JP7105374B2 - Air conditioner control method, air conditioner and storage medium - Google Patents

Air conditioner control method, air conditioner and storage medium Download PDF

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JP7105374B2
JP7105374B2 JP2021527264A JP2021527264A JP7105374B2 JP 7105374 B2 JP7105374 B2 JP 7105374B2 JP 2021527264 A JP2021527264 A JP 2021527264A JP 2021527264 A JP2021527264 A JP 2021527264A JP 7105374 B2 JP7105374 B2 JP 7105374B2
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time
power
air conditioner
humidity
purification load
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JP2021532331A (en
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張誼
張武軍
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Midea Group Co Ltd
GD Midea Air Conditioning Equipment Co Ltd
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GD Midea Air Conditioning Equipment Co Ltd
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    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24HEATING; RANGES; VENTILATING
    • F24FAIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
    • F24F8/00Treatment, e.g. purification, of air supplied to human living or working spaces otherwise than by heating, cooling, humidifying or drying
    • F24F8/30Treatment, e.g. purification, of air supplied to human living or working spaces otherwise than by heating, cooling, humidifying or drying by ionisation
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24HEATING; RANGES; VENTILATING
    • F24FAIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
    • F24F11/00Control or safety arrangements
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24HEATING; RANGES; VENTILATING
    • F24FAIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
    • F24F11/00Control or safety arrangements
    • F24F11/62Control or safety arrangements characterised by the type of control or by internal processing, e.g. using fuzzy logic, adaptive control or estimation of values
    • F24F11/63Electronic processing
    • F24F11/64Electronic processing using pre-stored data
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24HEATING; RANGES; VENTILATING
    • F24FAIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
    • F24F11/00Control or safety arrangements
    • F24F11/70Control systems characterised by their outputs; Constructional details thereof
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24HEATING; RANGES; VENTILATING
    • F24FAIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
    • F24F11/00Control or safety arrangements
    • F24F11/89Arrangement or mounting of control or safety devices
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24HEATING; RANGES; VENTILATING
    • F24FAIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
    • F24F13/00Details common to, or for air-conditioning, air-humidification, ventilation or use of air currents for screening
    • F24F13/28Arrangement or mounting of filters

Description

本願は2018年8月13日に出願された、出願番号が201810921026.8で、発明名称が「エアコンの制御方法、エアコン及び記憶媒体」である中国特許出願の優先権、及び2018年8月13日に出願された、出願番号が201810921117.1で、発明名称が「エアコンの制御方法、エアコン及び記憶媒体」である中国特許出願の優先権を主張し、この二つの中国特許出願の全ての内容を引用により本願に組み入れて参考とする。 This application takes priority from a Chinese patent application with application number 201810921026.8 and titled "Air Conditioner Control Method, Air Conditioner and Storage Medium" filed on Aug. 13, 2018 and Aug. 13, 2018 Claiming the priority of the Chinese patent application with the application number 201810921117.1 and the invention title of "Control Method for Air Conditioner, Air Conditioner and Storage Medium" filed on 2018.1. are hereby incorporated by reference into this application.

本願はエアコンの技術分野に関し、特にエアコンの制御方法、エアコン及び記憶媒体に関する。 TECHNICAL FIELD The present application relates to the technical field of air conditioners, and more particularly to air conditioner control methods, air conditioners, and storage media.

人々の生活では、エアコンは既になくてはならない家電になっており、人々の生活に対する追求に伴って、エアコンが粒子状物質を吸い込んで、室内の空気品質を向上させることが求められる傾向にある。例示的技術において、エアコンが空気清浄モードを起動してから、多くの場合は空気浄化負荷を連続的に運転させることによって空気中のほこり及び粒子状物質を取り除くが、空気浄化負荷を連続的に運転させることは、エネルギーの浪費になるだけではなく、空気負荷装置を長期間起動した状態にすると、周りに大量の浮遊粉塵及び粒子状物質が集まり、エアコンが壁に掛けられている場合、風速が比較的低い時、集まったほこりはエアコンの吸気口において適時にフィルタ上に吸着されることが不可能であるので、空気浄化負荷が長期間運転する場合、壁面が黒くなりやすい。 In people's lives, air conditioners have already become indispensable home appliances, and with the pursuit of people's lives, there is a tendency for air conditioners to absorb particulate matter and improve indoor air quality. . In an exemplary technique, an air conditioner activates an air purification mode and then removes dust and particulate matter from the air, often by running the air purification load continuously, although the air purification load is operated continuously. Running is not only a waste of energy, but if the air load device is left on for a long time, a large amount of airborne dust and particulate matter will accumulate around it, and if the air conditioner is hung on the wall, the wind speed will increase. When the is relatively low, the collected dust cannot be adsorbed on the filter in time at the intake of the air conditioner, so that the wall surface is likely to become black when the air purification load is operated for a long time.

本願の主な目的は、エアコンが空気浄化負荷を長期間運転させることで壁が黒くなりやすい問題を解決するための、エアコンの制御方法を提案することにある。 The main object of the present application is to propose an air conditioner control method for solving the problem that walls tend to turn black when the air conditioner is operated for a long period of time with an air purification load.

上記目的を実現するために、本願はエアコンの制御方法を提供し、前記エアコンの制御方法は、エアコンが空気浄化負荷を起動して、室内ファンの回転速度を検知するステップと、前記回転速度が既定回転速度より低いとき、エアコンの中の空気浄化負荷の電源通電時間と電源切断時間を取得するステップと、前記電源通電時間と電源切断時間に基づいて間欠的に運転するように、前記空気浄化負荷を制御するステップとを含む。 To achieve the above objects, the present application provides a method for controlling an air conditioner, the method for controlling an air conditioner comprises the steps of starting an air purification load by the air conditioner to detect the rotation speed of an indoor fan; obtaining the power-on time and power-off time of the air purification load in the air conditioner when the rotation speed is lower than a predetermined rotation speed; and controlling the load.

また、上記目的を実現するために、本願はエアコンの制御方法を提供し、前記エアコンの制御方法は、エアコンが空気浄化負荷を起動して、エアコンが置かれている室内環境の湿度を取得するステップと、前記湿度が既定湿度より低いとき、エアコンの中の空気浄化負荷の電源通電時間と電源切断時間を取得するステップと、前記電源通電時間と電源切断時間に基づいて間欠的に運転するように、前記空気浄化負荷を制御するステップとを含む。 In order to achieve the above objects, the present application also provides an air conditioner control method, wherein the air conditioner activates an air purification load to obtain the humidity of the indoor environment where the air conditioner is placed. obtaining the power-on time and power-off time of the air purification load in the air conditioner when the humidity is lower than the predetermined humidity; and intermittently operating according to the power-on time and power off time. and controlling the air purification load.

また、上記目的を実現するために、本願はさらにエアコンを提案する。前記エアコンは、プロセッサー、メモリー及び前記メモリーに記憶されて且つ前記プロセッサー上で実行できるエアコンの制御プログラムを含み、前記エアコンの制御プログラムが前記プロセッサーにより実行された時、エアコンが空気浄化負荷を起動して、室内ファンの回転速度を検知するステップと、前記回転速度が既定回転速度より低いとき、エアコンの中の空気浄化負荷の電源通電時間と電源切断時間を取得するステップと、前記電源通電時間と電源切断時間に基づいて間欠的に運転するように、前記空気浄化負荷を制御するステップとを実現する。 Moreover, in order to achieve the above object, the present application further proposes an air conditioner. The air conditioner includes a processor, a memory, and an air conditioner control program stored in the memory and executable on the processor, and when the air conditioner control program is executed by the processor, the air conditioner activates an air purification load. detecting the rotation speed of an indoor fan; obtaining a power-on time and a power-off time of an air purification load in an air conditioner when the rotation speed is lower than a predetermined rotation speed; and controlling the air purification load to operate intermittently based on the power off time.

上記目的を実現するために、本願はさらにコンピュータ読み取り可能な記憶媒体を提案する。前記コンピュータ読み取り可能な記憶媒体にはエアコンの制御プログラムが記憶されており、前記エアコンの制御プログラムがプロセッサーにより実行されたとき、エアコンが空気浄化負荷を起動して、室内ファンの回転速度を検知するステップと、前記回転速度が既定回転速度より低いとき、エアコンの中の空気浄化負荷の電源通電時間と電源切断時間を取得するステップと、前記電源通電時間と電源切断時間に基づいて間欠的に運転するように前記空気浄化負荷を制御するステップとを実現する。 To achieve the above objectives, the present application further proposes a computer-readable storage medium. The computer-readable storage medium stores an air conditioner control program, and when the air conditioner control program is executed by the processor, the air conditioner activates the air purification load and detects the rotational speed of the indoor fan. obtaining the power-on time and power-off time of the air purification load in the air conditioner when the rotation speed is lower than the predetermined rotation speed; and intermittently operating according to the power-on time and power off time. and controlling the air purification load so as to

本願の実施例が提案するエアコンの制御方法、エアコン及び記憶媒体によれば、回転速度が既定回転速度より低い時に、エアコンの中の空気浄化負荷の電源通電時間と電源切断時間を取得して、そして電源通電時間と電源切断時間に基づいて、間欠的に運転するように空気浄化負荷を制御して、空気浄化負荷が長期間運転することによって壁面が黒くなる現象の発生を避けて、ほこりを適時にフィルタ上に吸着できるようにして、エアコンの使用効果を向上させる。 According to the air conditioner control method, air conditioner and storage medium proposed in the embodiments of the present application, when the rotation speed is lower than the predetermined rotation speed, the power on time and the power off time of the air purification load in the air conditioner are obtained, The air purification load is controlled to operate intermittently based on the power on time and power off time to avoid the blackening of the wall caused by the long-term operation of the air purification load, and to remove dust. To improve the use effect of an air conditioner by allowing it to be adsorbed on a filter in a timely manner.

本願の実施例の案に係るエアコンの端末構造模式図である。1 is a schematic diagram of the terminal structure of an air conditioner according to an embodiment of the present application; FIG. 本願のエアコンの制御方法の第一実施例の流れ模式図である。1 is a flow schematic diagram of a first embodiment of an air conditioner control method of the present application; FIG. 本願のエアコンの制御方法の第二実施例の流れ模式図である。FIG. 4 is a flow schematic diagram of the second embodiment of the air conditioner control method of the present application; 本願のエアコンの制御方法の第三実施例の流れ模式図である。FIG. 5 is a flow schematic diagram of the third embodiment of the air conditioner control method of the present application; 本願のエアコンの制御方法の第四実施例の流れ模式図である。FIG. 5 is a flow schematic diagram of the fourth embodiment of the air conditioner control method of the present application; 本願のエアコンの制御方法の第五実施例の流れ模式図である。FIG. 5 is a flow schematic diagram of the fifth embodiment of the air conditioner control method of the present application; 本願のエアコンの制御方法の第六実施例の流れ模式図である。FIG. 6 is a flow schematic diagram of the sixth embodiment of the air conditioner control method of the present application; 本願のエアコンの制御方法の第七実施例の流れ模式図である。FIG. 7 is a flow schematic diagram of the seventh embodiment of the air conditioner control method of the present application; 本願のエアコンの制御方法の第八実施例の流れ模式図である。FIG. 10 is a flow schematic diagram of the eighth embodiment of the air conditioner control method of the present application; 本願のエアコンの制御方法の第九実施例の流れ模式図である。FIG. 12 is a flow schematic diagram of the ninth embodiment of the air conditioner control method of the present application;

添付図面を参照して、実施例と組み合わせて本願目的の実現、機能特徴及び長所をさらに説明する。ここで説明する具体的な実施例は本願を解釈するためだけに使われるものであって、本願を限定するために構成されていないことは、理解されるべきである。 The realization, functional features and advantages of the objects of the present application will be further described in combination with the embodiments with reference to the accompanying drawings. It should be understood that the specific examples described herein are used only for the purpose of interpreting the present application and are not constructed to limit the present application.

本願の実施例の主な解決案は以下になる。エアコンが空気浄化負荷を起動してから、室内ファンの回転速度を検知し、前記回転速度が既定回転速度より低い時、エアコンの中の空気浄化負荷の電源通電時間と電源切断時間を取得し、前記電源通電時間と電源切断時間に基づいて間欠的に運転するように前記空気浄化負荷を制御する。 The main solutions of the embodiments of the present application are as follows. Detecting the rotation speed of the indoor fan after the air conditioner activates the air purification load, and when the rotation speed is lower than the predetermined rotation speed, obtaining the power on time and power off time of the air purification load in the air conditioner; The air purification load is controlled to operate intermittently based on the power supply time and the power supply off time.

例示的技術によれば、空気浄化負荷が運転してから、風速が低ければ、集まったほこりは適時にフィルタ上に吸着されることが不可能であるため、空気浄化負荷が長期間運転する時、壁面が黒くなる現象につながりやすい。 According to the exemplary technology, if the wind speed is low after the air purification load operates, the collected dust cannot be adsorbed on the filter in a timely manner, so when the air purification load operates for a long time , it is likely to lead to the phenomenon that the wall surface becomes black.

本願によれば、回転速度が既定回転速度より低い時、電源通電時間と電源切断時間によって間欠的に運転するように空気浄化負荷を制御して、壁面が黒くなりやすい現象を避ける解決案を提案する。 According to the present application, when the rotation speed is lower than the predetermined rotation speed, the air purification load is controlled to operate intermittently depending on the power ON time and power OFF time, and a solution is proposed to avoid the phenomenon that the wall tends to become black. do.

図1に示すように、図1は本願の実施例の案に係るエアコンの端末構造模式図である。 As shown in FIG. 1, FIG. 1 is a schematic diagram of the terminal structure of an air conditioner according to an embodiment of the present application.

本願の実施例の端末はエアコンである。 The terminal of the embodiment of the present application is an air conditioner.

図1に示すように、当該端末は、プロセッサー1001(例えばCPU)、メモリー1002、通信バス1003及び空気浄化負荷1004を含んでもよい。通信バス1003はこれらの部品間の接続及び通信を実現するように構成されている。 As shown in FIG. 1, the terminal may include a processor 1001 (eg, CPU), a memory 1002, a communication bus 1003 and an air purification load 1004. A communication bus 1003 is configured to provide connections and communications between these components.

メモリー1002としては高速RAMメモリーであってもよく、安定したメモリー(non-volatile memory)、例えば磁気ディスクメモリーでもよい。図1に示すように、一種のコンピュータの記憶媒体としてのメモリー1002の中には、エアコンの制御プログラムを含んでもよく、一方、プロセッサー1001はメモリー1002の中に記憶されているエアコンの制御プログラムを呼び出して、且つ以下の操作を実行するように構成されてもよい。 The memory 1002 may be a high speed RAM memory or a non-volatile memory such as a magnetic disk memory. As shown in FIG. 1, a memory 1002 as a kind of computer storage medium may contain an air conditioner control program, while the processor 1001 stores the air conditioner control program stored in the memory 1002. It may be configured to call and perform the following operations.

エアコンが空気浄化負荷を起動して、室内ファンの回転速度を検知し、前記回転速度が既定回転速度より低いとき、エアコンの中の空気浄化負荷の電源通電時間と電源切断時間を取得し、前記電源通電時間と電源切断時間に基づいて間欠的に運転するように前記空気浄化負荷を制御する。 When the air conditioner activates the air purification load, detects the rotation speed of the indoor fan, and when the rotation speed is lower than the predetermined rotation speed, obtains the power on time and power off time of the air purification load in the air conditioner, The air purification load is controlled so as to operate intermittently based on the power ON time and the power OFF time.

本実施例では、上記案によれば、回転速度が既定回転速度より低い時に、エアコンの中の空気浄化負荷の電源通電時間と電源切断時間を取得して、そして電源通電時間と電源切断時間によって、間欠的に運転するように空気浄化負荷を制御して、空気浄化負荷が長期間運転することによって壁面が黒くなる現象の発生を避けて、ほこりを適時にフィルタ上に吸着できるようにして、エアコンの使用効果を向上させる。 In this embodiment, according to the above scheme, when the rotation speed is lower than the predetermined rotation speed, the power-on time and power-off time of the air purification load in the air conditioner are obtained, and according to the power-on time and power off time, , by controlling the air purification load to operate intermittently, avoiding the phenomenon that the wall surface becomes black due to the long-term operation of the air purification load, and allowing the dust to be adsorbed on the filter in a timely manner; Improve the effectiveness of air conditioning.

上記ハードウェアアーキテクチャに基づいて、本願のエアコンの制御方法の実施例を提案する。 Based on the above hardware architecture, an embodiment of the air conditioner control method of the present application is proposed.

図2を参照し、本願のエアコンの制御方法の第一実施例の流れ模式図によれば、前記エアコンの制御方法は以下のステップを含む。ステップS10、エアコンが空気浄化負荷を起動してから、室内ファンの回転速度を検知する。本願では、エアコンが正常運転する時に、空気浄化負荷を起動して、空気浄化負荷によってマイナスイオンを発生させて空気中のほこりと粒子状物質を吸着し、浮遊粉塵と粒子状物質が空気浄化負荷のところに集まるようにして、そして空気浄化負荷における浮遊粉塵と粒子状物質をフィルタ上に案内することで、空気を浄化する効果を発揮して、そして室内ファンの回転速度を検知する。 Referring to FIG. 2, according to the flow schematic diagram of the first embodiment of the air conditioner control method of the present application, the air conditioner control method includes the following steps. Step S10, after the air conditioner activates the air purification load, detect the rotation speed of the indoor fan. In the present application, when the air conditioner is in normal operation, the air purification load is activated, and the air purification load generates negative ions to absorb dust and particulate matter in the air, and the suspended dust and particulate matter are removed from the air purification load. and guide the airborne dust and particulate matter in the air purification load onto the filter to exert the effect of purifying the air, and detect the rotation speed of the indoor fan.

ステップS20、前記回転速度が既定回転速度より低いか否かを判断する。検知した回転速度をシステムの既定回転速度と比較して、前記回転速度と既定回転速度との間の大小関係によって、エアコンに対して相応の制御を行う。例えば、本実施例では、既定回転速度は最大回転速度の80%段階とすることができ、検知した回転速度を最大回転速度の80%段階と比較する。 Step S20, determine whether the rotation speed is lower than a predetermined rotation speed. The detected rotation speed is compared with the predetermined rotation speed of the system, and the air conditioner is controlled according to the magnitude relationship between the rotation speed and the predetermined rotation speed. For example, in this embodiment, the predetermined rotational speed may be in steps of 80% of the maximum rotational speed, and the detected rotational speed is compared to the 80% step of the maximum rotational speed.

ステップS30、前記回転速度が既定回転速度より低い時、エアコンの中の空気浄化負荷の電源通電時間と電源切断時間を取得する。回転速度が既定回転速度より低い時、この際エアコンの吸気口における風量が比較的小さく、即ち、吸気口における吸引力が比較的小さく、空気浄化負荷が連続的に運転すると、空気浄化負荷に大量の粒子状物質が集まって、吸気口の吸引力が比較的小さい場合では、粒子状物質を適時にフィルタ上に持っていくことが不可能で、壁面が黒くなる現象に繋がりやすいので、エアコンの中の空気浄化負荷を間欠的に運転して、壁面が黒くなりやすい現象を避ける必要がある。室内ファンの回転速度によってエアコンの中の空気浄化負荷の電源通電運転時間と電源切断運転時間を取得して、電源通電時間とは空気浄化負荷の電源を投入して運転する時間であり、電源切断時間とは空気浄化負荷の連続する二回の電源通電運転の間の、作動が停止した時間である。 Step S30, when the rotation speed is lower than the predetermined rotation speed, obtain the power-on time and power-off time of the air purification load in the air conditioner; When the rotation speed is lower than the predetermined rotation speed, at this time, the air volume at the intake of the air conditioner is relatively small, that is, the suction force at the intake is relatively small, and the air purification load is continuously operated, and the air purification load will have a large amount of air. When the particulate matter is collected and the suction force of the air intake is relatively small, it is impossible to bring the particulate matter to the filter in a timely manner, which easily leads to the phenomenon that the wall surface becomes black. It is necessary to operate the air purification load inside intermittently to avoid the phenomenon that the wall surface tends to become black. According to the rotation speed of the indoor fan, the power on operation time and power off operation time of the air purification load in the air conditioner are obtained. Time is the period of non-operation between two consecutive energizations of the air purification load.

ステップS40、前記電源通電時間と電源切断時間に基づいて間欠的に運転するように、前記空気浄化負荷を制御する。 Step S40, the air purification load is controlled to operate intermittently based on the power ON time and the power OFF time.

取得した電源通電時間と電源切断時間に基づいて間欠的に運転するように空気浄化負荷を制御して、空気浄化負荷が電源通電時間によって運転し、空気浄化負荷が一定時間運転してから、電源切断時間によって作動を停止させる。空気浄化負荷が発生させたマイナスイオンが浮遊粉塵と粒子状物質を空気浄化負荷のところに吸着させるが、この時室内ファンの回転速度が既定回転速度より小さいと、エアコン吸気口の吸引力が比較的小さく、電源通電時間と電源切断時間を経て空気浄化負荷における粒子状物質をフィルタに動かして、浮遊粉塵と粒子状物質が壁面上に付着することによって壁面が黒くなるのを避ける必要がある。 The air purification load is controlled to operate intermittently based on the obtained power ON time and power OFF time, and the air purification load operates according to the power ON time. Stop the operation by cutting time. Negative ions generated by the air purification load adsorb airborne dust and particulate matter to the air purification load. At this time, if the rotation speed of the indoor fan is lower than the predetermined rotation speed, the suction force of the air conditioner intake port is compared. It is necessary to move the particulate matter in the air purification load to the filter after the power on time and the power off time to avoid the blackening of the wall caused by the airborne dust and particulate matter adhering on the wall.

本実施例が提案する技術案において、前記回転速度が既定回転速度より低い時、エアコンの中に設定された空気浄化負荷の電源通電時間と電源切断時間を取得して、かつ電源通電時間と電源切断時間によって間欠的に運転するように空気浄化負荷を制御する。空気浄化負荷が正常に運転する時、空気浄化負荷が発生させたマイナスイオンは空気中の粒子状物質と一緒に集まって、大量の粒子状物質がエアコンの吸気口に集まる。回転速度が既定回転速度より小さい時、この際エアコンの風速も設定された風速より低く、粒子状物質に対する吸引力が比較的小さく、空気浄化負荷に集まった粒子状物質が比較的多い場合、全部適時にフィルタ上に吸着することは不可能である。この際、電源通電時間と電源切断時間によって間欠的に運転するように空気浄化負荷を制御して、空気浄化負荷のところに集まる粒子状物質を減少させて、粒子状物質をすべてエアコンの吸気口からフィルタ上に吸着できるようにして、粒子状物質が壁面上に吸着されて壁面が黒くなる現象を避ける。 In the technical solution proposed by the present embodiment, when the rotation speed is lower than the predetermined rotation speed, the power on time and the power off time of the air purification load set in the air conditioner are obtained, and the power on time and the power The air purification load is controlled so as to operate intermittently according to the disconnection time. When the air purification load operates normally, the negative ions generated by the air purification load gather together with the particulate matter in the air, and a large amount of particulate matter gathers at the intake of the air conditioner. When the rotation speed is less than the predetermined rotation speed, at this time, the wind speed of the air conditioner is also lower than the set wind speed, the suction force for particulate matter is relatively small, and the particulate matter collected in the air purification load is relatively large. Adsorption on the filter in time is not possible. At this time, the air purification load is controlled to operate intermittently depending on the power ON time and power OFF time to reduce the particulate matter that collects at the air purification load and remove all the particulate matter from the air conditioner intake. To avoid the phenomenon that the wall surface becomes black due to the particulate matter being adsorbed on the wall surface.

図3を参照し、図3は本願のエアコンの制御方法の第二実施例であり、第一実施例に基づいて、前記ステップS30は、前記回転速度に基づいて前記空気浄化負荷の電源通電時間と電源切断時間を取得するステップS31を含み、ここで、前記回転速度が大きいほど前記電源通電時間が長い。 Referring to FIG. 3, FIG. 3 is a second embodiment of the air conditioner control method of the present application. According to the first embodiment, the step S30 is to determine the power supply time of the air purification load based on the rotation speed. and step S31 of obtaining a power-off time, wherein the power-on time is longer as the rotation speed is higher.

前記回転速度が既定回転速度より小さい時、前記回転速度に基づいて空気浄化負荷の電源通電時間と電源切断時間を取得する。回転速度と電源通電時間との間は一対一対応し、回転速度と電源通電時間との間は直線的な関係を示し、室内ファンの回転速度が大きいほど、空気浄化負荷の電源通電時間が長い。空気浄化負荷の電源切断時間は、室内ファンの回転速度との間でマッピング関係が存在してもよく、空気浄化負荷の間欠的運転の周期から空気浄化負荷の電源通電時間を引くことで得ることもできることは、理解できるであろう。或いは、前記回転速度が属する回転速度区間を確定して、かつ前記回転速度区間に基づいて前記空気浄化負荷の電源通電時間と電源切断時間を確定する。検知した室内ファンの回転速度によって、前記回転速度が属する回転速度区間を判断し、各回転速度区間のいずれにも空気浄化負荷の電源通電時間と電源切断時間が対応しているので、空気浄化負荷の間欠的運転の電源通電時間と電源切断時間が得られ、実現しやすく、室内ファンの回転速度変動で電源通電時間の変化を起こす現象を避ける。 When the rotation speed is lower than a predetermined rotation speed, the power-on time and the power-off time of the air purification load are obtained according to the rotation speed. There is a one-to-one correspondence between the rotation speed and the power supply time, and there is a linear relationship between the rotation speed and the power supply time. The higher the rotation speed of the indoor fan, the longer the power supply time of the air purification load. . The power-off time of the air purification load may have a mapping relationship with the rotational speed of the indoor fan, and is obtained by subtracting the power-on time of the air purification load from the period of intermittent operation of the air purification load. You can understand what you can do. Alternatively, the rotation speed section to which the rotation speed belongs is determined, and the power-on time and the power-off time of the air purification load are determined based on the rotation speed section. Based on the detected rotation speed of the indoor fan, the rotation speed section to which the rotation speed belongs is determined. The power supply time and the power supply off time of intermittent operation can be obtained, and it is easy to realize, and the phenomenon of causing the change of the power supply time due to the rotation speed fluctuation of the indoor fan is avoided.

室内ファンの回転速度が空気浄化負荷の間欠的運転に対応する回転速度の下限である時、この際空気浄化負荷の電源通電運転の時間が最も短く、空気浄化負荷の電源通電運転の最短時間はTmix=Ton+off*k1であり、室内ファンの回転速度が空気浄化負荷の間欠的運転に対応する回転速度の上限である時、この際空気浄化負荷の電源通電運転の時間が最も長く、空気浄化負荷の電源通電運転の最長時間はTmax=Ton+off*k2であり、Ton+offは空気浄化負荷の間欠的運転の周期であり、k1は0.01とすることができ、k2は0.8とすることができ、Ton+offの数値範囲は10秒から60秒までの範囲とすることができることは、説明しておく必要がある。Ton+offは空気浄化負荷の間欠的運転の周期であり、前記周期はシステムに設定された固定値でも、可変値でもよく、前記周期が可変値である場合、先ずは回転速度と周期との間のマッピング関係により空気浄化負荷の間欠的運転の周期を取得して、そしてさらに回転速度より空気浄化負荷と電源通電時間との間のマッピング関係を取得して、空気浄化負荷の電源通電時間を取得することは、理解できるであろう。 When the rotation speed of the indoor fan is the lower limit of the rotation speed corresponding to the intermittent operation of the air purification load, the shortest time of power supply operation of the air purification load is shortest, and the shortest time of power supply operation of the air purification load is When T mix =T on +off *k1, and the rotational speed of the indoor fan is the upper limit of the rotational speed corresponding to the intermittent operation of the air purification load, the power-on operation time of the air purification load is the longest, and the air The maximum time of powered operation of the purification load is T max =T on+off *k2, where T on+off is the period of intermittent operation of the air purification load, k1 can be 0.01, and k2 is 0.01. 8, and the numerical range of T on+off can range from 10 seconds to 60 seconds. T on+off is the period of intermittent operation of the air purification load, and the period may be a fixed value set in the system or a variable value. Obtain the intermittent operation period of the air purification load from the mapping relationship of , further obtain the mapping relationship between the air purification load and the power supply time from the rotation speed, and obtain the power supply time of the air purification load It would be understandable to do

回転速度が空気浄化負荷の間欠的運転の回転速度下限より低い時、最短の電源通電運転時間によって運転するように空気浄化負荷を制御することは、説明しておく必要がある。例えば、室内ファンの回転速度が室内ファンの1%段階より低い時、電源通電時間が2s、電源切断時間が16sであるように間欠的に運転するように空気浄化負荷を制御する。 It should be explained that the air purification load is controlled to operate with the shortest power-on operation time when the rotation speed is lower than the rotation speed lower limit of the intermittent operation of the air purification load. For example, when the rotation speed of the indoor fan is lower than the 1% level of the indoor fan, the air purification load is controlled so as to operate intermittently so that the power ON time is 2 seconds and the power OFF time is 16 seconds.

本実施例が提案する技術案において、室内ファンの回転速度によって空気浄化負荷の電源通電時間と電源切断時間を取得するので、間欠的に運転するように空気浄化負荷を制御するのを容易にする。回転速度が既定回転速度より低い、即ち、風速が既定風速より低い時、回転速度によって、間欠的に運転するように空気浄化負荷を制御することで、制御が正確になり、粒子状物質をフィルタ上に吸着できるようにして、粒子状物質を壁面上に吸着することで壁面が黒くなる現象を避ける。 In the technical solution proposed by this embodiment, the power-on time and power-off time of the air purification load are obtained according to the rotation speed of the indoor fan, so that it is easy to control the air purification load to operate intermittently. . When the rotation speed is lower than the predetermined rotation speed, that is, the wind speed is lower than the predetermined wind speed, the air purification load is controlled to operate intermittently according to the rotation speed, so that the control is accurate and the particulate matter is filtered. The blackening of the wall surface is avoided by adsorbing the particulate matter on the wall surface.

図4を参照し、図4は本願のエアコンの制御方法の第三実施例であり、第二実施例に基づいて、前記ステップS30はさらに、エアコンが置かれている室内環境の湿度を取得するステップS32と、前記湿度が既定湿度より大きいか否かを判断するステップS33とを含み、前記湿度が既定湿度より大きい時、ステップS31を実行し、即ち、前記回転速度に基づいて前記空気浄化負荷の電源通電時間と電源切断時間を取得する。 Please refer to FIG. 4, which is the third embodiment of the air conditioner control method of the present application, according to the second embodiment, the step S30 further obtains the humidity of the indoor environment where the air conditioner is placed. including step S32 and step S33 of determining whether the humidity is higher than the predetermined humidity, and when the humidity is higher than the predetermined humidity, executing step S31, that is, the air purification load according to the rotational speed; Get the power on time and power off time of .

前記回転速度が既定回転速度より小さい時(例えば、既定回転速度は最大回転速度の80%段階とすることができる)、エアコンが置かれている室内環境の湿度を取得し、前記湿度とは、空気中の実際の水蒸気圧力と現時点の気温における飽和水蒸気圧力との比の百分率を指す。エアコンの室内熱交換器上に温度センサーを設置することで、エアコンが置かれている室内環境の湿度を取得する。取得した室内環境の湿度を既定の湿度と比較して、室内環境の湿度が既定湿度より大きい時、回転速度によって空気浄化負荷の電源通電時間と電源切断時間を取得する。 When the rotation speed is lower than a predetermined rotation speed (for example, the predetermined rotation speed can be 80% of the maximum rotation speed), the humidity of the indoor environment where the air conditioner is placed is obtained, and the humidity is: It refers to the percentage ratio of the actual water vapor pressure in the air to the saturated water vapor pressure at the current temperature. By installing a temperature sensor on the indoor heat exchanger of the air conditioner, the humidity of the indoor environment where the air conditioner is placed is obtained. The obtained humidity of the indoor environment is compared with the predetermined humidity, and when the humidity of the indoor environment is higher than the predetermined humidity, the power on time and the power off time of the air purification load are obtained according to the rotation speed.

本願の実施例において、湿度が既定湿度より大きい時(既定湿度が50%である)、空気浄化負荷の電源を長期間投入した状態にすることでエネルギー消耗を増大させるのを避けるために、それと同時に、回転速度が低い時、空気浄化負荷に集まる粒子状物質が多すぎると、粒子状物質を適時にフィルタ上に吸着することが不可能であり、壁面が黒くなりやすいので、室内ファンの回転速度に基づいて空気浄化負荷の電源通電時間と電源切断時間を取得して、エアコンのエネルギー消費を減少させて、かつ壁面が黒くなる現象をできるだけ避ける。 In an embodiment of the present application, when the humidity is higher than the default humidity (the default humidity is 50%), in order to avoid increasing energy consumption by keeping the air purification load powered on for a long period of time, and At the same time, when the rotation speed is low, if too much particulate matter accumulates in the air purification load, it will be impossible to adsorb the particulate matter on the filter in a timely manner, and the wall surface will easily become black, so the indoor fan will not rotate. The power-on time and power-off time of the air purification load are obtained according to the speed, so as to reduce the energy consumption of the air conditioner and avoid the blackened wall phenomenon as much as possible.

図5を参照し、図5は本願のエアコンの制御方法の第四実施例であり、第三実施例に基づいて、前記ステップS33の後に、前記ステップS30のステップはさらに、前記湿度が既定湿度より小さい時、前記湿度に基づいて調節係数を取得するステップS34と、前記回転速度に基づいて電源通電時間と電源切断時間を取得して、前記調節係数に基づいて前記電源通電時間と電源切断時間を調整するステップS35と、調整後の前記電源通電時間と電源切断時間を前記空気浄化負荷の電源通電時間と電源切断時間とするステップS36とを含む。 Referring to FIG. 5, FIG. 5 is the fourth embodiment of the air conditioner control method of the present application. According to the third embodiment, after the step S33, the step S30 further includes that the humidity is a predetermined humidity if it is less than, a step S34 of obtaining an adjustment coefficient based on the humidity; obtaining a power-on time and a power-off time based on the rotational speed; and obtaining the power-on time and the power-off time based on the adjustment coefficient; and a step S36 of setting the power ON time and power OFF time after the adjustment to the power ON time and power OFF time of the air purification load.

前記湿度が既定湿度より低い時、この際部屋が比較的乾燥しており、浮遊粉塵と粒子状物質が比較的多くて、この時、湿度に基づいて調節係数を取得する。調節係数と湿度とは一対一対応しているか、或いは調節係数は湿度が属する湿度区間と対応していることは、理解できるであろう。前記回転速度によって空気浄化負荷の電源通電時間を取得した上で調節係数をかけて、調整後の電源通電時間と電源切断時間を空気浄化負荷の電源通電時間と電源切断時間として、かつ前記電源通電時間と電源切断時間で、間欠的に運転するように空気浄化負荷を制御することで、空気浄化負荷がマイナスイオンを少なめに生成するようにして、大量の粒子状物質が空気浄化負荷に集まって壁面が黒くなりやすい現象を避ける。 When the humidity is lower than the predetermined humidity, at this time the room is relatively dry, there are more airborne dust and particulate matter, and the adjustment factor is obtained according to the humidity. It will be appreciated that there is a one-to-one correspondence between the adjustment factor and humidity, or that the adjustment factor corresponds to the humidity interval to which the humidity belongs. After acquiring the power energization time of the air purification load according to the rotational speed, multiplying it by an adjustment coefficient, the adjusted power energization time and power off time are set as the power energization time and power off time of the air purification load, and the power energization By controlling the air purification load to operate intermittently according to the time and the power off time, the air purification load will generate less negative ions, and a large amount of particulate matter will accumulate in the air purification load. To avoid the phenomenon that the wall surface tends to become black.

本願の実施例において、回転速度が既定回転速度より低いことを条件に、エアコンが置かれている室内環境の湿度を取得して、湿度が既定湿度より小さい時、調節係数を取得し、例えば、調節係数は0.3~0.9の間にある。回転速度によって前記電源通電時間を取得して調節係数をかけることで空気浄化負荷が間欠的に運転する電源通電時間を得て、そして空気浄化負荷が間欠的に運転する周期から調節後の電源通電時間を引くことで、調節後の空気浄化負荷の電源切断時間を得る。つまり、本来の空気浄化負荷の電源通電時間を減衰させ、空気浄化負荷の電源通電時間に対して精確に調節や制御をして、空気浄化負荷の電源通電時間を短縮して、エアコンに隣接する壁が黒くなる可能性を低減させる。 In an embodiment of the present application, obtaining the humidity of the indoor environment where the air conditioner is placed on the condition that the rotation speed is lower than the predetermined rotation speed, and obtaining the adjustment coefficient when the humidity is lower than the predetermined humidity, such as: The adjustment factor is between 0.3 and 0.9. By obtaining the power energization time according to the rotation speed and multiplying it by an adjustment coefficient, the power energization time during which the air purification load operates intermittently is obtained, and the power energization after adjustment is obtained from the period in which the air purification load intermittently operates. By subtracting the time, the power off time of the air purification load after adjustment is obtained. In other words, the power supply time of the original air purification load is attenuated, the power supply time of the air purification load is precisely adjusted and controlled, the power supply time of the air purification load is shortened, and the power supply time of the air purification load is reduced. Reduces the chance of walls turning black.

図6を参照し、図6は本願のエアコンの制御方法の第五実施例であり、第一実施例に基づいて、前記ステップS20の後に、前記エアコンの制御方法はさらに、前記回転速度が既定回転速度より高い時、前記空気浄化負荷を連続的に運転させるステップS50を含む。 Referring to FIG. 6, FIG. 6 is a fifth embodiment of the air conditioner control method of the present application. According to the first embodiment, after the step S20, the air conditioner control method further comprises: A step S50 of continuously operating the air purification load is included when the speed is higher than the rotational speed.

室内ファンの回転速度が既定回転速度より高い時、この際エアコンの吸気口における吸引力が比較的大きく、空気浄化負荷を連続的に運転させることで集まる大量の浮遊粉塵と粒子状物質はいずれもフィルタ上に持っていくことができ、これにより空気品質を向上させると同時に、壁面が黒くなる可能性を低減させる。前記回転速度が既定回転速度より高い時、さらに以下のステップを含む。エアコンが置かれている室内環境の湿度を取得して、湿度が既定湿度より大きい時、部屋内の粒子状物質が比較的少なく、空気浄化負荷を連続的に運転させてマイナスイオンを発生させることで、浮遊粉塵と粒子状物質をできるだけ速く空気浄化負荷のところに集めて、吸気口の強力な吸引力でフィルタ上に持っていきやすく、湿度が既定湿度より小さい時、室内環境が比較的乾燥しており、浮遊粉塵と粒子状物質は比較的多くて、浮遊粉塵と粒子状物質が大量に空気浄化負荷のところに集まることで壁面が黒くなりやすい現象を避けるために、この際、間欠的に運転するように空気浄化負荷を制御して、かつ湿度に基づいて空気浄化負荷の電源通電時間と電源切断時間を取得して、空気浄化負荷に集まる粒子状物質をフィルタ上に持っていけること保証する。ここで、前記湿度が大きいほど、前記電源通電時間が長い。空気浄化負荷のエネルギー消費を低減させて、大量の粒子状物質の集まりによって壁面が黒くなる現象をできるだけ避ける。 When the rotation speed of the indoor fan is higher than the specified rotation speed, at this time the suction force of the air conditioner inlet is relatively large, and the continuous operation of the air purification load will collect a large amount of floating dust and particulate matter. It can be carried over a filter, which improves air quality while reducing the possibility of wall blackening. When the rotational speed is higher than the predetermined rotational speed, further comprising the following steps. Obtain the humidity of the indoor environment where the air conditioner is placed, and when the humidity is higher than the predetermined humidity, the particulate matter in the room is relatively small, and the air purification load is continuously operated to generate negative ions. At the same time, the airborne dust and particulate matter can be collected at the air purification load as quickly as possible, and the strong suction force of the air inlet can easily be carried onto the filter. When the humidity is lower than the predetermined humidity, the indoor environment is relatively dry. At this time, in order to avoid the phenomenon that the wall surface tends to be blackened due to a large amount of suspended dust and particulate matter gathering at the air purification load, intermittent Control the air purification load to run and obtain power on and off times of the air purification load based on humidity to ensure that particulate matter that collects on the air purification load can be brought onto the filter. do. Here, the higher the humidity, the longer the power supply time. To reduce the energy consumption of an air purification load, and to avoid the phenomenon that a wall surface becomes black due to the accumulation of a large amount of particulate matter as much as possible.

また、室内ファンの回転速度が既定回転速度より高い時、この際エアコンの吸気口における吸引力が比較的大きく、空気浄化負荷を連続的に運転させることで集まる大量の浮遊粉塵と粒子状物質はいずれもフィルタ上に持っていくことができ、これにより空気品質を向上させると同時に、壁面が黒くなる可能性を低減させることは、説明しておく必要がある。前記回転速度が既定回転速度より高い時、さらにエアコンが置かれている室内環境の汚染濃度を取得するステップを含むことは、説明しておく必要がある。前記汚染濃度は室内環境中の粒子状物質の濃度、例えば室内環境のpm2.5の濃度であり、部屋内にpm2.5検知器を設置し、或いはエアコンにpm2.5検知器を設置することで、エアコンが置かれている室内環境の汚染濃度を取得する。汚染濃度が既定汚染濃度より大きい時、この際に、部屋内の粒子状物質が比較的多くて、室内空気の品質を保障するために、この時、空気浄化負荷を連続的に運転させる。空気浄化負荷によりマイナスイオンを発生させて空気中の浮遊粉塵を吸着することで室内環境の空気品質を保障する必要があるが、この時エアコンの吸気口の吸引力が比較的大きいので、粒子状物質が大風量によってフィルタ上に持っていかれることをできるだけ保障して、エアコンが接触する壁面が黒くなりやすい現象を減少させる。汚染濃度が既定汚染濃度より小さい時、この時の部屋の空気品質が悪くないことを示すが、この時に吸気口の吸引力が比較的大きいと、空気浄化負荷に集まる粒子状物質は何れもフィルタ上に持っていくことができるが、この場合、空気浄化負荷を連続的に運転させれば、エアコンのエネルギー消費を増加させてしまうので、この場合、空気浄化負荷を間欠的に運転させる必要がある。室内空気品質と省エネルギーを保証する状況において、汚染濃度に基づいて空気浄化負荷の電源通電時間を取得し、ここで汚染濃度が大きいほど電源通電時間が長い。空気浄化負荷のエネルギー消費を低減させると同時に、エアコンが置かれている環境の粒子状物質を減少させて、かつ粒子状物質が壁面上に拡散することで壁面が黒くなる現象を避ける。 In addition, when the rotation speed of the indoor fan is higher than the predetermined rotation speed, the suction force at the air conditioner inlet is relatively large, and the large amount of floating dust and particulate matter collected by the continuous operation of the air purification load can be It should be mentioned that either can be brought onto the filter, which improves air quality while reducing the possibility of wall blackening. It should be mentioned that when the rotation speed is higher than the predetermined rotation speed, it further includes the step of obtaining the pollutant concentration of the indoor environment where the air conditioner is placed. The pollution concentration is the concentration of particulate matter in the indoor environment, such as the concentration of pm2.5 in the indoor environment. to obtain the pollutant concentration of the indoor environment where the air conditioner is placed. When the pollution concentration is higher than the predetermined pollution concentration, the particulate matter in the room is relatively large, and the air purification load is continuously operated at this time to ensure the indoor air quality. It is necessary to ensure the air quality of the indoor environment by generating negative ions through the air purification load and adsorbing the floating dust in the air. It is possible to ensure that the material is carried on the filter by a large amount of air, and to reduce the phenomenon that the wall surface in contact with the air conditioner tends to be blackened. When the pollution concentration is less than the predetermined pollution concentration, it indicates that the air quality in the room is not bad at this time, but if the suction force of the air inlet is relatively large at this time, the particulate matter collected in the air purification load will not be filtered. However, in this case, if the air purification load is operated continuously, the energy consumption of the air conditioner will increase, so in this case, it is necessary to operate the air purification load intermittently. be. Under the condition of ensuring indoor air quality and energy saving, the power-on time of the air purification load is obtained according to the pollution concentration, where the higher the pollution concentration, the longer the power-on time. To reduce the energy consumption of an air purification load, to reduce particulate matter in the environment where an air conditioner is placed, and to avoid the phenomenon that the wall surface becomes black due to the diffusion of the particulate matter on the wall surface.

本発明はさらにエアコンの制御方法を提案する。 The invention further proposes a method for controlling an air conditioner.

図7を参照し、図7は本発明のエアコンの制御方法の第六実施例の流れ模式図であり、前記エアコンの制御方法は以下のステップを含む。ステップS100、エアコンが空気浄化負荷を起動してから、エアコンが置かれている室内環境の湿度を取得する。本発明では、エアコンが正常運転する時に、空気浄化負荷を起動して、空気浄化負荷によってマイナスイオンを発生させて空気中のほこりと粒子状物質を吸着し、浮遊粉塵と粒子状物質が空気浄化負荷のところに集まるようにして、そして空気浄化負荷における浮遊粉塵と粒子状物質をフィルタ上に案内することで、空気を浄化する効果を発揮する。そして、エアコンの室内機に湿度センサーを設置することで、エアコンが置かれている室内環境の湿度を取得し、前記湿度とは、空気中の実際の水蒸気圧力と現時点の気温における飽和水蒸気圧力との比の百分率を指す。 Please refer to FIG. 7, which is a flow schematic diagram of the sixth embodiment of the air conditioner control method of the present invention, wherein the air conditioner control method includes the following steps. Step S100, after the air conditioner activates the air purification load, obtain the humidity of the indoor environment where the air conditioner is placed. In the present invention, when the air conditioner is in normal operation, the air purification load is activated, the air purification load generates negative ions to absorb dust and particulate matter in the air, and the suspended dust and particulate matter purify the air. It has the effect of purifying the air by allowing it to collect at the load and directing the airborne dust and particulate matter in the air purifying load onto the filter. Then, by installing a humidity sensor in the indoor unit of the air conditioner, the humidity of the indoor environment where the air conditioner is placed is obtained, and the humidity is the actual water vapor pressure in the air and the saturated water vapor pressure at the current temperature. refers to the percentage of the ratio of

ステップS200、前記湿度が既定湿度より低いか否かを判断する。取得した室内環境の湿度をシステムの既定湿度と比較して、湿度と既定湿度との間の大小関係を比較して、そしてエアコンに対して相応の制御を行う。例えば、本実施例では、既定湿度は50%とすることができ、取得した湿度を50%と比較して、かつ環境湿度と50%との間の大小関係を判断する。 Step S200, determine whether the humidity is lower than a predetermined humidity. Comparing the obtained humidity of the indoor environment with the default humidity of the system, comparing the magnitude relationship between the humidity and the default humidity, and controlling the air conditioner accordingly. For example, in this embodiment, the default humidity can be 50%, and the obtained humidity is compared with 50% to determine the magnitude relationship between the environmental humidity and 50%.

ステップS300、前記湿度が既定湿度より低い時、エアコンの中の空気浄化負荷の電源通電時間と電源切断時間を取得する。湿度が既定湿度より低い時、この際エアコン内の空気が比較的乾燥しており、室内の浮遊粉塵や粒子状物質が多くなり、この時空気浄化負荷が連続的に運転すると、空気浄化負荷に大量の粒子状物質が集まって、この場合、集まる粒子状物質を適時にフィルタ上に吸うことが不可能であれば、粒子状物質が壁面へ拡散することになり、壁面が黒くなる現象に繋がりやすいので、この場合、エアコンの中の空気浄化負荷が間欠的に運転して、壁面が黒くなりやすい現象を避ける必要がある。エアコンが置かれている室内環境の湿度に基づいてエアコンの中の空気浄化負荷の電源通電運転時間と電源切断運転時間を取得して、電源通電時間とは空気浄化負荷の電源を投入して運転する時間であり、電源切断時間とは空気浄化負荷の連続する二回の電源通電運転の間の作動が停止した時間である。 Step S300, when the humidity is lower than the predetermined humidity, obtain the power-on time and power-off time of the air purification load in the air conditioner; When the humidity is lower than the specified humidity, the air inside the air conditioner is relatively dry, and there is more airborne dust and particulate matter in the room. If a large amount of particulate matter accumulates, in this case, if it is impossible to suck the accumulated particulate matter onto the filter in a timely manner, the particulate matter will diffuse to the wall surface, leading to the phenomenon of blackening the wall surface. In this case, it is necessary to avoid the phenomenon that the air purification load in the air conditioner operates intermittently and the wall surface tends to become black. Based on the humidity of the indoor environment where the air conditioner is placed, the power on operation time and power off operation time of the air purification load in the air conditioner are acquired, and the power on time is the power on and operation of the air purification load. The power-off time is the time during which the air purification load stops operating between two consecutive power-on operations.

ステップS400、前記電源通電時間と電源切断時間に基づいて間欠的に運転するように前記空気浄化負荷を制御する。 Step S400, controlling the air purification load to operate intermittently according to the power-on time and power-off time;

湿度が既定湿度より小さい時、室内環境に浮遊粉塵や粒子状物質が発生しやすく、取得した電源通電時間と電源切断時間によって間欠的に運転するように空気浄化負荷を制御して、空気浄化負荷が電源通電時間によって運転し、空気浄化負荷が一定時間運転してから、電源切断時間によって作動を停止させる。空気浄化負荷が発生させたマイナスイオンが浮遊粉塵と粒子状物質を空気浄化負荷のところに吸着させるので、電源通電時間と電源切断時間を経て空気浄化負荷における粒子状物質をフィルタに移動させる必要がある。空気浄化負荷が間欠的に運転することで、大量の粒子状物質が空気浄化負荷のところに集まって適時にフィルタ上に吸着できないことを避ける。例えば、湿度が50%より低い時、取得した電源通電時間と電源切断時間に基づいて間欠的に運転するように空気浄化負荷を制御する。 When the humidity is lower than the specified humidity, airborne dust and particulate matter are likely to occur in the indoor environment. operates according to the time when the power supply is turned on, and after the air purification load operates for a certain period of time, it stops operating according to the time when the power supply is turned off. Negative ions generated by the air purification load adsorb airborne dust and particulate matter to the air purification load, so it is necessary to move the particulate matter from the air purification load to the filter after the power is turned on and off. be. The intermittent operation of the air purification load avoids large amounts of particulate matter collecting at the air purification load and unable to be adsorbed on the filter in a timely manner. For example, when the humidity is lower than 50%, the air purification load is controlled so as to operate intermittently based on the obtained power ON time and power OFF time.

本実施例が提案する技術案において、前記湿度が既定湿度より低い時、この時部屋内の浮遊粉塵と粒子状物質は比較的多くて、エアコンの中に設定された空気浄化負荷の電源通電時間と電源切断時間を取得して、かつ電源通電時間と電源切断時間によって間欠的に運転するように空気浄化負荷を制御する。空気浄化負荷が正常に電源を投入して運転する時、空気浄化負荷により発生されたマイナスイオンは空気中の粒子状物質と集まって、空気浄化負荷に比較的多い粒子状物質が集まりやすく、この時、電源通電時間と電源切断時間に基づいて間欠的に運転するように空気浄化負荷を制御する必要がある。電源切断時間の間、空気浄化負荷の作動を停止して、空気浄化負荷のところに集まる粒子状物質を減少させて、空気浄化負荷における少量の粒子状物質が風に伴ってフィルタ上に移動できるようにすることで、粒子状物質が壁面上に吸着されることで壁面が黒くなる現象を避ける。 In the technical solution proposed by this embodiment, when the humidity is lower than the predetermined humidity, there are more airborne dust particles and particulate matter in the room, and the power supply time of the air purification load set in the air conditioner and the power-off time are obtained, and the air purification load is controlled so as to operate intermittently according to the power-on time and the power-off time. When the air purification load is normally powered on and running, the negative ions generated by the air purification load will collect with particulate matter in the air, and a relatively large amount of particulate matter will easily accumulate in the air purification load. At times, it is necessary to control the air purification load to operate intermittently based on the power on time and power off time. During the power down time, the air purification load is deactivated to reduce particulate matter collection at the air purification load, allowing a small amount of particulate matter in the air purification load to move with the wind onto the filter. By doing so, it is possible to avoid the phenomenon that the wall surface becomes black due to adsorption of particulate matter on the wall surface.

図8を参照し、図8は本願のエアコンの制御方法の第七実施例であり、第六実施例に基づいて、前記ステップS300は、前記湿度によって前記空気浄化負荷の電源通電時間と電源切断時間を取得するステップS310を含み、ここで、前記湿度が大きいほど前記電源通電時間が長い。 Please refer to FIG. 8, which is the seventh embodiment of the air conditioner control method of the present application. including step S310 of obtaining time, wherein the higher the humidity, the longer the power-on time;

前記湿度が既定湿度より小さい時、前記湿度に基づいて空気浄化負荷の電源通電時間と電源切断時間を取得し、湿度と電源通電時間との間は一対一対応し、湿度と電源通電時間との間は直線的な関係を示し、室内環境の湿度が大きいほど、空気浄化負荷の電源通電時間が長い。空気浄化負荷の電源切断時間は、室内環境の湿度との間でマッピング関係が存在してもよく、空気浄化負荷の間欠的運転の周期から空気浄化負荷の電源通電時間を引くことで得ることもできることは、理解できるであろう。或いは、前記湿度が属する湿度区間を確定して、かつ前記湿度区間に基づいて前記空気浄化負荷の電源通電時間と電源切断時間を確定する。取得した室内環境の湿度によって、前記湿度が置かれている湿度区間を判断し、各湿度区間のいずれにも空気浄化負荷の電源通電時間と電源切断時間が対応しており、実現しやすく室内環境の湿度変動で電源通電時間の変化を起こす現象を避けて、電源通電時間によって運転するように空気浄化負荷を正確に制御しやすくする。 When the humidity is lower than the predetermined humidity, the power on time and the power off time of the air purification load are obtained based on the humidity, the humidity and the power on time are in one-to-one correspondence, and the humidity and the power on time are obtained. There is a linear relationship between the values, and the higher the humidity of the indoor environment, the longer the power supply time of the air purification load. The power-off time of the air purification load may have a mapping relationship with the humidity of the indoor environment, and may be obtained by subtracting the power-on time of the air purification load from the intermittent operation cycle of the air purification load. You can understand what you can do. Alternatively, the humidity section to which the humidity belongs is determined, and the power-on time and the power-off time of the air purification load are determined based on the humidity section. Based on the obtained humidity of the indoor environment, the humidity section in which the humidity is placed is determined, and each humidity section corresponds to the power ON time and power OFF time of the air purification load, which is easy to realize. To easily control an air purification load accurately so as to operate according to the power supply time by avoiding the phenomenon of causing a change in the power supply time due to humidity fluctuations.

室内環境の湿度が空気浄化負荷の間欠的運転に対応する湿度の下限である時、この際空気浄化負荷の電源通電運転の時間が最も短く、空気浄化負荷の電源通電運転の最短時間はTmix=Ton+off*k1であり、室内環境の湿度が空気浄化負荷の間欠的運転に対応する湿度の上限である時、この際空気浄化負荷の電源通電運転の時間が最も長く、空気浄化負荷の電源通電運転の最長時間はTmax=Ton+off*k2であり、Ton+offは空気浄化負荷の間欠的運転の周期であり、k1は0.2とすることができ、k2は0.8とすることができ、Ton+offの数値範囲は10秒から60秒までの範囲とすることができることは、説明しておく必要がある。Ton+offは空気浄化負荷の間欠的運転の周期であり、前記周期はシステムに設定された固定値でも、可変値でもよく、前記周期が可変値である場合、先ずは湿度と周期との間のマッピング関係により空気浄化負荷の間欠的運転の周期を取得して、そしてさらに湿度より空気浄化負荷と電源通電時間との間のマッピング関係を取得して、空気浄化負荷の電源通電時間を取得することは、理解できるであろう。 When the humidity of the indoor environment is the lower limit of the humidity corresponding to the intermittent operation of the air purification load, at this time, the time of power supply operation of the air purification load is the shortest, and the shortest time of power supply operation of the air purification load is T mix . =T on +off *k1, and when the humidity of the indoor environment is the upper limit of the humidity corresponding to the intermittent operation of the air purification load, the power supply operation time of the air purification load is the longest, and the power supply of the air purification load The maximum time of energized operation is T max =T on +off *k2, where T on +off is the period of intermittent operation of the air purification load, k1 can be 0.2, and k2 can be 0.8. , and the numerical range of T on+off can range from 10 seconds to 60 seconds. T on+off is the period of intermittent operation of the air purification load, and the period may be a fixed value set in the system or a variable value. Obtaining the intermittent operation period of the air purification load according to the mapping relationship, further obtaining the mapping relationship between the air purification load and the power supply time from the humidity, and obtaining the power supply time of the air purification load. would be understandable.

湿度が空気浄化負荷の間欠的運転の湿度下限より低い時、最短の電源通電運転時間によって運転するように空気浄化負荷を制御することは、説明しておく必要がある。例えば、エアコンが置かれている室内の湿度が20%より低い時、電源通電時間が2s、電源切断時間が16sであるように間欠的に運転するように空気浄化負荷を制御する。 It should be mentioned that when the humidity is below the lower humidity limit for intermittent operation of the air purification load, the air purification load is controlled to operate with the shortest power on operation time. For example, when the humidity in the room where the air conditioner is placed is lower than 20%, the air purification load is controlled so that the power is turned on for 2 seconds and turned off for 16 seconds.

本実施例が提案する技術案において、エアコンが置かれている環境の湿度を取得して空気浄化負荷の電源通電時間と電源切断時間を取得するので、間欠的に運転するように空気浄化負荷を制御するのを容易にする。湿度が既定湿度より低い時、湿度に基づいて、間欠的に運転するように空気浄化負荷を制御することで、制御が正確になり、粒子状物質をフィルタ上に吸着できるようにして、粒子状物質を壁面上に吸着することで壁面が黒くなる現象を避ける。 In the technical solution proposed by this embodiment, the humidity of the environment in which the air conditioner is placed is obtained to obtain the power ON time and power OFF time of the air purification load, so the air purification load is intermittently operated. Make it easier to control. By controlling the air purification load to operate intermittently based on the humidity when the humidity is lower than the preset humidity, the control becomes more accurate and allows the particulate matter to be adsorbed on the filter, thus reducing the particulate matter. To avoid the phenomenon that the wall surface becomes black by adsorbing substances on the wall surface.

図9を参照し、図9は本願のエアコンの制御方法の第八実施例であり、第六実施例に基づいて、前記ステップS200の後に、前記エアコンの制御方法はさらに、前記湿度が既定湿度より高い時、前記空気浄化負荷を連続的に運転させるステップS500を含む。 Referring to FIG. 9, FIG. 9 is an eighth embodiment of the air conditioner control method of the present application, and according to the sixth embodiment, after the step S200, the air conditioner control method further comprises that the humidity is a predetermined humidity When higher, it includes a step S500 of continuously running the air purification load.

エアコンが置かれている環境の湿度が既定湿度より大きい時、この際に、部屋内の水分が比較的多くて、部屋内に多量の浮遊粉塵粒子状物質が存在することはなく、室内空気品質をさらに向上させるために、この時、空気浄化負荷を連続的に運転させて、空気浄化負荷によりマイナスイオンを発生させて室内空気中の少量の浮遊粉塵粒子状物質を空気浄化負荷のところに集める必要があり、少量の浮遊粉塵粒子状物質はエアコンの中のフィルタのところに移動しやすく、室内空気品質を向上させるとともに、エアコンと接触する箇所の壁面が黒くなる可能性を減少させる。 When the humidity of the environment where the air conditioner is placed is higher than the specified humidity, at this time, the humidity in the room is relatively large, and there is not a large amount of suspended dust particles in the room, and the indoor air quality At this time, in order to further improve the air purification load, the air purification load is operated continuously to generate negative ions and collect a small amount of suspended dust particulate matter in the indoor air at the air purification load. A small amount of airborne dust particulate matter tends to migrate to the filter in the air conditioner, improving indoor air quality and reducing the possibility of blackening of walls in contact with the air conditioner.

ここで、ステップS40の後に、前記エアコンの制御方法はさらに、エアコンが置かれているところの室内汚染濃度を取得するステップを含むことは、説明しておく必要がある。前記汚染濃度は室内環境中の粒子状物質の濃度、例えば室内環境のpm2.5の濃度であり、部屋内にpm2.5検知器を設置し、或いはエアコンにpm2.5検知器を設置することで、エアコンが置かれている室内環境の汚染濃度を取得し、汚染濃度が既定濃度より大きい時、部屋内の空気品質が良くないことを示し、この時、エアコンの加湿装置を運転するように制御してかつ空気浄化負荷を間欠的に運転するように制御する必要があり、空気浄化負荷の電源通電時間は湿度により取得されるので、加湿装置の作用の下で、室内環境の湿度を上昇させ、湿度が既定湿度より高い時、ステップS50を実行し、即ち、前記空気浄化負荷を連続的に運転させる。例えば、前記既定汚染濃度が50ug/m3で、前記既定湿度が50%であり、室内環境の汚染濃度が50ug/m3より大きく、室内環境の湿度が50%より小さい時、先ず、湿度によって空気浄化負荷の電源通電時間を取得してかつ電源通電時間と電源切断時間に基づいて間欠的に運転するように空気浄化負荷を制御し、同時に、エアコンが加湿機能を起動してかつエアコンが置かれている環境の湿度を取得し、加湿装置により部屋内の環境を加湿することで、室内環境の湿度を上昇させて、空気中の浮遊粉塵粒子状物質を空気浄化負荷に集め、粒子状物質が吸気とともにフィルタ上に吸着されやすくする。その後、湿度が50%より大きい時、空気浄化負荷を連続的に運転させる。室内空気品質が良くない時、エアコンの加湿機能を起動することで、空気浄化負荷に連続的に運転する条件を作って、室内空気品質を保障しやすくする。エアコンが置かれている室内環境の湿度が既定湿度より低く、前記汚染濃度が既定汚染濃度より低い時、空気浄化負荷のエネルギー消費を節約して、かつエアコンが置かれている環境の空気品質を向上させるために、この際、直接室内環境の湿度により空気浄化負荷の電源通電時間と電源通電時間を取得して、かつ電源通電時間と電源切断時間によって、間欠的に運転するように空気浄化負荷を制御する。 Here, it should be explained that after step S40, the air conditioner control method further includes the step of obtaining the indoor pollution concentration where the air conditioner is located. The pollution concentration is the concentration of particulate matter in the indoor environment, such as the concentration of pm2.5 in the indoor environment. Obtain the indoor environment pollution concentration where the air conditioner is placed. When the pollution concentration is higher than the preset concentration, it means that the air quality in the room is not good, at this time, the air conditioner humidifier should be operated. It is necessary to control and control the air purification load to operate intermittently, and the power supply time of the air purification load is obtained by the humidity, so that the humidity of the indoor environment is increased under the action of the humidification device. and when the humidity is higher than the predetermined humidity, step S50 is executed, that is, the air purification load is operated continuously. For example, if the predetermined pollution concentration is 50ug/m3 and the predetermined humidity is 50%, and the indoor environmental pollution concentration is greater than 50ug/m3 and the indoor environmental humidity is less than 50%, the air is first purified by humidity. Obtaining the power-on time of the load and controlling the air purification load to operate intermittently according to the power-on time and power-off time, at the same time, the air conditioner starts the humidification function and the air conditioner is placed By obtaining the humidity of the environment in which the air is present and humidifying the environment in the room with a humidifier, the humidity of the indoor environment is increased, and the airborne dust particulate matter is collected in the air purification load, and the particulate matter is absorbed by the air purification load. It also makes it easier to be adsorbed on the filter. Thereafter, the air purification load is operated continuously when the humidity is greater than 50%. When the indoor air quality is poor, the humidifying function of the air conditioner is activated to create conditions for continuous operation of the air purification load, making it easier to guarantee the indoor air quality. When the humidity of the indoor environment where the air conditioner is placed is lower than the predetermined humidity and the pollution concentration is lower than the predetermined pollution concentration, the energy consumption of the air purification load is saved and the air quality of the environment where the air conditioner is placed is improved. At this time, the power supply time and power supply time of the air purification load are obtained directly according to the humidity of the indoor environment, and the air purification load is operated intermittently according to the power supply time and power supply off time. to control.

本実施例が提案する技術案では、湿度が既定湿度より高い時、この際に室内環境の浮遊粉塵粒子状物質が比較的少なく、連続的に運転するように空気浄化負荷を制御することで、室内環境の空気品質をさらに向上させることを容易にする。 In the technical solution proposed in this embodiment, when the humidity is higher than the predetermined humidity, the air purification load is controlled so that the indoor environment has relatively little airborne dust particulate matter, and the air purification load is operated continuously. To make it easier to further improve the air quality of an indoor environment.

図10を参照し、図10は本願のエアコンの制御方法の第九実施例であり、第七実施例に基づいて、前記ステップS300はさらに、室内ファンの回転速度を検知するステップS320と、前記回転速度が既定回転速度より小さいか否かを判断するステップS330と、前記回転速度が既定回転速度より小さい時、前記回転速度によって調節係数を取得するステップS340と、前記湿度に基づいて電源通電時間と電源切断時間を取得して、前記調節係数によって前記電源通電時間と電源切断時間を調整するステップS350と、調整後の前記電源通電時間と電源切断時間を前記空気浄化負荷の電源通電時間と電源切断時間とするステップS360とを含む。 Referring to FIG. 10, FIG. 10 is the ninth embodiment of the air conditioner control method of the present application. step S330 of determining whether the rotation speed is less than a predetermined rotation speed; step S340 of obtaining an adjustment coefficient according to the rotation speed when the rotation speed is less than the predetermined rotation speed; step S340 of power supply time based on the humidity; A step S350 of obtaining the power supply time and the power supply cutoff time and adjusting the power supply time and the power supply cutoff time by the adjustment coefficient, and Step S360, which is the disconnection time.

湿度が既定湿度より低い時、間欠的に運転するように空気浄化負荷を制御して、そして室内ファンのパラメーターを調べて室内ファンの回転速度を取得して、前記回転速度と既定回転速度との間の大小関係を比較する必要がある。既定回転速度は最大回転速度の80%段階であり、回転速度が既定回転速度より小さい場合、この際室内ファンの吸気口における吸気量が比較的小さく、即ち、吸気口では、空気浄化負荷における粒子状物質に対する吸引力が比較的小さく、粒子状物質をフィルタ上に移動させることが難しく、壁面が黒くなる現象に繋がりやすい。このため、この際に、前記回転速度に基づいて調節係数を取得して、調節係数は0.3~0.9の間にあり、前記湿度によって空気浄化負荷の電源通電時間を取得した上で調節係数をかけて調整後の電源通電時間を得て、そして空気浄化負荷が間欠的に運転する周期から調節後の電源通電時間を引くことで、調節後の空気浄化負荷の電源切断時間を得る。そして調節後の電源通電時間と電源切断時間で間欠的に運転するように空気浄化負荷を制御して、空気浄化負荷がマイナスイオンを少なめに生成するようにして、大量の粒子状物質が空気浄化負荷に集まってかつ全てはフィルタに移動できないことにより壁面が黒くなりやすい現象を避ける。 When the humidity is lower than the predetermined humidity, the air purification load is controlled to operate intermittently, and the parameters of the indoor fan are obtained to obtain the rotation speed of the indoor fan, and the rotation speed and the predetermined rotation speed are calculated. It is necessary to compare the magnitude relationship between them. The predetermined rotation speed is 80% of the maximum rotation speed, when the rotation speed is less than the predetermined rotation speed, at this time the intake air amount at the air inlet of the indoor fan is relatively small, that is, the air inlet has less particles in the air purification load. Since the suction force for particulate matter is relatively small, it is difficult to move particulate matter onto the filter, which easily leads to the phenomenon that the wall surface becomes black. Therefore, at this time, an adjustment coefficient is obtained based on the rotational speed, the adjustment coefficient is between 0.3 and 0.9, and the power supply time of the air purification load is obtained according to the humidity. Multiply the adjustment coefficient to obtain the adjusted power-on time, and subtract the adjusted power-on time from the intermittent operation period of the air purification load to obtain the power-off time of the air purification load after adjustment. . Then, the air purification load is controlled to operate intermittently during the power on time and power off time after the adjustment, so that the air purification load generates less negative ions, and a large amount of particulate matter is removed from the air. Avoid the phenomenon that the wall tends to blacken due to the load gathering and not all moving to the filter.

前記回転速度が既定回転速度より大きい時、前記湿度に基づいて電源通電時間と電源切断時間を取得することは、説明しておく必要がある。回転速度が既定回転速度より大きい時、吸気口の吸気量が比較的大きく、即ち吸気口における吸引力が比較的大きく、空気浄化負荷において集まる粒子状物質は何れも吸気に伴ってフィルタ上に移動できる。そして、間欠的に運転するように空気浄化負荷を制御して、かつ湿度に基づいて空気浄化負荷が間欠的に運転する時の電源通電時間と電源切断時間を取得して、室内空気品質を保証すると同時に、空気浄化負荷のエネルギー消費を減少させる。 It should be mentioned that the power-on time and power-off time are obtained according to the humidity when the rotation speed is greater than a predetermined rotation speed. When the rotation speed is higher than the predetermined rotation speed, the intake air volume of the intake port is relatively large, that is, the suction force at the intake port is relatively large, and any particulate matter collected in the air purification load moves onto the filter with the intake air. can. Then, control the air purification load to operate intermittently, and acquire the power supply time and power off time when the air purification load intermittently operates based on humidity to ensure indoor air quality. while at the same time reducing the energy consumption of the air purification load.

本発明の実施例において、湿度が既定湿度より低いことを条件に、エアコンの室内ファンの回転速度を取得して、回転速度が既定回転速度より小さい時、調節係数を取得し、例えば、調節係数は0.3~0.9の間にある。湿度に基づいて空気浄化負荷の電源通電時間を取得してかつ調節係数をかけることで、空気浄化負荷が間欠的に運転する電源通電時間と電源切断時間を得る。つまり、本来の空気浄化負荷の電源通電時間を減衰させ、空気浄化負荷の電源通電運転の時間を減少させ、空気浄化負荷において集まる粒子状物質を減少させて、粒子状物質が壁面へと拡散することで壁面が黒くなる現象の可能性を減少させる。空気浄化負荷の電源通電時間を減衰させることにより、制御が正確になり、実現しやすくなる。 In the embodiment of the present invention, obtaining the rotation speed of the indoor fan of the air conditioner under the condition that the humidity is lower than the predetermined humidity, and obtaining the adjustment factor when the rotation speed is lower than the predetermined rotation speed, such as the adjustment factor is between 0.3 and 0.9. By obtaining the power-on time of the air purification load based on the humidity and applying the adjustment coefficient, the power-on time and the power-off time during which the air purification load operates intermittently are obtained. In other words, the power supply time of the original air purification load is attenuated, the power supply operation time of the air purification load is reduced, the particulate matter that collects in the air purification load is reduced, and the particulate matter diffuses to the wall surface. This reduces the possibility of the phenomenon that the wall surface becomes black. By attenuating the power supply time of the air purification load, the control becomes more accurate and easier to implement.

本願の実施例はさらにエアコンを提案する。前記エアコンはプロセッサー、メモリー及び前記メモリーに記憶されて且つ前記プロセッサー上で実行できるエアコンの制御プログラムを含み、前記エアコンの制御プログラムが前記プロセッサーにより実行される時、上記のような実施例に記載のエアコンの制御方法のステップを実現する。 An embodiment of the present application further proposes an air conditioner. The air conditioner includes a processor, a memory, and an air conditioner control program stored in the memory and executable on the processor; Realize the steps of the air conditioner control method.

本願はさらにコンピュータ読み取り可能な記憶媒体を提案する。前記コンピュータ読み取り可能な記憶媒体にはエアコンの制御プログラムが記憶されており、前記エアコンの制御プログラムがプロセッサーにより実行された時は上記の実施例に記載のエアコンの制御方法の各ステップを実現する。 The present application further proposes a computer-readable storage medium. An air conditioner control program is stored in the computer-readable storage medium, and when the air conditioner control program is executed by the processor, each step of the air conditioner control method described in the above embodiments is realized.

本文において、「含む」、「含める」という術語或いは何れの他のバリエーションは非排他的な包含を意味することで、一連の要素の過程、方法、物品或いはシステムがそれらの要素だけでなく、明確に列挙されていない他の要素を含み、或いはこの種の過程、方法、物品或いはシステムに固有の要素を含むようにする。それ以上の制限がない状況で、語句「一つの...を含む」により限定される要素は、当該要素を含む過程、方法、物品或いはシステムの中に他の同じ要素が存在することを除外しない。 As used herein, the terms "comprise," "include," or any other variation imply non-exclusive inclusion, clearly indicating that a set of elements, a process, method, article, or system, not only those elements. may include other elements not listed in , or may include elements unique to such processes, methods, articles or systems. In the absence of any further limitation, an element limited by the phrase "comprising a" excludes the presence of other such elements in the process, method, article, or system containing that element. do not do.

上記本願の実施例の番号は説明用だけであって、実施例の優劣を表すものではない。 The numbers of the examples of the present application are only for explanation and do not represent the superiority or inferiority of the examples.

以上の実施態様の説明を通して、当業者ははっきりと、上記の実施例の方法はソフトウェアに必要な汎用ハードウェアプラットフォームを加える方法(勿論ハードウェアによることも可能であるが、多くの場合では前者がより良い実施方法)で実現できることを理解できる。このような理解に基づいて、本願の技術案は、本質としては、或いは例示的技術に対し貢献する部分は、ソフトウェア製品の形式で体現できる。当該コンピュータソフトウェア製品は上記のような記憶媒体(例えばROM/RAM、磁気ディスク、光ディスク)の中に記憶でき、一台の端末機器(携帯電話、コンピュータ、サーバー、エアコン、或いはネットワーク機器等でもよい)に本願の各実施例で説明する方法を実行させる幾つかの命令を含む。 Through the description of the above embodiments, those skilled in the art will clearly understand that the method of the above embodiment is a method of adding a general-purpose hardware platform necessary for software (of course, it is also possible to use hardware, but in many cases the former is better practice) can be realized. Based on this understanding, the technical solution of the present application can be embodied in the form of a software product, essentially or the part that contributes to the exemplary technology. The computer software product can be stored in the above storage media (such as ROM/RAM, magnetic disk, optical disk), and a terminal device (mobile phone, computer, server, air conditioner, network device, etc.) contains some instructions that cause the method described in each embodiment of this application to be performed.

以上は本願の実施例にすぎず、それによって本願の保護範囲を制限するわけではない。本願の明細書及び図面の内容を利用してなされた等価構造或いは等価流れ変換、或いは直接または間接的な他の関連する技術分野への応用は、同じ理由で本願の特許の保護範囲に含まれる。 The above are only examples of the present application, which are not intended to limit the protection scope of the present application. Equivalent structures or equivalent flow transformations made using the contents of the specification and drawings of the present application, or direct or indirect application to other related technical fields, are covered by the protection scope of the patent of the present application for the same reason. .

Claims (17)

エアコンが空気浄化負荷を起動して、室内ファンの回転速度を検知するステップと、
前記回転速度が既定回転速度より低いとき、エアコンの中の空気浄化負荷の電源通電時間と電源切断時間を取得するステップと、
前記電源通電時間と電源切断時間に基づいて間欠的に運転するように、前記空気浄化負荷を制御するステップと、を含み、
エアコンの中の空気浄化負荷の電源通電時間と電源切断時間を取得する前記ステップは、
前記回転速度に基づいて前記空気浄化負荷の電源通電時間と電源切断時間を取得するステップを含み、ここで、前記回転速度が大きいほど前記電源通電時間が長い
エアコンの制御方法。
the step of the air conditioner activating the air purification load and detecting the rotation speed of the indoor fan;
obtaining the power-on time and power-off time of the air purification load in the air conditioner when the rotation speed is lower than the predetermined rotation speed;
controlling the air purification load to operate intermittently based on the power ON time and the power OFF time ;
The step of acquiring the power ON time and the power OFF time of the air purification load in the air conditioner includes:
obtaining a power on time and a power off time of the air purification load based on the rotational speed, wherein the higher the rotational speed, the longer the power on time;
Air conditioner control method.
前記回転速度に基づいて前記空気浄化負荷の電源通電時間と電源切断時間を取得する前記ステップは、
前記回転速度が属する回転速度区間を確定するステップと、
前記回転速度区間に基づいて前記空気浄化負荷の電源通電時間と電源切断時間を確定するステップと、を含む
請求項に記載のエアコンの制御方法。
The step of acquiring the power ON time and the power OFF time of the air purification load based on the rotation speed,
determining a rotation speed interval to which the rotation speed belongs;
2. The air conditioner control method according to claim 1 , further comprising a step of determining a power-on time and a power-off time of said air purification load based on said rotational speed section.
エアコンの中の空気浄化負荷の電源通電時間と電源切断時間を取得する前記ステップはさらに、
エアコンが置かれている室内環境の湿度を取得するステップと、
前記湿度が既定湿度より大きいとき、前記回転速度に基づいて前記空気浄化負荷の電源通電時間と電源切断時間を取得するステップを実行するステップと、を含む
請求項に記載のエアコンの制御方法。
The step of acquiring the power ON time and the power OFF time of the air purification load in the air conditioner further comprises:
obtaining the humidity of the indoor environment in which the air conditioner is located;
2. The method of controlling an air conditioner according to claim 1 , further comprising the step of obtaining a power-on time and a power-off time of said air purification load based on said rotation speed when said humidity is higher than a predetermined humidity.
エアコンが置かれている室内環境の湿度を取得する前記ステップの後に、エアコンの中の空気浄化負荷の電源通電時間と電源切断時間を取得する前記ステップはさらに、
前記湿度が既定湿度より小さいとき、前記湿度に基づいて調節係数を取得するステップと、
前記回転速度に基づいて電源通電時間と電源切断時間を取得して、前記調節係数に基づいて前記電源通電時間と電源切断時間を調整するステップと、
調整後の前記電源通電時間と電源切断時間を前記空気浄化負荷の電源通電時間と電源切断時間とするステップと、を含む
請求項に記載のエアコンの制御方法。
After the step of obtaining the humidity of the indoor environment in which the air conditioner is placed, the step of obtaining the power ON time and the power off time of the air purification load in the air conditioner further comprises:
obtaining an adjustment factor based on the humidity when the humidity is less than a predetermined humidity;
obtaining a power on time and a power off time based on the rotational speed, and adjusting the power on time and the power off time on the basis of the adjustment coefficient;
4. The method of controlling an air conditioner according to claim 3 , further comprising the step of setting the adjusted power supply time and power supply off time to the power supply time and power supply off time of the air purification load.
室内ファンの回転速度を検知する前記ステップの後に、前記エアコンの制御方法はさらに、
前記回転速度が既定回転速度より高いとき、前記空気浄化負荷を連続的に運転させるステップを含む
請求項1に記載のエアコンの制御方法。
After the step of detecting the rotational speed of the indoor fan, the air conditioner control method further comprises:
2. The air conditioner control method according to claim 1, further comprising the step of continuously operating said air purification load when said rotation speed is higher than a predetermined rotation speed.
前記エアコンの制御方法はさらに、
前記回転速度が既定回転速度より高いとき、エアコンが置かれている室内環境の湿度を取得するステップと、
前記湿度が既定湿度より高いとき、前記空気浄化負荷を連続的に運転させるステップと、を含む
請求項に記載のエアコンの制御方法。
The air conditioner control method further comprises:
obtaining the humidity of the indoor environment where the air conditioner is placed when the rotational speed is higher than the predetermined rotational speed;
6. The method of controlling an air conditioner according to claim 5 , further comprising the step of continuously operating said air purification load when said humidity is higher than a predetermined humidity.
エアコンが置かれている室内環境の湿度を取得する前記ステップはさらに、
前記湿度が既定湿度より小さいとき、前記湿度に基づいて前記空気浄化負荷の電源通電時間と電源切断時間を取得するステップを含み、ここで、前記湿度が高いほど前記電源通電時間が長い、
請求項に記載のエアコンの制御方法。
The step of obtaining the humidity of the indoor environment in which the air conditioner is placed further comprises:
obtaining power-on time and power-off time of the air purification load based on the humidity when the humidity is lower than a predetermined humidity, wherein the higher the humidity, the longer the power-on time;
The air conditioner control method according to claim 6 .
前記エアコンの制御方法はさらに、
前記回転速度が既定回転速度より高いとき、エアコンが置かれている室内環境の汚染濃度を取得するステップと、
前記汚染濃度が既定汚染濃度より大きいとき、空気浄化負荷を連続的に運転させるステップと、を含む
請求項に記載のエアコンの制御方法。
The air conditioner control method further comprises:
obtaining the pollutant concentration of the indoor environment where the air conditioner is located when the rotation speed is higher than the predetermined rotation speed;
The air conditioner control method according to claim 5 , comprising the step of continuously operating an air purification load when the pollution concentration is higher than a predetermined pollution concentration.
エアコンが置かれている室内環境の汚染濃度を取得する前記ステップの後に、さらに、
前記汚染濃度が既定汚染濃度より小さいとき、前記汚染濃度に基づいて前記空気浄化負荷の電源通電時間と電源切断時間を取得するステップを含み、ここで、前記汚染濃度が大きいほど前記電源通電時間が長い、
請求項に記載のエアコンの制御方法。
After the step of obtaining the pollutant concentration of the indoor environment where the air conditioner is placed,
obtaining a power-on time and a power-off time of the air purification load based on the pollution concentration when the pollution concentration is less than a predetermined pollution concentration, wherein the power-on time increases as the pollution concentration increases; long,
The air conditioner control method according to claim 8 .
エアコンが空気浄化負荷を起動して、エアコンが置かれている室内環境の湿度を取得するステップと、
前記湿度が既定湿度より低いとき、エアコンの中の空気浄化負荷の電源通電時間と電源切断時間を取得するステップと、
前記電源通電時間と電源切断時間に基づいて間欠的に運転するように、前記空気浄化負荷を制御するステップと、を含み、
エアコンの中の空気浄化負荷の電源通電時間と電源切断時間を取得する前記ステップは、
前記湿度に基づいて前記空気浄化負荷の電源通電時間と電源切断時間を取得するステップを含み、ここで、前記湿度が大きいほど前記電源通電時間が長い
エアコンの制御方法。
the air conditioner activating an air purification load to obtain the humidity of the indoor environment in which the air conditioner is located;
obtaining the power-on time and power-off time of the air purification load in the air conditioner when the humidity is lower than the predetermined humidity;
controlling the air purification load to operate intermittently based on the power ON time and the power OFF time ;
The step of acquiring the power ON time and the power OFF time of the air purification load in the air conditioner includes:
obtaining a power on time and a power off time of the air purification load based on the humidity, wherein the higher the humidity, the longer the power on time;
Air conditioner control method.
前記湿度に基づいて前記空気浄化負荷の電源通電時間と電源切断時間を取得する前記ステップは、
前記湿度が属する湿度区間を確定するステップと、
前記湿度区間に基づいて前記空気浄化負荷の電源通電時間と電源切断時間を確定するステップと、を含む
請求項10に記載のエアコンの制御方法。
The step of acquiring the power ON time and the power OFF time of the air purification load based on the humidity,
determining a humidity interval to which the humidity belongs;
11. The method of controlling an air conditioner according to claim 10 , further comprising determining a power-on time and a power-off time of the air purification load based on the humidity interval.
エアコンが置かれている室内環境の湿度を取得する前記ステップの後に、前記エアコンの制御方法はさらに、
前記湿度が既定湿度より大きいとき、前記空気浄化負荷を連続的に運転させるステップを含む
請求項10に記載のエアコンの制御方法。
After the step of obtaining the humidity of the indoor environment in which the air conditioner is placed, the method for controlling the air conditioner further comprises:
11. The air conditioner control method according to claim 10 , further comprising the step of continuously operating said air purification load when said humidity is higher than a predetermined humidity.
前記電源通電時間と電源切断時間に基づいて間欠的に運転するように前記空気浄化負荷を制御する前記ステップの後に、前記エアコンの制御方法はさらに、
エアコンが置かれている室内の汚染濃度を取得するステップと、
前記汚染濃度が既定汚染濃度より大きいとき、前記エアコンの加湿装置を運転するように制御して、エアコンが置かれている環境の湿度を取得するステップと、
前記湿度が前記既定湿度より高いとき、前記空気浄化負荷を連続的に運転させる前記ステップを実行するステップと、を含む
請求項12に記載のエアコンの制御方法。
After the step of controlling the air purification load to operate intermittently based on the power ON time and the power OFF time, the method for controlling the air conditioner further comprises:
obtaining a pollutant concentration in the room where the air conditioner is placed;
controlling the operation of the humidifier of the air conditioner to obtain the humidity of the environment where the air conditioner is placed when the pollution concentration is greater than a predetermined pollution concentration;
13. The method of controlling an air conditioner according to claim 12 , further comprising executing the step of continuously operating the air purification load when the humidity is higher than the predetermined humidity.
エアコンの中の空気浄化負荷の電源通電時間と電源切断時間を取得する前記ステップはさらに、
室内ファンの回転速度を検知するステップと、
前記回転速度が既定回転速度より小さいとき、前記回転速度に基づいて調節係数を取得するステップと、
前記湿度に基づいて電源通電時間と電源切断時間を取得して、前記調節係数に基づいて前記電源通電時間と電源切断時間を調整するステップと、
調整後の前記電源通電時間と電源切断時間を前記空気浄化負荷の電源通電時間と電源切断時間とするステップと、を含む
請求項10に記載のエアコンの制御方法。
The step of acquiring the power ON time and the power OFF time of the air purification load in the air conditioner further comprises:
a step of detecting the rotation speed of the indoor fan;
obtaining an adjustment factor based on the rotational speed when the rotational speed is less than a predetermined rotational speed;
obtaining a power-on time and a power-off time based on the humidity, and adjusting the power-on time and the power-off time based on the adjustment coefficient;
11. The method of controlling an air conditioner according to claim 10 , further comprising: setting the adjusted power supply time and power supply off time to the power supply time and power supply off time of the air purification load.
エアコンの中の空気浄化負荷の電源通電時間と電源切断時間を取得する前記ステップの後に、さらに、
前記回転速度が既定回転速度より大きいとき、前記湿度に基づいて電源通電時間と電源切断時間を取得するステップを含む
請求項14に記載のエアコンの制御方法。
After the above step of acquiring the power ON time and power OFF time of the air purification load in the air conditioner,
15. The method of controlling an air conditioner according to claim 14 , further comprising obtaining a power ON time and a power OFF time based on the humidity when the rotational speed is higher than a predetermined rotational speed.
プロセッサー、メモリー及び前記メモリーに記憶されて且つ前記プロセッサー上で実行できるエアコンの制御プログラムを含むエアコンであって、前記エアコンの制御プログラムが前記プロセッサーにより実行された時に請求項1~15のいずれか一つに記載のエアコンの制御方法を実現する
エアコン。
An air conditioner comprising a processor, a memory, and an air conditioner control program stored in said memory and executable on said processor, when said air conditioner control program is executed by said processor . To realize the air conditioner control method described in one
Air conditioner.
エアコンの制御プログラムが記憶されている記憶媒体であって、前記エアコンの制御プログラムがプロセッサーにより実行されたときに請求項1~15のいずれか一つに記載のエアコンの制御方法を実現する
記憶媒体。
A storage medium storing an air conditioner control program , which implements the air conditioner control method according to any one of claims 1 to 15 when the air conditioner control program is executed by a processor.
storage medium.
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JP2000314548A (en) 1999-04-30 2000-11-14 Sanyo Electric Co Ltd Positive pressure air supply air cleaner
JP2003194386A (en) 2001-12-27 2003-07-09 Fujitsu General Ltd Control method for air conditioner
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