IL309518B1 - Microwave oven with vertical heating - Google Patents

Description

46465/IL/23- 1 - MICROWAVE OVEN WITH VERTICAL HEATING Field of the InventionThe present invention relates to the field of microwave heating appliances. More specifically, it pertains to a cup-sized microwave oven with vertical heating functionality. The invention encompasses a compact and specialized microwave oven designed for efficient and precise heating of beverages such as coffee, tea, hot chocolate, and other similar drinks. The cup-sized microwave oven incorporates advanced features including a vertical heating configuration, an optical sensor system, artificial intelligence (AI) integration, and a user application for enhanced control and customization. By focusing on the specific heating needs of beverages and employing innovative technologies, the invention aims to provide users with a convenient, reliable, and tailored beverage heating experience. Background of the invention In today's fast-paced world, hot beverages have become an integral part of people's daily routines. Whether it's a steaming cup of coffee to kick-start the morning or a soothing cup of tea to unwind in the evening, the enjoyment of a hot beverage is a cherished ritual for many individuals. Traditional methods of heating beverages often involve time-consuming processes such as boiling water on a stovetop or utilizing large microwave ovens designed for general heating purposes. However, these conventional approaches have their limitations. Boiling water on a stovetop can be cumbersome and time-consuming, while standard microwave ovens are not specifically optimized for heating beverages. This often results in uneven heating, imprecise temperature control, and the risk of overheating or scalding. Recognizing these challenges, there is a need for an innovative solution that caters specifically to the heating requirements of beverages, providing efficient, precise, and customized heating capabilities. It is an object of the present invention to provide efficient and targeted heating of beverages. By utilizing a vertical heating configuration, the microwave energy is focused on the beverage, minimizing energy loss and reducing heating time. 46465/IL/23- 2 - It is another object of the present invention to ensure uniform heating of the beverage. The invention incorporates a specialized cavity and heating mechanism that distribute the microwave energy evenly throughout the cup, resulting in consistent and uniform heating of the beverage. It is yet another object of the present invention to provide precise temperature control during the heating process. The integration of sensors, such as an optical sensor system allows for real-time monitoring of the beverage's temperature, ensuring that it reaches the desired temperature without the risk of overheating. It is still another object of the present invention to provide a compact microwave oven that is designed to offer customization and personalization options. By integrating an AI system and a user application, users can customize heating parameters, save preferred settings, and receive recommendations based on their preferences, creating a personalized beverage heating experience. Other objects and advantages of the invention will become apparent as the description proceeds. Summary of the InventionA compact microwave oven, comprising: - an oven cavity; - a vertical heating configuration to facilitate efficient and uniform heating within the oven cavity; - a vibrating arrangement for distributing content within the oven cavity and for applying vibration to the content; and - a control system for controlling a heating process of the content by regulating the generation and delivery of microwaves, and by controlling the vibration of the vibrating arrangement. In one aspect, the vertical heating configuration comprises a microwave generator located above the oven cavity and emits microwaves in a vertical direction towards the content. In another aspect, the microwave generator located below the oven cavity and emits microwaves in a vertical direction towards the content. 46465/IL/23- 3 - In one aspect, the microwave generator is a solid-state RF generator. In one aspect, the microwave oven further comprises one or more sensors for real-time monitoring of the content’s temperature during the heating process. In one aspect, the one or more sensors are selected from the group consisting of: optical sensor system, a non-contact temperature sensor temperature sensor, or combination of both In one aspect, the microwave oven further comprises an artificial intelligence (AI) integration system for personalized heating and optimization of heating parameters. In one aspect, the AI integration system utilizes machine learning algorithms to analyze user preferences and optimize heating parameters based on content type and desired temperature. In one aspect, the microwave oven further comprises a user application providing a customizable interface for controlling the heating process. In one aspect, the user application allows users to save preferred heating settings, access pre-programmed profiles, and receive personalized recommendations for optimal heating results. In one aspect, the dimension of the oven cavity is a length of 8cm, a width of 8cm and a height of 12.24 cm or multiplications thereof. For example, the oven cavity having dimensions suitable for accommodating a standard-sized cup. In one aspect, the microwave oven further comprises one or more safety mechanisms to contain microwaves within the oven cavity and protect users from radiation exposure. The safety mechanism including a door sensor that prevents the oven from operating when the door is open and a child lock function to prevent unauthorized usage. 46465/IL/23- 4 - In one aspect, the microwave oven further comprises an integrated display and intuitive control panel for easy operation and monitoring of the heating process. In one aspect, the vibrating arrangement comprises a platform that is attached to the corners of the oven cavity to minimize the obstruction to the electromagnetic field. Brief Description of the DrawingsIn the drawings: - Fig. 1 is a block diagram generally illustrating a microwave oven with vertical heating, according to an embodiment of the invention; and - Fig. 2 schematically illustrates the microwave oven with vertical heating, according to an embodiment of the invention. Detailed Description of the InventionThe present invention relates to a compact microwave oven with vertical heating functionality. Although the description mostly refers to how to efficiently heat beverages such as coffee, tea, hot chocolate, and other similar drinks, the oven also can be used to heat other content, such as other sustenance (e.g., foodstuff), or it can be utilized for an extraction of natural products progresses through an heating process of the oven. The inventive microwave oven incorporates advanced features including a vertical heating configuration, one or more non-contact sensors (e.g., optical sensor system, temperature sensor, and/or any other sensor suitable to provide data related to the heating process), a vibrating arrangement for distributing content within the oven cavity and for applying vibration to the content (e.g., this may result in a non-contact stirring arrangement), artificial intelligence (AI) integration, and a user application for enhanced control and customization. The compact microwave oven with vertical heating is an innovative and efficient solution for heating beverages. It offers precise and targeted heating while minimizing energy waste. The microwave oven consists of several essential components that work together to ensure efficient and safe heating of beverages. These components include the oven cavity, microwave generator (e.g., a magnetron or solid-state RF generator), the non-contact stirring arrangement, non-contact sensors, AI integration system, user application, and safety features. 46465/IL/23- 5 - In a traditional microwave oven, the heating energy is usually radiated from a microwave generator (e.g., a magnetron) located on one side of the oven cavity. In the case of a vertically radiated approach of the present invention, the heating energy is directed vertically, possibly from the top or bottom of the oven cavity. To ensure efficient vertical radiation, the interior walls of the oven cavity can be made from reflective materials such as metal or a specially coated surface. This helps to redirect the microwaves towards the food and prevents energy loss. The microwave generator, which generates the microwave energy, would need to be located in a position that facilitates vertical radiation. For example, it could be placed vertically above or below the oven cavity. This arrangement allows the microwaves to be directed towards the food from a vertical direction, optimizing the heating process. The waveguide is responsible for guiding the microwaves from the microwave generator to the oven cavity. In this vertically radiated microwave oven, the waveguide is configured to accommodate the vertical orientation of the microwave generator and ensure efficient energy transfer. The oven cavity is carefully designed to accommodate a cup and provide optimal heating performance. According to an embodiment of the invention, it is dimensioned to fit a standard cup size, ensuring that the microwave energy is focused on the beverage and minimizing energy loss. It is well-known that the relationship between the dimensions of the oven cavity and the wavelengths of microwaves is an important factor to consider in microwave oven design. Microwaves used in microwave ovens typically have a frequency of 2.45 gigahertz (GHz), which corresponds to a wavelength of approximately 12.24 centimeters (or 4.82 inches). This frequency is chosen because it efficiently heats water molecules, which are present in most food items. According to an embodiment of the invention, the dimension of the oven cavity is: length 8cm, width 8cm and the height is 12.24 cm or multiplications thereof. The size of the oven cavity should be designed in relation to the wavelength of the microwaves to ensure proper functioning and even heating. Ideally, the dimensions of the oven cavity should be such that they allow for the creation of a standing wave pattern. A standing wave is formed by the interference between the incoming and reflected microwaves. It consists of nodes (points of minimum energy) and antinodes (points of 46465/IL/23- 6 - maximum energy). In a well-designed microwave oven, the food is placed at the antinodes to receive the maximum heating effect. According to an embodiment of the invention, the cavity structure consists the following components: - Cavity Walls: The cavity walls form the outer boundary of the oven cavity. They are typically made of a high-quality, heat-resistant material such as stainless steel or ceramic, capable of withstanding the microwave energy and maintaining a stable internal environment. The cavity walls are insulated to minimize heat loss and ensure efficient heating; - Cavity Opening: The cavity has an opening (e.g., at its front), allowing easy access for placing and removing the cup. The opening may feature a hinged door with a transparent window for visibility, enabling users to monitor the heating process without interrupting it; - Cup Placement Area: The cavity includes a designated area or platform where the cup is placed during the heating process. This area can be located at the center of the cavity to ensure even heat distribution around the cup. It may feature a vibrating arrangement to mix/stir the content of the cup during operation in a non-contact manner; - Reflective Surfaces: The cavity walls may incorporate reflective surfaces made of a material with high reflectivity, such as aluminum or a specialized coating. These surfaces help to redirect and distribute the microwave energy within the cavity, promoting uniform heating and minimizing energy loss. According to an embodiment of the invention, to create this standing wave pattern, the dimensions of the oven cavity should be roughly half of the wavelength. In the case of a microwave frequency of 2.45 GHz, this corresponds to a quarter-wavelength resonance. Therefore, the oven cavity dimensions would ideally be around 6.12 centimeters (or 2.inches) in width, 4.82 centimeters (or 1.90 inches) in height, and 6.12 centimeters (or 2.inches) in depth. These dimensions promote the formation of the desired standing wave pattern and even heating. Of course, these dimensions are approximate and can be further refined based on the specific design considerations, ergonomics, and user requirements of the microwave oven. It's important to note that the actual dimensions of the oven cavity 46465/IL/23- 7 - may deviate from the ideal quarter-wavelength dimensions to accommodate these factors while still providing effective heating performance. According to an embodiment of the invention, the microwave oven incorporates a microwave generator positioned either at the top or bottom, emitting microwaves vertically into the oven cavity. These waves, commonly referred to as microwaves, have a wavelength of approximately 12.2 centimeters (corresponding to a frequency of 2.45 gigahertz). These waves can be generated by a solid-state RF (radio frequency) amplifier (that uses transistors or semiconductor devices to generate and amplify microwave signals), a magnetron (i.e., a vacuum tube that generates high-frequency electromagnetic waves by utilizing the interaction between electrons and a resonant cavity), or any other technology suitable to generate such waves. For example, a possible microwave generator can be the WPG24S25250 from WAVEPIA Co. Ltd. According to an embodiment of the invention, the microwave oven incorporates an optical sensor system that monitors the beverage during the heating process. The sensors are strategically placed within the oven cavity to detect the temperature and visually assess the level of heating and/or other possible features such as follow: - Content Recognition: Optical sensors can be used to identify the type of beverage placed inside the oven. By analyzing the optical properties or characteristics of the beverage, such as color or texture, the sensor can provide feedback to the control system. This information can be used to automatically adjust heating parameters or suggest appropriate heating programs; - Doneness Detection: Optical sensors can assess the doneness or heating progress of the beverage by analyzing its color changes. By comparing the color of the beverage with pre-determined thresholds or reference values, the sensor can determine when the beverage is heated to the desired level and signal the end of the heating process. For example, the optical sensors may provide the captured data to advanced algorithms that assess the level of heating based on the color and transparency of the beverage; - Surface Temperature Measurement: Optical sensors can measure the temperature of the beverage's surface by detecting the emitted infrared radiation. This information can be used to adjust heating times, power levels, or to prevent overheating. For example, for temperature measurements the optical sensor system 46465/IL/23- 8 - may utilize infrared technology to measure the surface temperature of the cup and the beverage. In such configuration, the optical sensors emit infrared light and measure the reflected light to determine the temperature. By analyzing the temperature data, the system can accurately monitor the heating process and provide real-time feedback to the user. According to an embodiment of the invention, a temperature sensor can be incorporated into the microwave oven to provide temperature monitoring and control during the heating process. In some embodiments, this temperature sensor serves as an additional means to accurately measure the beverage's temperature, complementing the functionality of the optical sensor system. The temperature sensor can be a high-precision thermocouple or a resistive temperature device (RTD) strategically positioned within the oven cavity or in proximity to the cup. It is designed to provide real-time temperature feedback, enabling precise monitoring of the beverage's temperature throughout the heating cycle. The temperature sensor is connected to the oven's control system, allowing it to relay temperature data for analysis and adjustment. By continuously monitoring the beverage's temperature, the oven can make necessary heating adjustments to achieve the desired temperature without the risk of overheating or underheating. According to an embodiment of the invention, the combination of the temperature sensor and the optical system offers several advantages. Firstly, it provides redundancy in temperature measurement, ensuring a reliable and accurate assessment of the beverage's temperature. Secondly, it can offer additional data points to validate the readings obtained from the optical sensor system, further enhancing the overall temperature monitoring accuracy. According to an embodiment of the invention, in the microwave oven, the temperature sensor can be used in conjunction with the optical sensor system. Both sensors work synergistically to optimize the heating process and maintain precise temperature control. The data obtained from the temperature sensor can be combined with the feedback from the optical sensor system and processed by the oven's control system, allowing for dynamic adjustments to the heating parameters as needed. 46465/IL/23- 9 - Through the integration of the optional temperature sensor, users can have increased confidence in the accuracy and precision of the beverage's temperature during the heating process. This ensures that the microwave oven of the present invention delivers consistent and reliable heating results, allowing users to enjoy their hot beverages at the desired temperature with utmost satisfaction. According to an embodiment of the invention, the data collected by the sensors (i.e., by the optical sensor system and/or by the temperature sensor) is transmitted to an AI integration system and/or the user application for further analysis and customization of the heating process. Users can view the temperature progress and make adjustments to achieve their desired level of heat. The microwave oven features an AI integration system that enhances the heating experience. The AI algorithms analyze user preferences, cup size, and beverage type to optimize the heating parameters. The AI system utilizes machine learning techniques to adapt to individual users' heating patterns and preferences, continuously refining its algorithms for personalized and precise heating. The AI integration system takes into account factors such as desired temperature, heating time, and beverage type to calculate the optimal power output and heating duration. It also considers external factors such as ambient temperature and initial temperature of the beverage. The AI system learns from user interactions and adjusts its recommendations accordingly, ensuring consistent and satisfactory heating results. The AI integration system can be connected to a user application and the optical sensor system, receiving real-time data for analysis and feedback. Users can rely on the AI system's recommendations or manually adjust the heating parameters through the user application, tailoring the heating process to their specific preferences. According to an embodiment of the invention, the microwave oven is accompanied by a user application or interface that enables users to control and customize their heating experience. The user application is installed on a smartphone, tablet, or other compatible devices, providing a user-friendly interface through which users can interact with the oven. Through the user application (or an integral user interface/control panel of the microwave oven), users can select pre-programmed settings for different beverage types, adjust heating parameters such as temperature and duration, and access additional features. The 46465/IL/23- 10 - application also offers customization options, allowing users to save their preferred settings, create profiles for different users, and receive recommendations based on their usage patterns. The user application is connected to the AI integration system, receiving heating recommendations based on user preferences and AI analysis. Users can choose to follow the recommended settings or make manual adjustments, providing a high level of control over the heating process. Communicating with a dedicated app or user interface associated with the microwave oven of the present invention can provide additional convenience and control, such as follow: - Wireless Connectivity: The microwave oven is equipped with wireless communication capabilities, such as Wi-Fi or Bluetooth, to establish a connection with the dedicated app or user interface. This allows for seamless communication between the oven and the external device; - Mobile App or User Interface: Develop a dedicated mobile app or user interface that can be installed on a smartphone, tablet, or other compatible devices. The app serves as the interface for the user to interact with the microwave oven and access its features and functionalities; - Recipe and Program Management: The dedicated app or user interface can offer a recipe library or program management system. Users can browse through a collection of recipes, select desired operating programs, and send instructions to the microwave oven for automatic cooking, heating or extracting; and - Monitoring and Feedback: The app can display real-time information about the heating process, including time remaining, current settings, and notifications when the heating process is complete. Users can receive alerts and updates even if they are not physically present near the microwave oven. According to some embodiment of the invention, the optical sensors can provide valuable data that can be utilized by the associated app in several ways. For examples: - Real-Time Monitoring: The optical sensor can capture information about the beverage’s appearance, such as color or texture, during the heating process. This data can be transmitted to the app in real-time, allowing users to monitor the 46465/IL/23- 11 - progress of their beverage remotely. The app can display visual representations of the beverage's doneness or provide textual feedback on the heating status; - Automatic Cooking Programs: The app can leverage the optical sensor data to offer automatic heating programs tailored to specific beverage/food items, or automatic extraction programs tailored for specific natural products. By analyzing the optical properties of different contents, the app can suggest optimal heating settings, durations, and power levels. Users can simply select the desired beverage/food/ natural product item from the app, and the microwave oven will adjust its settings accordingly based on the optical sensor input; - Recipe Recommendations: The optical sensor data can be used by the app to provide recipe recommendations. The app can analyze the optical properties of the beverage inside the oven and suggest suitable recipes or heating techniques that align with the detected characteristics; - Customized Heating Settings: Based on the optical sensor readings, the app can allow users to customize their heating settings. For example, if the optical sensor detects that the food is browning too quickly, the app can prompt the user to adjust the heating time or temperature to achieve their preferred level of hot beverage; and - Historical Data and Analysis: The app can store and analyze the optical sensor data from previous heating sessions. This data can be used to provide insights and recommendations based on the user's heating history. For example, the app can suggest adjustments to heating times or temperatures based on past results. These are just a few ways in which the optical sensor data can be utilized by the app associated with the microwave oven. The specific implementation will depend on the capabilities of the sensor, the functionality of the app, and the desired user experience. According to an embodiment of the invention, the microwave oven comprises a vibrating arrangement that serves as the placement area for distributing the beverage within the oven cavity, and as the platform that is a part of the mechanism for applying vibration to a vessel that contains the beverage in order to mix/stir the beverage without a direct contact with the beverage (or with other content stored within the vessel). According to an embodiment of the invention, the vibrating arrangement comprises the platform that is attached to the corners of the oven cavity by one or more vibrating elements to minimize the obstruction to 46465/IL/23- 12 - the electromagnetic field emitted. The activation of the vibrating elements can be controlled by the control system of the microwave oven. Such a configuration results in a placement area that can be vibrated upon demand during the heating process. As with any microwave oven, safety is crucial. Therefore, the microwave oven may comprise adequate shielding and insulation within the oven cavity to protect users from exposure to radiation and to comply with relevant safety standards. According to an embodiment of the invention, further safety features are incorporated into the microwave oven to ensure user safety during operation. These features may include a door sensor that prevents the oven from operating if the door is not securely closed. The door sensor detects the position of the door and interrupts the power supply to the magnetron or solid-state RF generator when the door is open or not properly latched. Additionally, the microwave oven may include a child lock function implemented to restrict access to the oven's controls, preventing accidental operation by children or unauthorized users. The child lock function can be activated through the user application or a dedicated control panel on the oven. Referring now to the drawings, in which like numerals refer to like elements through the several figures, aspects of the present invention and an exemplary configuration of a microwave oven with vertical heating will be described. The Figures and the following description relate to exemplary embodiments of the present invention by way of illustration only. It should be noted that from the following discussion, alternative embodiments of the structures and methods disclosed herein will be readily recognized as viable alternatives that may be employed without departing from the principles of the claimed invention. Fig.1 is a block diagram generally illustrating a microwave oven 100 with vertical heating, according to an embodiment of the invention. Microwave oven 100 comprises a control system 101, a vertical configuration arrangement 102 that includes a microwave generator 103, a vibrating arrangement 104, sensors 105, a user interface (UI) and control panel 107, communication module 106 and one or more fans 108. Control system 101 is used for controlling a heating process by regulating the generation and delivery of microwaves by vertical configuration arrangement 102 and its microwave generator 103, and by controlling the vibration of vibrating arrangement 104. Sensors 1are used for real-time monitoring of the beverage’s temperature during the heating process, 46465/IL/23- 13 - and may comprise an optical sensor system 109. Through user interface/control panel 1users can select pre-programmed settings for different beverage types, adjust heating parameters such as temperature and duration, access additional features, etc. Communication module 106 provides microwave oven 100 wireless communication capabilities, such as Wi-Fi or Bluetooth, to establish a connection with the dedicated app or user interface. This allows for seamless communication between microwave oven 100 and an external device (e.g., smartphone, server, etc.). Fan 108 may be incorporated into the cavity structure. It may consist of blades or vanes positioned at one of the sides of the cavity (e.g., see Fig. 2). Its purpose is to circulate the microwave energy and ensure more uniform heating by reducing hotspots and cold spots within the cavity. Fig. 2 schematically illustrates a cross-section side view of the microwave oven with vertical heating, according to an embodiment of the invention. This figure shows beverage in a cup 110 place on top of a platform 115 that is part of the vibrating arrangement 104 (Fig. 1) that serves as the placement area for distributing the beverage within an oven cavity 120 (i.e., the resonance cavity). The microwave generator 103 is located below the oven cavity 120. Fan 108 is positioned at one of the sides of oven cavity 120. Control system 101 also shown in the figure, located at the bottom of microwave oven 100. According to an embodiment of the invention, vibration arrangement 104 comprises oscillators — for example, four oscillators (not shown) — that are installed at the bottom of the resonance cavity (i.e., oven cavity 120). These oscillators support a designated surface (e.g., platform 115) designed to hold cup 110, such as a coffee mug. In this specific embodiment, the oscillators induce vibrations using sound waves. Importantly, these vibrations do not extend into the resonance cavity, ensuring that the electromagnetic field within the cavity remains undisturbed. According to an embodiment of the invention, the resonance cavity (i.e., oven cavity 120) is designed through metal milling to specific dimensions that support the electromagnetic field. This design ensures controlled strength, preventing vibrations in the body of oven cavity 120. According to some embodiments of the invention, the milling design incorporates a heatsink. This feature can be useful for cooling electronic components and printed circuits of microwave generator 103 and of control system 101, ensuring their optimal and stable operation without overheating. 46465/IL/23- 14 - It's important to emphasize that the combination of mixing, induced by vibrations, with microwave heating, ensures a homogeneous dispersion of heat in the object being heated (e.g., a cup of coffee). This results in uniform heating, unlike typical microwave heating which can be uneven. All the above will be better understood through the following illustrative and non-limitative examples. The microwave oven is easy to operate and offers a convenient heating experience for users. To heat a beverage, the user places a cup with the desired beverage inside the oven cavity. The cup can be of a standard size, ensuring compatibility with the oven's dimensions. The user then selects the desired heating settings through the user application or interface. This includes choosing the beverage type, preferred temperature, and heating duration. Users can rely on the AI system's recommendations or customize the settings manually according to their preferences. Once the settings are confirmed, the microwave oven activates the magnetron or solid-state RF generator to generate microwaves. The microwaves are emitted vertically into the oven cavity, heating the beverage uniformly. The optical sensor system continuously monitors the temperature progress and relays the data to the AI integration system and user application for real-time feedback. Throughout the heating process, users can monitor the temperature progress, make adjustments if desired, and receive notifications when the beverage reaches the desired temperature. The microwave oven ensures precise heating and consistent results, providing users with hot beverages tailored to their preferences. The microwave oven offers several advantages over traditional microwave ovens, making it an attractive choice for individuals who frequently enjoy hot beverages. These advantages include: - Compact Design: The microwave oven is specifically designed to accommodate a standard-sized cup, ensuring a compact footprint suitable for smaller spaces such as offices, dorm rooms, or compact kitchens; 46465/IL/23- 15 - - Vertical Heating Configuration: The vertical heating configuration ensures efficient and uniform heating of the beverage, maximizing energy utilization and reducing heating time; - Optical Sensor System: The incorporation of an optical sensor system allows for precise monitoring of the beverage's temperature and level of heating. This ensures optimal heating results and minimizes the risk of overheating; - AI Integration: The AI integration system enhances the heating experience by adapting to individual preferences, optimizing heating parameters, and providing personalized recommendations. Users can enjoy consistently satisfying heating results tailored to their taste; and - User Application: The user application provides a user-friendly interface through which users can control and customize their heating experience. It offers convenience, flexibility, and additional features such as pre-programmed settings, customization options, and usage recommendations. The microwave oven represents a significant advancement in beverage heating technology, providing a convenient, efficient, and customizable solution for individuals who value high-quality hot beverages, such as coffee. Its combination of vertical heating, optical sensor system, AI integration, user application, and safety features sets it apart as a cutting-edge appliance in the field of microwave heating technology. For example, current coffee-making technologies aim to achieve an optimum brewing temperature. This invention, employing a method that integrates sensors, not only reaches but also precisely maintains this optimum temperature without exceeding it. The terms, "for example", "e.g.", "optionally", as used herein, are intended to be used to introduce non-limiting examples. While certain references are made to certain example system components or services, other components and services can be used as well and/or the example components can be combined into fewer components and/or divided into further components. All the above descriptions and examples have been given for the purpose of illustration and are not intended to limit the invention in any way. Many different mechanisms, methods of processing sensor data, electronic and logical elements can be employed, all without exceeding the scope of the invention.

Claims (14)

1. 46465/IL/23- 16 - CLAIMS1. A compact microwave oven, comprising: a) an oven cavity; b) a vertical heating configuration to facilitate efficient and uniform heating within the oven cavity; c) a vibrating arrangement for distributing content within the oven cavity and for applying vibration to the content, wherein the vibrating arrangement comprising a platform attached to the corners of the oven cavity to minimize the obstruction to the electromagnetic field; and d) a control system for controlling a heating process of the content by regulating the generation and delivery of microwaves, and by controlling the vibration of the vibrating arrangement.

2. The compact microwave oven of claim 1, wherein the vertical heating configuration comprises a microwave generator located above the oven cavity and emits microwaves in a vertical direction towards the content.

3. The compact microwave oven of claim 1, wherein the vertical heating configuration comprises a microwave generator located below the oven cavity and emits microwaves in a vertical direction towards the content.

4. The compact microwave oven of claim 2 or 3, wherein the microwave generator is a solid-state RF generator.

5. The compact microwave oven of claim 1, further comprising one or more sensors for real-time monitoring of the co n t ent’s temperature during the heating process.

6. The compact microwave oven of claim 5, wherein the one or more sensors are selected from the group consisting of: optical sensor system, a non-contact temperature sensor temperature sensor, or combination of both

7. The compact microwave oven of claim 1, further comprising an artificial intelligence (AI) integration system for personalized heating and optimization of heating parameters.

8. The compact microwave oven of claim 7, wherein the AI integration system utilizes machine learning algorithms to analyze user preferences and optimize heating parameters based on content type and desired temperature.

9. The compact microwave oven of claim 1, further comprising a user application providing a customizable interface for controlling the heating process. 46465/IL/23- 17 -

10. The compact microwave oven of claim 9, wherein the user application allows users to save preferred heating settings, access pre-programmed profiles, and receive personalized recommendations for optimal heating results.

11. The compact microwave oven of claim 1, wherein the dimension of the oven cavity is a length 8cm, a width 8cm and a height is 12.24 cm or multiplications thereof.

12. The compact microwave oven of claim 1, further comprising safety one or more safety mechanisms to contain microwaves within the oven cavity and protect users from radiation exposure.

13. The compact microwave oven of claim 12, wherein the safety mechanism including a door sensor that prevents the oven from operating when the door is open and a child lock function to prevent unauthorized usage.

14. The microwave oven of claim 1, further comprising an integrated display and intuitive control panel for easy operation and monitoring of the heating process.