TOWEL WARMING AND MANAGEMENT SYSTEM

Abstract

An embodiment of the invention relates to a towel warming system for outdoor recreational environments. The system comprises a freestanding or recessed unit with a door, raised off the ground to protect from environmental factors. Inside, a robe hanging section and towel storage containment sections store and warm towels and robes using an integrated heating mechanism, typically heat tape. Features include a pitched or round roof, insulation, Wi-Fi connectivity for remote control, and optional dehumidifying elements. The system addresses issues of cold, wet towels and inefficient storage in outdoor settings, enhancing user comfort and energy efficiency across various applications from mountain resorts to public recreational facilities.

Claims

1. A towel management system for outdoor recreational environments, comprising: a weatherproof enclosure having an insulated body, a sealed door, and being configured for outdoor installation; at least one heated, cylindrical tube disposed within the enclosure and configured to receive a rolled towel; a heated, C-shaped structure mounted vertically within the enclosure, said C-shaped structure having a concave inner surface configured to partially surround a hanging robe; a heating mechanism selected from the group consisting of: (i) a non-forced-air heating mechanism, (ii) a forced-air heating mechanism, and (iii) a hybrid combination of non-forced-air and forced-air heating mechanisms, said heating mechanism being thermally coupled to said cylindrical tube and said C-shaped structure; and a wireless control system configured to remotely regulate the heating mechanism.

2. The towel warming system of claim 1, further comprising: vertical robe hanging section optionally comprising C-shaped structures mounted on a rear wall of the unit for hanging and warming robes or larger towels.

3. The towel warming system of claim 1, wherein the heating mechanism comprises heat tape adapted from gutter heating technology.

4. The towel warming system of claim 1, further comprising: a pitched or round roof design to facilitate snow and water runoff.

5. The towel warming system of claim 1, further comprising: insulation and sealing to maintain internal temperature and prevent moisture ingress.

6. The towel warming system of claim 1, further comprising: Wi-Fi connectivity for automated on/off functionality and remote control.

7. The towel warming system of claim 1, further comprising: dehumidifying elements to prevent mold growth and maintain optimal humidity levels.

8. The towel warming system of claim 1, wherein the unit is configured to be recessed in a wall.

9. The towel warming system of claim 1, further comprising: a heated shelf configuration for storing and warming towels.

10. The towel warming system of claim 1, further comprising: an I-beam towel warmer design integrated within the unit.

11. The towel warming system of claim 1, further comprising: a cooling function for lowering the temperature of towels below ambient levels.

12. A method for warming towels in an outdoor recreational environment, comprising: providing a freestanding unit raised off the ground; storing towels within circular structures within the unit; activating a heating mechanism integrated with the circular structures; and controlling the heating mechanism to maintain a desired temperature.

13. The method of claim 12, further comprising: hanging robes or larger towels on vertical robe hanging section optionally comprising C-shaped structures mounted on a rear wall of the unit.

14. The method of claim 12, further comprising: connecting the unit to a Wi-Fi network for remote control and automated operation.

15. The method of claim 12, further comprising: activating a dehumidifying function to prevent mold growth and maintain optimal humidity levels.

16. A towel management system for outdoor water-based recreational facilities, comprising: a unit configured to be raised off the ground or recessed in a wall; a plurality of towel storage and warming structures within the unit; a heating mechanism integrated with the towel storage and warming structures; a control system for regulating the heating mechanism; and insulation and sealing to protect towels from environmental factors.

17. The towel management system of claim 16, wherein the towel storage and warming structures comprise circular tubes for rolling towels and vertical robe hanging section optionally comprising C-shaped structures for hanging robes or larger towels.

18. The towel management system of claim 16, further comprising: a cooling function for providing cooled towels in hot environments.

19. The towel management system of claim 16, wherein the unit is compliant with UL listing standards for outdoor electrical appliances.

20. The towel management system of claim 16, further comprising: sensors for detecting the presence of towels and activating the heating mechanism accordingly.

Description

BRIEF DESCRIPTION OF THE FIGURES

[0014] FIG. 1 illustrates a perspective view of an embodiment of the towel warming system, showing the freestanding unit with its weatherproof enclosure, glass door, heated tubular structures for rolled towels, towel and robe hooks, optional shelving, and power connections in a complete system configuration.

[0015] FIG. 2 depicts a perspective view of heated tubular towel warming components, showing the heat tape wrapped around cylindrical structures designed to efficiently transfer heat to rolled towels stored within.

[0016] FIG. 3 shows a front view of the towel warming system highlighting the internal arrangement of heated circular tubes and structures.

[0017] FIG. 4 illustrates a front view configuration of the system with the doors in a closed position, illustrating the weatherproof nature of the system.

[0018] FIG. 5 illustrates a front view configuration of the system with the doors in a closed position, illustrating the weatherproof nature of the system with a sloped roof configuration.

[0019] FIG. 6 depicts aspects of the system in accordance with an embodiment demonstrating the heating of items via application of heat tape.

DETAILED DESCRIPTION

[0020] Various embodiments of the present invention relate to an innovative towel warming system 100 designed to enhance the experience of users exiting pools, hot tubs, and other water-based recreational facilities. This system 100 addresses the common issues associated with traditional towel use in outdoor environments, providing a comprehensive solution for comfort, efficiency, and convenience.

[0021] In a preferred embodiment of the invention, the towel warming system 100 comprises a freestanding unit that can be raised off the ground, ensuring protection from snow and other environmental factors that may affect its performance and longevity. The unit can be either hardwired or plugged in, offering flexibility in installation and placement. A key feature of this embodiment is its door 104, which in an embodiment comprises glass to allow a user to observe contents from outside the structure and also allows easy access to the towels 102 while protecting them from the elements.

[0022] In an embodiment of the invention, the freestanding towel warming system 100 is designed with specific structural specifications to ensure optimal performance and durability in outdoor environments. The unit stands at a height of approximately 48 to 60 inches, with a width of 24 to 36 inches and a depth of 18 to 24 inches. These dimensions provide ample space for multiple towels 102 or robes 103 while maintaining a compact footprint suitable for outdoor placement. To protect against snow accumulation and ground moisture, the unit is elevated off the ground in accordance with the preferred embodiment by approximately 6 to 12 inches using sturdy, weather-resistant legs or a platform. In exemplary embodiments, individual freestanding towel warming systems 100 can be ganged together to create larger configurations, making them particularly suitable for resort applications and other large-scale installations where multiple users need to be accommodated simultaneously.

[0023] The walls and roof of the system 100 in an embodiment are constructed with multiple layers of insulation to maintain internal temperature and improve energy efficiency. The insulation in accordance with the preferred embodiment consists of an outer layer of weather-resistant material such as powder-coated aluminum or stainless steel, a middle layer of high-density polyurethane foam or extruded polystyrene for excellent thermal insulation, and an inner layer of reflective foil insulation to minimize heat loss through radiation. The total insulation thickness ranges from 1 to 2 inches, depending on specific climate requirements.

[0024] The main structure of the system 100 in an embodiment incorporates a pitched or round roof design to facilitate snow and water runoff, preventing accumulation on top of the unit. A sealed door 104 with weatherstripping prevents moisture ingress and maintains internal temperature. The door 104 in accordance with various embodiments comprises tempered glass or a durable, transparent polymer for visibility. Inside the system 100, circular structures or tubes 105 are integrated for rolling and storing towels 102, along with the chosen heating mechanism. Vertical C-shaped cross-sectional structures 107 are mounted on the rear wall for hanging and warming robes 103 or larger towels 102.

[0025] In an embodiment of the invention, the circular structures or tubes 105 and the robe hanging section optionally comprising C-shaped cross-sectional structures 107 securely attached to the interior of the towel warming system 100 using robust mounting mechanisms. The circular structures 105 can be affixed to the side walls or back panel of the system 100 using heavy-duty brackets or custom-designed mounting plates that allow for easy installation and removal for maintenance. These brackets may be adjustable to accommodate different sizes of circular structures 105. The C-shaped cross-sectional structures in an exemplary embodiment are mounted directly to the rear wall of the unit using sturdy bolts or screws, ensuring they can support the weight of towels 102 or robes 103, especially when wet. Both types of structures are integrated with the system's 100 heating system, with electrical connections running through conduits within the walls to maintain a clean appearance and ensure safety. The mounting systems for both the circular and C-shaped cross-sectional structures are designed to withstand frequent use and the humid environment inside the system 100, often utilizing corrosion-resistant materials such as stainless steel or high-grade aluminum.

[0026] In an exemplary embodiment, the system 100 comprises a dedicated robe hanging section 107 positioned within the weatherproof enclosure and configured to accommodate hanging garments such as robes 103 and larger towels 102. The robe hanging section 107 in an embodiment provides a designated area for vertically suspending garments via hooks 106 or similar hanging mechanisms, allowing for efficient thermal treatment while maintaining easy access for users.

[0027] An embodiment of the robe hanging section 107 optionally comprises one or more C-shaped structures mounted vertically within the enclosure. When present, these C-shaped structures are specifically engineered to enhance the thermal treatment of hanging garments through both structural design and heat distribution optimization. Each C-shaped structure comprises a curved back wall with extending side walls that partially surround a hanging space, creating a concave interior surface that functions as a heat reflector. The geometric configuration of the C-shaped structure creates an open front face that permits easy access to hanging garments while the curved interior surfaces direct and concentrate heat toward the suspended items.

[0028] In accordance with various embodiments, the optional C-shaped structures of the robe hanging section 107 may be dimensioned as follows: a height ranging from approximately 24 to 60 inches (60 to 150 cm) to accommodate various garment lengths; a width ranging from approximately 12 to 24 inches (30 to 60 cm), with an exemplary embodiment featuring an 18-inch (45 cm) width that allows for modular installation and efficient space utilization; a depth ranging from approximately 6 to 10 inches (15 to 25 cm) to provide adequate clearance for hanging garments without compression; and a front opening width of approximately 8 to 12 inches (20 to 30 cm) to facilitate easy garment placement and removal.

[0029] An embodiment of the robe hanging section 107, when comprising C-shaped structures, incorporates integrated heating elements such as heat tape 101 positioned along the interior surfaces of the curved structures. The heat tape 101 may be applied in a serpentine pattern or continuous strips along the concave interior surface, providing direct radiant heat toward hanging garments. The concave geometry serves a dual function: structural support for the heating elements and thermal reflection to concentrate warmth within the hanging space, creating a localized warming environment that maximizes heat transfer efficiency while minimizing energy loss to surrounding areas.

[0030] In embodiments where the robe hanging section 107 does not comprise C-shaped structures, the section may alternatively comprise flat mounting surfaces, traditional hook assemblies 106, or rail systems positioned along interior walls of the enclosure. These alternative configurations maintain the functional objective of providing a dedicated space for hanging garments while offering design flexibility for different installation requirements and user preferences. Regardless of the specific structural configuration, the robe hanging section 107 is integrated with the system's 100 heating mechanism and control system to ensure consistent thermal treatment of hanging garments.

[0031] The system 100 in a preferred embodiment is designed with versatility in mind, offering both freestanding and recessed-in-wall options. The recessed version, ideal for commercial or resort applications, features a glass door for easy access and visibility of the towels. This design includes a drywall flange and insulation to ensure proper integration with the building structure.

[0032] Special attention has been given to the sealing of the system 100 in this embodiment to prevent the ingress of critters and moisture, addressing potential issues such as mold growth and pest infestation. In certain embodiments, the system 100 incorporates dehumidifying aspects to further prevent mold growth and maintain optimal humidity levels within the unit.

[0033] Accordingly, an alternative embodiment of the freestanding towel warming system 100 is configured as a recessed-in-wall version. For the recessed-in-wall version, a drywall flange is included to allow for seamless integration with existing structures. Proper sealing and insulation throughout the unit prevent the ingress of critters and moisture, addressing potential issues such as mold growth and pest infestation. The unit in accordance with various embodiments also incorporates dehumidifying elements to maintain optimal internal humidity levels and prevent mold growth. The entire structure is designed to meet UL listing standards, ensuring safety and reliability for outdoor electrical appliances.

[0034] Inside the system 100 of in accordance with various embodiments, the towels 102 are intended to be stored on specially designed circular structures 105 where they can be rolled and placed. This arrangement not only optimizes space but also ensures even warming of the towels.

[0035] The warming mechanism in an exemplary embodiment utilizes heat tape 101, a technology adapted from heating gutters, which provides efficient and consistent heating. The system 100 incorporates heating elements around the tubes themselves or directly on the coils where the towels are placed, ensuring the most efficient transfer of heat to the towels.

[0036] In an embodiment of the invention, the specially designed circular structures 105 within the towel warming system 100 are engineered to provide optimal storage and heating for towels. These structures can be cylindrical tubes 105 with a diameter ranging from 4 to 8 inches (10 to 20 cm), allowing for various towel sizes and thicknesses. The length of these tubes 105 can span substantially the width of the system 100, typically 18 to 30 inches (46 to 76 cm), providing ample space for towels 102 when rolled.

[0037] The circular structures 105 in an embodiment comprise heat-conductive materials such as aluminum or copper to efficiently transfer heat from the integrated heating elements to the towels. The surface of these tubes 105 may feature a perforated or mesh-like design to enhance air circulation, promoting faster drying of towels 102 placed within and preventing moisture buildup.

[0038] In accordance with various embodiments, in various mounting configurations, the circular structures 105 are affixed to the interior rear wall and/or interior side walls of the system 100 using heavy-duty brackets or custom-designed mounting plates. These brackets in an exemplary embodiment comprise corrosion-resistant materials like stainless steel or high-grade aluminum to withstand the potentially humid environment inside the warming system 100. The mounting system may incorporate adjustable features, allowing for easy installation, removal, and repositioning of the tubes 105 to accommodate different towel 102 sizes or user preferences.

[0039] The circular structures 105 in accordance with various embodiments are integrated with the system's 100 heating aspects, with electrical connections for the heat tape 101 or other chosen heating mechanism running through conduits within the walls of the system 100. This integration ensures a clean appearance and maintains safety standards. In some embodiments, the tubes 105 comprise a rotation mechanism, allowing users to easily access their warmed towels by simply turning the tube 105. This feature can be particularly useful in commercial or resort settings where multiple towels need to be stored and accessed efficiently.

[0040] To enhance energy efficiency and user convenience, the circular structures 105 in an embodiment are equipped with sensors that detect the presence of a towel 102, activating the warming function only when needed. This smart feature helps conserve energy and extends the lifespan of the heating elements. The entire mounting and heating system for these circular structures 105 is designed in accordance with various embodiments to meet UL listing standards, ensuring safety and reliability for outdoor electrical appliances.

[0041] The exterior design of the system 100 in an embodiment features either a pitched roof or a round roof, as depicted by FIG. 3, both of which are engineered to keep snow off the unit, further protecting the towels 102 retained within and internal components from moisture. This design consideration extends the usability of the system 100 in various weather conditions, particularly in colder climates or mountainous regions.

[0042] To enhance user experience and energy efficiency, an embodiment of the towel warming system 100 can be connected to Wi-Fi, allowing for automated on and off functionality. This feature enables users to pre-warm their towels before use and ensures that the system 100 is not running unnecessarily when not in use.

[0043] The towel warming system 100 in an embodiment is designed with safety and efficiency in mind, incorporating standard insulation techniques to maintain warmth and improve overall energy efficiency. The design aims to meet UL listing standards, ensuring that the product meets rigorous safety requirements for electrical appliances.

[0044] In an exemplary embodiment, the system 100 incorporates a forced-air heating mechanism as an alternative or complementary heating approach. The forced-air system comprises a fan assembly and heating elements positioned to circulate heated air throughout the interior of the system 100. Unlike conventional towel warmers that rely on a single air circulation path, this embodiment features multiple air circulation channels and strategically positioned air outlets to ensure effective air distribution even when towels 102 are present within cylindrical tubes 105 or robes 103 are hanging within the robe hanging section optionally comprising C-shaped structures 107. The forced-air mechanism may include variable speed controls and temperature regulation to optimize heating based on ambient conditions and the number of items being warmed within the system 100.

[0045] In a hybrid embodiment of the invention, the system 100 combines both forced-air heating and non-forced-air heating mechanisms to provide enhanced thermal management flexibility. The heat tape 101 provides consistent baseline heating to the cylindrical tubes 105 and robe hanging section optionally comprising C-shaped structures 107, while a forced-air system provides supplemental circulation for rapid initial warming or enhanced drying performance. This hybrid approach allows the system 100 to operate efficiently across a wider range of environmental conditions while maintaining the reliability advantages of non-forced-air heating. Smart controls can automatically select between heating modes or combine them based on factors such as ambient temperature, humidity levels, and detected towel 102 or robe 103 presence.

[0046] This innovative towel warming system 100 not only solves the problem of cold and wet towels but also addresses broader issues such as body temperature regulation after exiting a pool or hot tub, energy efficiency, and the limitations of existing towel warming solutions. By providing a comprehensive and well-designed solution, embodiments of this invention aim to significantly enhance the comfort and convenience of users in various outdoor recreational settings.

[0047] In an embodiment of the invention, the heat tape 101 is strategically placed to maximize heating efficiency and ensure even distribution of warmth throughout the towel warming system 100. The heat tape 101 can be installed in a serpentine pattern along the interior walls of the unit, providing comprehensive coverage and minimizing cold spots. This configuration allows for optimal heat transfer to the towels, regardless of their position within the warming system 100.

[0048] Another embodiment incorporates multiple zones of heat tape 101, each controlled independently. This zonal heating approach enables users to customize the warming intensity based on personal preferences or the specific requirements of different types of towels 102 or robes 103 to be placed within the system 100. For instance, thicker towels may require a higher heat setting, while thinner ones might need less intense warming.

[0049] In yet another embodiment, the heat tape 101 is integrated directly into the circular structures or tubes 105 where the towels 102 are intended to be rolled and placed in accordance with an intended use of the system 100. This direct contact method ensures that the heat is transferred efficiently to the towels 102, reducing energy consumption and warming time. The heat tape 101 in this configuration can be designed with varying heat outputs along its length, providing more intense warming at the center of the towel 102 when rolled and gentler warming at the edges.

[0050] To further enhance energy efficiency, an embodiment of the system 100 includes a thermal sensor system working in conjunction with the heat tape 101. These sensors monitor the temperature within the unit and adjust the heat output accordingly, maintaining an optimal warming temperature while preventing overheating. This smart heating system not only ensures consistent towel warmth but also contributes to the overall energy efficiency of the device.

[0051] In an embodiment of the invention, the circular structures or tubes 105 are designed to provide an optimal surface for rolling and warming towels 102. These structures in an embodiment comprise heat-conductive materials such as aluminum or copper, which efficiently transfer heat from the integrated heat tape 101 to the towels. The circular design allows for even heat distribution and prevents creasing or uneven warming of the towels 102.

[0052] The tubes in an exemplary embodiment comprise a perforated or mesh-like surface to enhance air circulation, promoting faster drying and preventing moisture buildup. In some embodiments, the circular structures can be adjustable in diameter to accommodate different towel sizes or thicknesses. This adjustability can be achieved through a telescoping mechanism or interchangeable tube sections. For added convenience, in an embodiment the circular structures comprise a rotation mechanism, allowing users to easily access their warmed towels by simply turning the tube 105. This feature can be particularly useful in commercial or resort settings where multiple towels need to be stored and accessed efficiently.

[0053] In an embodiment of the invention, the towel warming system 100 comprises a heated shelf configuration as an alternative or complementary method for warming towels. This heated shelf design provides a flat, thermally-conductive surface where towels can be placed directly for warming.

[0054] The heated shelf in an exemplary embodiment comprises materials with high thermal conductivity, such as aluminum or copper, to ensure efficient heat transfer to the towels 102. The shelf surface can be textured or perforated to enhance air circulation and promote even heating throughout each towel 102. Integrated heating elements, such as resistive heating coils or conductive films, are embedded within or attached to the underside of the shelf in an exemplary embodiment. These heating elements can be controlled by the unit's central system, allowing for precise temperature regulation and energy-efficient operation.

[0055] The heated shelf in an embodiment comprises multiple temperature zones, enabling users to warm different types of towels 102 or fabrics at varying intensities. This feature can be particularly useful for accommodating both thick bath towels and delicate hand towels within the same unit. To enhance user convenience, the heated shelf in an embodiment is equipped with sensors that detect the presence of towels 102, activating the warming function only when needed. This smart feature contributes to energy conservation and extends the lifespan of the heating elements.

[0056] The heated shelf in a configuration embodiment is incorporated into the main structure of the towel warming system 100, positioned at an ergonomic height for easy access. Multiple shelves can be installed at different levels within the unit to maximize storage capacity and warming efficiency.

[0057] This heated shelf design offers an alternative to or complement to the heated circular structures or tubes 105, providing users with flexibility in how they store and warm their towels 102 placed within. It can be particularly beneficial for larger or irregularly shaped items such as towels 102 or other swim-related items that may not fit easily into the circular structures 105.

[0058] In an embodiment, the invention comprises vertical C-shape cross-sectional structures 107 designed to partially surround and enclose robes hanging on hooks in a substantially vertical orientation. These C-shaped cross-sectional structures 107 in an embodiment comprise integrated or separately added heat tape 101, providing targeted warming for robes placed substantially within, such as upon hangars.

[0059] The C-shaped cross-sectional design of the C-shaped cross-sectional structures 107 allows for easy access to the robes 103, by orienting the opening of the C-shaped cross-sectional design to face the door 104, while still providing comprehensive warming coverage via the remaining surrounding structure. The open side of the C of each C-shaped cross-sectional structure 107 faces outward, allowing users to easily remove or replace robes 103 on the hooks 106. The inner surface of each C-shaped cross-sectional structure 107 in an embodiment is lined with heat tape 101, ensuring that the robe 103 receives warmth from multiple angles. The curved design of each C-shaped cross-sectional structure 107 not only provides structural support but also serves a functional purpose in the warming process. The concave inner surface acts as a reflector, radiating heat back towards the robes 103 or towels 102 hung on a hook 106 placed near to or within the C-shaped cross-sectional structure 107. This reflective property enhances the efficiency of the heating mechanism by concentrating the warmth around the items, ensuring more uniform and effective heating. The combination of the heat tape 101 lining and the heat-reflecting curved surface of the C-shaped cross-sectional structure 107 creates a microenvironment of warmth that envelops the robes 103 or towels 102, maximizing the warming effect while minimizing heat loss to the surrounding area.

[0060] These C-shaped cross-sectional structures 107 can be adjustable in height to accommodate robes 103 of different lengths. They may also feature a curved or angled top section to better conform to the natural shape of a hanging robe 103, maximizing contact between the area proximal to the warming surface and the fabric. To enhance energy efficiency, the heat tape 101 in both the circular and C-shaped cross-sectional structures 107 can be equipped with sensors that detect the presence of a towel 102 or robe 103, activating the warming function only when needed. This smart feature helps conserve energy and extends the lifespan of the heating elements.

[0061] In an embodiment of the invention, the C-shaped cross-sectional structure 107 mounted on a rear wall of the associated structure and substantially surrounding a hook 106 for hanging a towel 102 or robe 103 can be designed with the following dimensions:

[0062] Height: The C-shaped cross-sectional structure 107 can have a height of approximately 24 to 60 inches (approximately 60 to 150 cm) to accommodate various lengths of towels 102 and robes 103. This height allows for sufficient coverage of the hanging item while still providing easy access.

[0063] Width: In various embodiments, the width of the C-shaped cross-sectional structure 107 is approximately 12 to 24 inches (approximately 30 to 60 cm), providing ample space for the towel 102 or robe 103 to hang freely without touching the sides of the structure. In an exemplary embodiment, the width of the C-shaped cross-sectional structure 107 is approximately 18 inches (approximately 45 cm), providing ample space for the towel 102 or robe 103 to hang freely without touching the sides of the structure. This width in the context of an embodiment allows for multiple units to be ganged together, creating a modular system that can be easily scaled for various applications, from individual home use to larger resort installations. The 18-inch width strikes a balance between compact design and functionality, allowing for efficient use of space within the enclosing structure of an embodiment as depicted in FIG. 5 while still accommodating standard towel 102 and robe 103 sizes. When multiple units are combined, they can create a customizable warming solution that meets the specific needs of different environments, from small residential bathrooms to expansive resort locker rooms.

[0064] Depth: The depth of the C-shaped cross-sectional structure 107 in various embodiments ranges from 6 to 10 inches (15 to 25 cm), allowing enough space for the towel 102 or robe 103 to hang without being compressed against the rear wall, while still providing effective heating coverage.

[0065] Opening: The opening of the C in an exemplary embodiment of the C-shaped cross-sectional structure 107 is approximately 8 to 12 inches (20 to 30 cm) wide, allowing easy access for placing and removing items from the hook 106.

[0066] These dimensions can be adjusted based on specific installation requirements or user preferences. The C-shaped cross-sectional structure 107 can also feature a curved or angled top section to better conform to the natural shape of a hanging robe 103 or towel 102, maximizing contact between the warming surface and the fabric.

[0067] Both the circular tubes 105 for retaining towels 102 and the C-shaped cross-sectional structures 107 for robes 103 in exemplary intended uses, in addition to any other heating or cooling aspects of the system 100, in an embodiment are designed to work in conjunction with the Wi-Fi connectivity and automation features of the overall system 100 in an embodiment, allowing users to pre-warm specific sections or adjust temperatures remotely for optimal comfort and convenience.

[0068] In an embodiment of the invention, the towel warming system 100 comprises an I-beam towel warmer design, providing a unique and efficient method for hanging and warming towels 102. This I-beam configuration provides a sturdy and space-efficient structure that can be integrated into the main unit or used as a standalone feature.

[0069] The I-beam towel warmer consists of a vertical support beam with horizontal flanges extending from both sides, resembling the cross-section of an I-beam used in construction. This design allows towels 102 to be draped over the horizontal flanges, maximizing the surface area in contact with the warming elements.

[0070] The I-beam structure in an embodiment comprises heat-conductive materials such as aluminum or stainless steel, ensuring efficient heat transfer to the towels 102. Heating elements, such as resistive heating wires or conductive films, can be integrated into the I-beam structure, particularly along the horizontal flanges and the vertical web. To enhance warming efficiency, the I-beam can be designed with multiple temperature zones, allowing users to warm different types of towels 102 at varying intensities. The vertical web of the I-beam can house additional heating elements or serve as a channel for wiring and control systems in accordance with exemplary embodiments.

[0071] The I-beam towel warmer in an embodiment is mounted within the main unit, potentially as a central feature that allows easy access from both sides. Alternatively, it can be designed as a modular component that can be added or removed based on user preferences or space requirements. For added functionality, the I-beam structure can incorporate adjustable or removable hooks along the horizontal flanges, providing flexibility in how towels 102 are hung and allowing for customization based on towel 102 size and user preferences.

[0072] The I-beam design offers several advantages in accordance with an embodiment: Space efficiency, as the vertical orientation maximizes the use of vertical space within the unit; Even heating, as the I-beam shape ensures that towels 102 are heated evenly along their entire length; Easy access, allowing towels 102 to be easily draped over or removed from the horizontal flanges; and Versatility, as the design can accommodate various towel 102 sizes and types.

[0073] In embodiments of the invention, multiple heating mechanisms are employed to warm the tubes 105, robe hanging section optionally comprising C-shaped structures 107, and the interior of the unit as a whole. These mechanisms may include non-forced-air heating, forced-air heating, or hybrid combinations thereof n exemplary embodiment provides targeted heating while maintaining energy efficiency and user comfort through selective heating mode operation.

[0074] One such alternative heating mechanism in an embodiment involves the use of radiant heating panels. These panels can be installed on the interior walls and ceiling of the unit, providing gentle, even heat throughout the space. The radiant panels in an exemplary embodiment comprise materials with high thermal conductivity, such as ceramic or metal, and can be powered by electricity or hot water systems. This method ensures that the entire interior space, including the tubes and C-shaped cross-sectional structures 107, is warmed consistently without the need for air circulation.

[0075] Another embodiment comprises infrared heating elements. In accordance with such embodiment, the infrared heating elements are strategically placed within the unit to directly warm the towels 102, robes 103, and structures without heating the air in between. Infrared heating is highly efficient and can be precisely controlled to maintain optimal temperatures. The infrared elements can be integrated into the circular tubes 105 and C-shaped cross-sectional structures 107, providing targeted warming to the fabrics they contain.

[0076] Another alternative embodiment comprises the use of conductive heating materials. In this embodiment, the tubes 105, C-shaped cross-sectional structures 107, and interior surfaces of the system 100 can be coated or constructed with materials that conduct electricity and generate heat when current is applied. In an exemplary embodiment such materials comprise carbon fiber heating elements or conductive polymers. These materials can be seamlessly integrated into the design of the warming system, providing efficient and uniform heating without the bulk of traditional heating elements.

[0077] In yet another embodiment, thermoelectric heating elements based on the Peltier effect could be employed. These solid-state devices in an exemplary embodiment are attached to the tubes and C-shaped cross-sectional structures 107, creating a temperature differential that warms the towels 102 and robes 103. Thermoelectric elements are compact, have no moving parts, and can be precisely controlled, making them ideal for this application.

[0078] To enhance energy efficiency across all these alternative heating methods, the system 100 in various embodiments comprises smart controls and sensors. These can detect the presence of towels 102 or robes 103, adjust heating intensity based on ambient temperature, and allow for programmable heating schedules. This aspect ensures that energy is used efficiently and that the desired temperature is maintained without overheating.

[0079] These alternative heating mechanisms can be used individually or in combination in accordance with various embodiments, depending on the specific requirements of the installation environment and user preferences. By avoiding forced air heating, these methods reduce the risk of spreading moisture or potential contaminants within the system 100, addressing concerns about mold growth and maintaining a hygienic environment for the towels 102 and robes 103.

[0080] In an embodiment of the invention, a towel cooler is integrated into the towel warming system 100 to provide a versatile solution for various climates and user preferences. This dual-function capability allows the unit to not only warm towels 102 but also cool them, addressing the needs of users in hot environments or during summer months. In accordance with an embodiment, the towel cooler functionality is achieved by incorporating thermoelectric cooling elements, such as Peltier devices, into the circular structures or tubes 105 where towels 102 are rolled and stored. These thermoelectric elements can be reversed to provide cooling instead of heating, allowing the system 100 to lower the temperature of the towels 102 below ambient levels.

[0081] In an exemplary embodiment, the control system of the system 100 is programmed to switch between warming and cooling modes based on user input or environmental conditions. For example, the system could automatically switch to cooling mode when ambient temperatures exceed a certain threshold. The cooling function is particularly beneficial in hot climates or for use near outdoor pools and hot tubs during summer months. Cooled towels can provide refreshing relief to users after sun exposure or physical activity, enhancing the overall experience of using recreational water facilities.

[0082] To support the cooling function, the insulation and sealing of the system 100, as described in the original embodiment, play a crucial role in maintaining the desired low temperatures. The dehumidifying aspects of the system 100 can also be utilized to prevent condensation inside the system 100 when operating in cooling mode. The present inventor has recognized that in accordance with an embodiment the addition of a cooling function to the towel warming system 100 expands its versatility and market potential, making it suitable for year-round use in various climates and settings. This feature aligns with the goal of enhancing user comfort and addressing the limitations of existing towel management solutions in outdoor recreational environments.

[0083] In conclusion, the towel warming system 100 described as an embodiment this invention offers versatile solutions for various intended uses and deployments across different markets and settings. The system's 100 design allows for easy scaling and adaptation to meet the needs of diverse environments, particularly in outdoor recreational areas.

[0084] One significant market application for this invention is in mountain resorts and similar locations where traditional towel storage and warming options are limited or non-existent. The freestanding or recessed-in-wall configurations of the towel warming system 100 make it particularly suitable for installation in resort settings, providing guests with a convenient and comfortable solution for managing their towels 102 and robes 103 after using pools, hot tubs, or other water facilities.

[0085] The system's 100 ability to protect towels 102 from environmental factors such as snow, rain, and cold temperatures makes it especially valuable in mountainous regions where weather conditions can be harsh and unpredictable. By offering a secure, warm, and dry storage solution for towels 102 and robes 103, the invention in accordance with various embodiments enhances the overall guest experience in these locations.

[0086] Beyond mountain resorts, the towel warming system 100 can be deployed in various other settings, including private residences with outdoor pools or hot tubs, providing homeowners with a luxurious amenity that enhances their outdoor living spaces. It can also be used in public recreational facilities, such as community pools or beach clubs, offering a convenient service to patrons and potentially reducing the need for frequent towel replacements. Spa and wellness centers can benefit from the system 100, where it can contribute to a more comfortable and relaxing experience for clients. Fitness centers and gyms with pool or sauna facilities can provide members with a premium towel service using this invention. Additionally, outdoor sports venues or adventure parks that involve water activities can ensure participants have access to warm, dry towels 102 after their experiences.

[0087] The system's 100 adaptability, combined with its energy-efficient design and smart features, makes it suitable for both commercial and residential applications. Its ability to address common issues associated with outdoor towel use, such as cold, wet towels and body temperature regulation after exiting water, positions it as a valuable addition to any setting where water-based activities are prevalent.

[0088] While preferred embodiments of the present invention have been shown and described herein, it will be obvious to those skilled in the art that such embodiments are provided by way of example only. It is not intended that the invention be limited by the specific examples provided within the specification. While the invention has been described with reference to the aforementioned specification, the descriptions and illustrations of the embodiments herein are not meant to be construed in a limiting sense. Numerous variations, changes, and substitutions will now occur to those skilled in the art without departing from the invention. Furthermore, it shall be understood that all aspects of the invention are not limited to the specific depictions, configurations or relative proportions set forth herein which depend upon a variety of conditions and variables. It should be understood that various alternatives to the embodiments of the invention described herein may be employed in practicing the invention. It is therefore contemplated that the invention shall also cover any such alternatives, modifications, variations or equivalents. It is intended that the following claims define the scope of the invention and that methods and structures within the scope of these claims and their equivalents be covered thereby.