exhaust fans 116, ensuring efficient ventilation within the pod 100.

[0075] The top panel 110, which may be made of a durable material such as metal or plastic, forms the uppermost part of the pod 100. The top panel 110 includes the roof 118 and the ceiling 120, which are separate components. The roof 118, which may be made of a weather-resistant material such as metal or plastic, provides protection from external elements. Similarly, the ceiling 120 can be constructed using the same type of materials or components as the wall panels, such as a sound-absorbing material including but not limited to acoustic foam or fabric, contributing to the acoustic performance of the pod 100. In some aspects, the ceiling 120 and/or the roof 118 may also incorporate materials derived from post-consumer fabric, such as recycled denim, to enhance environmental sustainability and acoustic insulation, akin to the construction of the wall panels.

[0076] The exhaust fans 116 are integrated into the roof 118 of the top panel 110. The exhaust fans 116, which may be electrically powered, draw air out of the pod 100, facilitating air circulation and maintaining a comfortable temperature within the pod 100. The exhaust fans 116 may be designed to operate quietly to minimize noise disturbance within the pod 100.

[0077] The wall sections 112, which may be made of a sturdy material such as wood, metal, felt, fabric, melamine, or laminate, are secured to the wall panels 102. The wall sections 112 are connected to the wall panels 102, forming the sides of the pod 100. The wall panels 102, which may be made of a sound-absorbing material such as acoustic foam or fabric, contribute to the acoustic performance of the pod 100.

[0078] In some embodiments, the wall sections 112 of the modular acoustic pod are designed to be modular and removable, offering a high degree of customization to meet the specific functional requirements of the user. Certain wall sections may be fashioned as whiteboards, providing a convenient surface for writing and presentations. Others may incorporate a worksurface that extends horizontally outward from the wall panel, creating an integrated desk or counter space. Some wall sections can be equipped with shelves for storage, while others may feature built-in power outlets for easy access to electricity. Additionally, wall sections can be designed to accommodate TV stands, allowing for the installation of monitors or screens. These versatile wall sections can be installed on either the interior or exterior of the wall panels, providing flexibility in the layout and utility of the pod, and enabling users to tailor the space to their individual preferences, whether for work, collaboration, or leisure activities.

[0079] The ventilation plinth 144 is located at the base of the wall panels 102. The ventilation plinth 144, which may be made of a durable material such as metal or plastic, facilitates airflow from the exterior to the interior of the pod 100. The ventilation plinth 144 includes inlet openings 146 on one end and outlet openings 148 on the other end, allowing air to flow through the plinth. The design of the ventilation plinth 144 ensures efficient ventilation within the pod 100, maintaining a comfortable temperature and fresh air supply for the occupants.

[0080] Referring to FIG. 12, a cross-sectional view of a modular pod's ventilation system is depicted. A wall panel 102 is connected to a strut 124, which provides vertical support. The strut 124 includes a C-channel 126, which securely holds the top panel 110 in place. The top panel 110 includes a roof 118 and a ceiling 120, in which the ceiling 120 is supported by the roof 118 via a ceiling bracket 122 which creates a gap for airflow. The ceiling 120 is positioned below the roof 118, with arrows indicating the direction of airflow through the gap between the roof 118 and the ceiling 120. This design ensures efficient ventilation within the pod 100.

[0081] The wall panel 102 is connected to the strut 124, which provides vertical support and stability. The strut 124, which may be made of a sturdy material such as metal or wood, extends vertically from the base of the pod 100 to the top panel 110, providing structural support for the pod 100.

[0082] The C-channel 126, which may be made of a durable material such as metal or plastic, is designed to securely hold the top panel 110 in place. The C-channel 126 extends horizontally along the top edge of the wall panel 102, providing a secure and stable connection between the wall panel 102 and the top panel 110.

[0083] The top panel 110, which may be made of a durable material such as metal or plastic, forms the uppermost part of the pod 100. The top panel 110 includes the roof 118 and the ceiling 120, which are separate components. The roof 118, which may be made of a weather-resistant material such as metal or plastic, provides protection from external elements. The ceiling 120, which may be made of a sound-absorbing material such as acoustic foam or fabric, contributes to the acoustic performance of the pod 100.

[0084] The ceiling bracket 122, which may be made of a sturdy material such as metal or plastic, provides structural support for the ceiling 120. The ceiling bracket 122 is designed to create a gap between the roof 118 and the ceiling 120, allowing for airflow through the gap. The height of the gap between the ceiling 120 and the roof 118 may be modified or determined as deemed appropriate to meet specific airflow requirements, although it is ideally designed to be substantially 1 cm tall. The gap length 142, which may vary depending on the specific design of the pod 100, ensures proper airflow within the pod 100, maintaining a comfortable temperature and fresh air supply for the occupants.

[0085] Referring to FIG. 13, various isometric views of the modular pod 100 are depicted, showcasing the versatility in sizes and configurations available. The illustration presents pods 100 of differing widths and depths, accommodating a range of spatial requirements. The placement of doors and window panels varies among the pods, demonstrating the pod's adaptability to user preferences and site-specific constraints. This variety in door 106 and window panel 104 placements allows for customization of both the entry points and the natural light within the pod 100, further enhancing the user experience. The configurations exemplify the pod's 100 inherent modularity, enabling a multitude of setups to suit diverse functional demands and aesthetic desires.

[0086] In some aspects, the pod 100 may be designed to integrate with other systems or technologies to enhance its functionality. For example, the pod 100 could be equipped with smart home technologies to allow for remote control of the ventilation system, lighting, or other features. The pod 100 could also be designed to integrate with building management systems to optimize energy efficiency or security. The pod 100 could also be designed to connect with other pods to create larger, modular spaces. For instance, multiple pods 100 could be connected side by side or stacked vertically to create a multi-room structure. This modularity allows for flexible configuration and expansion of the pod 100 to suit different spatial requirements and user preferences.

[0087] Referring to FIG. 14, an isometric view of a modular pod 100 is depicted, in which the arrows indicate the modularity of the design, showing that the pods 100 can be connected or separated as desired. The open door 106 and the partially disassembled state of the second pod emphasize the ease of assembly and disassembly, aligning with the pod's focus on flexibility and user-friendly construction.

[0088] In some embodiments, the pod 100 could also be designed to connect with other pods to create larger, modular spaces. For instance, multiple pods 100 could be connected side by side or stacked vertically to create a multi-room structure. This modularity allows for flexible configuration and expansion of the pod 100 to suit different spatial requirements and user preferences. For example, a user could start with a single pod 100 and later add additional pods as their space requirements grow. The pods 100 could be connected in various configurations, such as in a line, in a grid, or in a cluster, to create different layouts and spaces. The pods 100 could also be connected at different angles, such as at 90 degrees or 180 degrees, to create corners or partitions within a larger space. This flexibility in configuration and expansion enhances the adaptability and versatility of the pod 100, making it suitable for a wide range of applications and environments.

[0089] Referring to FIG. 15, a close-up view of a wheelchair ramp 154 is depicted. The wheelchair ramp 154 features a textured surface designed to provide grip and stability, facilitating smooth entry over the door threshold. The wheel of the wheelchair is shown in motion, highlighting the ramp's functionality in ensuring accessibility for wheelchair users. The wheelchair ramp 154 is an integral part of the pod 100, providing a means for wheelchair users to easily access the interior of the pod 100. The wheelchair ramp 154 may be made of a durable material, such as metal, rubber, or plastic, to withstand the weight and movement of a wheelchair. The textured surface of the wheelchair ramp 154 provides grip and stability, reducing the risk of slipping or sliding. The wheelchair ramp 154 is designed to facilitate smooth entry over the door threshold, allowing wheelchair users to easily enter and exit the pod 100. This feature enhances the accessibility of the pod 100, making it suitable for use by individuals with mobility impairments.

[0090] Based upon the foregoing disclosure, it is seen that the present disclosure provides a modular acoustic pod that offers enhanced acoustic performance, achieving an impressive sound deadening of 30 decibels inside the pod, environmental sustainability, and flexible modularity. The pod's innovative use of materials derived from post-consumer fabric, such as recycled denim, not only contributes to superior sound insulation but also promotes eco-friendly practices by repurposing waste materials. Additionally, the pod's design allows for easy assembly and disassembly from the inside, enabling installation in constrained spaces and facilitating reconfiguration to adapt to changing spatial requirements. The inclusion of a ventilation system ensures a continuous flow of fresh air, maintaining a comfortable interior environment, while the pod's accessibility features, such as the wheelchair ramp, demonstrate an inclusive design approach. Collectively, these features represent a marked improvement over existing solutions, balancing the demands of acoustic privacy, environmental consciousness, and user-centric adaptability.

[0091] The foregoing descriptions of specific embodiments of the present disclosure have been presented for purposes of illustration and description. They are not intended to be exhaustive or to limit the present disclosure to the precise forms disclosed, and obviously many modifications and variations are possible in light of the above teaching. The exemplary embodiment was chosen and described in order to best explain the principles of the present disclosure and its practical application, to thereby enable others skilled in the art to best utilize the present disclosure and various embodiments with various modifications as are suited to the particular use contemplated.