CN212204819U - Air conditioning system with high comfort level dehumidification operation - Google Patents
Air conditioning system with high comfort level dehumidification operation Download PDFInfo
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- CN212204819U CN212204819U CN202020705309.1U CN202020705309U CN212204819U CN 212204819 U CN212204819 U CN 212204819U CN 202020705309 U CN202020705309 U CN 202020705309U CN 212204819 U CN212204819 U CN 212204819U
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Abstract
The utility model discloses an air conditioning system with high comfort level dehumidification operation, which comprises a compressor, a four-way valve, an outdoor heat exchanger and an indoor heat exchanger, wherein four interfaces of the four-way valve are respectively connected with a gas return port of the compressor, an outlet of the compressor, the outdoor heat exchanger and the indoor heat exchanger; the indoor heat exchanger is provided with a first inner fan and a second inner fan, wherein the first inner fan and the second inner fan operate independently and can independently switch air speeds, and a return air inlet of the indoor heat exchanger is provided with a room temperature probe, wherein the room temperature probe detects indoor environment temperature T1 at regular time or in real time, and during dehumidification regulation and control, the air speeds of the first inner fan and the second inner fan are correspondingly controlled based on a difference value between the detected indoor environment temperature T1 and a set temperature Ts.
Description
Technical Field
The utility model belongs to the technical field of air conditioning system's technique and specifically relates to indicate an air conditioning system of high comfort dehumidification operation.
Background
Humid air is not beneficial to the human body in any air temperature condition. For example, at low temperature, the humidity enhances the heat conduction effect of air, so that the heat of the human body is greatly dissipated, and the human body is more easily damaged by cold and is easy to suffer from rheumatism and bronchitis under the condition of low temperature and humidity. In a hot environment, when the relative humidity is too high, the heat dissipation of the human body is obstructed. In addition, the moist environment has adverse effects on patients with tuberculosis, kidney disease, rheumatoid arthritis, chronic lumbocrural pain and the like, so the essential dehumidification in home is very critical. The existing dehumidification technology is that an indoor fan runs at a low speed, and a compressor also runs intermittently to keep the room temperature close to a set temperature. Frequent starting and stopping of the compressor is easy to damage the compressor, and can cause large room temperature fluctuation and influence user experience; in addition, if the indoor environment temperature is high, the room is large, and the temperature reduction is not obvious.
SUMMERY OF THE UTILITY MODEL
An object of the utility model is to overcome prior art's is not enough, provides the air conditioning system that can solve the high comfort dehumidification operation that the dehumidification operating temperature is undulant big, still can cool down to reasonable temperature range rapidly when the room temperature is on the high side.
In order to achieve the purpose, the air conditioning system with high comfort level dehumidification operation provided by the utility model comprises a compressor, a four-way valve, an outdoor heat exchanger and an indoor heat exchanger, wherein four interfaces of the four-way valve are respectively connected with a gas return port of the compressor, an outlet of the compressor, the outdoor heat exchanger and the indoor heat exchanger; the indoor heat exchanger is provided with a first inner fan and a second inner fan, wherein the first inner fan and the second inner fan operate independently and can independently switch air speeds, and a return air inlet of the indoor heat exchanger is provided with a room temperature probe, wherein the room temperature probe detects indoor environment temperature T1 at regular time or in real time, and during dehumidification regulation and control, the air speeds of the first inner fan and the second inner fan are correspondingly controlled based on a difference value between the detected indoor environment temperature T1 and a set temperature Ts.
And the two ends of the electronic expansion valve are respectively connected with the outdoor heat exchanger and the indoor heat exchanger.
And the two ends of the oil separator are respectively connected with the outlet of the compressor and the four-way valve.
And the two ends of the gas-liquid separator can be respectively connected with a gas return port of the compressor and the four-way valve.
Further, during dehumidification regulation, the room temperature probe detects the indoor environment temperature T1 at preset time intervals and in fixed time, and compares the indoor environment temperature T1 with the set temperature Ts to correspondingly control the switching of the wind speeds of the first inner fan and the second inner fan.
Further, the predetermined time is 1 min.
Further, when the difference value between the indoor environment temperature T1 and the set temperature Ts is detected to exceed a rated maximum temperature value, the first inner fan and the second inner fan are controlled to be switched to high-wind operation; when the difference value between the indoor environment temperature T1 and the set temperature Ts is detected to be between a rated first temperature value and a maximum temperature value, controlling the first inner fan to be switched to the low-wind operation and the second inner fan to be switched to the high-wind operation or/and controlling the first inner fan to be switched to the high-wind operation and the second inner fan to be switched to the low-wind operation; when the difference value between the indoor environment temperature T1 and the set temperature Ts is detected to be between the rated second temperature value and the first temperature value, controlling the first inner fan and the second inner fan to be switched to the low wind operation; when the difference between the indoor environment temperature T1 and the set temperature Ts is lower than a rated second temperature value, controlling the first inner fan to be switched to the low-wind operation and the second inner fan to stop operating or controlling the first inner fan to stop operating and the second inner fan to be switched to the low-wind operation; and when the indoor environment temperature T1 is detected to continuously drop and the difference value between the indoor environment temperature T1 and the set temperature Ts is lower than the rated protection temperature value, the first inner fan and the second inner fan stop operating.
Further, during dehumidification regulation, the room temperature probe detects the indoor environment temperature T1 in real time, and meanwhile, real-time difference comparison is conducted between the indoor environment temperature T1 monitored in real time and the set temperature Ts so as to correspondingly control and switch the wind speeds of the first inner fan and the second inner fan.
Further, when the difference value between the indoor environment temperature T1 and the set temperature Ts is detected to exceed the rated 1.5 times of temperature drop amplitude, controlling the first inner fan and the second inner fan to be switched to high wind operation; when the difference value between the indoor environment temperature T1 and the set temperature Ts is detected to be between rated 1-1.5 times of temperature reduction amplitude, controlling the first inner fan to be switched to the low wind operation and the second inner fan to be switched to the high wind operation or controlling the first inner fan to be switched to the high wind operation and the second inner fan to be switched to the low wind operation; when the difference value between the indoor environment temperature T1 and the set temperature Ts is detected to be between the rated second temperature value and 1.5 times of temperature reduction amplitude, controlling the first inner fan and the second inner fan to be switched to the low wind operation; when the difference between the indoor environment temperature T1 and the set temperature Ts is lower than a rated second temperature value, controlling the first inner fan to be switched to the low-wind operation and the second inner fan to stop operating or controlling the first inner fan to stop operating and the second inner fan to be switched to the low-wind operation; and when the indoor environment temperature T1 is detected to continuously drop and the difference value between the indoor environment temperature T1 and the set temperature Ts is lower than the rated protection temperature value, the first inner fan and the second inner fan stop operating.
Further, the temperature drop amplitude is a product of a real-time temperature reduction rate u corresponding to the real-time detected indoor environment temperature T1 and a preset time T.
The utility model adopts the above technical scheme, its beneficial effect lies in: 1) when the indoor environment temperature is too high, indoor cooling can be accelerated while dehumidification is carried out, the temperature set by a user can be quickly reached, and the user requirements are met; 2) through the independent wind speed control to fan in first interior fan and the second to make indoor temperature ambient temperature maintain in setting for the within range, avoid adjusting the temperature through frequent switch machine, it is more energy-conserving, and play the further protection to the compressor, the reliability is higher.
Drawings
Fig. 1 is a schematic view of an air conditioning system according to the present invention.
The system comprises a compressor 1, an oil separator 2, a four-way valve 3, a gas-liquid separator 4, an outdoor heat exchanger 5, an expansion valve 6, an indoor heat exchanger 7, a first internal fan 8 and a second internal fan 9.
Detailed Description
In order to facilitate understanding of the present invention, the present invention will be described more fully hereinafter with reference to the accompanying drawings. The preferred embodiments of the present invention are shown in the drawings. The invention may, however, be embodied in many different forms and should not be construed as limited to the embodiments set forth herein. These embodiments are provided so that this disclosure will be thorough and complete.
Referring to fig. 1, an air conditioning system with high comfort level dehumidification operation includes a compressor 1, an oil separator 2, a four-way valve 3, a gas-liquid separator 4, an outdoor heat exchanger 5, an electronic expansion valve 6 and an indoor heat exchanger 7, wherein the four-way valve 3 of the present embodiment has four interfaces a, b, c and d, two ends of the oil separator 2 can be respectively connected with an outlet of the compressor 1 and the interface a of the four-way valve 3, two ends of the gas-liquid separator 4 are respectively connected with a return air port of the compressor 1 and the interface d of the four-way valve 3, the interfaces b and c of the four-way valve 3 are respectively connected with the indoor heat exchanger 7 and the outdoor heat exchanger 5, two ends of the electronic expansion valve 6 are respectively connected with the outdoor heat exchanger 5 and the indoor heat exchanger.
In this embodiment, the indoor heat exchanger 7 is configured with a first inner fan 8 and a second inner fan 9, wherein the first inner fan 8 and the second inner fan 9 are arranged side by side, and both operate independently and can switch the wind speed independently, for easy understanding, it is defined herein that the first inner fan 8 can switch independently between the wind speed gears of the preset "high wind" and "low wind", and the second inner fan 9 can switch independently between the wind speed gears of the preset "high wind" and "low wind".
In this embodiment, a room temperature probe (e.g., a room temperature probe corresponding to the "T1" mark in fig. 1) is disposed at the air return opening of the indoor heat exchanger 7, and the room temperature probe detects the temperature at the air return opening and correspondingly detects the room ambient temperature T1, that is, the room temperature probe of this embodiment is used for detecting the room ambient temperature T1 in real time or at regular time; at the time of dehumidification, the wind speeds of the first and second inner fans 8 and 9 are correspondingly controlled based on the difference between the detected indoor ambient temperature T1 and the set temperature Ts.
For the convenience of understanding, two embodiments of the room temperature probe timing detection and the real-time monitoring are respectively further described.
In the first mode, during dehumidification control, the room temperature probe regularly detects the indoor environment temperature T1, and preferably monitors the indoor environment temperature T1 every 1min to compare with the set temperature Ts:
when the difference between the indoor environment temperature T1 and the set temperature Ts is detected to exceed the rated maximum temperature value (namely, T1-Ts is more than or equal to 8 ℃), the indoor environment temperature T1 is far higher than the set temperature Ts, so that the first inner fan 8 and the second inner fan 9 are controlled to be switched to high wind to operate, the circulation of indoor air and the heat exchange rate of the indoor air and the indoor heat exchanger 77 are greatly accelerated, and the indoor environment temperature T1 is convenient to rapidly drop;
when the difference between the indoor environment temperature T1 and the set temperature Ts is detected to be between a rated first temperature value and a maximum temperature value (namely, T1-Ts is more than or equal to 5 ℃) and less than 8 ℃), the indoor environment temperature T1 is higher, so that the first inner fan 8 is controlled to be switched to the low-wind operation and the second inner fan 9 is controlled to be switched to the high-wind operation (in a similar way, or the first inner fan 8 is controlled to be switched to the high-wind operation and the second inner fan 9 is controlled to be switched to the low-wind operation), the circulation of the indoor air and the heat exchange rate of the indoor air and the indoor heat exchanger 77 are accelerated, and the indoor environment temperature T1 is gradually and slowly reduced;
when the difference between the indoor environment temperature T1 and the set temperature Ts is detected to be between the rated second temperature value and the first temperature value (namely, T1-Ts is more than or equal to 3 ℃) and less than 5 ℃), the indoor environment temperature T1 is within a reasonable range, so that the first inner fan 8 and the second inner fan 9 are controlled to be switched to low-wind operation, the circulation of indoor air and the heat exchange with the indoor heat exchanger 77 are ensured, and the indoor environment temperature T1 is maintained;
when the difference between the indoor environment temperature T1 and the set temperature Ts is detected to be lower than the rated second temperature value (i.e., T1-Ts < 3 ℃), it means that the indoor environment temperature T1 is relatively low, so as to control the first inner fan 8 to switch to the low wind operation and the second inner fan 9 to stop operating (in the same way, or control the first inner fan 8 to stop operating and the second inner fan 9 to switch to the low wind operation), slow down the circulation of the indoor air and the heat exchange speed with the indoor heat exchanger 77, so that the indoor environment temperature T1 gradually and slowly rises; in addition, if the indoor environment temperature T1 is detected to continuously drop and the difference value between the indoor environment temperature T1 and the set temperature Ts is lower than the rated protection temperature value (namely, T1-Ts is less than 2 ℃), the indoor environment temperature T1 is too low, so that the air conditioning system is closed, and the first inner fan 8 and the second inner fan 9 stop running until the air conditioning system reaches the preset refrigeration starting condition and then is electrified to run.
The second method comprises the following steps: during dehumidification regulation, the room temperature probe detects the indoor environment temperature T1 in real time, and calculates a real-time cooling rate u according to the real-time indoor environment temperature T1 (the cooling rate u in this embodiment is a cooling amplitude of the indoor environment temperature per unit time, i.e., u = T10-T11); the time t is introduced here, t is the time that the user sets the desired temperature to be reached (if the user does not set the time t, the default is 30 min), and thus the temperature decrease amplitude is the product of the temperature decrease rate u and the time t
When the difference between the indoor environment temperature T1 and the set temperature Ts is detected to exceed the rated temperature drop amplitude of 1.5 times (namely, T1-Ts is more than or equal to 1.5ut ℃), the indoor environment temperature T1 is far higher than the set temperature Ts, so that the first inner fan 8 and the second inner fan 9 are controlled to be switched to high wind to operate, the circulation of indoor air and the heat exchange rate of the indoor air and the indoor heat exchanger 77 are greatly accelerated, and the indoor environment temperature T1 is convenient to drop rapidly;
when the difference between the indoor environment temperature T1 and the set temperature Ts is detected to be between the rated 1-1.5 times of temperature drop amplitude (namely, ut is less than T1-Ts is less than 1.5ut ℃), the indoor environment temperature T1 is higher, so that the first inner fan 8 is controlled to be switched to the low-wind operation and the second inner fan 9 is controlled to be switched to the high-wind operation (in the same way, or the first inner fan 8 is controlled to be switched to the high-wind operation and the second inner fan 9 is controlled to be switched to the low-wind operation), the circulation of the indoor air and the heat exchange rate of the indoor air and the indoor heat exchanger 77 are accelerated, and the indoor environment temperature T1 is gradually and slowly reduced;
when the difference between the indoor environment temperature T1 and the set temperature Ts is detected to be between the rated second temperature value and 1.5 times of temperature reduction amplitude (namely, T1-Ts is more than or equal to 3 ℃ and less than ut ℃), the indoor environment temperature T1 is in a reasonable range, and therefore the first inner fan 8 and the second inner fan 9 are controlled to be switched to low-wind operation, circulation of indoor air and heat exchange with the indoor heat exchanger 77 are guaranteed, and the indoor environment temperature T1 is maintained;
when the difference between the indoor environment temperature T1 and the set temperature Ts is detected to be lower than the rated second temperature value (i.e., T1-Ts < 3 ℃), it means that the indoor environment temperature T1 is relatively low, so as to control the first inner fan 8 to switch to the low wind operation and the second inner fan 9 to stop operating (in the same way, or control the first inner fan 8 to stop operating and the second inner fan 9 to switch to the low wind operation), slow down the circulation of the indoor air and the heat exchange speed with the indoor heat exchanger 77, so that the indoor environment temperature T1 gradually and slowly rises; in addition, if the indoor environment temperature T1 is detected to continuously drop and the difference value between the indoor environment temperature T1 and the set temperature Ts is lower than the rated protection temperature value (namely, T1-Ts is less than 2 ℃), the indoor environment temperature T1 is too low, so that the air conditioning system is closed, and the first inner fan 8 and the second inner fan 9 stop running until the air conditioning system reaches the preset refrigeration starting condition and then is electrified to run.
Further, the dehumidification regulation mode of the embodiment is as follows: when the air conditioning system is powered on for dehumidification, the difference value between the indoor environment temperature T1 detected by the room temperature probe and the set temperature Ts exceeds the preset temperature 3 ℃ (namely T1-Ts is not less than 3 ℃), then the air conditioning system is judged to need to start dehumidification regulation, wherein under the dehumidification regulation, the first inner fan 8 and the second inner fan 9 are both switched to low wind, after the opening degree of the electronic expansion valve 6 is cleared, the air conditioning system continuously operates for a section according to the rated opening degree (the expansion valve 6 of the electronic expansion valve 6 is firstly 960P to ensure that the opening degree is cleared, and then operates for 5 minutes at the opening degree of 304P), then the opening degree of the electronic expansion valve 6 is dynamically regulated correspondingly based on the middle actual temperature of the indoor heat exchanger 7, and simultaneously the room temperature probe is started to timely/real-timely monitor the indoor environment temperature T1 correspondingly in a one or two way, so that the.
Further, in the cooling and starting condition of the embodiment, the difference between the detected indoor environment temperature T1 and the set temperature Ts is higher than 0 ℃, that is, T1-Ts is greater than 0 ℃, and the air conditioning system can be powered on to operate after reaching the cooling condition.
The above-described embodiments are merely preferred embodiments of the present invention, which are not intended to limit the present invention in any way. Those skilled in the art can make many changes, modifications, and equivalents of the embodiments of the invention without departing from the scope of the invention. Therefore, the content of the technical scheme of the utility model, according to the equivalent change made by the idea of the utility model, should be covered in the protection scope of the utility model.
Claims (4)
1. An air conditioning system with high comfort level dehumidification operation comprises a compressor (1), a four-way valve (3), an outdoor heat exchanger (5) and an indoor heat exchanger (7), wherein four interfaces of the four-way valve (3) are respectively connected with a return air port of the compressor (1), an outlet of the compressor (1), the outdoor heat exchanger (5) and the indoor heat exchanger (7); the method is characterized in that: fan (9) in fan (8) and the second in the indoor heat exchanger (7) configuration, wherein, fan (9) independent operation and can independently switch over the wind speed in fan (8) in the first and the second, the return air inlet department of indoor heat exchanger (7) is equipped with room temperature probe, wherein, room temperature probe is regularly or real-time detection room ambient temperature T1 to during dehumidification regulation and control, the wind speed of fan (9) in fan (8) and the second in the difference correspondence control that is based on between detected room ambient temperature T1 and the settlement temperature Ts.
2. A high comfort dehumidification operation air conditioning system as set forth in claim 1, wherein: the outdoor heat exchanger is characterized by further comprising an electronic expansion valve (6), wherein two ends of the electronic expansion valve (6) are respectively connected with the outdoor heat exchanger (5) and the indoor heat exchanger (7).
3. A high comfort dehumidification operation air conditioning system as set forth in claim 1, wherein: the oil separator is characterized by further comprising an oil separator (2), wherein two ends of the oil separator (2) are respectively connected with an outlet of the compressor (1) and the four-way valve (3).
4. A high comfort dehumidification operation air conditioning system as set forth in claim 1, wherein: the compressor further comprises a gas-liquid separator (4), and two ends of the gas-liquid separator (4) can be respectively connected with a gas return port of the compressor (1) and the four-way valve (3).
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202020705309.1U CN212204819U (en) | 2020-04-30 | 2020-04-30 | Air conditioning system with high comfort level dehumidification operation |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202020705309.1U CN212204819U (en) | 2020-04-30 | 2020-04-30 | Air conditioning system with high comfort level dehumidification operation |
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| Publication Number | Publication Date |
|---|---|
| CN212204819U true CN212204819U (en) | 2020-12-22 |
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| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN202020705309.1U Active CN212204819U (en) | 2020-04-30 | 2020-04-30 | Air conditioning system with high comfort level dehumidification operation |
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| CN (1) | CN212204819U (en) |
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- 2020-04-30 CN CN202020705309.1U patent/CN212204819U/en active Active
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