Shell with temperature detection function, mobile electronic equipment and temperature detection method

Abstract

The invention relates to the technical field of temperature detection, and discloses a shell with a temperature detection function, mobile electronic equipment and a temperature detection method, through the innovative design of integrating a reversible thermochromic material and a thermosensitive element and combining a heat conduction layer and a transparent surface layer, double improvement of intuition and accuracy of temperature detection is achieved; on one hand, the reversible thermochromic material can generate color change in a specific temperature range and visually display temperature change, so that a user can quickly know the temperature state without actively operating equipment, and the user experience is greatly improved; on the other hand, the thermosensitive element can convert temperature changes into electric signals, accurate temperature measurement is achieved, the requirement of a user for accurate reading is met, and therefore the diversified requirement of the user for temperature detection can be better met; in addition, the design of the heat conduction layer and the transparent surface layer ensures the consistency of heat conduction and improves the reliability of temperature detection.

Description

Technical Field

[0001] This invention relates to the field of temperature detection technology, and in particular to a housing, a mobile electronic device, and a temperature detection method with temperature detection function. Background Technology

[0002] With the general improvement of people's living standards and health awareness, the demand for functions in mobile electronic devices (mobile phones, watches, fitness trackers, etc.) is showing a continuous upward trend. Taking body temperature monitoring functions as an example, these functions are of great significance for people's daily health management.

[0003] Currently, traditional temperature detection methods typically rely on thermistors, which sense temperature changes and convert them into electrical signals to achieve accurate temperature measurement. However, a drawback is that users must actively operate the device to read the data, and it does not provide intuitive temperature status indicators.

[0004] With the development of materials science, reversible thermochromic materials are gradually being applied in the field of temperature detection. These materials can change color within a specific temperature range, thus visually displaying temperature changes. However, their drawback is that they can only provide qualitative or rough quantitative information and cannot achieve precise readings.

[0005] Therefore, in order to better meet users' diverse needs for temperature detection, it is necessary to improve existing technologies.

[0006] The above information is provided as background information only to aid in understanding the present invention, and does not constitute an assertion or admission that any of the above content can be used as prior art relative to the present invention. Summary of the Invention

[0007] This invention provides a housing with temperature detection function, a mobile electronic device, and a temperature detection method to solve the problems existing in the prior art.

[0008] To achieve the above objectives, the present invention provides the following technical solution:

[0009] In a first aspect, the present invention provides a housing with temperature detection function, comprising a housing body, a reversible thermochromic material, a thermistor, a thermally conductive layer, and a transparent surface layer;

[0010] The housing body is provided with a receiving groove;

[0011] The reversible thermochromic material and the thermosensitive element are both located within the receiving groove and are arranged in a coplanar manner;

[0012] The thermally conductive layer is disposed on the upper surface of the reversible thermochromic material and the thermistor.

[0013] The transparent surface layer is disposed on the upper surface of the thermally conductive layer.

[0014] Furthermore, the housing with temperature detection function also includes a heat insulation layer;

[0015] The heat insulation layer is provided on the wall and bottom of the receiving tank;

[0016] The various insulation layers together form an insulation frame.

[0017] Furthermore, in the housing with temperature detection function, the heat insulation layer is a non-transparent heat insulation layer.

[0018] Furthermore, in the housing with temperature detection function, the heat insulation layer is made of a plastic material with low thermal conductivity.

[0019] Furthermore, in the housing with temperature detection function, the reversible thermochromic material and the thermistor are arranged side by side;

[0020] Alternatively, the reversible thermochromic material may be disposed around the thermistor.

[0021] Furthermore, in the housing with temperature detection function, the reversible thermochromic material is formed by coating a non-solid material and then curing it.

[0022] Furthermore, in the housing with temperature detection function, the reversible thermochromic material includes at least one color-changing critical point.

[0023] Secondly, the present invention provides a mobile electronic device, including a housing with temperature detection function as provided in Embodiment 1 above.

[0024] Thirdly, the present invention provides a temperature detection method, performed using a mobile electronic device as described in Embodiment 1 above, the method comprising:

[0025] Obtain the resistance value of the thermistor, calculate the temperature data based on the resistance value, and obtain the color displayed by the reversible thermochromic material collected by the sensor;

[0026] The temperature data and the color displayed by the reversible thermochromic material are input into the temperature-sensing consistency AI model to obtain the thermochromic waiting time.

[0027] The temperature data is displayed digitally, and a message is displayed indicating that the color displayed by the reversible thermochromic material will only match the temperature data after the temperature-sensitive color-changing waiting time has elapsed.

[0028] Furthermore, in the temperature detection method, after inputting the temperature data and the color displayed by the reversible thermochromic material into the temperature-sensing consistency AI model to obtain the thermochromic waiting time, the method further includes:

[0029] Determine whether vital signs data can be detected;

[0030] If not, the detection object is determined to be an object, and the calibrated temperature data is marked separately; if yes, the detection object is determined to be a human body, and based on the vital signs data, it is determined whether the detection object is a registered user.

[0031] If not, it is determined that long-term monitoring is not required, and the calibrated temperature data is marked separately; if yes, it is determined that long-term monitoring is required, and the calibrated temperature data is recorded in the registered user's personal health database.

[0032] Compared with the prior art, the present invention has the following beneficial effects:

[0033] This invention provides a housing, a mobile electronic device, and a temperature detection method with temperature detection function. By integrating a reversible thermochromic material and a thermistor, and combining an innovative design with a thermally conductive layer and a transparent surface layer, it achieves a dual improvement in the intuitiveness and accuracy of temperature detection. On the one hand, the reversible thermochromic material can change color within a specific temperature range, intuitively displaying temperature changes, allowing users to quickly understand the temperature status without actively operating the device, greatly improving the user experience. On the other hand, the thermistor can convert temperature changes into electrical signals, achieving accurate temperature measurement and meeting users' needs for precise readings, thus better satisfying users' diverse needs for temperature detection. In addition, the design of the thermally conductive layer and the transparent surface layer ensures consistent heat conduction, improving the reliability of temperature detection.

[0034] The present invention has other features and advantages, which will be apparent from or will be set forth in detail in the accompanying drawings and the following detailed description, which together serve to explain the particular principles of the invention. Attached Figure Description

[0035] To more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0036] Figure 1 This is a schematic diagram of the (assembled) structure of the housing with temperature detection function provided in Embodiment 1 of the present invention;

[0037] Figure 2 This is an exploded structural diagram of the housing with temperature detection function provided in Embodiment 1 of the present invention;

[0038] Figure 3 This is a schematic diagram of the (cross-sectional) structure of the shell body provided in Embodiment 1 of the present invention;

[0039] Figure 4 This is a (cross-sectional) structural diagram of the shell body and the heat insulation layer provided in Embodiment 1 of the present invention;

[0040] Figure 5 This is one of the flowcharts of a temperature detection method provided in Embodiment 2 of the present invention;

[0041] Figure 6 This is a second schematic flowchart of a temperature detection method provided in Embodiment 2 of the present invention.

[0042] Figure label:

[0043] 1. Housing body; 2. Reversible thermochromic material; 3. Thermistor; 4. Thermally conductive layer; 5. Transparent surface layer; 6. Receiving groove; 7. Thermal insulation layer. Detailed Implementation

[0044] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0045] Example 1

[0046] Please refer to Figure 1-4 The present invention provides a housing with temperature detection function, including a housing body 1, a reversible temperature-sensitive color-changing material 2, a thermistor 3, a heat-conducting layer 4, and a transparent surface layer 5;

[0047] A receiving groove 6 is provided on the housing body 1 for accommodating both the reversible thermochromic material 2 and the thermistor 3. Both are housed within this receiving groove 6, and are arranged coplanarly in space. This layout facilitates the coordinated temperature detection function of the subsequent components. A heat-conducting layer 4 is positioned on the upper surfaces of the reversible thermochromic material 2 and the thermistor 3. Its main function is to efficiently conduct heat, ensuring that heat is simultaneously, along the same path, and rapidly transferred to both the reversible thermochromic material 2 and the thermistor 3. This is the structural foundation for ensuring consistent heat conduction, thereby ensuring consistent detection results from the reversible thermochromic material 2 and the thermistor 3. A transparent surface layer 5 covers the upper surface of the heat-conducting layer 4, not only protecting the internal structure but also providing convenient conditions for observing the color changes of the reversible thermochromic material 2 due to its transparency.

[0048] This invention integrates the reversible thermochromic material 2 and the thermistor 3, along with an innovative structural layout of the thermally conductive layer 4 and the transparent surface layer 5, successfully achieving a significant improvement in both intuitiveness and accuracy of temperature detection. Specifically, regarding intuitiveness, the reversible thermochromic material 2 possesses unique physical properties, exhibiting a noticeable color change within a specific temperature range. This intuitive color change allows users to quickly and easily understand the current temperature status simply by observing the color change on the casing surface, without requiring active operation of the device. This greatly simplifies the user's workflow and significantly enhances the user experience. Regarding accuracy, the thermistor 3 plays a crucial role. It accurately converts the sensed temperature change into an electrical signal, and through the analysis and processing of these signals, extremely precise temperature measurement can be achieved. This precise temperature measurement method fully meets the user's need for accurate temperature readings, enabling them to make more scientific and rational decisions based on accurate temperature data. Through these dual improvements in intuitiveness and accuracy, this invention better meets the diverse temperature detection needs of users in different scenarios. Furthermore, the rational design of the heat-conducting layer and the transparent surface layer ensures a high degree of consistency in the heat conduction process throughout the entire shell structure, effectively avoiding temperature detection errors that may be caused by uneven heat conduction, thereby further improving the reliability of temperature detection results.

[0049] Please refer to Figure 4 In one embodiment of this example, the housing with temperature detection function is further provided with a heat insulation layer 7.

[0050] Specifically, in the structural design of the receiving groove 6, heat insulation layers 7 are carefully installed on both the groove walls and the groove bottom. These heat insulation layers 7, distributed in different locations, do not exist in isolation, but rather work together to form a complete and efficient heat insulation framework. The design of this heat insulation framework plays a crucial role in ensuring the temperature detection function of the entire shell.

[0051] It is important to note that the heat insulation layer 7, located on the wall of the receiving tank 6, has a clear and unique functional role. Its primary task is to effectively thermally isolate the reversible thermochromic material 2 and the thermistor 3 inside the receiving tank 6 from the housing body 1. In practical applications, the housing body 1 may generate heat due to external environmental factors or heat conduction during equipment use. If this heat is conducted unimpeded into the receiving tank 6, it will interfere with the normal operation of the reversible thermochromic material 2 and the thermistor 3, causing them to fail to accurately reflect the true temperature of the target measurement area. The heat insulation layer 7 on the tank wall effectively prevents heat from the housing from being conducted into the receiving tank 6, ensuring that the reversible thermochromic material 2 and the thermistor 3 only respond sensitively to temperature changes in the target measurement area, thereby guaranteeing the accuracy and specificity of temperature detection.

[0052] On the other hand, the heat insulation layer 7, located at the bottom of the receiving tank 6, also plays an indispensable role. During equipment operation, the internal components generate heat. If this heat is not controlled, it will be conducted upwards through the bottom of the receiving tank 6, interfering with the reversible thermochromic material 2 and the thermistor 3 located within the receiving tank 6, thus affecting the accuracy of temperature detection results. The heat insulation layer 7 at the bottom of the tank effectively blocks the heat interference generated by the internal components, creating a relatively independent and stable temperature detection environment for the reversible thermochromic material 2 and the thermistor 3, further improving the reliability and stability of the overall shell temperature detection function.

[0053] In one embodiment of this example, the heat insulation layer 7 is a non-transparent heat insulation layer.

[0054] It's important to note that the application of a non-transparent insulation layer offers significant advantages. In practical applications, the reversible thermochromic material 2 displays different colors according to temperature changes, and these color changes are crucial for intuitively obtaining temperature information. However, if the insulation layer were transparent, any light present inside the device—whether from the device's own light-emitting elements or from ambient light reflected through the device—could pass through the transparent insulation layer and interfere with the color displayed by the reversible thermochromic material 2. This interference could lead to color deviations and affect the accurate interpretation of temperature. Using a non-transparent insulation layer effectively blocks the penetration of internal light, preventing light interference from negatively impacting color interpretation. This ensures that we can clearly and accurately observe the true color displayed by the reversible thermochromic material 2, thereby accurately obtaining temperature information based on color changes and greatly improving the accuracy and reliability of temperature detection.

[0055] In one embodiment of this invention, the heat insulation layer 7 is made of a plastic material with low thermal conductivity, such as, but not limited to, PC / ABS. This material selection is not arbitrary, but rather based on a deep consideration and precise matching of the functional requirements of the heat insulation layer.

[0056] From the perspective of thermal insulation performance, low thermal conductivity is an important indicator for measuring the thermal insulation ability of a material. Using a plastic material with low thermal conductivity to make the insulation layer 7 means that the insulation layer can effectively hinder heat transfer, minimize the conduction of heat from the shell body to the receiving groove 6, and at the same time block heat interference from other components inside the equipment. This creates a relatively independent and stable temperature environment for the reversible thermochromic material 2 and the thermistor 3, ensuring that they can accurately and reliably perform their temperature detection function.

[0057] From a material properties perspective, PC / ABS and other plastic materials possess excellent processing performance. This allows the insulation layer 7 to be precisely molded using mature processing techniques such as injection molding, according to the specific shape and size requirements of the receiving groove 6. This ensures a tight fit between the insulation layer 7 and the walls and bottom of the receiving groove 6, forming a complete and effective insulation structure and preventing gaps or weak points in heat conduction. Furthermore, these plastic materials also possess a certain degree of strength and durability, enabling them to withstand certain external impacts and environmental influences during equipment use without easily being damaged or deformed. This ensures long-term stable insulation, guaranteeing the performance and service life of the entire temperature-sensing housing.

[0058] Furthermore, using plastic materials to make the insulation layer 7 has cost advantages. Compared to some high-performance metal insulation materials or special ceramic insulation materials, plastic materials such as PC / ABS have relatively lower raw material and processing costs. This helps reduce the overall production cost of the temperature-sensing housing, improves the product's market competitiveness, and allows the product to be launched to the market in a more cost-effective manner while meeting performance requirements, thus satisfying the needs of a wider range of users.

[0059] In one embodiment of this example, there are two reasonable and effective layout forms for the coplanar arrangement of the reversible thermochromic material 2 and the thermistor 3.

[0060] On one hand, the two can be arranged side by side. In this layout, the reversible thermochromic material 2 and the thermistor 3 are arranged sequentially along a specific direction within the planar space defined by the receiving groove 6, adjacent to each other and at the same horizontal height. This side-by-side arrangement has the advantages of simple structure and ease of implementation. From a functional perspective, the side-by-side arrangement allows the reversible thermochromic material 2 and the thermistor 3 to simultaneously and directly contact the air or object surface of the target measurement area, thereby synchronously sensing temperature changes. The reversible thermochromic material 2, with its unique physical properties, changes color within a specific temperature range, providing users with an intuitive visual cues of temperature changes; while the thermistor 3 converts temperature changes into electrical signals, achieving accurate temperature measurement. The side-by-side arrangement ensures that each function can operate independently, while also mutually verifying the temperature detection results to a certain extent, improving the accuracy and reliability of temperature detection. At the same time, this layout facilitates the installation and fixing of the reversible thermochromic material 2 and the thermistor 3 during the manufacturing process, which is beneficial to improving production efficiency and product quality.

[0061] On the other hand, the reversible thermochromic material 2 can be disposed around the thermistor 3, as detailed in the following reference. Figure 1-2As shown in the diagram, in this layout, the thermistor 3 is located at the center, while the reversible thermochromic material 2 is evenly distributed around it, forming a surrounding structure. This surrounding arrangement has unique advantages. From a temperature sensing perspective, the reversible thermochromic material 2 surrounding the thermistor 3 allows for simultaneous sensing of temperature changes in the target measurement area from multiple directions, resulting in more comprehensive and uniform temperature detection. Regardless of changes in the temperature distribution of the target measurement area, the reversible thermochromic material 2 can reflect temperature information promptly and accurately, providing users with a more comprehensive temperature status reference. For the thermistor 3, being surrounded by the reversible thermochromic material 2 reduces interference from external environmental factors to a certain extent, improving the stability of temperature measurement. Furthermore, this surrounding layout is visually appealing, making the overall housing design more harmonious and unified. In practical applications, this layout is particularly suitable for scenarios requiring high uniformity and stability in temperature detection, better meeting the diverse needs of users.

[0062] In one embodiment of this invention, the reversible thermochromic material 2 is formed by coating a non-solid material and then curing it.

[0063] From the perspective of material selection and process principles, non-solid materials possess unique physical properties, exhibiting excellent flowability and coatability. This allows for the uniform application of non-solid materials in the molding process of reversible thermochromic material 2. Through coating operations, such as spraying, brushing, or dipping, the non-solid material can be evenly covered at pre-defined locations within the receiving tank 6, ensuring that the thickness and extent of the coverage meet design requirements. This uniform coating guarantees consistent and stable response to temperature changes during subsequent use of the reversible thermochromic material 2, avoiding temperature detection errors caused by uneven material distribution.

[0064] After the coating process is completed, the curing stage begins. The curing process is a crucial transformation step. Through specific controlled conditions, such as suitable temperature, time, and potentially light exposure, the non-solid material undergoes physical or chemical changes, gradually transforming into a solid state. During this transformation, the molecular structure within the non-solid material rearranges and cross-links, forming a stable three-dimensional network structure, thus giving the reversible thermochromic material 2 a fixed shape and stable properties. The cured reversible thermochromic material 2 not only possesses good mechanical strength, capable of withstanding certain external forces without damage, but also retains its unique reversible thermochromic properties. That is, within a specific temperature range, it can reversibly change its color according to temperature changes, providing users with an intuitive indication of temperature changes.

[0065] From a practical application perspective, the method of coating a non-solid material and then curing it to form the reversible thermochromic material 2 has many significant advantages. Firstly, this method allows for precise control over the shape and thickness of the reversible thermochromic material 2. By adjusting the coating process parameters and curing conditions, reversible thermochromic materials 2 with specific shapes and thicknesses can be prepared according to different design requirements, meeting the temperature detection requirements of various complex shell structures. Secondly, this process offers high production flexibility and adaptability. It can be easily combined with other production processes to achieve large-scale, efficient production, reduce production costs, and enhance the product's market competitiveness. Furthermore, the cured reversible thermochromic material 2 exhibits good adhesion and compatibility with other components of the shell, and can tightly bond with components such as the thermally conductive layer 4 and the transparent surface layer 5, forming an organic whole that jointly ensures the stable operation of the shell's temperature detection function.

[0066] In one embodiment of this invention, the reversible thermochromic material 2 includes at least one color-changing critical point.

[0067] It should be noted that when a temperature measurement is performed, and the measured temperature reaches a certain color change critical point, the reversible thermochromic material 2 will exhibit a specific color corresponding to that point.

[0068] It is understandable that, due to the differences in the objects being measured, such as when measuring temperature on two different objects, the number of color-changing critical points of the reversible thermochromic material 2 will be set differently, and its color-changing accuracy will also be different.

[0069] For example, when measuring human body temperature, considering the relatively narrow normal fluctuation range of human body temperature and the high requirement for measurement accuracy, the reversible thermochromic material 2 may be set with a relatively large number of fine color-changing critical points, such as 21 color-changing critical points including 36.0℃, 36.1℃, 36.2℃, ..., 37.9℃, and 38.0℃. At this time, the color-changing accuracy is 0.1℃, so as to more accurately reflect the subtle changes in human body temperature. However, when measuring the temperature of an object, such as measuring the temperature of a cup of hot water, since the temperature of the object varies relatively widely and the requirement for measurement accuracy is relatively low, the reversible thermochromic material 2 may only be set with a few coarser color-changing critical points, such as 40℃, 45℃, 50℃, and 55℃. At this time, the color-changing accuracy is 5℃. This can meet the need to judge the approximate temperature range of the object while reducing material costs and design complexity.

[0070] Although this invention frequently uses terms such as thermal insulation frame and thermal sensitive element, the possibility of using other terms is not excluded. These terms are used merely for the convenience of describing and explaining the essence of this invention; interpreting them as any additional limitation would contradict the spirit of this invention.

[0071] Example 2

[0072] Embodiment 2 of the present invention provides a mobile electronic device, including a housing with temperature detection function as provided in Embodiment 1 above.

[0073] This design breaks through the limitations of traditional mobile electronic devices that only have conventional communication and entertainment functions, giving the device a brand-new temperature detection capability, which significantly improves its functionality and practicality. While retaining the original basic functions, this mobile electronic device can accurately sense the device's own temperature and the surrounding ambient temperature in real time by utilizing the temperature detection characteristics of the casing, bringing users a more intelligent and convenient user experience.

[0074] Example 3

[0075] Please refer to Figure 5 This is a flowchart illustrating a temperature detection method provided in Embodiment 3 of the present invention. This method is applicable to various scenarios where users need to detect temperature, and it is particularly advantageous in scenarios where both accuracy and intuitiveness of temperature detection are required. For example, in a home health monitoring scenario, users can quickly and conveniently measure their own or their family members' body temperature using a mobile electronic device equipped with this method, without needing to purchase a separate professional thermometer; in an outdoor sports scenario, users can use the device to detect the ambient temperature to adjust their sports equipment and exercise intensity accordingly; in a medical care scenario, medical personnel can use this method to monitor patients' body temperature in real time and continuously, promptly detecting abnormal changes in body temperature. This method is executed using the mobile electronic device provided in Embodiment 1 above. The method specifically includes the following steps:

[0076] S101. Obtain the resistance value of the thermistor, calculate the temperature data based on the resistance value, and obtain the color displayed by the reversible thermochromic material collected by the sensor.

[0077] It should be noted that thermistors in mobile electronic devices have the characteristic that their resistance changes with temperature. The device's built-in circuitry collects the resistance value of the thermistor in real time and accurately converts it into corresponding temperature data using a pre-set resistance-to-temperature conversion algorithm. This process enables rapid and accurate acquisition of temperature information for the current detection area, providing fundamental data for subsequent analysis and display.

[0078] The image acquisition sensor (such as a camera) in the device captures the color displayed by the reversible thermochromic material in real time. This material changes color according to temperature, with different temperatures corresponding to different color states. Acquiring this color information through the image acquisition sensor provides an intuitive visual basis for subsequent comparative analysis with temperature data.

[0079] S102. Input the temperature data and the color displayed by the reversible thermochromic material into the temperature consistency AI model to obtain the thermochromic waiting time.

[0080] It should be noted that the rate at which the reversible thermochromic material displays the color corresponding to the final temperature is lower than the rate at which the thermistor detects the temperature. Therefore, if users expect to intuitively obtain temperature information that matches the thermistor's detection result based on the color displayed by the reversible thermochromic material, they need to wait for a period of time for the color to gradually change.

[0081] The temperature data obtained in step S101 and the color displayed by the reversible thermochromic material are used as input information and transmitted to the temperature consistency AI model. This AI model is trained on a large amount of data and can deeply understand the complex relationship between temperature data and the color change of the reversible thermochromic material, including the rate of color change and the characteristics of color change in different temperature ranges.

[0082] Upon receiving input data, the temperature-sensing consistency AI model utilizes its internal algorithms and model structure to rapidly analyze and process the data. Based on the current temperature data and the current color displayed by the reversible thermochromic material, it accurately calculates the waiting time required for the material's color to completely match the temperature data—the thermochromic waiting time. This waiting time calculation fully considers the influence of the material's physical properties and environmental factors on color change, ensuring the accuracy and reliability of the calculation results.

[0083] S103. Display the temperature data digitally and indicate that the color displayed by the reversible thermochromic material will only match the temperature data after the temperature-sensitive color-changing waiting time has elapsed.

[0084] It should be noted that the mobile electronic device will display the temperature data calculated in step S101 in a clear digital format on the corresponding app. Users can read the current temperature value from the screen after opening the app to obtain accurate temperature information. The digital display method has the advantages of accuracy and clarity, allowing users to quickly understand the specific temperature value.

[0085] In addition to displaying temperature data, the device will also prompt the user to wait until the temperature-sensitive color-changing waiting time is reached before the color displayed by the reversible temperature-sensitive color-changing material matches the temperature data. This way, even if the user only looks at the color displayed by the reversible temperature-sensitive color-changing material, they can still obtain accurate temperature information.

[0086] The notification methods can vary. For example, a pop-up notification window can clearly inform the user of the waiting time in text form; or a voice broadcast can be used to provide notification information without the user looking at the screen. This notification method allows users to clearly understand the time difference between the color change of the reversible thermochromic material and the actual temperature, avoiding misunderstandings due to the color not changing in time, and enabling users to interpret the temperature detection results more accurately.

[0087] Please refer to Figure 6 In one embodiment of this example, after step S103, the method further includes the following steps, aimed at achieving accurate differentiation of the detection object (object or human body) and personalized management of health data for different users:

[0088] S104. Determine whether vital signs data can be detected; if not, proceed to S105; if yes, proceed to S106.

[0089] It should be noted that vital sign data may include information reflecting the body's physiological state, such as heart rate, blood oxygen saturation, and respiratory rate. The device detects these data using built-in sensors (such as heart rate sensors and blood oxygen sensors).

[0090] S105. Determine that the object to be detected is an object, and mark the calibrated temperature data separately;

[0091] It should be noted that when the device determines that the object being detected is one for which no vital signs data can be detected, it classifies the object as an object. In this case, the calibrated temperature data will be separately labeled. The calibrated temperature data is a more accurate temperature value that has been corrected according to certain algorithms and standards. The purpose of separate labeling is to clearly distinguish between object temperature data and human body temperature data in subsequent data management and analysis, and to avoid confusion.

[0092] S106. Determine that the detection object is a human body, and based on the vital signs data, determine whether the detection object is a registered user; if not, proceed to S107; if yes, proceed to S108.

[0093] It should be noted that if vital signs data are detected, the device determines that the subject is a human. Next, based on the detected vital signs data, it determines whether the subject is a registered user. A registered user is someone who has pre-entered their personal information and vital signs data into the device or related system. The device will then compare and analyze the detected vital signs data with the registered user data stored in the system.

[0094] S107. Determined to be not requiring long-term monitoring, and the calibrated temperature data is marked separately;

[0095] It should be noted that when the device detects a non-registered user, it determines that long-term monitoring is not required. This is because non-registered users typically do not have long-term health monitoring records in the system, and there is no need to continuously track and record their temperature data. In this case, the calibrated temperature data will still be marked separately for easy querying and simple analysis when needed, but it will not be included in the long-term health monitoring system.

[0096] S108, determined to require long-term monitoring, and the calibrated temperature data is recorded in the registered user's personal health database.

[0097] It should be noted that if the subject of the monitoring is a registered user, the device is designated for long-term monitoring. Long-term monitoring helps to comprehensively and systematically understand the user's health status trends. The device will record the calibrated temperature data into the registered user's personal health database. This personal health database is specifically established for each registered user to store their historical health monitoring data, including temperature data and other vital signs. Through the long-term accumulation of data, users and medical personnel can better analyze the user's health status, promptly identify potential health problems, and develop corresponding prevention and treatment measures.

[0098] Finally, it should be noted that although the above embodiments have been described in the description and drawings of this invention, this should not limit the scope of patent protection of this invention. Any technical solutions that are based on the essential concept of this invention, utilize the content described in the description and drawings of this invention to make equivalent structural or procedural substitutions or modifications, as well as the direct or indirect application of the technical solutions of the above embodiments to other related technical fields, are all included within the scope of patent protection of this invention.

Claims

1. A case having a temperature detecting function, characterized by comprising: The shell body (1), reversible temperature-sensitive color-changing material (2), thermal sensitive element (3), heat-conducting layer (4), and transparent surface layer (5) are included. The shell body (1) is provided with a containing groove (6). The reversible temperature-sensitive color-changing material (2) and the thermal sensitive element (3) are both located in the containing groove (6) and are arranged in a coplanar manner. The heat-conducting layer (4) is arranged on the upper surface of the reversible temperature-sensitive color-changing material (2) and the thermal sensitive element (3). The transparent surface layer (5) is arranged on the upper surface of the heat-conducting layer (4).

2. The case with temperature detection function according to claim 1, characterized by A heat insulation layer (7) is further included. The groove wall and groove bottom of the containing groove (6) are respectively provided with the heat insulation layer (7). The heat insulation layers (7) collectively form a heat insulation frame.

3. The case with temperature detection function according to claim 2, characterized by The heat insulation layer (7) is a non-transparent heat insulation layer.

4. The case with temperature detection function according to claim 2, characterized by The heat insulation layer (7) is made of a plastic material with low thermal conductivity.

5. The case with temperature detection function according to claim 1, wherein The reversible temperature-sensitive color-changing material (2) and the thermal sensitive element (3) are arranged side by side. Alternatively, the reversible temperature-sensitive color-changing material (2) is arranged around the thermal sensitive element (3).

6. The case with temperature detection function according to claim 1, wherein The reversible temperature-sensitive color-changing material (2) is formed by coating a non-solid material and then curing.

7. The case with temperature detection function according to claim 1, wherein The reversible temperature-sensitive color-changing material (2) includes at least one color-changing critical point.

8. A mobile electronic device, comprising: The shell with temperature detection function includes the shell as claimed in any one of claims 1-7.

9. A temperature detection method, performed by the mobile electronic device of claim 8, wherein, The method includes: obtaining the resistance value of the thermal sensitive element, calculating the temperature data according to the resistance value, and obtaining the color displayed by the reversible temperature-sensitive color-changing material collected by the sensor; inputting the temperature data and the color displayed by the reversible temperature-sensitive color-changing material into a temperature-sensing consistency AI model to obtain a temperature-sensing color-changing waiting time; digitally displaying the temperature data and prompting that the color displayed by the reversible temperature-sensitive color-changing material will be consistent with the temperature data only after the temperature-sensing color-changing waiting time is reached.

10. The temperature detecting method according to claim 9, wherein After the step of inputting the temperature data and the color displayed by the reversible temperature-sensitive color-changing material into a temperature-sensing consistency AI model to obtain a temperature-sensing color-changing waiting time, the method further includes: determining whether the vital sign data can be detected; if not, determining that the detection object is an object and separately marking the calibrated temperature data; if yes, determining that the detection object is a human body and determining whether the detection object is a registered user according to the vital sign data; if not, determining that long-term monitoring is not needed and separately marking the calibrated temperature data; if yes, determining that long-term monitoring is needed and recording the calibrated temperature data into a personal exclusive health database of the registered user.

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