Energy saving control method, energy saving control system and air conditioner
An energy-saving control system and energy-saving control technology, applied in heating and ventilation control systems, heating and ventilation safety systems, heating methods, etc., can solve problems such as low energy efficiency and air conditioners that cannot achieve energy-saving effects, and achieve the goal of improving energy-saving effects Effect
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no. 1 example
[0053] see figure 2 The first embodiment of the energy-saving control method of the present invention is shown. The energy-saving control method is mainly applied to air conditioners, which includes the following steps:
[0054] Step S101, detecting the ambient temperature.
[0055] This step 101 detects the ambient temperature in real time, and the ambient temperature includes at least the indoor ambient temperature T1. Preferably, the ambient temperature in this embodiment also includes the outdoor ambient temperature T4.
[0056] Step S102 , judging whether the temperature difference between the indoor ambient temperature and the set temperature in the ambient temperature is less than a critical temperature.
[0057] This step S102 calculates the temperature difference between the indoor ambient temperature and the temperature set by the user. If the temperature difference is small, the small heating or cooling capacity can reach the set temperature, so it can run at a sm...
example 1
[0091] If there is no corresponding outdoor ambient temperature T4 but there is a corresponding indoor ambient temperature T1, then search the two approximate outdoor ambient temperatures T41 and T42 closest to the outdoor ambient temperature T4 in the double-cylinder operation maximum energy efficiency comparison table, and T42 > T41; obtain the corresponding approximate optimal operating frequency F1 according to the approximate outdoor ambient temperature T41 and indoor ambient temperature T1, and obtain the corresponding approximate optimal operating frequency F2 according to the approximate outdoor ambient temperature T42 and indoor ambient temperature T1; calculate it according to the interpolation method The optimal operating frequency F=F1+(F2-F1)*(T4-T41) / (T42-T41) corresponding to the indoor environment temperature T1 and the outdoor environment temperature T4.
[0092] For example, it is detected that the indoor ambient temperature T1 and the outdoor ambient temperat...
example 2
[0094] If there is no corresponding indoor ambient temperature T1 but a corresponding outdoor ambient temperature T4 in the comparison table of the highest energy efficiency for double-cylinder operation, then search for the two approximate indoor temperatures before and after the indoor ambient temperature T1 in the comparison table for the highest energy efficiency of double-cylinder operation. Ambient temperature T11 and T12, and T12>T11; obtain the corresponding approximate optimal operating frequency F1 according to the approximate indoor ambient temperature T11 and outdoor ambient temperature T4, and obtain the corresponding approximate optimal operating frequency based on the approximate indoor ambient temperature T12 and outdoor ambient temperature T4 Frequency F2: Calculate the optimal operating frequency F=F1+(F2-F1)*(T1-T11) / (T12-T11) corresponding to the indoor environment temperature T1 and the outdoor environment temperature T4 according to the interpolation method...
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