Cup

Abstract

The utility model discloses a cup which comprises a temperature detection device, the temperature detection device comprises a detection end and an electrode end, the detection end is located on the inner side of the cup, and the electrode end deviates from the detection end and extends to the outer side of the cup; and the detection circuit assembly is electrically connected with the electrode ends in a detachable manner. When the cup is cleaned and disinfected, the whole cup except the detection circuit assembly can be cleaned and disinfected, the part, making contact with food, of the cup can be cleaned and disinfected more comprehensively, the temperature detection device can be soaked in water and can also tolerate high temperature, and therefore the temperature detection performance of the temperature detection device cannot be affected by cleaning and disinfection; after cleaning and disinfection are completed, the detection circuit assembly can be installed on the cup and electrically connected with the electrode end of the temperature detection device again, the temperature detection function can be achieved, and therefore the cup can achieve more comprehensive cleaning and disinfection, reduce sanitation dead angles and better guarantee food safety of infants.

Description

Technical Field

[0001] This utility model relates to the field of baby product technology, and more specifically, to a cup. Background Technology

[0002] In the field of infant care, infants are more susceptible to bacteria and viruses than adults because their immune systems are not yet fully developed. Cups are essential items in the daily lives of infants and young children. If they are not thoroughly cleaned and sterilized, residual water, saliva, or other food residue can become a breeding ground for bacteria. If the bacteria in the cup are ingested by the infant, it may lead to diarrhea, vomiting, infection, and other problems, affecting their healthy growth.

[0003] However, since most cups nowadays have temperature detection systems on their lids, and these systems have circuitry, existing lids with temperature detection systems cannot be washed in water or sterilized in high-temperature sterilizers. Therefore, only the cup body can be washed and sterilized, which means that the cup cannot be thoroughly cleaned and sterilized. Utility Model Content

[0004] To solve the above-mentioned technical problems, this utility model provides a cup that connects the detection circuit component to the temperature detection device in a detachable manner. When cleaning and disinfecting the cup, the entire cup except for the detection circuit component can be cleaned and disinfected, achieving more comprehensive cleaning and disinfection of the parts of the cup that come into contact with food.

[0005] The present invention provides a cup comprising:

[0006] A temperature detection device includes a detection end and an electrode end, the detection end being located inside the cup, and the electrode end being opposite to the detection end and extending to the outside of the cup;

[0007] The detection circuit assembly is electrically connected to the electrode in a detachable manner.

[0008] Preferably, in the cup described above, a first receiving cavity is provided on the side of the cup, the first receiving cavity extending through the inner side and the outer side of the cup, and the temperature detection device is at least partially matched and installed in the first receiving cavity.

[0009] Preferably, the above-mentioned cup also includes:

[0010] A first connector is fixed to the outside of the cup, and the interior of the first connector has a first chamber for accommodating the electrode, wherein the electrode is fitted into the first chamber.

[0011] The second connecting component has a second chamber formed inside for accommodating the detection circuit component; the first connector is detachably connected to the second connecting component.

[0012] Preferably, in the cup described above, a sealing ring is fitted between the outer periphery of the temperature detection device and the inner wall of the first chamber.

[0013] Preferably, in the cup described above, the first connector includes a cavity for forming the first chamber, and the periphery of the cavity is provided with protrusions;

[0014] The second connecting assembly has a second receiving cavity that accommodates the cavity and the protrusion. The opening of the second receiving cavity includes a cavity inlet and a protrusion inlet that communicate with each other. The cavity inlet matches the outer peripheral contour of the cavity, and the protrusion inlet matches the outer peripheral contour of the protrusion. The first connecting member and the second receiving cavity are rotatable relative to each other. When the protrusion is rotated to align with the protrusion inlet, the first connecting member can enter or exit the second receiving cavity. When the protrusion is rotated to not align with the protrusion inlet, the first connecting member is confined within the second receiving cavity.

[0015] Alternatively, the connection portion between the first connector and the second connector assembly has a magnetic attraction element;

[0016] Alternatively, the first connector and the second connector assembly are connected by threads.

[0017] Alternatively, the first connector and the second connector assembly may be snap-fitted together.

[0018] Preferably, in the cup described above, the protrusion is located in the cavity facing downwards towards the cup.

[0019] Preferably, the above-mentioned cup also includes:

[0020] The third connector is arranged symmetrically with respect to the vertical center line of the cup and the first connector on the cup.

[0021] The fourth connecting component is arranged symmetrically on the cup with the vertical center line of the cup as the axis and the second connecting component as the axis.

[0022] Preferably, the above-mentioned cup also includes:

[0023] The handle, in a U-shape, connects the second connecting component and the fourth connecting component.

[0024] Preferably, in the above-mentioned cup, the cup includes a cup body and a cup lid, the cup body includes a cup mouth, the cup lid is disposed on the cup mouth, and the temperature detection device is installed on the cup lid or the temperature detection device is installed on the cup body.

[0025] Preferably, in the aforementioned cup, the detection circuit assembly includes a control component, a contact switch and a temperature display component, both electrically connected to the control component, wherein the contact switch is connected to the electrode of the temperature detection device; the detection circuit assembly further includes a power supply component, both electrically connected to the control component and the temperature display component.

[0026] As can be seen from the above technical solution, the cup provided by this utility model includes a temperature detection device, comprising a detection end and an electrode. The detection end is located on the inner side of the cup, and the electrode extends outward from the detection end to the outer side of the cup. The detection circuit assembly is electrically connected to the electrode in a detachable manner. Therefore, when cleaning and disinfecting the cup, the entire cup except for the detection circuit assembly can be cleaned and disinfected, achieving more comprehensive cleaning and disinfection of the parts of the cup that come into contact with food. This temperature detection device can be wetted and can withstand high temperatures, so cleaning and disinfection will not affect its temperature detection performance. After cleaning and disinfection, the detection circuit assembly can be reinstalled in the cup and reconnected to the electrode of the temperature detection device to restore the temperature detection function. Thus, this cup can achieve more comprehensive cleaning and disinfection, reduce hygiene dead spots, and better ensure the safety of infant food. Attached Figure Description

[0027] To more clearly illustrate the technical solutions in the embodiments of this utility model 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 embodiments of this utility model. For those skilled in the art, other drawings can be obtained based on the provided drawings without creative effort.

[0028] Figure 1 A schematic diagram illustrating an embodiment of a cup provided by this utility model;

[0029] Figure 2 This is a schematic diagram of the contact switch used in this application.

[0030] In the diagram: 1. Cup body, 2. Cup lid, 3. Temperature detection device, 31. Detection end, 32. Electrode end, 4. Detection circuit assembly, 5. First connector, 51. First chamber, 6. Second connector assembly, 52. Cavity, 53. Protrusion, 61. Second receiving cavity, 611. Cavity inlet, 612. Protrusion inlet, 62. First housing, 63. Second housing, 64. Lid, 7. Third connector, 8. Fourth connector assembly, 9. Handle, 41. Control component, 42. Contact switch, 43. Display component, 44. Power supply component, 45. Display switch, 421. Base, 422. Spring pin, 423. Wire. Detailed Implementation

[0031] The core of this invention is to provide a cup that, during cleaning and disinfection, can clean and disinfect the entire cup except for the detection circuit components, achieving more comprehensive cleaning and disinfection of the parts of the cup that come into contact with food, reducing hygiene blind spots, and better ensuring the safety of infant food.

[0032] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0033] An embodiment of the cup provided by this utility model is as follows: Figure 1 As shown, Figure 1 This is a schematic diagram of an embodiment of a cup provided by this utility model. As can be seen, the cup includes a cup body 1 and a cup lid 2. Both can adopt existing common structures; this solution does not represent an improvement. Furthermore, the cup lid is not limited to the example shown in the attached drawing and can also have other structures. In this embodiment, the cup lid 2 can be screwed onto the upper end of the cup body 1 at the rim. An infant can suck out the liquid from the cup by touching the straw with their mouth and sucking forcefully. After drinking the liquid, the lid can be flipped open to hide the straw inside, preventing external contamination or liquid leakage. Moreover, the cup may include:

[0034] A temperature detection device 3 is used to detect the temperature of the liquid inside the cup. Parents can determine if the liquid temperature is suitable without testing it with their mouths, thus preventing contamination and ensuring the baby's health. The temperature detection device 3 includes a detection end 31 and an electrode end 32. The detection end 31 is located on the inner side of the cup, meaning the side that can contact the liquid inside the cup. It can accurately detect the temperature of the liquid and generate an electrical signal. The electrode end 32 is away from the detection end 31 and extends to the outer side of the cup, used to transmit an electrical signal representing the temperature parameter. The outer side refers to the side of the cup that is in contact with the external environment. The outer side of the cup will not contact the liquid inside. Theoretically, this temperature detection device 3 can be placed anywhere on the cup, either on the cup body 1 or the cup lid 2, as long as the seal is good enough. In this embodiment, the detection end and electrode end of the temperature detection device 3 are approximately on the same straight line, meaning the temperature detection device 3 can be perpendicular to or relatively inclined to the axial direction of the cup body.

[0035] The detection circuit assembly 4 is detachably electrically connected to the electrode 32. This detection circuit assembly 4 is used to receive the electrical signal transmitted from the electrode 32, calculate the current temperature of the liquid in the cup, and display this temperature to the outside.

[0036] In this case, when the cup needs to be cleaned and disinfected, the detection circuit component 4, which is not suitable for cleaning and disinfection, can be disconnected from the electrode 32 of the temperature detection device 3. That is, the detection circuit component 4 can be removed from the cup, and then the cup with the temperature detection device 3 can be cleaned and disinfected. This temperature detection device 3 is not afraid of water or high temperature, so it can be cleaned and disinfected. Moreover, the temperature detection device 3 will come into contact with liquid, so there will be liquid residue on its contact parts, which can easily breed bacteria. By cleaning and disinfecting the temperature detection device 3, the bacteria on it can be prevented from contaminating other parts of the cup. After cleaning and disinfection, all parts of this temperature detection device 3 will have a dry and clean surface. Then the detection circuit component 4 can be connected to the electrode 32 of the temperature detection device 3 to restart the temperature detection function of the cup. It can be seen that using this kind of cup helps to reduce hygiene dead spots and reduce bacterial growth caused by inadequate cleaning and disinfection.

[0037] As can be seen from the above technical solution, in the embodiment of the cup provided by this utility model, the temperature detection device 3 includes a detection end 31 and an electrode 32. The detection end 31 is located on the inner side of the cup, and the electrode 32 is away from the detection end 31 and extends to the outer side of the cup. The detection circuit assembly 4 and the electrode 32 are electrically connected in a detachable manner. Therefore, when cleaning and disinfecting the cup, the entire cup except for the detection circuit assembly 4 can be cleaned and disinfected, achieving more comprehensive cleaning and disinfection of the parts of the cup that come into contact with food. This temperature detection device 3 can be wetted and can withstand high temperatures, so cleaning and disinfection will not affect its own temperature detection performance. After cleaning and disinfection, the detection circuit assembly 4 can be installed back into the cup and reconnected to the electrode 32 of the temperature detection device 3, thus realizing the temperature detection function again.

[0038] In one specific embodiment of the aforementioned cup, reference is made further to the above embodiment. Figure 1 The cup has a first receiving cavity (not shown in the figure) on its side, which extends through the inner and outer sides of the cup. Specifically, the first receiving cavity can be a through hole drilled in the side of the lid 2 to allow the temperature detection device 3 to pass through, or it can be drilled in the side of the cup body. There is no limitation here. The shape and size of the inner wall of the first receiving cavity match the shape and size of the outer periphery of the temperature detection device 3. The temperature detection device 3 is at least partially installed in the first receiving cavity. After the temperature detection device 3 passes through the first receiving cavity, its detection end 31 must be able to contact the liquid or water vapor in the cup. There is no limitation on the distance that the detection end 31 extends into the cup, but the electrode 32 of the temperature detection device 3 needs to be exposed outside the cup to ensure that it can be electrically connected to the detection circuit assembly 4. The specific distance exposed can be selected according to actual needs and is not a limitation here. Alternatively, the outermost part of the electrode 32 can also be located inside the first receiving cavity, and the detection circuit assembly 4 can be inserted into the first receiving cavity to electrically connect with the electrode 32.

[0039] In this case where the temperature detection device 3 is installed on the cup lid 2, the temperature detection device 3 can be removed more easily, and there is no need to drill holes in the cup body 1, which would affect its strength and / or sealing. Of course, other positions can also be selected according to actual needs, and there are no restrictions here.

[0040] In another specific embodiment of the cup described above, based on the above specific embodiment, further reference is made. Figure 1 The cup may also include:

[0041] The first connector 5 has a first chamber 51 extending along the extension direction of the electrode 32. This extension direction refers to the radial direction of the cup, that is, the direction from the inner side to the outer side or from the outer side to the inner side of the cup. The electrode 32 is fitted into the first chamber 51. The first end of the first connector 5 is fixed to the outer side of the cup, specifically to the lid 2 or the cup body, depending on the location of the first receiving cavity. In other words, the first connector 5 is installed on the outer side of the cup, and its internal first chamber 51 communicates with the first receiving cavity inside the cup to achieve the desired connection. The first end of the first connector 5, which houses the temperature detection device 3, can be fixed to the cup by means of adhesive bonding, threaded connection, snap-fit, or integral fixation. Of course, any other fixing method can be selected, and there is no limitation here. The shape and size of the first chamber 51 are also matched with the shape and size of the outer periphery of the temperature detection device 3 housed inside it. Furthermore, a sealing ring can be installed between the outer periphery of the temperature detection device 3 and the inner wall of the first chamber 51 to achieve a sealed connection at this part. Specifically, a sealing ring made of food-grade material should be used to seal this part to prevent liquid from leaking out from this part while ensuring health.

[0042] The second connecting component 6 has a second chamber inside that accommodates the detection circuit component 4. Part of the detection circuit component 4 is exposed in the second chamber, allowing it to connect to the electrode 32. The first connecting member 5 and the second connecting component 6 are detachably connected. When the second connecting component 6 is connected to the first connecting member 5, the detection circuit component 4 within the second connecting component 6 can conduct electricity with the electrode 32 of the temperature detection device 3 within the first connecting member 5, thus enabling temperature detection during cup use. When the second connecting component 6 is detached from the first connecting member 5, the detection circuit component 4 within the second connecting component 6 is disconnected from the electrode 32 of the temperature detection device 3 within the first connecting member 5, allowing the cup to be cleaned and disinfected. The connection between the first connecting member 5 and the second connecting component 6 can be achieved through threaded connection, snap-fit, magnetic connection, or other similar methods; there are no limitations. It should also be noted that the detection circuit component 4 is not limited to being assembled into the cup via the first connecting member 5 and the second connecting component 6; other methods can also be used, which are not considered limitations.

[0043] Continue to refer to Figure 1 The first connector 5 and the second connector 6 can adopt the following structure:

[0044] The first connector 5 includes a cavity 52 for forming a first chamber 51. The overall shape of the cavity 52 can be the side wall of a cylinder. The first chamber 51 is the internal space of a cylinder. A protrusion 53 is provided on the periphery of the cavity 52. ​​The protrusion 53 is a part of the surface of the cavity 52 that protrudes outward. The specific shape can be hemispherical, square or any other arbitrary shape, which is not limited here.

[0045] The second connecting assembly 6 has a second receiving cavity 61 that accommodates the cavity 52 and the protrusion 53. The opening of the second receiving cavity 61 includes a cavity inlet 611 and a protrusion inlet 612 that are interconnected. The cavity inlet 611 matches the outer peripheral contour of the cavity 52, allowing the cavity 52 to enter the second receiving cavity 61 through the cavity inlet 611. The protrusion inlet 612 matches the outer peripheral contour of the protrusion 53, allowing the protrusion 53 to enter the second receiving cavity 61 through the protrusion inlet 612. The first connecting member 5 and the second receiving cavity 61 are rotatable relative to each other. This corresponds to the fact that during normal use of the cup, the user can have a free rotation when holding the cup. At this time, it can be ensured that the second connecting assembly 6 will not detach from the first connecting member 5. When the protrusion 53 rotates to align with the protrusion inlet 612, the first connecting member 5 can enter or disengage from the second receiving cavity 61. It should be noted here that... Figure 1 The protruding inlet 612 and the second receiving cavity 61 cannot be shown from the perspective of the second connecting component 6. Therefore, the protruding inlet 612 and the second receiving cavity 61 are represented here on the fourth connecting component 8. In fact, the fourth connecting component 8 and the second connecting component 6 have the same structure and are symmetrical with respect to the vertical center line / axial direction of the cup. This situation corresponds to the case of removing the second connecting component 6 from the first connecting member 5 and the case of installing the second connecting component 6 onto the first connecting member 5. The position of the protrusion 53 is matched with this disassembly and assembly process. Furthermore, the protrusion 53 is preferably located in the cavity 52 facing the cup. The lower position, which refers to the direction from the lid of the cup towards the bottom, is the position where the protruding inlet 612 on the second connecting component 6 will not rotate during normal use of the cup. Therefore, it will not cause accidental disassembly of the second connecting component 6. When the protrusion 53 rotates to a position where it is not aligned with the protruding inlet 612, the first connecting member 5 is confined within the second receiving cavity 61. This corresponds to the handle having a free rotation amount during normal use of the cup, which facilitates the lifting operation of the cup. Moreover, the fact that the first connecting member 5 is confined within the second receiving cavity 61 to rotate ensures that the second connecting component 6 will not detach from the first connecting member 5.

[0046] In another implementation, the connection between the first connector 5 and the second connector 6 has a magnetic attraction element. The magnetic attraction element firmly connects the two components. When disassembly is needed, the magnetism can be eliminated, allowing the second connector 6 to be easily removed. Alternatively, the first connector 5 and the second connector 6 can be connected by threads. The second connector 6 can be inserted into the first connector 5 using a bolt. When disassembly is needed, it can be reversed, allowing for quick assembly and disassembly. Another implementation allows for a snap-fit ​​connection between the first connector 5 and the second connector 6. Corresponding parts can be fitted with matching snap-fit ​​sections. When installed together, the snap-fit ​​section engages the second connector 6 into the first connector 5. When disassembly is needed, a switch can be pressed to release the snap-fit, allowing the second connector 6 to be easily removed from the second connector 5. Of course, any other detachable connection method can be used, depending on the specific needs, and this is not a limitation.

[0047] Continue to refer to Figure 1 A specific component of the aforementioned second connecting component 6 may be as follows:

[0048] The second connection component 6 includes:

[0049] The first housing 62 has the aforementioned second receiving cavity 61 formed inside;

[0050] The second housing 63 is detachably connected to the second receiving cavity 61. Specifically, it can be connected by a snap-fit ​​method, a threaded connection method, or any other method that is easy to disassemble. The second housing 63 and the first connecting member 5 enter the second receiving cavity 61 from two opposite directions. The second housing 63 has a third receiving cavity 631 with both ends through it. The detection circuit assembly 4 can be installed in the third receiving cavity 631. This can ensure a more compact structure and prevent the detection circuit assembly 4 from shaking inside the first housing 62.

[0051] The cover 64 engages with the first housing 62 to seal the second receiving cavity 61 and / or the third receiving cavity 631, thereby achieving a better sealing effect, preventing external water from entering the second housing 63, further enhancing the waterproof function, and better ensuring overall safety.

[0052] It should also be noted that the first housing 62, the second housing 63 and the lid 64 are arranged sequentially from the inside to the outside of the cup (the side closer to the lid 2 is the inside, and the side farther from the lid 2 is the outside), so that the detection circuit assembly 4 can be detachably connected to the outside of the temperature detection device 3.

[0053] In this configuration, the circumferential enclosure of the first housing 62 and the second housing 63, along with the top enclosure of the cover 64, achieves comprehensive sealing protection for the detection circuit assembly 4. This effectively prevents external moisture or temperature from entering the detection circuit assembly, causing a short circuit and affecting its temperature detection function. Furthermore, when the cup handle 9 needs to be removed, it can be rotated closer to the cup body and then pried open outwards by hand to separate the detection circuit assembly 4 from the cup, allowing for more thorough cleaning and disinfection. It should also be noted that other structures can be used to protect the detection circuit assembly 4, and this is not limited to... Figure 1 The structure shown is intended.

[0054] In another specific embodiment of the cup described above, based on the other specific embodiment described above, further reference is made. Figure 1 It may also include:

[0055] The third connector 7 is arranged symmetrically on the cup with the vertical center line of the cup as the axis and the first connector 5 as the axis. The structure of the third connector 7 and its connection with other components can be the same as the first connector 5. The third connector 7 does not have a temperature detection device 3.

[0056] The fourth connecting component 8 is symmetrically arranged on the cup with the vertical center line of the cup as its axis and the second connecting component 6. The structure and connection relationship of the fourth connecting component 8 with other components can be the same as those of the second connecting component 6. In some embodiments, another set of temperature detection devices and detection circuit components can be correspondingly arranged in the third connecting component 7 and the fourth connecting component 8 to realize additional temperature detection functions. When one of the temperature detection devices 3 fails during the use of the cup, the other temperature detection device can still work normally. It can be seen that this can provide a certain degree of redundancy for the normal operation of the entire cup and further improve safety. Of course, the circuit detection component 4 can also be omitted from the fourth connecting component 8 to save costs. In addition, the first connecting component 5 and the third connecting component 7 may not be symmetrical with respect to the vertical center line of the cup, and the second connecting component 4 and the fourth connecting component 8 may not be symmetrical with respect to the vertical center line of the cup. In the above-mentioned symmetrical arrangement, it can also be non-strictly symmetrical, allowing for a certain positional deviation.

[0057] In a further embodiment, a handle 9 may be included, which is U-shaped to connect the second connecting component 6 and the fourth connecting component 8, making it easier to lift and move the cup. The shape of this handle 9 can also be a semi-circular arch, a polygonal zigzag shape, or a shape with a specific animal outline, such as a shape similar to rabbit ears, etc. These can be selected according to actual needs and are not limited here. Moreover, this handle 9 can be integrally connected with the second connecting component 6 and the fourth connecting component 8, that is, it can be made into this integral shape during manufacturing, which can ensure a more solid connection. Of course, bolt connection, snap-fit ​​or other arbitrary connection methods can also be used, and there are no restrictions here.

[0058] Based on the various embodiments of the cup described above, please continue to refer to... Figure 1 The aforementioned detection circuit assembly 4 may include a control component 41, a contact switch 42 electrically connected to the control component 41, and a temperature display component 43. The control component 41 may be an MCU, and the temperature display component 43 may be an LED display. Of course, other types of control components and temperature display components may be selected according to actual needs, and there are no restrictions here. After the control component 41 obtains temperature data from the temperature detection device 3, it can control the temperature display component 43 to display the temperature, allowing the user to know the current temperature in real time. Moreover, the contact switch 42 is connected to the electrode 32 of the temperature detection device 3. When it is disassembled, it can disconnect the electrical connection with the temperature detection device 3. When it is cleaned and disinfected and reinstalled, the contact switch 42 will reconnect due to being squeezed, so that temperature detection can continue. It can be seen that this process does not require manual intervention, thus achieving a higher degree of automation. Of course, other types of switches may also be used, and there are no restrictions here.

[0059] The detection circuit assembly 4 may further include a power supply component 44, which is electrically connected to both the control component 41 and the temperature display component 43. The power supply component 44 is preferably located in the power supply chamber behind the temperature display component 43. This power supply component 44 can power various electrical components to ensure they perform detection and display functions. This location makes full use of space without obstructing the display area of ​​the temperature display component 43. Furthermore, the power supply component 44 is preferably a button battery to accommodate the relatively small space; however, other types of batteries can be selected according to actual needs, and there are no limitations here.

[0060] In further embodiments, reference continues to be made to... Figure 1It may also include a display switch 45, which is located on the side of the temperature display component 43. The temperature display component 43 can be lit by touching the display switch 45. The display switch 45 and the temperature display component 43 are electrically connected. One implementation is to send a control signal to the display switch 45. The control signal is transmitted to the temperature display component 43 through the display switch 45. The signal is decoded and processed in the temperature display component 43 to trigger the lighting operation of the temperature display component 43. Of course, the lighting of the temperature display component 43 is not limited to the above-described embodiments, and this utility model does not limit it in this regard.

[0061] Specifically, the contact switch can be as follows: Figure 2 As shown, Figure 2 This is a schematic diagram of the contact switch used in this application. The contact switch 42 may include a base 421, a spring pin 422, and a wire 423. The spring pin 422 is protrudingly mounted on the base 421 and passes through the second chamber to connect to the electrode 32. One end of the wire 423 is fixed to the base 421, and the other end of the wire 423 is connected to the control component 41. Using this spring pin 422, the temperature detection device can be effectively activated by pressing without manual operation. It should be noted that the structure of the detection circuit assembly 4 is not limited to the example given in this application. Other detection circuit assemblies with different structures can be selected according to actual needs. This embodiment does not limit this.

[0062] The above description of the disclosed embodiments enables those skilled in the art to make or use the present invention. Various modifications to these embodiments will be readily apparent to those skilled in the art, and the general principles defined herein may be implemented in other embodiments without departing from the spirit or scope of the present invention. Therefore, the present invention is not to be limited to the embodiments shown herein, but is to be accorded the widest scope consistent with the principles and novel features disclosed herein.

Claims

1. A cup characterized in that, The temperature detection device comprises a detection end and an electrode end, the detection end is located inside the cup, and the electrode end extends to the outside of the cup; The detection circuit assembly is detachably connected with the electrode end; Further comprising: A first connecting piece is fixed to the outside of the cup, and a first cavity for accommodating the electrode end is formed in the inside of the first connecting piece, and the electrode end is matchedly installed in the first cavity; A second connecting assembly is formed with a second cavity for accommodating the detection circuit assembly; The first connecting piece is detachably connected with the second connecting assembly; Further comprising: A third connecting piece is symmetrically arranged on the cup with the vertical center line of the cup as the axis and the first connecting piece as the reference; A fourth connecting assembly is symmetrically arranged on the cup with the vertical center line of the cup as the axis and the second connecting assembly as the reference. The side of the cup is provided with a first accommodating cavity, the first accommodating cavity penetrates the inside of the cup and the outside of the cup, and the temperature detection device is at least partially matchedly installed in the first accommodating cavity.

2. The cup of claim 1, wherein A sealing ring is matchedly installed between the outer periphery of the temperature detection device and the inner wall of the first cavity.

3. The cup of claim 1, wherein The first connecting piece comprises a cavity for forming the first cavity, and a protrusion is arranged on the lateral side of the cavity; 4. The cup of claim 1, wherein The second connecting assembly has a second accommodating cavity for accommodating the cavity and the protrusion, the opening of the second accommodating cavity comprises a cavity inlet and a protrusion inlet which are in communication with each other, the cavity inlet is matched with the outer periphery contour of the cavity, and the protrusion inlet is matched with the outer periphery contour of the protrusion, the first connecting piece can rotate relative to the second accommodating cavity, when the protrusion is rotated to be aligned with the protrusion inlet, the first connecting piece can enter or exit the second accommodating cavity, and when the protrusion is rotated to be misaligned with the protrusion inlet, the first connecting piece is limited in the second accommodating cavity; Alternatively, the connecting part of the first connecting piece and the second connecting assembly has a magnetic member; Alternatively, the first connecting piece and the second connecting assembly are connected by threads; Alternatively, the first connecting piece and the second connecting assembly are clamped. The protrusion is located at the lower position of the cavity towards the cup.

5. The cup of claim 4, wherein Further comprising:

6. The cup of claim 1, wherein A handle is used to connect the second connecting assembly and the fourth connecting assembly. The cup comprises a cup body and a cup cover, the cup body comprises a cup mouth, the cup cover is arranged on the cup mouth, and the temperature detection device is installed on the cup cover or the temperature detection device is installed on the cup body.

7. The cup of any one of claims 1 to 6, wherein, The detection circuit assembly comprises a control part, a touch switch and a temperature display part which are electrically connected with the control part, and the touch switch is connected with the electrode end of the temperature detection device; 8. The cup of claim 7, wherein The detection circuit assembly further comprises a power supply part which is electrically connected with the control part and the temperature display part. ​

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