A temperature-regulating smart baby bottle system

Abstract

A temperature-regulating baby bottle system comprising: a housing consisting of an upper cover housing and a lower cover housing; a thermal interface plate configured for thermal coupling with a bottle container; a temperature sensor assembly comprising a sensor support ring and a temperature sensor, the temperature sensor being configured to monitor the temperature of the liquid in the bottle container; a thermoelectric module thermally coupled to the thermal interface plate and configured to selectively heat or cool the thermal interface plate; a heat dissipation assembly comprising a heat sink thermally coupled to the thermoelectric module and a plurality of cooling fans;and a control system comprising a microcontroller, a display unit and a power source, wherein the microcontroller is configured to process temperature data from the temperature sensor, to dynamically adjust the thermoelectric module based on the processed temperature data to maintain the liquid temperature within a predetermined range, the display unit is configured to show operating parameters to the user, and the power source is configured to supply power to components of the system.

Description

FIELD OF THE INVENTIONThe present disclosure relates to a smart baby bottle system with temperature control. More particularly, the present invention relates to a smart baby bottle system with temperature control configured to maintain the optimum feeding temperature of the baby milk bottle by using a dual function heating and cooling system integrated into the bottle bottom. The proposed system uses thermoelectric and electronic components to ensure precise thermal regulation and thus improve comfort and safety for the caregivers.BACKGROUND OF THE INVENTIONBaby bottles currently available on the market often cannot maintain the temperature of the liquid in the optimum feeding range. Caregivers must frequently check and adjust the temperature manually, using external tools such as hot water baths or cooling methods, which are inconvenient, time consuming, and prone to errors. This process is particularly challenging in nocturnal feeding or on travel, as accurate temperature control becomes even more difficult.The most common problems with conventional baby bottles are overheating, insufficient cooling and the inability to monitor temperature in real time. Overheating can scalify the infant's mouth, while insufficient cooling can make the liquid too warm and thus edible for consumption. Moreover, no reliable system is available to caregivers, indicating when the liquid has reached or deviates from the ideal feeding temperature.Although some modern bottles offer a basic thermal function, they often do not have integrated cooling functions, so that additional devices are required for regulating the temperature fluctuations. Moreover, these products do not provide automatic, precise temperature control or user feedback, so there is a market gap for more intelligent complete solutions for feeding.This invention seeks to overcome these limitations by providing a baby bottle with an integrated heating and cooling system. With the aid of a thermoelectric module (Peltier element), temperature sensors and a microcontroller, the invention ensures real-time monitoring and precise temperature adaptations. The compact and portable design makes it suitable for various environments and offers caregivers a reliable, secure and user-friendly solution to infant nutrition.By incorporating advanced temperature control technology and modern user interfaces, this invention revolutionizes the conventional baby bottle, enhances the health care professional experience, and provides infant safety and comfort.SUMMARY OF THE INVENTIONThe present disclosure relates to a temperature regulating smart baby bottle system. The temperature regulating smart baby bottle system uses thermoelectric technology to maintain the optimum feeding temperature. The system uses a Peltier heating and cooling module controlled by a microcontroller that processes real-time temperature data from an embedded sensor.The present disclosure aims to provide a smart baby bottle system for temperature regulation. The system comprises: a housing comprised of top and bottom covers; a thermal interface plate configured to be thermally coupled to a bottle container; a temperature sensing assembly comprised of a sensor support ring and a temperature sensor, the temperature sensor configured to monitor the temperature of the liquid in the bottle container; a thermoelectric module thermally coupled to the thermal interface plate and configured to selectively heat or cool the thermal interface plate; a heat dissipation assembly comprised of a heat sink thermally coupled to the thermoelectric module and a plurality of cooling fans; and a control system consisting of a microcontroller, a display unit and a power source, wherein the microcontroller is configured to process temperature data from the temperature sensor, dynamically adjust the thermoelectric module based on the processed temperature data to maintain the liquid temperature within a predetermined range, the display unit is configured to display operating parameters to the user, and the power source is configured to provide power to components of the system.An object of the present disclosure is to provide a smart baby bottle system with temperature regulation.Another object of the present disclosure is to provide an integrated solution for maintaining infant food at optimum temperature through heating and cooling functions.Another object of the present disclosure is to ensure precise temperature control through real-time monitoring and automatic adjustment.Another object of the present disclosure is to provide a portable battery powered device that can be used without continuous connection to power sources.In order to further clarify the advantages and features of the present disclosure, a more detailed description of the invention will be given with reference to specific embodiments thereof illustrated in the accompanying drawings. It should be noted that these drawings illustrate only typical embodiments of the invention and are therefore not to be considered as limiting the scope thereof. The invention will be described and explained with additional details and details with reference to the accompanying drawings.BRIEF DESCRIPTION OF THE FIGURESThese and other features, aspects, and advantages of the present disclosure will become more fully understood when the following detailed description is read with reference to the accompanying drawings, in which like characters represent like parts throughout. The following applies here: FIG. 1 is a block diagram of a temperature regulating smart baby bottle system according to an embodiment of the present disclosure; FIG. 2 illustrates a diagram showing (a) a plan view, (b) a bottom view, and (c) a side view of the proposed system according to an embodiment of the present disclosure; FIG. 3 is a diagram showing (a) the front, (b) the rear, and (c) the orthogonal view of the proposed system according to an embodiment of the present disclosure; and FIGS. 4A and 4B illustrate diagrams showing exploded views of the proposed system according to an embodiment of the present disclosure.Moreover, those skilled in the art will appreciate that elements are shown in the drawings for simplicity and need not necessarily be drawn to scale. For example, the flowcharts illustrate the method using the major steps to improve understanding of aspects of the present disclosure. Moreover, with respect to the construction of the apparatus, one or more components of the apparatus may have been represented in the drawings by conventional symbols, and the drawings may only show the specific details relevant to understanding the embodiments of the present disclosure so as not to obscure the drawings with details readily apparent to those skilled in the art having the benefit of the description herein.DETAILED DESCRIPTION:In order to aid in the understanding of the principles of the invention, reference will now be made to the embodiment illustrated in the drawings and described in specific language. It is to be understood, however, that no limitation of the scope of the invention is intended, since such changes and further modifications to the illustrated system and such further applications of the principles of the invention as illustrated therein are contemplated, as would normally occur to one skilled in the art to which the invention pertains.It will be understood by those skilled in the art that the foregoing general description and the following detailed description are exemplary and explanatory of the invention and are not intended to be limiting thereof.References throughout this specification to "one aspect," "another aspect," or similar language mean that a particular feature, structure, or characteristic described in connection with the embodiment is included in at least one embodiment of the present disclosure. Thus, the appearances of the phrase "in one embodiment," "in another embodiment," and similar language in this specification may or may not all refer to the same embodiment.The terms "comprises," "comprising," or other variations thereof are intended to cover a non-exclusive inclusion, such that a process or method comprising a list of steps not only comprises those steps, but may also comprise other steps not expressly listed or inherent in such a process or method. Likewise, one or more devices or subsystems or elements or structures or components preceded by "comprises...a" do not exclude, without further limitations, the existence of other devices or other subsystems or other elements or other structures or other components or additional devices or additional subsystems or additional elements or additional structures or additional components.Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by one of ordinary skill in the art to which this invention pertains. The system, methods, and examples provided herein are illustrative only and are not to be considered limiting.Embodiments of the present disclosure will be described in detail below with reference to the accompanying drawings.FIG. 1 is a block diagram of a temperature regulating smart baby bottle system (100) according to an embodiment of the present disclosure.Referring to FIG. 1, the baby bottle system (100) includes a housing (102) including an upper housing cover (102a) and a lower housing cover (102b); a thermal interface plate (104) configured for thermal coupling to a bottle container; a temperature sensing assembly (106) including a sensor support ring (106a) and a temperature sensor (106b), the temperature sensor (106b) configured to monitor the liquid temperature in the bottle container; a thermoelectric module (108) thermally coupled to the thermal interface plate (104) and configured to selectively heat or cool the thermal interface plate (104); a heat dissipation assembly (110) including a heat sink (110a) thermally coupled to the thermoelectric module (108) and a plurality of cooling fans (110b); and a control system (112) comprising a microcontroller (112a), a display unit (112b) and a power source (112c), wherein the microcontroller (112a) is configured to process temperature data from the temperature sensor (106b), dynamically adjust the thermoelectric module (108) based on the processed temperature data to maintain the liquid temperature within a predetermined range, the display unit (112b) is configured to display operating parameters to the user, and the power source (112c) is configured to provide power to components of the system (100).In one embodiment, the top cover housing (102a) of the housing (102) is integrated with the copper material thermal interface plate, wherein the temperature sensor (106b) is housed in the sensor support ring (106a) positioned directly above the thermal interface plate (104), wherein the thermal interface plate (104) contacts the baby bottle for heat transfer, and wherein the temperature sensor (106b), when the system is active, continuously monitors the temperature of the milk or liquid in the bottle and transmits the obtained data to the control system (112).In one embodiment, the thermoelectric module (108) operates to transfer heat with the Peltier effect, wherein the thermoelectric module (108) is thermally coupled to the thermal interface plate (104), and as needed, the thermoelectric module (108) is configured to either receive heat from the plate to cool the liquid or transfer heat to the plate (104) to heat the liquid, wherein the heat sink (110a) of the heat dissipation assembly (110) is thermally coupled to the thermoelectric module (108) to dissipate excess heat generated during the cooling operation, and wherein a plurality of cooling fans (110b) configured to operate at variable speeds are strategicly positioned around the heat sink (110a) to achieve improved airflow, This permits efficient heat dissipation and maintains an optimum operating temperature.In an embodiment, the heat dissipation assembly (110) further comprises one or more louvers (110c) formed in the housing, wherein the plurality of cooling fans (110b) are positioned to direct the flow of air through the louvers and over the heat sink (110a).In one embodiment, the housing (102) of the system (100) is integrated with a user input button (114) configured to switch between power (on / off) and mode of operation; and a display window integrated with the top cover for viewing the display unit (112b) of the control system (112), the user input button (114) including a tactile on / off switch that allows the user to switch the device on or off and switch between heating and cooling modes.In one embodiment, the microcontroller (112a) of the control system (112) processes the data received from the temperature sensor (106b) and manages the operation of the thermoelectric module (108), wherein the microcontroller (112a) is additionally connected to the display unit (112b) for displaying the operating parameters of the system, and wherein the microcontroller responds to the user inputs via the user input button.In one embodiment, the microcontroller (112a) is configured to compare the monitored temperature to predetermined thresholds, activate the thermoelectric module (108) in the heating mode when the monitored temperature is below a lower threshold, activate the thermoelectric module (108) in the cooling mode when the monitored temperature is above an upper threshold, deactivate the thermoelectric module (108) when the monitored temperature is within the predetermined range, and log the temperature data over time.In one embodiment, the power source (112c) of the control system (112) comprises a rechargeable battery, wherein the rechargeable battery can be charged via a Type C USB charging port configured to receive power for charging the battery, wherein the charging port is housed within a housing.In one embodiment, the display unit (112b) includes an OLED screen configured to display the following information: current liquid temperature, operating mode status, battery level display, and system warnings.In one embodiment, the upper cover housing (102a) and the lower cover housing (102b) together enclose the internal components of the system (100), the housings having a display slot that receives the display unit (112b) and a key slot that receives the user input key (114), the upper and lower cover housings together providing protection of the components of the system by securely housing them.The present invention relates to a smart baby bottle system with temperature control, the system comprising a smart baby bottle base unit including a copper heat plate, a Peltier thermoelectric module, a temperature sensor and a control system. The apparatus actively monitors the liquid temperature and automatically adjusts the heating or cooling to maintain optimum feeding conditions. The system includes safety features, battery power, and a user interface that displays temperature and status information in real time.FIG. 2 illustrates a diagram showing top, bottom, and side views of the proposed system according to an embodiment of the present disclosure.FIG. 3 is a diagram showing the front, back, and orthogonal views of the proposed system according to an embodiment of the present disclosure.FIGS. 4A and 4B illustrate diagrams showing exploded views of the proposed system according to an embodiment of the present disclosure.Referring to FIGS. 2, 3 and 4, the present invention discloses a smart baby bottle with temperature regulation. This innovative feeding solution integrates advanced heating and cooling functions into a compact basis and allows precise temperature control of the liquid content. The system is carefully designed and has labeled components to provide clear understanding and operation.The bottle assembly includes a copper plate designated [2] which serves as a primary thermal interface for temperature regulation. The copper plate is located directly below the baby glass bottle (not shown) and provides efficient heat transfer between the heating / cooling system and the liquid in the bottle, thereby enabling rapid and uniform temperature adjustment. Above the copper plate is the support ring denoted [2a] in which the temperature sensor denoted [2b] is located. This back-up ring provides structural support and provides accurate temperature measurements of the liquid in the bottle. The embedded temperature sensor continuously monitors the temperature of the liquid and transmits real-time data to the controller for precise thermal adjustments.The heat regulating system is centered around the thermoelectric module (Peltier module), characterized by [3] which is responsible for both the heating and cooling functions. This module takes advantage of the Peltier effect for heat transfer by either absorbing heat from the copper plate to cool the liquid or transferring heat to the copper plate to heat it. Due to the bi-directionality, separate heating and cooling mechanisms become superfluous, which ensures a compact design. The heat sink with the designation [5] is connected to the thermoelectric module, which heat sink dissipates excess heat which arises during the cooling process. The finned heat sink maximizes the surface area for effective thermal management. In addition, there are four cooling fans labeled [6a1], [6a2], [6a3], and [6a4] strategicly positioned around the heat sink. These fans improve the flow of air through the louvers labeled [1c1] and [1c2], thereby enabling efficient heat dissipation and maintaining the optimum operating temperature of the device.The control and power supply systems are powered by a lithium ion rechargeable battery designated [4] which powers the control unit, thermoelectric module, cooling fans and display unit. The battery may be charged via the USB type C input socket labeled [1d2], which allows mobility and obviates the need for constant power supply. The control unit labeled [8] is a Raspberry Pi microcontroller based system that processes data from the temperature sensor [2b] and manages the operation of the thermoelectric module. This ensures that the liquid in the bottle is maintained at the desired temperature by dynamically adjusting heating and cooling as required. The control unit is also connected to the display unit [7] and responds to user input through the on / off switch designated [1b2]. Moreover, the USB type C input socket [1d2] and the corresponding empty hole [1d1] facilitate the easy charging of the battery.The user interface has an upper housing with the designation [1a] which, together with the lower housing with the designation [1b], securely encloses the internal components. The upper housing has a display gap labeled [1a1], in which the OLED display unit labeled [7] is located, which allows clear display of the temperature values and the device status. It also has a key slot designated [1a2] in which the on / off switch [1b2] is located for easy manual control. The lower case has a display acrylic cover denoted as [1b1] which protects the OLED display unit and ensures its durability. The switch-on / off [1b2] is a tactile switch with which users can switch the device on or off and switch between heating and cooling modes. The OLED display unit with a resolution of 128×32 pixels provides real-time information on the temperature of the liquid, the operating status and the power levels. It is positioned within the display gap [1a1], ensuring that users can easily monitor and interact with the device.The housing and venting system include the upper [1a] and lower [1b] cover housings that provide structural integrity and protect the internal components. The ventilation slits denoted by [1c1] and [1c2] allow the air flow of the cooling fans [6a1-6a4], thereby ensuring effective heat dissipation and preventing overheating of the internal components. Together, these functions improve the durability, portability, and constant performance of the apparatus.With the on / off switch [1b2] located in the switch slot [1a2], the user can activate the system. Upon activation, temperature sensor [2b] is triggered and begins to monitor the temperature of the liquid in the bottle enclosed by copper plate [2]. The control unit [8] continuously processes the temperature data provided from the sensor [2b] to regulate the thermoelectric module [3].In heating mode, when the temperature of the liquid falls below the optimum feeding range, the control unit [8] activates the Peltier module [3] to generate heat. The hot side of the Peltier module transfers heat to the copper plate [2], which heats the liquid by conduction. On the other hand, in the cooling mode, when the temperature of the liquid exceeds the desired range, the control unit [8] inverts the Peltier module [3] to absorb heat. The cold side of the module extracts heat from the copper plate [2], thus effectively cooling the liquid. This dynamic temperature control ensures that the liquid remains in the desired range for feeding. The control unit [8] continuously receives temperature data from the sensor [2b] and adjusts the Peltier module [3] accordingly. This ensures that the liquid remains in the optimum temperature range and constant feeding conditions are ensured.Via the OLED display [7], the user receives real-time feedback on the temperature of the liquid and the operating state of the device. Integrated LED indicators in the indicator [7] inform the user when the liquid has reached the optimum feeding temperature and signal that the bottle is ready for use. Once the target temperature is reached, the control unit [8] switches the device to the standby mode, in which it maintains the temperature of the liquid with minimal energy consumption. This function extends battery life and maintains the liquid at the ideal temperature so that it is ready for feeding at all times.The temperature regulating smart baby bottle is comprised of a base housing having upper and lower housings which are intended to enclose and protect the internal components. In the base housing is a copper plate covering a part of a glass baby bottle placed above. Directly above the copper plate is a support ring in which a temperature sensor is embedded, which continuously monitors the temperature of the liquid in the glass baby bottle. Below the copper plate is a thermoelectric (Peltier) module configured to provide heating and cooling functions to the copper plate based on control signals. A heat sink is attached to the thermoelectric module to dissipate excess heat generated during the cooling process. Cooling fans are strategic around the heat sink to improve airflow and allow efficient heat dissipation through louvers integrated into the upper and lower housings. A rechargeable battery is integrated in the base housing to supply power to the electronic components of the device. A USB Type C input socket and corresponding Type C empty hole in the lower housing allow the rechargeable battery to be charged.The apparatus includes a control unit consisting of a Raspberry Pi microcontroller which processes temperature data from the temperature sensor and controls the operation of the thermoelectric module to maintain the temperature of the liquid in an optimum supply range. An OLED display unit having a resolution of 128×32 pixels is positioned in a display gap in the upper cover case and displays temperature values, device status, and power levels in real time. An on / off switch is located in a key slot in the upper cover housing and allows manual activation and deactivation of the device. Louvers are integrated with the upper and lower cover housings to allow the flow of air from the cooling fans and prevent overheating of the internal components. The thermoelectric module operates bidirectionally to enable both heating and cooling of the copper plate based on control signals of the control unit. In addition, the device includes a display acrylic cover for protecting the OLED display unit, which ensures durability and clarity of the displayed information.The control unit is programmed to continuously receive temperature data from the temperature sensor and activate the thermoelectric module in heating mode when the liquid temperature falls below a predefined optimum feed range. It activates the module in the cooling mode when the temperature exceeds the optimum range and switches the device to the standby mode when the temperature reaches the optimum range to save power. The OLED display unit is configured to display the current temperature of the liquid in the baby glass bottle, the operating status of the device, and the charge level of the battery. With the on / off key, users can turn the device on or off and switch between manual and automatic temperature control modes. The cooling fans operate at variable speeds depending on the heat dissipation requirements set by the controller.The device also has LED indicators integrated in the OLED indicator and signal when the liquid has reached the optimum feeding temperature and when the device is in standby mode. The rechargeable battery is a lithium-ion battery that provides sufficient current to operate the device for extended periods of time without continuous charging. The support ring is designed in such a way that it holds the temperature sensor securely in the vicinity of the liquid in the baby glass bottle and thus ensures accurate and quick temperature monitoring. The louvers are strategicly placed to maximize airflow efficiency and improve cooling performance of the heat sink and cooling fans. Heat-conducting paste is applied between the thermoelectric module and the copper plate in order to improve the thermal conductivity and to ensure efficient heat transfer.The housings of the upper and lower covers are made of long-lived, heat-resistant materials to ensure longevity and safety of the device during heating and cooling operations. The device is configured to enter a low power standby mode when it does not actively regulate temperature, thereby extending battery life of the battery. Moreover, the control unit is configured to log temperature data over time and provide the caregiver with insight into feeding patterns and temperature constancy.The system is characterized by a compact and portable design, which is made possible by its integrated housing, which comprises an upper cover [1a] and a lower cover [1b], thus ensuring a compact form factor. The rechargeable battery [4] improves its portability, so that the system can be used in various environments such as home, travel and in convenience locations.Thermal efficiency is achieved by using a copper plate [2] which provides high thermal conductivity and ensures rapid and uniform temperature changes. The Peltier module [3] in combination with the heat sink [5] and the cooling fans [6a1-6a4] provides efficient thermal management by minimizing energy loss and optimizing performance. Safety mechanisms include a temperature sensor [2b] which continuously monitors the temperature of the liquid and prevents overheating or supercooling which could pose a risk to infants. Ventilation slits [1c1] and [1c2], as well as the cooling fans [6a1-6a4], prevent overheating of the system during prolonged operation. The control unit [8] is equipped with safety measures which make it possible to automatically shut down or adjust the operation in the case of system anomalies.The system has a user-friendly interface with a single on / off switch [1b2] for simplified operation, so that it is also accessible during nocturnal feeding or in the event of fatigue of the caregiver. A clear OLED display [7] and LED displays provide intuitive feedback and keep the caregiver track of the system status and temperature of the liquid. The synergy between copper plate [2], thermoelectric module [3] and cooling body [5] ensures rapid and uniform temperature adjustments and keeps the liquid in the optimum feeding region with minimal energy consumption. The integrated and closed design, protected by the upper [1a] and lower [1b] housings, makes the system highly portable and easy to handle and accommodates the dynamic life style of modern caregivers. The continuous temperature monitoring by the sensor [2b] and the automatic heat regulation by the control unit [8] ensure that the liquid maintains a safe and pleasant temperature for infants, thereby reducing risks associated with temperature fluctuations.The system is versatile and suitable for various environments, including home use, where it simplifies the daily feeding routine by automatizing temperature control. On travel, thanks to its portable design and rechargeable battery [4], it is convenient for feeding on the way. In the care of children and in pediatrics, the system ensures reliable and constant temperature control and thus increases the safety and comfort of the involved infants. The intuitive user interface consisting of the on / off switch [1b2] and the OLED display [7] ensures easy operation even under difficult circumstances such as nocturnal feeding or multi-tasking.The drawings and the foregoing description provide examples of embodiments. Those skilled in the art will appreciate that one or more of the described elements may well be combined into a single functional element. Alternatively, certain elements may be divided into multiple functional elements. Elements from one embodiment may be added to another embodiment. For example, orders of the processes described herein may be changed and are not limited to the manner described herein. Moreover, the actions of any flow chart need not be implemented in the order shown; nor do all actions necessarily need to be performed. Also, those actions that are not dependent on other actions may be performed in parallel with the other actions. The scope of the embodiments is in no way limited by these specific examples. Numerous variations, whether or not explicitly stated in the specification, such as differences in structure, dimension, and material usage, are possible. The scope of the embodiments is at least as broad as recited in the following claims.Advantages, other advantages, and solutions to problems have been described above with respect to certain embodiments. However, the advantages, benefits, solutions to problems, and any components that may result in an advantage, solution occurring or becoming clearer are not to be construed as a critical, required, or essential feature or component of any or all claims.REFERENCES100 A Temperature Regulating Smart Baby Bottle System. 102 Housing 102 a Oberes cover housing 102 b Unteres housing 104 Heat conduction plate 106 Temperature sensor 106 aSensor support ring 106 bTemperature sensor 108 Thermoelectric module 110 Heat dissipation assembly 110 aCooler 110 b Vielzahl cooling fans 112 Control system 112 a Mikrocontroller 112 bDisplay unit 112 cCurrent source 114 User input button

Claims

A temperature regulating baby bottle system comprising: a housing comprised of an upper cover housing and a lower cover housing; a thermal interface plate configured for thermal coupling to a bottle container; a temperature sensor assembly comprising a sensor support ring and a temperature sensor, the temperature sensor configured to monitor the temperature of the liquid in the bottle container; a thermoelectric module thermally coupled to the thermal interface plate and configured to selectively heat or cool the thermal interface plate; a heat dissipation assembly comprising a heat sink thermally coupled to the thermoelectric module and a plurality of cooling fans; and a control system comprising a microcontroller, a display unit, and a power source, wherein the microcontroller is configured to process temperature data from the temperature sensor, dynamically adjust the thermoelectric module based on the processed temperature data to maintain the liquid temperature within a predetermined range, the display unit is configured to display operating parameters to the user, and the power source is configured to provide power to components of the system.The system of claim 1, wherein the upper cover housing of the housing is integrated with the copper material thermal interface plate, wherein the temperature sensor is housed in the sensor support ring positioned directly above the thermal interface plate, wherein the thermal interface plate contacts the baby bottle for heat transfer, and wherein the temperature sensor continuously monitors the temperature of the milk or liquid in the bottle when the system is active, and the obtained data is transmitted to the control system.The system of claim 1, wherein the thermoelectric module for transferring heat is based on the Peltier effect, wherein the thermoelectric module is thermally connected to a thermal interface plate and, as needed, the thermoelectric module is configured to either receive heat from the plate to cool the liquid or transfer heat to the plate to heat the liquid, wherein the heat sink of the heat dissipation assembly is thermally coupled to the thermoelectric module to dissipate excess heat generated during the cooling operation, and wherein a plurality of cooling fans configured for variable speed operation are strategicly positioned around the heat sink to achieve an improved airflow that allows efficient heat dissipation and maintains an optimal operating temperature.The system of claim 1, wherein the heat dissipation assembly further comprises one or more louvers formed in the housing, the plurality of cooling fans positioned to direct the flow of air through the louvers and over the heat sink.The system of claim 1, wherein the housing of the system is integrated with a user input button for switching between power supply (on / off) and mode of operation; and a display window integrated with the top cover for viewing the display unit of the control system, the user input button comprising a tactile on / off switch that allows the user to switch the device on or off and switching between heating and cooling modes.The system of claim 1, wherein the microcontroller of the control system processes the data received from the temperature sensor and manages operation of the thermoelectric module, wherein the microcontroller is additionally connected to the display unit for displaying the operating parameters of the system, and wherein the microcontroller is responsive to the user inputs from the user input button.The system of claim 1, wherein the microcontroller is configured to compare the monitored temperature to predetermined thresholds, activate the thermoelectric module in the heating mode when the monitored temperature is below a lower threshold, activate the thermoelectric module in the cooling mode when the monitored temperature is above an upper threshold, deactivate the thermoelectric module when the monitored temperature is within the predetermined range, and log the temperature data over time.The system of claim 1, wherein the power source of the control system comprises a rechargeable battery, the rechargeable battery being chargeable via a type C USB charging port configured to receive power for charging the battery, the charging port being housed in a housing.The system of claim 1, wherein the display unit comprises an OLED screen configured to display current liquid temperature, operating mode status, battery level display, and system warnings.The system of claim 1, wherein the upper and lower cover housings together enclose the internal components of the system, the housings having a display slot receiving the display unit and a key slot receiving the user input key, wherein both the upper and lower cover housings together provide protection of the components of the system by securely housing them.

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