Description:Field of the Invention
This invention relates to Thermo-Fusion Heat Management System: Innovating Refrigeration-Integrated Food Heating Technology.
Background of the Invention
In contemporary times, refrigerators are used for food preservation, while microwave ovens are used for heating meals. Operating these two devices separately not only consumes energy but also takes up a significant amount of kitchen space.
To address this challenge, we introduce an integrated system that serves as both a refrigerator and a food heater, simplifying the process. This advanced system functions as a refrigerator in the traditional manner and also serves as a food heater by harnessing the waste heat generated during the refrigeration process. This approach ensures the efficient utilization of energy resources, as the heating function exclusively relies on the thermal output derived from the refrigerator's operation.
US2704802AMicrowave ovens function on the foundational concept of converting electromagnetic energy into thermal energy. When a polar molecule—indicating a molecule with opposing charges—crosses paths with these electromagnetic waves, it experiences oscillation in order to synchronize with the wave pattern. This occurrence triggers the dispersion of energy from the molecular dipole via molecular friction and collisions, consequently resulting in the production of heat.

RESEARCH GAP:
1). In our proposed system, the process of heating food will be achieved without electricity consumption. Instead, it will utilize the heat released by the refrigerator as its energy source.
2). It will not require additional space, as it will be installed on the top of the refrigerator.
3) Comparatively it will be much cheaper them a separately brought food heater and will be convenient to use.
None of the prior art indicate above either alone or in combination with one another disclose what the present invention has disclosed. This invention relates to Thermo-Fusion Heat Management System: Innovating Refrigeration-Integrated Food Heating Technology.
SUMMARY OF THE INVENTION
This summary is provided to introduce a selection of concepts, in a simplified format, that are further described in the detailed description of the invention.
This summary is neither intended to identify key or essential inventive concepts of the invention and nor is it intended for determining the scope of the invention.
To further clarify advantages and features of the present invention, a more particular description of the invention will be rendered by reference to specific embodiments thereof, which is illustrated in the appended drawings. It is appreciated that these drawings depict only typical embodiments of the invention and are therefore not to be considered limiting of its scope. The invention will be described and explained with additional specificity and detail with the accompanying drawings.
The proposed system (Figure 1) consists of a food heating chamber (101), situated on the top a refrigerator. As shown in the accompanying diagram (Figure 2), the apparatus comprises two primary components: a heating coil (102) and a protective mesh (108). These elements are positioned within a designated heating chamber (101). The primary role of the heating coil(102) is to facilitate the transfer of heat generated during the refrigeration process inside the refrigerator raising the temperature within the heating chamber(101).
A key feature to this setup is the inclusion of a sensor (104). A sensor’s function is to detect any excess heat generated within the heating chamber (101). When access heat is detected, the sensor (104) triggers an exhaust mechanism, which expels the additional heat. Additionally, the current temperature within the chamber is displayed on a display panel (107) integrated into the chamber door. This display also offers the capability to regulate the temperature, working in tandem with the exhaust system (106) and the sensor (104). Notably, a secondary outlet is present, to prevent the formation of a vacuum within the chamber while the heating process is ongoing.
Efforts to maintain the desired internal temperature is enhanced by the incorporation of an heat insulating layer (105), strategically positioned between the outer and inner walls of the chamber. Furthermore, a layer of heat reflector (103) material is introduced within the chamber. This layer acts as a barrier between the inner wall and the heating coil(102), effectively redirecting and containing the generated heat.
On the interior aspect, the configuration includes specific arrangements: the rear wall and the left-side wall will be entirely enveloped by the heating coil(102), while the right-side wall will be partially occupied by the heating coil(102). The remaining portion of this right-side wall will house both the primary and secondary outlets, along with the Heat sensor (104). To ensure structural integrity and protection, each of these three walls will be shielded by a Mesh (108), reducing the risk of any rupture.
The synergy of these components is integral to the operational harmony of the system. When functioning seamlessly and without any anomalies, the culmination of these elements results in the desired outcome. This outcome is characterized by the successful attainment of the intended objectives, free from any undesired occurrences or deviations from the designed operation.
BRIEF DESCRIPTION OF THE DRAWINGS
The illustrated embodiments of the subject matter will be understood by reference to the drawings, wherein like parts are designated by like numerals throughout. The following description is intended only by way of example, and simply illustrates certain selected embodiments of devices, systems, and methods that are consistent with the subject matter as claimed herein, wherein:
FIGURE 1: FOOD HEATING CHAMBER SITUATED ON THE TOP A REFRIGERATOR
FIGURE 2: APPARATUS COMPRISING A HEATING COIL (102) AND A PROTECTIVE MESH (108). FIGURE 3: SYSTEM ARCHITECTURE
The figures depict embodiments of the present subject matter for the purposes of illustration only. A person skilled in the art will easily recognize from the following description that alternative embodiments of the structures and methods illustrated herein may be employed without departing from the principles of the disclosure described herein.
DETAILED DESCRIPTION OF THE INVENTION
The detailed description of various exemplary embodiments of the disclosure is described herein with reference to the accompanying drawings. It should be noted that the embodiments are described herein in such details as to clearly communicate the disclosure. However, the amount of details provided herein is not intended to limit the anticipated variations of embodiments; on the contrary, the intention is to cover all modifications, equivalents, and alternatives falling within the scope of the present disclosure as defined by the appended claims.
It is also to be understood that various arrangements may be devised that, although not explicitly described or shown herein, embody the principles of the present disclosure. Moreover, all statements herein reciting principles, aspects, and embodiments of the present disclosure, as well as specific examples, are intended to encompass equivalents thereof.
The terminology used herein is for the purpose of describing particular embodiments only and is not intended to be limiting of example embodiments. As used herein, the singular forms “a",” “an” and “the” are intended to include the plural forms as well, unless the context clearly indicates otherwise. It will be further understood that the terms “comprises,” “comprising,” “includes” and/or “including,” when used herein, specify the presence of stated features, integers, steps, operations, elements and/or components, but do not preclude the presence or addition of one or more other features, integers, steps, operations, elements, components and/or groups thereof.
It should also be noted that in some alternative implementations, the functions/acts noted may occur out of the order noted in the figures. For example, two figures shown in succession may, in fact, be executed concurrently or may sometimes be executed in the reverse order, depending upon the functionality/acts involved.
In addition, the descriptions of "first", "second", “third”, and the like in the present invention are used for the purpose of description only, and are not to be construed as indicating or implying their relative importance or implicitly indicating the number of technical features indicated. Thus, features defining "first" and "second" may include at least one of the features, either explicitly or implicitly.
Unless otherwise defined, all terms (including technical and scientific terms) used herein have the same meaning as commonly understood by one of ordinary skill in the art to which example embodiments belong. It will be further understood that terms, e.g., those defined in commonly used dictionaries, should be interpreted as having a meaning that is consistent with their meaning in the context of the relevant art and will not be interpreted in an idealized or overly formal sense unless expressly so defined herein.
The proposed system (Figure 1) consists of a food heating chamber (101), situated on the top a refrigerator. As shown in the accompanying diagram (Figure 2), the apparatus comprises two primary components: a heating coil (102) and a protective mesh (108). These elements are positioned within a designated heating chamber (101). The primary role of the heating coil(102) is to facilitate the transfer of heat generated during the refrigeration process inside the refrigerator raising the temperature within the heating chamber(101).
A key feature to this setup is the inclusion of a sensor (104). A sensor’s function is to detect any excess heat generated within the heating chamber (101). When access heat is detected, the sensor (104) triggers an exhaust mechanism, which expels the additional heat. Additionally, the current temperature within the chamber is displayed on a display panel (107) integrated into the chamber door. This display also offers the capability to regulate the temperature, working in tandem with the exhaust system (106) and the sensor (104). Notably, a secondary outlet is present, to prevent the formation of a vacuum within the chamber while the heating process is ongoing.
Efforts to maintain the desired internal temperature is enhanced by the incorporation of an heat insulating layer (105), strategically positioned between the outer and inner walls of the chamber. Furthermore, a layer of heat reflector (103) material is introduced within the chamber. This layer acts as a barrier between the inner wall and the heating coil(102), effectively redirecting and containing the generated heat.
On the interior aspect, the configuration includes specific arrangements: the rear wall and the left-side wall will be entirely enveloped by the heating coil(102), while the right-side wall will be partially occupied by the heating coil(102). The remaining portion of this right-side wall will house both the primary and secondary outlets, along with the Heat sensor (104). To ensure structural integrity and protection, each of these three walls will be shielded by a Mesh (108), reducing the risk of any rupture.
The synergy of these components is integral to the operational harmony of the system. When functioning seamlessly and without any anomalies, the culmination of these elements results in the desired outcome. This outcome is characterized by the successful attainment of the intended objectives, free from any undesired occurrences or deviations from the designed operation.
I). HEATING CHAMBER (101): Within our envisioned system, the heating chamber (101) emerges as the paramount and pivotal entity. Put differently, it stands as the fundamental and exclusive cornerstone upon which the entirety of our proposed system is predicated. Any alterations made to auxiliary systems or modifications within its immediate environment will exert a direct influence upon this heating chamber (101). This is owing to the fact that the collective amalgamation of components constitutes the intricate heating chamber (101) as a cohesive whole. Thus, any adjustments, adaptations, or modifications within this holistic framework inherently implicate the functionality and integrity of the central heating chamber (101).
II). HEATING COIL (102): The common household refrigerator utilizes a coil to dissipate the heat generated within the fridge during the cooling process, which aids in maintaining a lower temperature. This coil is distributed across the rear panel of the refrigerator. In our proposed setup, we will harness this coil to direct heat into the designated compartment with the help of heat reflector (103) and other supporting components.
III). HEAT REFLECTOR (103): The incorporation of a heat reflector (103) within the heating chamber (101) serves as a strategic enhancement to the system's thermal dynamics. By positioning this reflective barrier between the inner wall and the heating coil (102), an ingenious mechanism is established. The heat reflector (103) effectively redirects and concentrates the thermal energy emitted by the heating coil (102) back into the chamber, preventing unnecessary loss of heat through the chamber walls. This process optimizes the heating efficiency within the chamber, ensuring that the generated heat is efficiently harnessed for elevating the chamber's temperature. As a result, the heat reflector (103) contributes significantly to the overall effectiveness of the system, allowing for quicker and more precise temperature control while conserving energy in the process.
IV). HEAT SENSOR (104): It plays a crucial role in maintaining the desired temperature range by continuously measuring the heat levels. When the temperature goes beyond the set threshold, the sensor triggers various actions, such as activating the Exhaust system(106) to expel excess heat.
V). HEAT INSULATOR (105): A premium-quality heat insulator (105) will be installed between outer wall of chamber and the inner wall of the chamber. This heat insulator(105) will serve to prevent the escape of heat from the heating chamber(101) into the remainder of the fridge, as well as the transfer of cooling temperatures from the fridge to the heating chamber(101) and the effect of surrounding temperature on the heating chamber(101) will also be reduced.
VI). EXHAUST SYSTEM (106): The Exhaust system (106) within our proposed setup plays a crucial role in maintaining optimal operating conditions. This system is designed to expel any excess heat that accumulates within the heating chamber (101), preventing overheating and ensuring a controlled environment. When the sensor detects elevated temperatures beyond the desired range, the exhaust mechanism is activated. This prompts the expulsion of surplus heat through the primary outlet, effectively regulating the chamber's temperature. This not only prevents potential malfunctions but also enhances the safety and longevity of the entire system. In tandem with temperature control mechanisms, the Exhaust system (106) contributes to the precision and reliability of our devised heating solution. It will have a flap (106A) at the beginning of the duct pipe(106B) and an exhaust fan(106C) at the end of the duct pipe(106B).
Flap (106A): Flaps refer to adjustable openings or panels that can be manipulated to control the airflow, temperature, or pressure within the heating chamber (101) or the Exhaust system (106). These flaps will play a role in managing the heat transfer and overall functioning of the system.
Duct pipe (106B): Duct pipes refer to pipes or tubes that are part of the Exhaust system (106) or any other system designed to channel air or heat from the heating chamber to the outside environment. These duct pipes play a critical role in guiding the flow of air or heat and ensuring effective ventilation or heat management within the system.
Exhaust fan (106C): An exhaust fan is a component that helps in expelling excess heat generated within the heating chamber (101). When the system detects a rise in temperature beyond the desired range, the exhaust fan could be activated to draw out the heated air from the chamber and release it outside. This action aids in maintaining the optimal temperature and prevents overheating.
VII). Display Panel (107): Display panel (107) is mounted on the door to display the temperature variation inside the heating chamber (101)
VIII). MESH(108): This Mesh(108) serves to prevent damage to the components inside the heating chamber(101), such as the heating coil(102), primary and secondary outlets, and Heat sensor(104), by acting as a barrier that allows air circulation while preventing physical contact or rupture. The Mesh (108) also helps to maintain the structural integrity of the components while allowing heat and airflow to pass through.
IX). VALVE (109): The valve (109) will be employed to facilitate the redirection of the flow of hot air or heat between the refrigerator's rear radiator and our envisaged heating system.
A Thermo-fusion heat management system: innovating refrigeration-integrated food heating technology comprises a heating chamber (101), a heating coil (102), a heat reflector (103), a heat sensor (104), a heat Insulator (105), an exhaust system (106), a flap (106A), a duct pipe (106B), an exhaust fan (106C), a display panel (107), a mesh (108), a valve (109), wherein the heating chamber (101) emerges as the paramount and pivotal entity and it stands as the fundamental and exclusive cornerstone upon which the entirety of our proposed system is predicated.
In another embodimentthe common household refrigerator utilizes the heating coil (102) to dissipate the heat generated within the fridge during the cooling process, which aids in maintaining a lower temperature and this coil is distributed across the rear panel of the refrigerator.
In another embodimentthe incorporation of a heat reflector (103) within the heating chamber (101) serves as a strategic enhancement to the system's thermal dynamics and the heat reflector (103) effectively redirects and concentrates the thermal energy emitted by the heating coil (102) back into the chamber, preventing unnecessary loss of heat through the chamber walls; this process optimizes the heating efficiency within the chamber, ensuring that the generated heat is efficiently harnessed for elevating the chamber's temperature. As a result, the heat reflector (103) contributes significantly to the overall effectiveness of the system, allowing for quicker and more precise temperature control while conserving energy in the process.
In another embodiment the heat sensor (104) plays a crucial role in maintaining the desired temperature range by continuously measuring the heat levels and when the temperature goes beyond the set threshold, the sensor triggers various actions, such as activating the Exhaust system(106) to expel excess heat.
In another embodiment the heat insulator (105) will be installed between outer wall of chamber and the inner wall of the chamber and this heat insulator (105) will serve to prevent the escape of heat from the heating chamber (101) into the remainder of the fridge, as well as the transfer of cooling temperatures from the fridge to the heating chamber (101) and the effect of surrounding temperature on the heating chamber (101) will also be reduced.
In another embodimentwhen the sensor detects elevated temperatures beyond the desired range, the exhaust mechanism is activated and this prompts the expulsion of surplus heat through the primary outlet, effectively regulating the chamber's temperature; In tandem with temperature control mechanisms, the Exhaust system (106) contributes to the precision and reliability of our devised heating solution; it will have a flap (106A) at the beginning of the duct pipe(106B) and an exhaust fan(106C) at the end of the duct pipe(106B);
• Wherein flaps (106A) refer to adjustable openings or panels that can be manipulated to control the airflow, temperature, or pressure within the heating chamber (101) or the Exhaust system (106).
• Wherein Duct pipes (106B) refer to pipes or tubes that are part of the Exhaust system (106) or any other system designed to channel air or heat from the heating chamber to the outside environment.
• Wherein an exhaust fan (106C) is a component that helps in expelling excess heat generated within the heating chamber (101), when the system detects a rise in temperature beyond the desired range, the exhaust fan could be activated to draw out the heated air from the chamber and release it outside.
In another embodiment the display panel (107) is mounted on the door to display the temperature variation inside the heating chamber (101).
In another embodiment the Mesh(108) serves to prevent damage to the components inside the heating chamber(101), such as the heating coil(102), primary and secondary outlets, and Heat sensor(104), by acting as a barrier that allows air circulation while preventing physical contact or rupture and also helps to maintain the structural integrity of the components while allowing heat and airflow to pass through.
In another embodimentthe valve (109) will be employed to facilitate the redirection of the flow of hot air or heat between the refrigerator's rear radiator and our envisaged heating system.
ADVANTAGES OF THE INVENTION
The proposed invention of integrating a heating chamber (101) with a Mesh (108)-protected heating coil (102), temperature sensor (104), and Exhaust system (106) within a refrigerator system may offer several distinct advantages like Efficient Food Heating, Optimized Temperature Control, Energy Conservation, Space Efficiency, User-Friendly Interface, Longevity and Durability
Overall, the invention presents a forward-looking solution that combines innovation, energy efficiency, safety, and user-friendliness to enhance the culinary experience within the household setting.
, Claims:1. A Thermo-fusion heat management system: innovating refrigeration-integrated food heating technology comprises a heating chamber (101), a heating coil (102), a heat reflector (103), a heat sensor (104), a heat Insulator (105), an exhaust system (106), a flap (106A), a duct pipe (106B), an exhaust fan (106C), a display panel (107), a mesh (108), a valve (109), wherein the heating chamber (101) emerges as the paramount and pivotal entity and it stands as the fundamental and exclusive cornerstone upon which the entirety of our proposed system is predicated.
2. The system as claimed in claim 1, wherein the common household refrigerator utilizes the heating coil (102) to dissipate the heat generated within the fridge during the cooling process, which aids in maintaining a lower temperature and this coil is distributed across the rear panel of the refrigerator.
3. The system as claimed in claim 1, wherein the incorporation of a heat reflector (103) within the heating chamber (101) serves as a strategic enhancement to the system's thermal dynamics and the heat reflector (103) effectively redirects and concentrates the thermal energy emitted by the heating coil (102) back into the chamber, preventing unnecessary loss of heat through the chamber walls; this process optimizes the heating efficiency within the chamber, ensuring that the generated heat is efficiently harnessed for elevating the chamber's temperature, thus, As a result, the heat reflector (103) contributes significantly to the overall effectiveness of the system, allowing for quicker and more precise temperature control while conserving energy in the process.
4. The system as claimed in claim 1, wherein the heat sensor (104) maintains the desired temperature range by continuously measuring the heat levels and when the temperature goes beyond the set threshold, the sensor triggers various actions, such as activating the Exhaust system (106) to expel excess heat.
5. The system as claimed in claim 1, wherein the heat insulator (105) is installed between outer wall of chamber and the inner wall of the chamber and this heat insulator (105) serves to prevent the escape of heat from the heating chamber (101) into the remainder of the fridge, as well as the transfer of cooling temperatures from the fridge to the heating chamber (101) and the effect of surrounding temperature on the heating chamber (101) will also be reduced.
6. The system as claimed in claim 1, whereinwhen the sensor detects elevated temperatures beyond the desired range, the exhaust mechanism is activated and this prompts the expulsion of surplus heat through the primary outlet, effectively regulating the chamber's temperature; In tandem with temperature control mechanisms, the Exhaust system (106) contributes to the precision and reliability of our devised heating solution; it has a flap (106A) at the beginning of the duct pipe(106B) and an exhaust fan(106C) at the end of the duct pipe(106B);
wherein flaps (106A) refer to adjustable openings or panels that is manipulated to control the airflow, temperature, or pressure within the heating chamber (101) or the Exhaust system (106);
wherein Duct pipes (106B) refer to pipes or tubes that are part of the Exhaust system (106) or any other system designed to channel air or heat from the heating chamber to the outside environment.
wherein an exhaust fan (106C) is a component that helps in expelling excess heat generated within the heating chamber (101), when the system detects a rise in temperature beyond the desired range, the exhaust fan could be activated to draw out the heated air from the chamber and release it outside.
7. The system as claimed in claim 1, wherein the display panel (107) is mounted on the door to display the temperature variation inside the heating chamber (101).
8. The system as claimed in claim 1, wherein the Mesh (108) serves to prevent damage to the components inside the heating chamber (101), such as the heating coil (102), primary and secondary outlets, and Heat sensor (104), by acting as a barrier that allows air circulation while preventing physical contact or rupture and also helps to maintain the structural integrity of the components while allowing heat and airflow to pass through.
9. The system as claimed in claim 1, whereinthe valve (109) will be employed to facilitate the redirection of the flow of hot air or heat between the refrigerator's rear radiator and our envisaged heating system.