A partitioned heat-insulating water cup and a water pouring method

Abstract

The present invention provides a partitioned thermal insulation cup and a water pouring method, wherein the cup body has a middle partition, the partition divides the interior of the cup body into a thermal insulation zone and a drinking water zone, the partition is provided with an openable and closable water injection port, the two ends of the cup body are respectively provided with a hot water port and a drinking water port corresponding to the thermal insulation zone and the drinking water zone, the hot water port and the drinking water port are respectively provided with a thermal insulation cover and a drinking water cover, and the partition, the thermal insulation cover and the cup body are all wrapped with a thermal insulation layer in the thermal insulation zone; the water cup of the present invention stores hot water in the thermal insulation zone, and before drinking the water, a part of the hot water is injected into the drinking water zone through the water injection port for cooling, so as to avoid the hot water from being completely cooled, and at the same time, the amount of water to be drunk can be cooled, so that while maintaining the overall thermal insulation of the thermal insulation cup, a small cup of water with a suitable temperature can be drunk in batches for multiple times.

Description

Technical Field

[0001] The present invention relates to the technical field of water cups, and in particular to an intelligent heat-insulating water cup with adjustable temperature in different zones. Background Art

[0002] Thermos cups are daily necessities for people, but most of the current thermos cups focus on their heat preservation effect and ignore the user experience. Users often drink water in batches and in small amounts multiple times. However, due to the good heat preservation performance of the thermos cup, the water in the cup cools down slowly. Usually, it only cools down when the lid is unscrewed. Not only does it take a long time to wait, but the whole cup of water becomes cold after a long time, and then it cannot be drunk. This not only fails to meet people's drinking water needs, but also is a huge waste of water resources. Of course, there are also some smart water cups with automatic heating functions, but repeated heating is not only bad for water quality, but also limited by the volume of the water cup, the battery capacity on the cup is small, and it cannot meet the repeated heating needs; if residential electricity is used for heating, the portability of the water cup will be reduced. Users often hope to maintain the overall heat preservation of the thermos cup while being able to drink a small cup of water at a suitable temperature in batches multiple times, but the existing smart water cups cannot meet this actual need of users. Summary of the invention

[0003] In order to solve the problems existing in the prior art, the present invention provides an intelligent thermos cup with adjustable temperature in different zones, which allows the user to independently choose the amount and temperature of water to drink without worrying that the whole cup of water will become cold.

[0004] In order to achieve the above-mentioned purpose, the technical solution proposed in the present invention is: a partitioned insulated water cup, comprising a cup body, a partition is provided in the middle part of the cup body, the partition divides the inside of the cup body into a heat preservation zone and a drinking water zone, the partition is provided with an openable and closable water inlet, and both ends of the cup body are respectively provided with a hot water inlet and a drinking water inlet corresponding to the heat preservation zone and the drinking water zone, the hot water inlet and the drinking water inlet are respectively provided with a heat preservation cover and a drinking water cover, and the partition, the heat preservation cover and the cup body are all wrapped with a heat preservation layer in the heat preservation zone.

[0005] A further design of the above technical solution is that temperature sensors are provided in both the heat preservation area and the drinking water area.

[0006] Water level sensors are provided in the heat preservation area and the drinking water area.

[0007] A microprocessor and a power module are arranged in the compartment, and the power module, the temperature sensor and the water level sensor are all connected to the microprocessor.

[0008] The cup body is provided with a display screen, and the display screen is connected to the microprocessor.

[0009] The cup body is provided with a drinking water temperature setting button, a drinking water volume setting button, a pouring button and a confirmation button, and the drinking water temperature setting button, the drinking water volume setting button, the pouring button and the confirmation button are all connected to the microprocessor.

[0010] A baffle, a chute, a push rod, a spring and an electromagnet are arranged in the partition layer. One end of the chute is communicated with the water injection port, and the other end is connected to the electromagnet. The electromagnet is connected to the power supply module; the push rod is slidably connected in the chute, the baffle is fixed at one end of the push rod, one end of the spring is fixed on the baffle, and the other end is fixed on the partition layer. The spring pushes the baffle towards the side close to the water injection port, and after the electromagnet is energized, the push rod is pulled towards the side away from the water injection port.

[0011] A heat preservation layer is arranged in the baffle.

[0012] The cup body is provided with a USB interface, and the USB interface is connected to the power supply module.

[0013] A pouring method for the above-mentioned partition heat-preserving water cup

[0014] The existing water volume and water temperature in the heat preservation area are measured as A and T0 respectively by the temperature and water level sensors in the heat preservation area; the set drinking water volume by the user is B; the drinking water temperature is T, and T≤T0, and pouring is carried out according to the principle of giving priority to the final drinking water temperature.

[0015] When there is no water in the drinking area

[0016] If A≧B, open the water injection port and inject water into the drinking area according to the set drinking water volume by the user until B.

[0017] If A<B, then open the water injection port and inject all the water in the heat preservation area into the drinking area. After injection, the water volume in the drinking area is A.

[0018] When there is already water in the drinking area, the existing water volume and water temperature in the drinking area are measured as C and T1 respectively by the temperature and water level sensors in the heat preservation area.

[0019] If T1≥T, then judge the water volume:

[0020] When C≥B, do not inject water.

[0021] When C<B and A≥B-C, open the water injection port and inject water from the heat preservation area into the drinking area until B.

[0022] When A<B-C, then open the water injection port and inject all the water in the heat preservation area into the drinking area. After injection, the water volume in the drinking area is C+A.

[0023] If T1<T

[0024] When C≥B and When it is time, the microprocessor calculates and displays on the display screen the amount of water that the user should pour out from the drinking area as Then open the water injection port, and the amount of water injected from the heat preservation area into the drinking area is

[0025] When C≥B, and When it is time, the microprocessor calculates and displays on the display screen the amount of water that the user should pour out from the drinking area as Then open the water injection port, and the amount of water injected from the heat preservation area into the drinking area is

[0026] When And When it is time, the microprocessor calculates and displays on the display screen the amount of water that the user should pour out from the drinking area as Then open the water injection port, and the amount of water injected from the heat preservation area into the drinking area is

[0027] When And When it is time, the microprocessor calculates and displays on the display screen the amount of water that the user should pour out from the drinking area as Then open the water injection port, and all the water in the heat preservation area is injected into the drinking area;

[0028] When And When it is time, open the water injection port, and the amount of water injected from the heat preservation area into the drinking area is the amount of water injected from the heat preservation area into the drinking area is When And When it is time, if A / C≥A′ / C′, open the water injection port, and the amount of water injected from the heat preservation area into the drinking area is the amount of water injected from the heat preservation area into the drinking area is If A / C<A′ / C′, the microprocessor calculates and displays on the display screen the amount of water that the user should pour out from the drinking area as Then open the water injection port, and all the water in the heat preservation area is injected into the drinking area.

[0029] Set the minimum water volume L in the drinking area min , if the water volume in the drinking area is less than or equal to L min , it is regarded that there is no water in the drinking area.

[0030] The beneficial effects of the present invention are:

[0031] The present invention divides the cup body of the water cup into two parts, namely a heat preservation area and a drinking area. Hot water is stored in the heat preservation area. Before drinking water, a part of the hot water is injected into the drinking area through the water injection port for cooling, avoiding all the hot water from cooling, and at the same time, the amount of water to be drunk can be cooled. The present invention can enable the user to drink a small cup of water at an appropriate temperature in batches while maintaining the overall heat preservation performance of the heat preservation cup. Description of the Drawings

[0032] Figure 1 It is a structural schematic diagram of an embodiment of the present invention;

[0033] Figure 2 for Figure 1 Interlayer structure diagram Figure 1 ;

[0034] Figure 3 for Figure 1 Interlayer structure diagram Figure 2 .

[0035] In the figure: 1-insulation area, 11-insulation cover, 2-drinking area, 21-drinking cover, 3-interlayer, 31-water inlet, 32-baffle, 33-spring, 34-slide, 35-push rod, 36-electromagnet, 4-microprocessor and power module, 5-display screen, 6-drinking water temperature setting button, 7-drinking water amount setting button, 8-confirmation button, 9-pour water button. DETAILED DESCRIPTION

[0036] The present invention is described in detail below with reference to the accompanying drawings and specific embodiments.

[0037] Example

[0038] like Figure 1 As shown, the present invention provides a zoned temperature-adjustable intelligent thermal insulation water cup, comprising a cup body, a partition 3 is provided in the middle of the cup body, the partition 3 divides the inside of the cup body into a thermal insulation zone 1 and a drinking water zone 2, the partition 3 is provided with an openable and closable water inlet 31, and both ends of the cup body are respectively provided with a hot water inlet and a drinking water inlet corresponding to the thermal insulation zone 1 and the drinking water zone 2, the hot water inlet and the drinking water inlet are respectively provided with a thermal insulation cover 11 and a drinking water cover 21, and the partition 3, the thermal insulation cover 11 and the cup body are all wrapped with a thermal insulation layer in the thermal insulation zone 1.

[0039] In this embodiment, both the heat preservation area 1 and the drinking water area 2 are provided with temperature sensors and water level sensors.

[0040] Combination Figure 2 and 3 As shown, a microprocessor and a power module 4 are arranged in the partition 3, and the power module, the temperature sensor and the water level sensor are all connected to the microprocessor, and the microprocessor adopts the stm32f103 chip.

[0041] The cup body is provided with an LED display screen 5, and the LED display screen 5 is connected to a microprocessor.

[0042] The cup body is provided with a drinking water temperature setting button 6, a drinking water volume setting button 7, a pouring button 9 and a confirmation button 8, and the drinking water temperature setting button, the drinking water volume setting button, the pouring button and the confirmation button are all connected to the microprocessor.

[0043] In this embodiment, the drinking water temperature is set by the drinking water temperature setting button 6 and confirmed by the confirmation button 8; the drinking water volume is set by the drinking water volume setting button 7 and confirmed by the confirmation button 8.

[0044] The cup body is provided with a USB interface, and the USB interface is connected to the power module for charging the power module.

[0045] In this embodiment, the partition 3 is provided with a baffle 32, a slide groove 34, a push rod 35, a spring 33 and an electromagnet 36. One end of the slide groove 34 is connected to the water inlet 31, and the other end is connected to the electromagnet 36. The electromagnet 36 is connected to the power module. After power is turned on, the electromagnet 36 generates a magnetic force; the push rod 35 is made of steel material and is slidably connected in the slide groove 34. The baffle 32 is fixed to one end of the push rod 35. One end of the spring 33 is fixed on the baffle 32, and the other end is fixed to the partition 3 In this embodiment, the partition 3 is provided with a protrusion extending into the slide groove 34 at the middle position of the slide groove 34, and the other end of the spring 33 is fixed on the protrusion. In the free state, the spring 33 pushes the baffle 32 to the side close to the water filling port 31 to close the water filling port 31; press the pouring button 9 to send a pouring signal to the microprocessor, and the microprocessor sends a signal to the power module to energize the electromagnet 36. After the electromagnet 36 is energized, the push rod 35 is pulled to the side away from the water filling port 31 to open the water filling port 31.

[0046] In this embodiment, a sealing ring is provided at the connection between the baffle plate 32 and the slide groove 34, and a sealing gasket is provided at the contact between the baffle plate 32 and the inner wall of the water injection port 31.

[0047] A heat preservation layer is arranged inside the baffle 32 to ensure that the heat preservation area 1 has a good heat preservation effect. The drinking water area 2 has no heat preservation layer and thus has a certain heat dissipation effect.

[0048] The heat preservation area and the drinking water area are both provided with temperature sensors and liquid level sensors, and the current water temperature and water volume in each area can be displayed through the cup body LED display screen 5.

[0049] In this embodiment, the drinking water temperature setting button: press once, the LED display screen 5 displays the set drinking water temperature and flashes, and the set drinking water temperature can be increased by 1°C by pressing the button once; the drinking water temperature can also be set at T by pressing and holding the button. min ℃~T max ℃(where T min ℃ and T max ℃ is the lowest and highest drinking water temperature that can be set), and the temperature is increased by 1℃ each time; or press and hold the button for more than S seconds, indicating that the drinking water temperature is not set, and the actual water temperature of the insulation zone is used by default; press the OK button once to confirm the set drinking water temperature, and the LED stops flashing;

[0050] Water volume setting button: Press once, the LED will display the water volume and flash, the initial water volume is M min ml, you can press the button once to increase the amount of water you drink by ΔXml each time, or you can press and hold the button to set the amount of water you drink in M min ml~M max ml (where M min ml and M max ml is the minimum and maximum drinking water volume that can be set), each time increasing by ΔXml; or long press the button for more than S seconds, indicating that the default drinking water volume is M min ml; Press the OK button once to confirm the set drinking water volume, and the LED stops flashing;

[0051] Confirm button: In the shutdown state, press and hold the confirm button for more than S seconds, the system enters the startup state, and displays the liquid level (ml) and temperature (℃) of the insulation area and drinking water area. If no operation is performed for ΔS seconds, it enters the standby state; in the standby state, there is no display on the LED display screen. Press it once to exit the standby state, light up the LED display screen, and display the liquid level (ml) and temperature (℃) of the insulation area and drinking water area; in the system startup state, when the LED display screen displays, press and hold the confirm button for more than S seconds to prompt to shut down the system. Confirm again to shut down the system; the system has a memory function that can remember the drinking water temperature and amount set by the user last time.

[0052] The method for dispensing the insulation water cup in this embodiment to determine the amount of water from the insulation area to the drinking water area according to the required amount of drinking water and the drinking water temperature, as well as the current amount of water and the water temperature in the insulation area and the drinking water area is as follows:

[0053] If the existing water volume and water temperature in the insulation zone are A(ml) (when A <M min (ml), the display screen will light up for S seconds at intervals of ΔH hours to remind the user to add water) and T0℃;

[0054] The amount of water you drink set by the user is B (ml). If the user does not set the amount of water you drink, the default value is M. min (ml), that is, B = M min ;

[0055] The drinking water temperature set by the user is T℃ (T≤T0, i.e. the drinking water temperature set by the user cannot be higher than the water temperature in the insulation zone). If the user does not set the drinking water temperature, the default is the actual water temperature in the insulation zone, i.e. T=T0;

[0056] at this time:

[0057] 1) There is no water in the drinking water area:

[0058] a) If there is no water in the drinking water area, or there is very little water (less than L min (ml)), it is considered that there is no water in the drinking water area;

[0059] b) If A ≥ B, water will be injected into the drinking area until it reaches B (ml) according to the water intake set by the user.

[0060] c) If A < B, all the water in the insulation area will be injected into the drinking area. After injection, the water volume in the drinking area is A (ml).

[0061] d) After the operation is completed, the LED screen will display the water volume and water temperature in the insulation area and the drinking area in real time. If there is no operation for ΔS seconds, it will enter the standby state; when the water temperature in the drinking area drops to T °C, the LED screen will flash to prompt the user to drink water.

[0062] 2) There is already water in the drinking area:

[0063] The existing water volume and water temperature in the drinking area are C (ml) and T1 °C respectively, and C ≥ L min ;

[0064] In this state, there are two cases:

[0065] Case 1: T1 ≥ T, which means the existing water temperature in the drinking area is higher than the drinking temperature set by the user. At this time, directly judge the water volume:

[0066] a) If C ≥ B, it means the existing water volume in the drinking area is higher than the water intake set by the user, and no water is injected.

[0067] b) If C < B, when A ≥ B - C, it means the water volume in the insulation area is sufficient. At this time, water is injected from the insulation area into the drinking area until it reaches B (ml).

[0068] c) If A < B - C, then all the water in the insulation area will be injected into the drinking area. After injection, the water volume in the drinking area is C + A (ml).

[0069] d) After the operation is completed, the LED screen will display the water volume and water temperature in the insulation area and the drinking area in real time. If there is no operation for ΔS seconds, it will enter the standby state. When the water temperature in the drinking area drops to T °C, the LED screen will flash to prompt the user to drink water.

[0070] Case 2: T1 < T, which means the existing water temperature in the drinking area is lower than the drinking temperature set by the user:

[0071] a) If C ≥ B, based on the heat balance equation and the principle of giving priority to the final drinking water temperature, in order to make its final water temperature T, calculate and prompt the user the amount of water D (ml) that should be poured out. Then, water is injected from the insulation area into the drinking area to make its final water temperature T. The LED screen will display the water volume and water temperature in the insulation area and the drinking area in real time.

[0072] b) If C < B, according to the heat balance equation and the principle of giving priority to the final drinking water temperature, in order to make the final water temperature T °C, calculate and prompt the user the amount of water E (ml) to be poured out, and then pour water from the insulation area into the drinking area to make the final water temperature T; the LED screen displays the water volume and water temperature in the insulation area and the drinking area in real time;

[0073] c) After the operation is completed, the LED screen displays the water volume and water temperature in the insulation area and the drinking area in real time. If there is no operation for ΔS seconds, it enters the standby state; when the water temperature in the drinking area drops to T °C, the LED screen flashes to prompt the user to drink water.

[0074] In the above method, the calculation processes of D and E are as follows:

[0075] When the temperature of water changes by Δt during a certain process, the heat Q it absorbs (or releases) is Q = c × m × Δt, where c is the specific heat of water, a constant, m is the mass of water, recorded as ml here, and Δt is the change in water temperature. According to the principle of giving priority to the final drinking water temperature, based on the heat balance formula Q 放 = Q 吸 :

[0076] The calculation process of D is as follows:

[0077] According to the heat balance formula Q 放 = Q 吸 , according to the principle of giving priority to the final drinking water temperature, it can be divided into the following two situations:

[0078]

[0079] i. If the water volume A in the insulation area is sufficient, that is, if Then The amount of water poured from the insulation area into the drinking area is After pouring water, the water volume in the drinking area is B;

[0080] The calculation process is as follows:

[0081] If the water volume A in the insulation area is sufficient, that is, the final water volume in the drinking area is B, according to the heat balance formula Q 放 = Q 吸 , we get:

[0082] c[B - (C - D)](T0 - T) = c(C - D)(T - T1)

[0083] From this, we can get;

[0084]

[0085] Then the amount of water poured from the insulation area into the drinking area is F = B - (C - D), substituting D, we get Therefore, the so-called sufficient water volume A in the insulation area means

[0086] ii. If the water volume A in the insulation zone is insufficient, that is, if So The amount of water injected from the insulation area into the drinking water area is A. After the injection, the amount of water in the drinking water area is

[0087] The calculation process is:

[0088] If the water volume A in the insulation area is insufficient, that is, in order to ensure that the final drinking water temperature reaches T, A will be fully injected into the drinking water area. At this time:

[0089] cA(T0-T)=c(CD)(T-T1)

[0090] From this we can get;

[0091]

[0092] The calculation process of E is:

[0093] According to the heat balance formula Q 放 =Q 吸 , based on the principle of final drinking water temperature priority, it can be divided into the following four situations:

[0094]

[0095]

[0096] i. If the water volume A in the insulation area is sufficient and the water volume C in the drinking water area is also large, it may be necessary to pour out some water from the drinking water area, that is, E ≥ 0. The amount of water injected from the insulation area into the drinking water area is After water injection, the water volume in the drinking water area is B;

[0097] The calculation process is:

[0098] If the water volume A in the insulation area is sufficient, and the water volume C in the drinking water area is also large, it means that some of the water in the drinking water area may need to be poured out, and then a certain amount of water will be injected. Finally, the water volume in the drinking water area is B and the water temperature is T, that is, E ≥ 0. According to the heat balance formula Q 放 =Q 吸 ,get:

[0099] c[B-(CE)](T0-T)=c(CE)(T-T1)

[0100] From this we can get:

[0101]

[0102] Since there is enough water C in the drinking water area, E≥0. Also, since C < B and T1 < T < T0, it can be obtained that The amount of water H poured from the insulation area into the drinking water area is H = B - (C - E). Substituting E, we get Since the amount of water A in the insulation area is sufficient at this time, so A ≥ H, that is

[0103] ii. If the However It shows that the amount of water A in the insulation area is insufficient but the existing amount of water C in the drinking water area is sufficient. According to the principle of giving priority to the final drinking water temperature, it means that more water in the drinking water area needs to be poured out. Then the amount of water poured out at this time All the water in the insulation area will be injected into the drinking water area. After injection, the amount of water in the drinking water area is

[0104] Calculation process:

[0105] If the However It shows that the amount of water A in the insulation area is insufficient but the existing amount of water C in the drinking water area is sufficient. In this case, all the water in the insulation area will be injected into the drinking water area. According to the heat balance formula Q 放 = Q 吸 , we get:

[0106] cA(T0 - T) = c(C - E)(T - T1)

[0107] From this, it can be obtained that:

[0108]

[0109] iii. If the amount of water A in the insulation area is sufficient, but the existing amount of water C in the drinking water area is insufficient, that is, if Then E = 0, that is, the existing water in the drinking water area is not poured out, and the amount of water injected from the insulation area is After injection, the amount of water in the drinking water area is

[0110] Calculation process:

[0111] If the amount of water A in the insulation area is sufficient, but the existing amount of water C in the drinking water area is insufficient, it means that the existing water in the drinking water area is not poured out, that is, E = 0. From the previous derivation, we can get: According to the heat balance formula Q 放 = Q 吸 , we get:

[0112] cJ(T0 - T) = cC(T - T1)

[0113] From this, it can be obtained that:

[0114]

[0115] iv. If the water levels in both the heat preservation area and the drinking water area are insufficient, then There are still two cases to consider at this time:

[0116] · If A / C ≥ A' / C', it indicates that relatively speaking, the existing water volume C in the drinking water area is seriously insufficient, while the water volume A in the heat preservation area is relatively large. This means that without draining the existing water in the drinking water area, the water volume injected from the heat preservation area into the drinking water area is After injection, the water volume in the drinking water area is

[0117] · If A / C < A' / C', it indicates that relatively speaking, the water volume A in the heat preservation area is seriously insufficient, while the existing water volume in the drinking water area is relatively large. This means that some water needs to be drained from the drinking water area, that is, E > 0. All the water in the heat preservation area will be injected into the drinking water area. After injection, the water volume in the drinking water area is

[0118] Calculation process:

[0119] If the water levels in both the heat preservation area and the drinking water area are insufficient, then According to the ideal state, the water in the heat preservation area exactly mixes with the water in the drinking water area to form B (ml) of water at the user-set temperature of T °C. At this time According to this ratio, there are two cases: A / C ≥ A' / C' and A / C < A' / C':

[0120] · If A / C ≥ A' / C', it indicates that relatively speaking, the existing water volume C in the drinking water area is seriously insufficient, and the water volume A in the heat preservation area is relatively large. This means that without draining the existing water in the drinking water area, that is, E = 0. According to the heat balance formula Q 放 = Q 吸 , we get:

[0121] cL(T0 - T) = cC(T - T1)

[0122] From this, we can obtain:

[0123]

[0124] · If A / C < A' / C', it indicates that relatively speaking, the water volume A in the heat preservation area is seriously insufficient, while the existing water volume in the drinking water area is relatively large. This means that some water needs to be drained from the drinking water area, that is, E > 0. All the water in the heat preservation area will be injected into the drinking water area. According to the heat balance formula Q 放 = Q 吸 , we get:

[0125] cA(T0 - T) = c(C - E)(T - T1)

[0126] From this, we can obtain:

[0127]

[0128] The technical solutions of the present invention are not limited to the above-mentioned embodiments, and any technical solutions obtained by equivalent replacement methods fall within the scope of protection required by the present invention.

Claims

1. A partitioned heat-insulating water cup, comprising a cup body, Characterized in that: A partition is provided in the middle of the cup body, and the partition divides the inside of the cup body into a heat-insulating area and a drinking area. An injectable water inlet is provided on the partition, and hot water inlets and drinking water inlets corresponding to the heat-insulating area and the drinking area are respectively provided at both ends of the cup body. Heat-insulating covers and drinking covers are respectively provided on the hot water inlets and the drinking water inlets. The partition, the heat-insulating cover and the cup body are all wrapped with heat-insulating layers in the heat-insulating area part; Temperature sensors and water level sensors are provided in both the heat-insulating area and the drinking area; The pouring method of the partitioned heat-insulating water cup includes: The current water volume and water temperature in the insulation zone are measured by the temperature and water level sensors in the insulation zone, and are A and T respectively. 0 ; The amount of water to be drunk set by the user is B, and the water temperature is T, T≤T 0 , pouring water with the final drinking water temperature as the priority; When there is no water in the drinking area: If A≧B, open the water injection port and inject water into the drinking area to B according to the drinking water volume set by the user; If A<B, then open the water injection port and inject all the water in the heat-insulating area into the drinking area. After injection, the water volume in the drinking area is A; When there is water in the drinking water area, the water volume and water temperature in the drinking water area are measured by the temperature and water level sensors in the insulation area, respectively. 1 ; If T 1 ≥T, then judge the water volume: When C≥B, do not inject water; When C<B and A≥B-C, open the water injection port and inject water from the heat-insulating area into the drinking area to B; When A<B-C, then open the water injection port and inject all the water in the heat-insulating area into the drinking area. After injection, the water volume in the drinking area is C+A; If T 1 <T, When C ≥ B, and Calculate the amount of water that the user should pour out from the drinking area as Then open the water inlet and inject water from the insulation area to the drinking water area. After water injection, the water volume in the drinking water area is B; When C ≥ B, and Calculate the amount of water that the user should pour out from the drinking area as Then open the water inlet and inject water from the insulation area to the drinking water area at a volume of A. After the injection, the water volume in the drinking water area is when and Calculate the amount of water that the user should pour out from the drinking area as Then open the water inlet and inject water from the insulation area into the drinking water area. After water injection, the water volume in the drinking water area is B; when and Calculate the amount of water that the user should pour out from the drinking area as Then open the water inlet and inject all the water from the insulation area into the drinking water area. After the water is injected, the water volume in the drinking water area is when and When the water inlet is opened, the amount of water injected from the insulation area to the drinking water area is After water injection, the water volume in the drinking water area is When and When, if A / C ≥ A' / C', open the water injection port, and the amount of water injected from the insulation area to the drinking area is After water injection, the amount of water in the drinking area is If A / C < A' / C', calculate the amount of water that the user should pour out from the drinking area as Then open the water injection port, Pour all the water in the insulation area into the drinking water area. After the water is poured in, the water volume in the drinking water area is Here, 2. The partitioned heat-insulating water cup according to claim 1, Characterized in that: A microprocessor and a power supply module are provided in the partition. The power supply module, the temperature sensor and the water level sensor are all connected to the microprocessor.

3. The partitioned heat-insulating water cup according to claim 2, Characterized in that: A display screen is provided on the cup body, and the display screen is connected to the microprocessor.

4. The partitioned heat-insulating water cup according to claim 3, Characterized in that: A drinking water temperature setting button, a drinking water volume setting button, a pouring button and a confirmation button are provided on the cup body. The drinking water temperature setting button, the drinking water volume setting button, the pouring button and the confirmation button are all connected to the microprocessor.

5. The partitioned heat-insulating water cup according to claim 4, Characterized in that: A baffle, a chute, a push rod, a spring and an electromagnet are provided in the partition. One end of the chute communicates with the water injection port, and the other end is connected to the electromagnet. The electromagnet is connected to the power supply module; the push rod is slidably connected in the chute, the baffle is fixed at one end of the push rod, one end of the spring is fixed on the baffle, and the other end is fixed on the partition. The spring pushes the baffle towards the side close to the water injection port, and when the electromagnet is energized, the push rod is pulled towards the side away from the water injection port.

6. The partitioned heat-insulating water cup according to claim 5, Characterized in that: A heat-insulating layer is provided in the baffle.

7. The partitioned heat-insulating water cup according to claim 6, Characterized in that: A USB interface is provided on the cup body, and the USB interface is connected to the power supply module.

8. The partitioned heat-insulating water cup according to claim 1, Characterized in that: Set the minimum water volume L in the drinking water area min , if the water volume in the drinking water area is less than or equal to L min , it is considered that there is no water in the drinking water area.

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