CN109891159A - Air conditioner indoor unit - Google Patents

Air conditioner indoor unit Download PDF

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Publication number
CN109891159A
CN109891159A CN201780065236.5A CN201780065236A CN109891159A CN 109891159 A CN109891159 A CN 109891159A CN 201780065236 A CN201780065236 A CN 201780065236A CN 109891159 A CN109891159 A CN 109891159A
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China
Prior art keywords
air
temperature
indoor unit
air conditioner
switching mechanism
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Granted
Application number
CN201780065236.5A
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Chinese (zh)
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CN109891159B (en
Inventor
米田纯也
藤冈裕记
伊藤裕
一桐正志
盐野裕介
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Daikin Industries Ltd
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Daikin Industries Ltd
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Publication of CN109891159A publication Critical patent/CN109891159A/en
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Publication of CN109891159B publication Critical patent/CN109891159B/en
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Classifications

    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
    • F24F11/00—Control or safety arrangements
    • F24F11/70—Control systems characterised by their outputs; Constructional details thereof
    • F24F11/72—Control systems characterised by their outputs; Constructional details thereof for controlling the supply of treated air, e.g. its pressure
    • F24F11/74—Control systems characterised by their outputs; Constructional details thereof for controlling the supply of treated air, e.g. its pressure for controlling air flow rate or air velocity
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
    • F24F11/00—Control or safety arrangements
    • F24F11/70—Control systems characterised by their outputs; Constructional details thereof
    • F24F11/72—Control systems characterised by their outputs; Constructional details thereof for controlling the supply of treated air, e.g. its pressure
    • F24F11/79—Control systems characterised by their outputs; Constructional details thereof for controlling the supply of treated air, e.g. its pressure for controlling the direction of the supplied air
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
    • F24F2110/00—Control inputs relating to air properties
    • F24F2110/10—Temperature

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  • Engineering & Computer Science (AREA)
  • Chemical & Material Sciences (AREA)
  • Combustion & Propulsion (AREA)
  • Mechanical Engineering (AREA)
  • General Engineering & Computer Science (AREA)
  • Physics & Mathematics (AREA)
  • Fluid Mechanics (AREA)
  • Air Conditioning Control Device (AREA)

Abstract

Air conditioner indoor unit is provided, the temperature for being easy to eliminate air-conditioning object space in refrigeration is uneven, can be realized the excellent comfort of air-conditioning object space.Air conditioner indoor unit includes the shell for being provided with suction inlet and blow-off outlet；Heat exchange is carried out with the air sucked from suction inlet and hot indoor heat exchanger is seized from air；The indoor fan of the air after heat exchange is carried out by indoor heat exchanger from blow-off outlet blowout；Wind direction switching mechanism；With switching mechanism control unit.Wind direction switching mechanism switches the wind direction of the blow out air blown out from blow-off outlet at least between the 1st direction and the 2nd direction.1st direction is horizontal or close to horizontal direction.2nd direction is vertical downwards or close to vertical downwardly direction.When blow out air is blown out to the 1st direction, when detecting or deducing the generation temperature unevenness in air-conditioning object space, switching mechanism control unit is controlled such that blow out air is temporarily blown out to the 2nd direction to the movement of wind direction switching mechanism.

Description

Air conditioner indoor unit
Technical field
The present invention relates to air conditioner indoor unit.
Background technique
Such as patent document 1 (Japanese Unexamined Patent Publication 2013-076530 bulletin), there is known in following air conditioning chamber Machine: hot air is seized by heat exchanger to horizontal direction or close to the direction blowout of horizontal direction, carries out air-conditioning object space Refrigeration.By from air conditioner indoor unit to horizontal direction or close to horizontal direction towards blow out air, thus in air-conditioning object Circulating current is generated in space, therefore, air-conditioning object space is integrally easy equally to carry out air conditioning.
Summary of the invention
Subject to be solved by the invention
But from air conditioner indoor unit to horizontal direction or close to horizontal direction towards blow out air, from The air of air conditioner indoor unit blowout is not easily accessible near the underface of air conditioner indoor unit.Accordingly, it is possible in air-conditioning object space Middle generation temperature is uneven, and about comfort, there are rooms for improvement.
It is easy to eliminate the temperature unevenness of air-conditioning object space in refrigeration problem of the present invention is that providing, can be realized The air conditioner indoor unit of the excellent comfort of air-conditioning object space.
Means for solving the problems
The air conditioner indoor unit of 1st viewpoint of the invention has shell, heat exchanger, fan, wind direction switching mechanism and switching Mechanism controls portion.Shell is provided with suction inlet and blow-off outlet.Heat exchanger carries out heat exchange with the air sucked from suction inlet, Heat is seized from air.Fan blows out from blow-off outlet and carries out the air after heat exchange by heat exchanger.Wind direction switching mechanism at least exists Switch the wind direction of the blow out air blown out from blow-off outlet between 1st direction and the 2nd direction.1st direction is horizontal or close level Direction.2nd direction is vertical downwards or close to vertical downwardly direction.When blow out air is blown out to the 1st direction, work as detection Out or deduce when generating temperature unevenness in air-conditioning object space, switching mechanism control unit to the movement of wind direction switching mechanism into Row control, so that blow out air is temporarily blown out to the 2nd direction.
For the air conditioner indoor unit of the 1st viewpoint of the invention, blown out to the 1st direction (horizontal or close to horizontal direction) Air and freezed (including dehumidifying) when, when detecting or deducing the temperature unevenness of air-conditioning object space, to the 2nd direction (vertical downwards or the direction downward close to vertical) blow out air.The blow out air into the air blowout towards the 1st direction as a result, The vertical close beneath supply for the air conditioner indoor unit being not easily accessible to carries out the air after air conditioning, can eliminate air-conditioning object The temperature in space is uneven, can be realized the excellent comfort of air-conditioning object space.
For the air conditioner indoor unit of 2nd viewpoint of the invention in the air conditioner indoor unit of the 1st viewpoint, air conditioner indoor unit also has use In the temperature unevenness detection sensor and temperature unevenness test section of detection temperature unevenness.Temperature unevenness test section according to temperature not The measurement result of equal detection sensor detects the situation that temperature unevenness is generated in air-conditioning object space.It is empty in blowout When gas is blown out to the 1st direction, switching mechanism control unit is according to the testing result of temperature unevenness test section to wind direction switching mechanism Movement is controlled, so that blow out air is temporarily blown out to the 2nd direction.
In the air conditioner indoor unit of the 2nd viewpoint of the invention, temperature is accurately detected not according to the measurement result of sensor Equal generation can be controlled by the wind direction of blow out air to eliminate temperature unevenness.
For the air conditioner indoor unit of 3rd viewpoint of the invention in the air conditioner indoor unit of the 2nd viewpoint, air conditioner indoor unit is wall hanging Formula.Temperature unevenness detection sensor includes the 1st temperature sensor.The temperature of the lower section of 1st temperature sensor measurement air conditioner indoor unit Degree.
In the air conditioner indoor unit of the 3rd viewpoint of the invention, according to the temperature of the lower section to wall-mounted air conditioner indoor unit The measurement result of the 1st temperature sensor measured is uneven to detect temperature, therefore, is easy without omitting ground accurately detection temperature Degree is uneven.
The air conditioner indoor unit of 4th viewpoint of the invention is in the air conditioner indoor unit of the 3rd viewpoint, temperature unevenness detection sensor It further include the 2nd temperature sensor.The air-conditioning object space that 2nd temperature sensor pair is separated with the wall for being provided with air conditioner indoor unit Temperature measures.Temperature unevenness test section is according to the measured value of the 1st temperature sensor and the measured value of the 2nd temperature sensor Comparison result, the temperature for detecting air-conditioning object space are uneven.
In the air conditioner indoor unit of the 4th viewpoint of the invention, according to the position separated with the wall for being provided with air conditioner indoor unit Air-conditioning object space temperature and air conditioner indoor unit lower section temperature measurement result come detect temperature unevenness, therefore, hold It is easily uneven without omitting the accurate detection temperature in ground.
The air conditioner indoor unit of 5th viewpoint of the invention in the air conditioner indoor unit of the 3rd viewpoint, temperature unevenness test section according to The ongoing change of the temperature of 1st temperature sensor measurement examines the situation that temperature unevenness is generated in air-conditioning object space It surveys.
In the air conditioner indoor unit of the 5th viewpoint of the invention, using only the lower section for measuring wall-mounted air conditioner indoor unit 1st temperature sensor of temperature, i.e., it is uneven by comparing simple structure detection temperature, the wind direction control of blow out air can be passed through System is uneven to eliminate temperature.
The air conditioning chamber of any one viewpoint of the air conditioner indoor unit of 6th viewpoint of the invention in the 1st viewpoint~the 5th viewpoint In interior machine, air conditioner indoor unit also has temperature unevenness presumption unit.It is more than the in the time that blow out air is continuously blown out to the 1st direction In the case where 1 time, temperature unevenness presumption unit is estimated as producing temperature unevenness in air-conditioning object space.Blow out air to When 1st direction is blown out, movement of the switching mechanism control unit according to the presumption result of temperature unevenness presumption unit to wind direction switching mechanism It is controlled, so that blow out air is temporarily blown out to the 2nd direction.
In the air conditioner indoor unit of the 6th viewpoint of the invention, it is easy when according to the 1st direction blow out air of direction in air conditioning chamber The underface of interior machine generates characteristic as temperature unevenness, suitably estimates the generation of temperature unevenness, can eliminate temperature unevenness, And then it is able to suppress the generation of temperature unevenness.
In addition, in the case where air conditioner indoor unit has temperature unevenness detection sensor, sometimes according to situation in temperature Uneven detection sensor is difficult to the position measured and generates temperature unevenness.But here, blow out air to the 1st direction for a long time The generation that temperature unevenness is estimated when continuous blowout, therefore, even sensor is difficult to the temperature of the air-conditioning object space detected not , temperature unevenness can also be eliminated.
The air conditioning chamber of any one viewpoint of the air conditioner indoor unit of 7th viewpoint of the invention in the 1st viewpoint~the 6th viewpoint In interior machine, air conditioner indoor unit also has room temperature sensor, space humidity sensor and control permission portion.Space temperature sensing The temperature of device detection air-conditioning object space.The humidity of space humidity sensor detection air-conditioning object space.Controlling permission portion allows Switching mechanism control unit controls the movement of wind direction switching mechanism.It is regulation temperature in the temperature of room temperature sensor detection Below degree and in the case that it is more than the time to continue the 2nd for specified humidity state below for the humidity of space humidity sensor detection, Control permission portion allows switching mechanism control unit to be controlled such that blow out air to the 2nd side the movement of wind direction switching mechanism To blowout.
In the air conditioner indoor unit of the 7th viewpoint of the invention, preferentially to easy generation circulating air in air-conditioning object space 1st direction blow out air of stream, until the temperature/humidity of air-conditioning object space meets rated condition.As a result, with true It protects premised on the comfort as air-conditioning object space entirety, the generation of temperature unevenness can be eliminated and further realize comfort Raising.
The air conditioner indoor unit of 8th viewpoint of the invention is in the air conditioner indoor unit of the 7th viewpoint, after operation start, in sky In the case where adjusting indoor unit to be more than the 3rd time to the endurance period that the 1st direction starts blowout blow out air for the first time, control Permission portion further allows switching mechanism control unit to be controlled such that blow out air to the 2nd the movement of wind direction switching mechanism Direction blowout.
In the air conditioner indoor unit of the 8th viewpoint of the invention, just start in the operating for being particularly easy to generate temperature unevenness Later, it is unrelated that rated condition whether is met with the temperature/humidity of air-conditioning object space, blow out air is allowed to blow towards the 2nd direction Out.Therefore, it is easy to eliminate the generation of the temperature unevenness after operating just starts.
The air conditioning chamber of any one viewpoint of the air conditioner indoor unit of 9th viewpoint of the invention in the 1st viewpoint~the 8th viewpoint In interior machine, air conditioner indoor unit also has the Boiler pressure control portion controlled the air quantity of fan.Wind direction switching mechanism is empty to blowout The wind direction of gas in a manner of continuously changing to the 2nd direction or continuously change from the 2nd direction to the 1st direction from the 1st direction into Row switching.The wind direction of blow out air is switched from the 1st direction to the 2nd direction in wind direction switching mechanism or from the 2nd direction to the 1st side During switching, Boiler pressure control portion makes fan of the air quantity of fan than blowing out blow out air to the 1st direction and the 2nd direction when Air quantity is reduced.
In the air conditioner indoor unit of the 9th viewpoint of the invention, it can be avoided wind and directly blow in air-conditioning object space People, it is not easy to damage comfort.
In the air conditioner indoor unit of the 9th viewpoint, Boiler pressure control portion makes to the 2nd the air conditioner indoor unit of 10th viewpoint of the invention The air quantity of fan when the air quantity of fan when direction blows out blow out air is than blowing out from blow out air to the 1st direction is reduced.
In the air conditioner indoor unit of the 10th viewpoint of the invention, in blow out air downward towards vertical, air quantity is reduced, because This, is easy that wind is inhibited directly to blow to the people in air-conditioning object space, is easy to prevent the reduction of comfort.
Invention effect
For the air conditioner indoor unit of the 1st viewpoint of the invention, blown out to the 1st direction (horizontal or close to horizontal direction) Air and freezed (including dehumidifying) when, when detecting or deducing the temperature unevenness of air-conditioning object space, to the 2nd direction (vertical downwards or the direction downward close to vertical) blow out air.The blow out air into the air blowout towards the 1st direction as a result, The vertical close beneath supply for the air conditioner indoor unit being not easily accessible to carries out the air after air conditioning, can eliminate air-conditioning object The temperature in space is uneven, can be realized the excellent comfort of air-conditioning object space.
In the 2nd viewpoint~the 4th viewpoint air conditioner indoor unit of the invention, accurately examined according to the measurement result of sensor Testing temperature is uneven, can be controlled by the wind direction of blow out air to eliminate temperature unevenness.
It is uneven by comparing simple structure detection temperature in the air conditioner indoor unit of the 5th viewpoint of the invention, Neng Goutong The wind direction control of blow out air is crossed to eliminate temperature unevenness.
In the air conditioner indoor unit of the 6th viewpoint of the invention, it is easy according to when towards the 1st direction blow out air in air-conditioning The underface of indoor unit generates characteristic as temperature unevenness, suitably estimates the generation of temperature unevenness, can eliminate temperature not , and then it is able to suppress the generation of temperature unevenness.
In the air conditioner indoor unit of the 7th viewpoint of the invention, to ensure that the comfort as air-conditioning object space entirety is Premise can eliminate the generation of temperature unevenness and further realize the raising of comfort.
In the air conditioner indoor unit of the 8th viewpoint of the invention, even if being particularly easy to the operating of generation temperature unevenness just After beginning, also it is easy to eliminate the generation of temperature unevenness.
In the air conditioner indoor unit of the 9th viewpoint or the 10th viewpoint of the invention, it is easy that wind is inhibited directly to blow to positioned at air-conditioning People in object space is easy to prevent the reduction of comfort.
Detailed description of the invention
Fig. 1 is the approximate stereogram of the air conditioner indoor unit of an embodiment of the invention.
Fig. 2 is the outline longitudinal section view of the air conditioner indoor unit of Fig. 1.
Fig. 3 is the block diagram of the air conditioner indoor unit of Fig. 1.
Fig. 4 is the outline longitudinal section view of the air conditioner indoor unit of Fig. 1 in the state of the 2nd direction blow out air.
At the switching of the wind direction of blow out air when Fig. 5 is the air conditioner indoor unit of explanatory diagram 1, circulation pattern refrigeration operation The flow chart of reason.
Specific embodiment
In the following, being illustrated referring to air conditioner indoor unit 10 of the attached drawing to an embodiment of the invention.In addition, following institute The embodiment shown only concrete example of the invention, does not limit technical scope of the invention.
In the following description, for ease of description, sometimes using tables such as "upper", "lower", "left", "right", "front", "rear" It states and configuration and direction is illustrated.In the case where no especially record, these statements are based on arrow shown in figure.
(1) whole summary
Air conditioner indoor unit 10 constitutes a part of air conditioner together with air-conditioner outdoor unit (not shown).Air conditioner makes refrigerant It is recycled in the refrigerant circuit of indoor heat exchanger 13 for including air conditioner indoor unit 10, has thus been configured air conditioning chamber The refrigeration of the air-conditioning object space RS of interior machine 10 and heating (referring to Fig. 2).In addition, refrigeration here further includes air-conditioning object space The dehumidifying of RS.In addition, in the present embodiment, air conditioner can implement the refrigeration and heating of air-conditioning object space RS, but not It is limited to this.Air conditioner is also possible to the dedicated air conditioner that freezes.
Fig. 1 is the approximate stereogram of air conditioner indoor unit 10.Fig. 2 be by the air conditioner indoor unit 10 in Fig. 1 in left and right directions Substantial middle is cut off using the plane vertical with left and right directions and is observed from the right the outline longitudinal section view in its section.Fig. 1 and figure 2 depict the air conditioner indoor unit 10 in operating.Particularly, Fig. 1 and Fig. 2 is depicted from aftermentioned blow-off outlet 27 to the aftermentioned 1st Air conditioner indoor unit 10 when the blow out air of direction.Fig. 3 is the block diagram of air conditioner indoor unit 10.
Air conditioner indoor unit 10 be it is wall-mounted, be set to wall WL (referring to Figures 1 and 2).Specifically, air conditioner indoor unit 10 Rear portion is installed on wall WL.
Air conditioner indoor unit 10 mainly has shell 11, air filter 12, indoor heat exchanger 13, indoor fan 14, bottom Frame 16, wind direction switching mechanism 30, floor temperature sensor 70, room temperature sensor 71, space humidity sensor 72 and control Unit 80 (referring to Fig.1~Fig. 3).
(2) detailed construction
(2-1) shell
Shell 11 has the shape of the substantially rectangular parallelepiped extended in left-right direction longlyer.Shell 11 is stored inside it There are air filter 12, indoor heat exchanger 13, indoor fan 14, chassis 16, wind direction switching mechanism 30 and control unit 80 etc..
As depicted in figs. 1 and 2, shell 11 has top part 11a, front face 11b, the right side face covered by decorative panel 20 11d, left side face 11e and bottom surface sections 11f and the rear face 11c for being provided with backplate 28.Backplate 28 is fastened by screw Etc. mounting plate (not shown) is installed on, which is set to wall WL, and air conditioner indoor unit 10 is installed on wall WL as a result,.
The top part 11a of shell 11 is provided with top surface suction inlet 25 (referring to Fig. 2).When indoor fan 14 is driven, Air is sucked from top surface suction inlet 25 to the inside of shell 11.The air for the air-conditioning object space RS being taken into from top surface suction inlet 25 Indoor fan 14 is sent to across air filter 12 and indoor heat exchanger 13.
Decorative panel 20 of the upper end by hinge bearing (not shown) to rotate freely is installed in the front face 11b of shell 11 (front panel 21) (referring to Fig. 2).The decorative panel 20 (right side plate 22) and covering of front panel 21 and covering right side face 11d are left The decorative panel 20 (left plate 23) of side surface part 11e separates (referring to Figures 1 and 2).
The bottom surface sections 11f of shell 11 is provided with bottom surface suction inlet 26 (referring to Fig. 2).In bottom surface, suction inlet 26 is arranged useful In the opening-closing plate 17 for the opening and closing for carrying out bottom surface suction inlet 26.In addition, being provided with blow-off outlet 27 in bottom surface sections 11f (referring to Fig. 2).Bottom The position more more rearward than blow-off outlet 27 is arranged in face suction inlet 26.
The space that bottom surface suction inlet 26 passes through suction passage 16a and the top positioned at air filter 12 in shell 11 Connection (referring to Fig. 2).Suction passage 16a is formed in the position more more rearward than indoor fan 14, is in the inside of shell 11 The flow path that back-surface side vertically extends.When driving indoor fan 14 in the state that opening-closing plate 17 is opened, the bottom of from Face suction inlet 26 sucks air.The air sucked from bottom surface suction inlet 26 passes through suction passage 16a and passes through air filter 12 Indoor fan 14 is sent to indoor heat exchanger 13.
Blow-off outlet 27 is the generally rectangular opening using left and right directions as long side.Blow-off outlet 27, which has, is configured at front side And in left-right direction longer the upper limb 27a extended and it is configured at rear side and in left-right direction longer the lower edge extended 27b (referring to Fig. 2).Blow-off outlet 27 blows out flow path 16b by swirled air and connect with the inside of shell 11 (referring to Fig. 2).Whirlpool Revolve air blow out flow path 16b from the underface of indoor fan 14 forwards obliquely downward towards blow-off outlet 27 extend.It is sucked from top surface Mouthfuls 25 and after the room air that sucks of bottom surface suction inlet 26 carries out heat exchange in heat exchanger 13 indoors, it is blown by swirled air Flow path 16b is from blow-off outlet 27 to indoor blowout out.
(2-2) air filter
Air filter 12 is for trapping the air-conditioning object space sucked from top surface suction inlet 25 and bottom surface suction inlet 26 The filter of dust in the air of RS.Air filter 12 prevents dust to be attached to the surface of indoor heat exchanger 13.Air Filter 12 is configured between the top part 11a of shell 11 and front face 11b and indoor heat exchanger 13 (referring to Fig. 2).Air Filter 12 is configured to be dismounted to be safeguarded.
(2-3) indoor heat exchanger
Indoor heat exchanger 13 is constituted by multiple fins and through multiple heat-transfer pipes of multiple fins.Indoor heat exchanger 13 It is installed on chassis 16, which is accommodated in shell 11.
As shown in Fig. 2, indoor heat exchanger 13 has the shape of the substantially inverted V-shape of both ends downward when viewing from the side Shape.Indoor heat exchanger 13 is configured at the top of indoor fan 14 in a manner of covering indoor fan 14.
Air conditioner indoor unit 10 constitutes a part of air conditioner, carries out the refrigeration (packet of air-conditioning object space RS in the air conditioner Include dehumidifying) when, indoor heat exchanger 13 is functioned as evaporator.In other words, air-conditioning object space RS is carried out in air conditioner Refrigeration when, indoor heat exchanger 13 carries out heat exchange with the air sucked from top surface suction inlet 25 and bottom surface suction inlet 26, from Air seizes heat.More specifically, when air conditioner carries out the refrigeration of air-conditioning object space RS, from top surface suction inlet 25 and bottom Heat exchange is carried out between the refrigerant flowed in the heat-transfer pipe of air and indoor heat exchanger 13 that face suction inlet 26 sucks, from sky Gas seizes heat.
On the other hand, when air conditioner carries out the heating of air-conditioning object space RS, indoor heat exchanger 13 is used as condenser It functions.In other words, when air conditioner carries out the heating of air-conditioning object space RS, indoor heat exchanger 13 is sucked with from top surface The air that mouth 25 and bottom surface suction inlet 26 suck carries out heat exchange, assigns heat to air.More specifically, it is carried out in air conditioner empty When adjusting the heating of object space RS, in the air and indoor heat exchanger 13 sucked from top surface suction inlet 25 and bottom surface suction inlet 26 Heat-transfer pipe in carry out heat exchange between the refrigerant that flows, assign heat to air.
(2-4) indoor fan
As shown in Fig. 2, indoor fan 14 is configured at the substantial middle part of the inside of shell 11.Indoor fan 14 is along sky The cross flow fan for the substantially cylindrical shape for adjusting the length direction (left and right directions) of indoor unit 10 to extend.When indoor fan 14 is rotated When driving, the air of air-conditioning object space RS passes through air filter from top surface suction inlet 25 and the sucking of bottom surface suction inlet 26 12, then pass through indoor heat exchanger 13.Then, indoor fan 14 is blown out from blow-off outlet 27 to air-conditioning object space RS by interior Heat exchanger 13 has carried out the air after heat exchange (having carried out air conditioning).
(2-5) chassis
16 support air filter 12 of chassis, indoor heat exchanger 13 and indoor fan 14 (referring to Fig. 2).In addition, in shell In body 11, suction passage 16a is formed by chassis 16 and swirled air blows out flow path 16b (referring to Fig. 2).Swirled air blowout stream Road 16b be sandwiched in the flow path upper surface 16c for being configured at front side and be configured at rear side flow path lower surface 16d between sky Between (referring to Fig. 2).
(2-6) wind direction switching mechanism
Wind direction switching mechanism 30 is to switch the wind direction of the blow out air blown out from blow-off outlet 27 and be adjusted to wind direction Mechanism.
Wind direction switching mechanism 30 has the wind direction extended in left-right direction and for switching blow out air in the up-down direction The 1st overhead gage 40, the 2nd overhead gage 50 and lower baffle plate 60 (referring to Figures 1 and 2).It is used in addition, wind direction switching mechanism 30 has Switch multiple vertical baffles 15 (referring to Figure 1 and Figure 3) of the wind direction of blow out air in the lateral direction.
1st overhead gage 40 and the 2nd overhead gage 50 are set to the side upper limb 27a of blow-off outlet 27 (referring to Fig. 2).Lower baffle plate 60 is set It is placed in the side lower edge 27b of blow-off outlet 27 (referring to Fig. 2).
1st overhead gage 40 has under the state (from blow-off outlet 27 to the state of aftermentioned 1st direction blow out air) of Fig. 2 The 1st overhead gage upper surface 41 for being configured at top and the 1st overhead gage lower surface 42 for being configured at lower part.1st overhead gage 40 has The 1st end 43 for being configured at front side in a state of fig. 2 and the 2nd end 44 for being configured at rear side.2nd overhead gage 50, which has, is scheming It is configured at the 2nd overhead gage upper surface 51 on top in the state of 2 and is configured at the 2nd overhead gage lower surface 52 of lower part (referring to figure 2).The 2nd end 54 that 2nd overhead gage 50 has the 1st end 53 for being configured at front side in a state of fig. 2 and is configured at rear side. Lower baffle plate 60, which has, to be configured at the lower baffle plate upper surface 61 on top in a state of fig. 2 and is configured at the lower baffle plate lower surface of lower part 62.The 2nd end 64 that lower baffle plate 60 has the 1st end 63 for being configured at front side in a state of fig. 2 and is configured at rear side.
1st overhead gage 40, the 2nd overhead gage 50 and lower baffle plate 60 are rotatably installed on shell 11 respectively.Wind To switching mechanism 30 there is the barrier driving driven respectively to the 1st overhead gage 40, the 2nd overhead gage 50 and lower baffle plate 60 to use horse Up to (not shown).1st overhead gage 40, the 2nd overhead gage 50 and lower baffle plate 60 are configured to by being controlled by control unit 80 Barrier driving is separately rotated with motor.1st overhead gage 40, the 2nd overhead gage 50 and lower baffle plate 60 are by barrier driving It is driven with motor, rotation center 45, rotation center 55 and the rotation of rotation center 65 extended rotating around left and right (referring to Fig. 4).Rotation Turn center 45, rotation center 55 and rotation center 65 be respectively arranged at the 2nd end 44 of the 1st overhead gage 40, the 2nd overhead gage 50 Near 2 ends 54 and the 2nd end 64 of lower baffle plate 60.In addition, being omitted in rotation center 45, rotation center 55 and rotation in Fig. 2 The description of the heart 65.
1st overhead gage 40, the 2nd overhead gage 50 and lower baffle plate 60 are used in the operating of air conditioner indoor unit 10 by barrier driving Motor is rotated and takes defined posture, as a result, individually or blow in the up-down direction from blow-off outlet 27 with cooperating The wind direction of air out is adjusted.Wind direction is adjusted by the 1st overhead gage 40, the 2nd overhead gage 50 and lower baffle plate 60, by This, from the air that blow-off outlet 27 is blown out under approximate horizontal front or front direction or substantially vertical is blown out downwards.In addition, lower block Plate 60 opens blow-off outlet 27 in the operating of air conditioner indoor unit 10, closes blow-off outlet 27 when operating and stopping.2nd overhead gage 50 exists Close to shell 11 when operating stops, the posture as a part of shell 11 is taken together with decorative panel 20.
Being provided in the rear side (upstream side on the air supply direction of indoor fan 14) of the 1st overhead gage 40 has and left and right The multiple vertical baffles 15 (referring to Fig.1 and Fig. 4) for the plane that direction intersects.In addition, omitting retouching for vertical baffle 15 in Fig. 2 It draws.Wind direction switching mechanism 30 has the barrier driving that is driven to vertical baffle 15 with motor (not shown).Vertical baffle 15 Around the rotation center (not shown) extended up and down and being configured to the barrier driving motor by being controlled by control unit 80 Rotation.Vertical baffle 15 or so adjusts the wind direction of the air blown out from blow-off outlet 27.
The direction of blow out air when (2-6-1) circulation pattern refrigeration operation
In the following, in circulation pattern refrigeration operation (in order to carry out the refrigeration (including dehumidifying) of air-conditioning object space RS When operating air conditioner indoor unit 10 using aftermentioned circulation pattern) it is said from the wind direction of the blow out air of the blowout of blow-off outlet 27 It is bright.In addition, here, carrying out wind direction to by the 1st overhead gage 40, the 2nd overhead gage 50 and lower baffle plate 60 of wind direction switching mechanism 30 The wind direction of blow out air of adjustment (switching) be illustrated.
Wind direction switching mechanism 30 is in circulation pattern refrigeration operation, at least horizontal or close to the 1st horizontal direction and lead The wind direction of the blow out air blown out from blow-off outlet 27 is switched under vertical or close between the 2nd downward direction of vertical.Separately Outside, be also configured in circulation pattern refrigeration operation, from blow-off outlet 27 blow out blow out air wind direction as needed into One step is switched to the direction (such as under front direction) other than the 1st direction and the 2nd direction.
In addition, the wind direction of the blow out air blown out from blow-off outlet 27 is being switched from the 1st direction to the 2nd direction or from the 2nd When direction switches to the 1st direction, wind direction switching mechanism 30 connects the posture of the 1st overhead gage 40, the 2nd overhead gage 50 and lower baffle plate 60 Change continuously.That is, wind direction switching mechanism 30 is to the wind direction of the blow out air blown out from blow-off outlet 27 from the 1st direction to the 2nd side It is switched over to continuously variation or from the 2nd direction to the mode that the 1st direction continuously changes.
(A) the 1st direction
1st direction is horizontal or close to horizontal direction.
Wind direction switching mechanism 30 cuts the wind direction of the blow out air blown out from blow-off outlet 27 in circulation pattern refrigeration operation It is changed to the 1st direction (being set as the 1st direction).In addition, circulation pattern is the operation mode of following air conditioner indoor unit 10: from blowout Air-flow is sent to the inboard of air-conditioning object space RS mainly to the 1st direction blow out air by mouth 27 as a result, makes to carry out air conditioning Air afterwards is recycled in air-conditioning object space RS.
(in the following, to simplify the explanation, sometimes referred to as the 1st direction is blown when from blow-off outlet 27 to the 1st direction blow out air When out), the air blown out from blow-off outlet 27 is according to ceiling, opposed with the wall WL of air conditioner indoor unit 10 is provided with relative to sky Indoor unit 10 is adjusted to be located at inboard wall (wall of the front side of air conditioner indoor unit 10), floor, the wall for being provided with air conditioner indoor unit 10 The sequence of WL generates circulating current in air-conditioning object space RS approximately along ceiling, wall, floor.In addition, in order to Make air-flow reach air-conditioning object space RS inboard, it is preferred that be diffused air in blow-off outlet 27, generate have compared with The laminar flow of fast wind speed.
When the 1st direction is blown out, the 1st overhead gage 40 of wind direction switching mechanism 30, the 2nd overhead gage 50 and lower baffle plate 60 are rear The control unit 80 stated controls, and takes Fig. 1 and posture shown in Fig. 2.That is, the 1st overhead gage 40 is taken when the 1st direction is blown out Following posture: the 1st overhead gage lower surface 42 by the flow path upper surface 16c of swirled air blowout flow path 16b smoothly forward Fang Yanchang.In addition, lower baffle plate 60 takes following posture: lower baffle plate upper surface 61 blowing swirled air when the 1st direction is blown out The flow path lower surface 16d of flow path 16b smoothly extends forwards out.That is, passing through 40 He of the 1st overhead gage when the 1st direction is blown out Lower baffle plate 60 virtually generates and blows out the flow path 16b identical situation of the extended situation in side forwards with swirled air.Its result It is that air-flow is accessible to the inboard of air-conditioning object space RS, generates the laminar flow with very fast wind speed.
More lean on the 2nd overhead gage 50 in the downstream side of blow-off direction of air upper and lower than the 1st overhead gage 40 in addition, being set to It is the 1st end 43 by the 1st overhead gage 40 under to the blow-off outlet from virtually extended swirled air blowout flow path 16b on direction The direction of the air for the part blowout that 1st end 63 of baffle 60 surrounds is micro-adjusted.In the state of fig. 2, it keeps off on the 2nd Plate 50 takes following posture: as smaller as possible to the resistance for the air being blown out and will be than the sky that blows out slightly downwards of level The wind direction of gas lifts slightly upward.
In addition, the posture of the 1st overhead gage 40, the 2nd overhead gage 50 and lower baffle plate 60 when the 1st direction described herein is blown out Only illustrate.The posture of the 1st overhead gage 40, the 2nd overhead gage 50 and lower baffle plate 60 is suitably determined so that from blow-off outlet 27 The wind direction of the blow out air of blowout becomes the 1st direction (horizontal direction or the direction close to horizontal direction).
(B) the 2nd direction
2nd direction is vertical downwards or close to vertical downwardly direction.
In circulation pattern refrigeration operation, temperature unevenness is generated in air-conditioning object space RS when detecting or deducing When, the wind direction of the blow out air blown out from blow-off outlet 27 is temporarily switched to the 2nd direction by wind direction switching mechanism 30.Circulation pattern system The hand-off process of the wind direction of blow out air when blowdown firing, blowing out from blow-off outlet 27 is described below.
(in the following, to simplify the explanation, sometimes referred to as the 2nd direction is blown when from blow-off outlet 27 to the 2nd direction blow out air When out), generate the sky from blow-off outlet 27 along the air stream for the wall WL for being provided with air conditioner indoor unit 10, after having carried out air conditioning Gas is sent to the underface of air conditioner indoor unit 10.
When the 2nd direction is blown out, the 1st overhead gage 40 of wind direction switching mechanism 30, the 2nd overhead gage 50 and lower baffle plate 60 are rear The control unit 80 stated controls, and takes posture shown in Fig. 4.It is taken in the 1st overhead gage 40, the 2nd overhead gage 50 and lower baffle plate 60 When the posture of Fig. 4, generates from blow-off outlet 27 towards than the more rearward side of blow-off outlet 27 and (the wall WL of air conditioner indoor unit 10 is installed Side) air-flow.When the 2nd direction is blown out, lower baffle plate 60 is so that the 1st end 63 is located at the side of the position more more rearward than the 2nd end 64 Formula is rotated, and becoming lower baffle plate upper surface 61 relative to vertical guide makes upper end side (64 side of the 2nd end) inclined state forwards. In addition, the 2nd overhead gage 50 is in a manner of making the 1st end 53 be located at the position more more rearward than the 2nd end 54 when the 2nd direction is blown out It is rotated, becoming the 2nd overhead gage upper surface 51 relative to vertical guide makes upper end side (54 side of the 2nd end) inclined shape forwards State.In addition, the 1st overhead gage 40 is so that the 1st end 43 is located at the side of the position more more rearward than the 2nd end 44 when the 2nd direction is blown out Formula is rotated, and becoming the 1st overhead gage upper surface 41 relative to vertical guide makes upper end side (44 side of the 2nd end) inclined shape forwards State.
It is preferred that 64 side of the 2nd end in lower baffle plate lower surface 62 is formed with recessed portion 66.Lower baffle plate 60 is configured in the 2nd direction When blowout, the lower edge 27b of blow-off outlet 27, which is entered, to be formed in the recessed portion 66 of lower baffle plate lower surface 62.With this configuration, Compared with not in the case where lower baffle plate lower surface 62 forms recessed portion 66, after the 1st end 63 of lower baffle plate 60 can be made to be moved to more Side, can make air-flow along wall WL from higher position.
In addition, the posture of the 1st overhead gage 40, the 2nd overhead gage 50 and lower baffle plate 60 when the 2nd direction described herein is blown out Only illustrate.The posture of the 1st overhead gage 40, the 2nd overhead gage 50 and lower baffle plate 60 is suitably determined so that from blow-off outlet 27 The wind direction of the blow out air of blowout becomes the 2nd direction (vertical downwards or close to vertical downwardly direction).For example, it is also possible to Determine the posture of the 1st overhead gage 40 when the blowout of the 2nd direction, the 2nd overhead gage 50 and lower baffle plate 60 so that table on the 1st overhead gage Face 41, the 2nd overhead gage upper surface 51 and lower baffle plate upper surface 61 become substantially vertical guide when the 2nd direction is blown out.
(2-7) floor temperature sensor
Floor temperature sensor 70 is the temperature unevenness detection sensor for detecting the temperature unevenness of air-conditioning object space RS An example.
Floor temperature sensor 70 is the sensor for detecting indoor floor temperature.Floor temperature sensor 70 can use Use the sensor of various detection methods.Here, floor temperature sensor 70 is thermopile array sensor.Floor temperature sensing Device 70 is for example set to the bottom surface sections 11f (referring to Fig.1) of shell 11.
Floor temperature sensor 70 according to region detection air-conditioning object space RS floor temperature.For example, floor temperature passes The floor of air-conditioning object space RS is divided into 8 × 8 region by sensor 70, according to region detection temperature.Floor temperature sensor 70 detections are provided with the temperature of the temperature of floor near the wall WL of air conditioner indoor unit 10 as the lower section of air conditioner indoor unit 10 Degree.In addition, floor temperature sensor 70 detects and the temperature conduct of the wall WL for being provided with air conditioner indoor unit 10 floor separated The temperature of the air-conditioning object space RS separated with wall WL.That is, floor temperature sensor 70 is the 1st temperature sensor and the 2nd temperature An example of sensor.
In addition, in the present embodiment, floor temperature sensor 70 is sent out as the 1st temperature sensor, the 2nd temperature sensor Function is waved, but not limited to this.For example, floor temperature sensor 70 also may include the 1st floor as the 1st temperature sensor Temperature sensor and the 2nd floor temperature sensor as 2nd temperature sensor different from the 1st floor temperature sensor.
(2-8) room temperature sensor
Room temperature sensor 71 is the sensor for detecting the temperature of air-conditioning object space RS.Room temperature sensor 71 It is such as configured near top surface suction inlet 25, detection is taken into the temperature of the air of air conditioner indoor unit 10 as air-conditioning object space The temperature of RS.In addition, the setting place of room temperature sensor 71 depicted herein is an example, room temperature sensor 71 can also To be set to other places that can be detected to the temperature for the temperature for representing air-conditioning object space RS.
(2-9) space humidity sensor
Space humidity sensor 72 is the sensor for detecting the humidity of air-conditioning object space RS.Space humidity sensor 72 It is such as configured near top surface suction inlet 25, detection is taken into the humidity of the air of air conditioner indoor unit 10 as air-conditioning object space The humidity of RS.In addition, the setting place of space humidity sensor 72 depicted herein is an example, space humidity sensor 72 can also To be set to other places that can be detected to the humidity for the humidity for representing air-conditioning object space RS.
(2-10) control unit
Control unit 80 mainly has CPU (not shown) and memory (not shown).Control unit 80 executes in memory The program of storage controls the movement of air conditioner indoor unit 10.
The indoor fan 14 of control unit 80 and air conditioner indoor unit 10, wind direction switching mechanism 30 be (wind direction switching mechanism 30 Barrier driving motor) electrical connection.In addition, control unit 80 and the floor temperature sensor 70, the sky that include air conditioner indoor unit 10 Between various sensors electrical connection including temperature sensor 71 and space humidity sensor 72.In addition, control unit 80 and and sky Indoor unit 10 is adjusted to constitute the electrical connection (not shown) of control unit possessed by the air-conditioner outdoor unit of air conditioner together.In addition, control Unit 80 is configured to communicate with the remote controler (not shown) that the user of air conditioner assigns instruction to air conditioner.
The letter that measurement result of the control unit 80 according to various sensors, the control unit from air-conditioner outdoor unit are sent Number, the instruction of user of air conditioner sent from remote controler etc., indoor fan 14 and 30 grade of wind direction switching mechanism are moved It is controlled.
Here, mainly to control unit 80 in the control of the movement of air conditioner indoor unit 10, circulation pattern refrigeration operation When the control of movement of air conditioner indoor unit 10 be illustrated.
Control unit 80 has switching mechanism control unit 81, control permission portion 82, fan control portion 83, the detection of temperature unevenness Portion 84, temperature unevenness presumption unit 85, the control as the movement with the air conditioner indoor unit 10 when circulation pattern refrigeration operation are special Associated function part.
(2-10-1) switching mechanism control unit
Switching mechanism control unit 81 controls the movement of wind direction switching mechanism 30, to blow from 27 blowout of blow-off outlet The wind direction of air switches over out.
Switching mechanism control unit 81 controls the movement of wind direction switching mechanism 30, so that blown out from blow-off outlet 27 The direction or be remotely controlled with the user of air conditioner that the user that the wind direction of blow out air is switched to air conditioner is specified with remote controler The operation mode of the specified air conditioner of device or the corresponding direction of flow pattern.It include automatic mold in the operation mode of air conditioner Formula, refrigeration mode, dehumidification mode, heating mode, air supply pattern etc..Automatic mode refers to that control unit 80 is empty according to air-conditioning object Between RS temperature or humidity etc. automatically select operating content operation mode.Flow pattern is the blowout sky blown out from blow-off outlet 27 The type of the blowout form of gas, the circulation pattern are one of flow patterns.
The movement of switching mechanism control unit 81 when here, particularly, to circulation pattern refrigeration operation is illustrated.Change speech It, when circulation pattern refrigeration operation mean the user of air conditioner select automatic mode, refrigeration mode or dehumidification mode as The operation mode of air conditioner, select circulation pattern as flow pattern, air conditioner carry out refrigeration operation or dehumidifying operating when.
Switching mechanism control unit 81 usually controls the movement of wind direction switching mechanism 30 in circulation pattern refrigeration operation System, so that blow out air is blown out from air conditioner indoor unit 10 to the 1st direction.
But when blow out air is blown out from air conditioner indoor unit 10 to the 1st direction, when detecting or deduce in air-conditioning pair When generating temperature unevenness in image space RS, switching mechanism control unit 81 controls the movement of wind direction switching mechanism 30, so that Blow out air is obtained temporarily to blow out to the 2nd direction.More specifically, it is blown out in blow out air from air conditioner indoor unit 10 to the 1st direction When, movement of the switching mechanism control unit 81 according to the testing result of aftermentioned temperature unevenness test section 84 to wind direction switching mechanism 30 It is controlled, so that blow out air is temporarily blown out to the 2nd direction.In addition, in blow out air from air conditioner indoor unit 10 to the 1st side To when blowout, switching mechanism control unit 81 is according to the presumption result of aftermentioned temperature unevenness presumption unit 85 to wind direction switching mechanism 30 Movement controlled so that blow out air temporarily to the 2nd direction blow out.
(2-10-2) controls permission portion
Control permission portion 82 is the function for allowing switching mechanism control unit 81 to control the movement of wind direction switching mechanism 30 Energy portion.Conversely, control permission portion 82 is that switching mechanism control unit 81 is forbidden to control the movement of wind direction switching mechanism 30 Function part.Particularly, when blowing out in air from air conditioner indoor unit 10 to the 1st direction, control permission portion 82 allows switching mechanism Control unit 81 controls the movement of wind direction switching mechanism 30 and the wind direction of blow out air is switched to the 2nd direction.
As described above, when blow out air is blown out from air conditioner indoor unit 10 to the 1st direction, 81 basis of switching mechanism control unit Testing result, the presumption result of temperature unevenness presumption unit 85 of temperature unevenness test section 84, the movement to wind direction switching mechanism 30 It is controlled.But in the case where controlling permission portion 82 does not allow, even if detecting or deducing in air-conditioning object space RS Middle generation temperature is uneven, and switching mechanism control unit 81 also can not be to be switched to the 2nd direction from the 1st direction for the wind direction of blow out air Mode the movement of wind direction switching mechanism 30 is controlled.
Control permission portion 82 allow under the conditions of which kind of switching mechanism control unit 81 to the movement of wind direction switching mechanism 30 into Row control is described below.
(2-10-3) fan control portion
Fan control portion 83 is to operating/stopping of indoor fan 14, the air quantity (revolving speed of fan motor) of indoor fan 14 It is controlled.Fan control portion 83 is an example in Boiler pressure control portion.Fan control portion 83 is controlled by the movement of indoor fan 14 System, so that the air quantity of the blow out air blown out from blow-off outlet 27 is switched to the wind that the user of air conditioner is specified with remote controler Amount or air quantity corresponding with the operation mode or flow pattern of the user of the air conditioner specified air conditioner of remote controler.
In circulation pattern refrigeration operation, in wind direction switching mechanism 30 by the wind direction of blow out air from the 1st direction to the 2nd side During switching to switching or from the 2nd direction to the 1st direction, fan control portion 83 makes the air quantity ratio of indoor fan 14 to the 1st side It is reduced to the air quantity of the indoor fan 14 when blowing out blow out air with the 2nd direction.In circulation pattern refrigeration operation, cut in wind direction During the wind direction of blow out air is switched from the 1st direction to the 2nd direction or is switched from the 2nd direction to the 1st direction by structure 30 of changing planes, The Boiler pressure control of indoor fan 14 is minimum air quantity by fan control portion 83.In addition, in circulation pattern refrigeration operation, fan control When portion 83 processed makes the air quantity of the indoor fan 14 when blowing out blow out air to the 2nd direction than blowing out blow out air to the 1st direction The air quantity of indoor fan 14 is reduced.Fan control portion 83 carries out the air quantity of this indoor fan 14 in circulation pattern refrigeration operation Control, thereby, it is possible to avoid wind from directly blowing to the people in air-conditioning object space RS, is easy to prevent the reduction of comfort.
(2-10-4) temperature unevenness test section
Temperature unevenness test section 84 is produced according to the measurement result of floor temperature sensor 70 in air-conditioning object space RS The situation of raw temperature unevenness is detected.Temperature unevenness test section 84 is at least in circulation pattern refrigeration operation, in air-conditioning pair The situation for generating temperature unevenness in image space RS is detected.
In circulation pattern refrigeration operation, temperature unevenness test section 84 is close according to sending from floor temperature sensor 70 The comparison result of front side temperature and inboard temperature detects the situation that temperature unevenness is generated in air-conditioning object space RS. In addition, here, nearby side temperature means that the temperature of the lower section for the air conditioner indoor unit 10 that floor temperature sensor 70 is measured (is set Be equipped with the temperature of the floor near the wall WL of air conditioner indoor unit 10) measured value.Inboard temperature means that floor temperature passes The temperature for the air-conditioning object space RS that sensor 70 was measured separate with wall WL (is separated with the wall WL for being provided with air conditioner indoor unit 10 Floor temperature) measured value.Specifically, in circulation pattern refrigeration operation, in nearby side temperature and inboard temperature Difference be specified value more than in the case where, more specifically, the situation more than nearby side temperature specified value higher than inboard temperature Under, temperature unevenness test section 84 detects the situation that temperature unevenness is generated in air-conditioning object space RS.
In addition, temperature unevenness test section 84 can also according to the nearby side temperature of some moment compared with inboard temperature knot Fruit detects the situation that temperature unevenness is generated in air-conditioning object space RS.In addition, temperature unevenness test section 84 can also be with According to the comparison result of the nearby side temperature of (such as 1 minute) during some and inboard temperature (such as nearby side temperature than inboard The case where more than high specified value of temperature state continues during some), it is uneven to temperature is generated in air-conditioning object space RS Situation is detected.
(2-10-5) temperature unevenness presumption unit
Temperature unevenness presumption unit 85 estimates the situation that temperature unevenness is generated in air-conditioning object space RS.Temperature is not Equal test section 84 at least in circulation pattern refrigeration operation, carries out the situation that temperature unevenness is generated in air-conditioning object space RS Presumption.
In circulation pattern refrigeration operation, exceed schedule time in blow out air to the time that the 1st direction is continuously blown out In the case of, temperature unevenness presumption unit 85 is estimated as producing temperature unevenness in air-conditioning object space.
(3) hand-off process of the wind direction of blow out air when circulation pattern refrigeration operation
Referring to Fig. 5 flow chart to circulation pattern refrigeration operation when the hand-off process of the wind direction of blow out air that carries out carry out Explanation.
The user of air conditioner selects automatic mode, refrigeration mode or dehumidification mode as the fortune of air conditioner by remote controler Rotary-die type, select circulation pattern as flow pattern after, indicate the operation start of air conditioner, be automatic mode in operation mode In the case of, when further selecting refrigeration operation or dehumidifying operating by control unit 80, start a succession of processing below.Separately Outside, in the following description, to simplify the explanation, the user of air conditioner is not accounted in midway change operation mode or air-flow The case where mode.
Firstly, in step sl, switching mechanism control unit 81 controls the movement of wind direction switching mechanism 30, so that The wind direction of the blow out air blown out from blow-off outlet 27 becomes the 1st direction.Specifically, switching mechanism control unit 81 switches wind direction The barrier driving (not shown) of mechanism 30 is assigned with motor and being indicated, makes the 1st overhead gage 40, the 2nd overhead gage 50 and lower baffle plate 60 Attitudes vibration is posture when the 1st direction is blown out.
Then, in step s 2, when determining whether to have passed through initial switching blowing out since blow out air is to the 1st direction Between.The initial switching time is the preset time.The initial switching time does not limit, still, e.g. 10 minutes.Work as judgement When to have passed through the initial switching time the blowout since blow out air is to the 1st direction, S3 is entered step.It is being determined as from blowout Air starts to have blown out before have passed through the initial switching time to the 1st direction, and step S2 is repeated.
Control permission portion 82 is configured to, first in air conditioner indoor unit 10 after the operation start of circulation pattern refrigeration operation In the case that the endurance period for starting blowout blow out air to the 1st direction has been more than the initial switching time, allow to switch Mechanism controls portion 81 is controlled such that blow out air is blown out to the 2nd direction to the movement of wind direction switching mechanism 30.Therefore, exist In step S3, control permission portion 82 allows switching mechanism control unit 81 to be controlled such that the movement of wind direction switching mechanism 30 Blow out air is blown out to the 2nd direction.
Temperature unevenness presumption unit 85 is configured to, and is more than initial switching in the time that blow out air is continuously blown out to the 1st direction In the case where time, it is estimated as producing temperature unevenness in air-conditioning object space RS.Therefore, in step s3, temperature is uneven Presumption unit 85 is estimated as producing temperature unevenness in air-conditioning object space RS.
Then, in step s 4, control permission portion 82 allows switching mechanism control unit 81 to the dynamic of wind direction switching mechanism 30 It is controlled, detects or deduce the generation temperature unevenness in air-conditioning object space RS, therefore, switching mechanism control unit 81 Blow out air is blown out to the 2nd direction to be controlled such that the movement of wind direction switching mechanism 30.Specifically, switching mechanism control Portion 81 processed assigns the barrier driving (not shown) of wind direction switching mechanism 30 with motor and indicates, makes the 1st of wind direction switching mechanism 30 The attitudes vibration of overhead gage 40, the 2nd overhead gage 50 and lower baffle plate 60 is posture when the 2nd direction is blown out.
Then, in step s 5, determine whether to have passed through the 2nd direction blowing out since blow out air is to the 2nd direction and blow Setting time out.2nd direction blowout setting time is to be redefined for eliminate the temperature unevenness of air-conditioning object space RS Time.2nd direction blowout setting time does not limit, still, e.g. 2 minutes.When being determined as from blow out air to the 2nd direction Start to have blown out have passed through the 2nd direction blowout setting time when, enter step S6.It is being determined as from blow out air to the 2nd direction Start to have blown out before have passed through the 2nd direction blowout setting time, step S5 is repeated.
In step s 6, switching mechanism control unit 81 is controlled such that blowout is empty to the movement of wind direction switching mechanism 30 Gas is blown out to the 1st direction.Specifically, switching mechanism control unit 81 uses the barrier driving (not shown) of wind direction switching mechanism 30 Motor assigns instruction, appearance when blowing out the 1st direction of attitudes vibration of the 1st overhead gage 40, the 2nd overhead gage 50 and lower baffle plate 60 State.In addition, though illustration omitted, still, in step s 6, control permission portion 82 forbids switching mechanism control unit 81 so that blowing The mode that air is blown out to the 2nd direction out is controlled (permission for releasing control) to the movement of wind direction switching mechanism 30.
Then, in the step s 7, determine whether air-conditioning object space RS with the 1st stipulated time persistently meets rated condition. Here rated condition is that the temperature that room temperature sensor 71 detects is predetermined temperature or less and space humidity sensor is examined The humidity measured is the such condition of specified humidity or less.Additionally, it is preferred that using being estimated as in predetermined temperature and specified humidity Meet the value of the comfort of the user of air conditioner.For example, do not limit, still, in the step s 7, decision space temperature sensing The temperature that device 71 detects is that the humidity that below the set temperature that remote controler inputs and space humidity sensor 72 detects is Whether 70% state below continues 60 minutes or more.It is being determined as that air-conditioning object space RS persistently meets with the 1st stipulated time In the case where rated condition, S8 is entered step.It is being determined as that air-conditioning object space RS persistently meets regulation article with the 1st stipulated time Before part, the judgement of step S7 is repeated.
Control permission portion 82 is configured to, and in the operating of circulation pattern refrigeration operation, detects in room temperature sensor 71 To temperature be the predetermined temperature or less and humidity that space humidity sensor 72 detects is that the specified humidity is below In the case that it is more than the stipulated time to continue the described 1st for state, allow switching mechanism control unit 81 to the dynamic of wind direction switching mechanism 30 It is controlled such that blow out air is blown out to the 2nd direction.Therefore, in step s 8, control permission portion 82 allows switching machine Structure control unit 81 is controlled such that blow out air is blown out to the 2nd direction to the movement of wind direction switching mechanism 30.
Then, in step s 9, temperature unevenness test section 84 is according to the nearby side sent from floor temperature sensor 70 The comparison result of temperature and inboard temperature detects the situation that temperature unevenness is generated in air-conditioning object space RS.In addition, As described above, nearby side temperature is the measurement of the temperature of the lower section for the air conditioner indoor unit 10 that floor temperature sensor 70 is measured Value, inboard temperature is the measurement of the temperature for the air-conditioning object space RS separated with wall WL that floor temperature sensor 70 is measured Value.Specifically, temperature unevenness test section 84 determines nearby side temperature specified value whether higher than inboard temperature or more.Temperature is uneven It is right in the case that test section 84 is more than (such as some moment or some during) nearby side temperature specified value higher than inboard temperature The situation for generating temperature unevenness in air-conditioning object space RS is detected (step S10), return step S4.The processing of step S4 It is explained, and the description is omitted.In the case where nearby side temperature is unlike more than the high specified value of inboard temperature, enter Step S11.
In step s 11, determine that blow out air to the time that the 1st direction is continuously blown out (cut recently by the wind direction of blow out air It is changed to the time that the 1st direction is risen) it whether was more than the 2nd stipulated time.2nd stipulated time was the preset time.2nd regulation Time does not limit, still, e.g. 90 minutes.It is more than being determined as blow out air to the time that the 1st direction is continuously blown out In the case where 2nd stipulated time, S12 is entered step.It is being determined as time that blow out air is continuously blown out to the 1st direction than the 2nd Stipulated time in short-term, return step S7.In addition, though illustration omitted, still, in the case where return step S7, control allows Portion 82 forbids switching mechanism control unit 81 so that mode the moving to wind direction switching mechanism 30 that blow out air is blown out to the 2nd direction Controlled (permission for releasing control).
Temperature unevenness presumption unit 85 is configured to, in the processing of step S3 other than, continuously blown in blow out air to the 1st direction In the case that time out was more than the 2nd stipulated time, it is estimated as producing temperature unevenness in air-conditioning object space RS.Therefore, In step s 12, temperature unevenness presumption unit 85 is estimated as producing temperature unevenness in air-conditioning object space RS.Subsequently into step Rapid S4.The processing of step S4 is explained, and and the description is omitted.
In addition, when the use of the hand-off process of the wind direction of Fig. 5 above-mentioned blow out air illustrated being circulation pattern refrigeration operation into An example of the hand-off process of the wind direction of capable blow out air, it is without being limited thereto.For example, the blowout carried out when circulation pattern refrigeration operation The hand-off process of the wind direction of air can also be designed to after the step S1 of Fig. 5, skip step S2~step S6 processing and Enter step S7.
(4) feature
(4-1)
The air conditioner indoor unit 10 of present embodiment have shell 11, as heat exchanger an example indoor heat exchanger 13, as the indoor fan 14 of an example of fan, wind direction switching mechanism 30 and switching mechanism control unit 81.It is provided in shell 11 Top surface suction inlet 25 and bottom surface suction inlet 26 and blow-off outlet 27.Indoor heat exchanger 13 with from top surface suction inlet 25 and bottom surface The air that suction inlet 26 sucks carries out heat exchange and seizes heat from air.Indoor fan 14 blows out from blow-off outlet 27 and is handed over by Indoor Thermal Parallel operation 13 has carried out the air after heat exchange.Wind direction switching mechanism 30 switches at least between the 1st direction and the 2nd direction from blowout The wind direction of the blow out air of 27 blowout of mouth.1st direction is horizontal or close to horizontal direction.2nd direction is vertical downwards or connects Nearly vertical downwardly direction.When blow out air is blown out to the 1st direction, when detecting or deduce in air-conditioning object space RS When generating temperature unevenness, switching mechanism control unit 81 is controlled such that blow out air is temporary to the movement of wind direction switching mechanism 30 The blowout of 2 direction Shi Xiang.
For this air conditioner indoor unit 10, to the 1st direction blow out air and freezed (including dehumidifying) when, when detecting Or when deducing the temperature unevenness of air-conditioning object space RS, to the 2nd direction blow out air.As a result, to the air towards the 1st direction The vertical close beneath supply for the air conditioner indoor unit 10 that blow out air is not easily accessible in blowout has carried out the sky after air conditioning Gas, the temperature that can eliminate air-conditioning object space RS is uneven, can be realized the excellent comfort of air-conditioning object space RS.
(4-2)
The air conditioner indoor unit 10 of present embodiment has floor temperature sensor 70 and temperature unevenness test section 84.Floor temperature Degree sensor 70 is an example for detecting the temperature unevenness detection sensor of temperature unevenness.84 base area of temperature unevenness test section The measurement result of plate temperature sensor 70 detects the situation that temperature unevenness is generated in air-conditioning object space RS.It is blowing When air is blown out to the 1st direction out, switching mechanism control unit 81 cuts wind direction according to the testing result of temperature unevenness test section 84 The movement of structure 30 of changing planes is controlled, so that blow out air is temporarily blown out to the 2nd direction.
In this air conditioner indoor unit 10, temperature unevenness is accurately detected according to the measurement result of floor temperature sensor 70 It generates, can be controlled by the wind direction of blow out air to eliminate temperature unevenness.
(4-3)
The air conditioner indoor unit 10 of present embodiment is wall-mounted.Floor temperature sensor 70 includes measurement air conditioner indoor unit 10 Lower section temperature the 1st temperature sensor.In other words, lower section of the floor temperature sensor 70 as measurement air conditioner indoor unit 10 The 1st temperature sensor of temperature function.
Here, according to the measurement knot of the 1st temperature sensor of the temperature for the lower section for measuring wall-mounted air conditioner indoor unit 10 Fruit is uneven to detect temperature, therefore, is easy no omission ground accurately detection temperature unevenness.
(4-4)
In the air conditioner indoor unit 10 of present embodiment, floor temperature sensor 70 includes measurement and is provided in air conditioning chamber 2nd temperature sensor of the temperature of the air-conditioning object space RS of the wall WL separation of machine 10.In other words, floor temperature sensor 70 is made The 2nd temperature sensor for the temperature of the wall WL for measuring with the being provided with air conditioner indoor unit 10 air-conditioning object space RS separated plays Function.Temperature unevenness test section 84 is according to measured value (the nearby side temperature of the floor temperature sensor 70 as the 1st temperature sensor Degree) with as the 2nd temperature sensor floor temperature sensor 70 measured value (inboard temperature) comparison result, detect air-conditioning The temperature of object space RS is uneven.
In this air conditioner indoor unit 10, according to the air-conditioning object of the position separated with the wall WL for being provided with air conditioner indoor unit 10 The measurement result of the temperature of the lower section of the temperature and air conditioner indoor unit 10 of space RS is uneven to detect temperature, therefore, is easy not having It is uneven to omit the accurate detection temperature in ground.
(4-5)
The air conditioner indoor unit 10 of present embodiment has temperature unevenness presumption unit 85.It is continuous to the 1st direction in blow out air In the case that the time of blowout was more than the 1st time, temperature unevenness presumption unit 85 is estimated as producing in air-conditioning object space RS Temperature is uneven.When blow out air is blown out to the 1st direction, switching mechanism control unit 81 is according to the presumption of temperature unevenness presumption unit 85 As a result, the movement of wind direction switching mechanism 30 is controlled, so that blow out air is temporarily blown out to the 2nd direction.
In addition, specifically, connecting in blow out air to the 1st direction after the operating of circularly cooling operating just starts In the case that the time of continuous blowout is more than the initial switching time, temperature unevenness presumption unit 85 is estimated as in air-conditioning object space RS It is uneven (referring to Fig. 5) to produce temperature.It is super in the time that blow out air is continuously blown out to the 1st direction in timing in addition to this In the case where spending for the 2nd stipulated time, temperature unevenness presumption unit 85 is estimated as producing temperature unevenness in air-conditioning object space RS (referring to Fig. 5).
In this air conditioner indoor unit 10, according to be easy when towards the 1st direction blow out air air conditioner indoor unit 10 just Lower section generates characteristic as temperature unevenness, suitably estimates the generation of temperature unevenness, can eliminate temperature unevenness, and then can Inhibit the generation of temperature unevenness.
In addition, air conditioner indoor unit 10 has the floor temperature sensor 70 as temperature unevenness detection sensor.But have When according to situation (such as there are in the case where barrier) and floor temperature sensor 70 be difficult to the position measured generate temperature It is uneven.Here, uneven to presumption generation temperature when the continuous blowout for a long time of the 1st direction in blow out air, therefore, even sensing The temperature that device is difficult to the air-conditioning object space RS detected is uneven, can also eliminate temperature unevenness.
(4-6)
There is the air conditioner indoor unit 10 of present embodiment room temperature sensor 71, space humidity sensor 72 and control to permit Perhaps portion 82.The temperature of the detection of room temperature sensor 71 air-conditioning object space RS.Space humidity sensor 72 detects air-conditioning object The humidity of space RS.Control permission portion 82 allows switching mechanism control unit 81 to control the movement of wind direction switching mechanism 30. It is in the humidity that the temperature that room temperature sensor 71 detects is predetermined temperature or less and space humidity sensor 72 detects In the case that it is more than the stipulated time to continue the 1st for specified humidity state below, control permission portion 82 allows switching mechanism control unit The movement of 81 pairs of wind direction switching mechanisms 30 is controlled such that blow out air is blown out to the 2nd direction.
In this air conditioner indoor unit 10, before the temperature/humidity of air-conditioning object space RS meets rated condition, in air-conditioning Preferentially blowout is easy to generate the air in the 1st direction of direction of circulating current in object space RS.As a result, to ensure as sky Premised on the comfort for adjusting object space RS entirety, the generation of temperature unevenness can be eliminated and further realize mentioning for comfort It is high.
(4-7)
In the air conditioner indoor unit 10 of present embodiment, after operation start, in air conditioner indoor unit 10 for the first time to the 1st direction Start blow out blow out air rise endurance period be more than the initial switching time in the case where, control permission portion 82 allow to cut Structure control unit 81 of changing planes is controlled such that blow out air is blown out to the 2nd direction to the movement of wind direction switching mechanism 30.
In this air conditioner indoor unit 10, after the operating for being particularly easy to generation temperature unevenness just starts, with air-conditioning pair It is unrelated whether the temperature/humidity of image space RS meets rated condition, and blow out air is allowed to blow out towards the 2nd direction.Therefore, it is easy Eliminate the generation of the temperature unevenness after operating just starts.
(4-8)
The air conditioner indoor unit 10 of present embodiment, which has, is used as Boiler pressure control to what the air quantity of indoor fan 14 was controlled The fan control portion 83 of an example in portion.Wind direction switching mechanism 30 is to the wind direction of blow out air with continuous from the 1st direction to the 2nd direction Ground changes or switches over from the 2nd direction to the mode that the 1st direction continuously changes.In wind direction switching mechanism 30 by blow out air Wind direction switch from the 1st direction to the 2nd direction or from the 2nd direction to the 1st direction switching during, fan control portion 83 makes interior The air quantity of indoor fan 14 when the air quantity of fan 14 is than blowing out blow out air to the 1st direction and the 2nd direction is reduced.
In this air conditioner indoor unit 10, it can be avoided wind and directly blow to the people in air-conditioning object space RS, it is not easy to Damage comfort.
(4-9)
In the air conditioner indoor unit 10 of present embodiment, fan control portion 83 makes room when blowing out blow out air to the 2nd direction The air quantity of indoor fan 14 when the air quantity of internal fan 14 is than blowing out from blow out air to the 1st direction is reduced.
In this air conditioner indoor unit 10, in downward blow out air, air quantity is reduced, and therefore, is easy that wind is inhibited directly to blow to People in air-conditioning object space RS is easy to prevent the reduction of comfort.
(5) variation
Modified embodiment of the present embodiment described below.In addition, variation below can be in mutual reconcilable range It is appropriately combined.
(5-1) variation A
In the above-described embodiment, temperature unevenness test section 84 is according to the nearby side sent from floor temperature sensor 70 The comparison result of temperature and inboard temperature detects the situation that temperature unevenness is generated in air-conditioning object space RS, still, The detection method of temperature unevenness test section 84 is without being limited thereto.
For example, temperature unevenness test section 84 can also be according to the temperature of the 1st temperature sensor measurement (in other words, from floor The nearby side temperature that temperature sensor 70 is sent) ongoing change, it is uneven to temperature is generated in air-conditioning object space RS Situation is detected.More specifically, temperature unevenness test section 84 (can also not become from the set temperature of remote controler input More, still in the case that) temperature of the 1st temperature sensor measurement is gradually increasing, temperature is generated in air-conditioning object space RS Uneven situation is detected.In this case of composition, uneven by comparing simple structure detection temperature, it can pass through The wind direction control of blow out air is uneven to eliminate temperature.
(5-2) variation B
About one of the reason for generating temperature unevenness in air-conditioning object space RS, the influence of sunshine is considered.For example, daylight It is injected from the window for the wall WL for being provided with air conditioner indoor unit 10 and floor is made to warm, or be provided with air conditioner indoor unit 10 Wall WL warmed due to daylight, it is thereby possible to which it is uneven to generate temperature in air-conditioning object space RS.Therefore, in air-conditioning object In the RS of space, temperature unevenness especially is easy to produce on daytime.
Therefore, the switching from the 1st direction to the 2nd direction of the wind direction of blow out air when above-mentioned circulation pattern refrigeration operation Processing is also configured to only execute on daytime.For example, control permission portion 82 can also forbid switching mechanism control at night always Portion 81 processed is so that blow out air controls the movement of wind direction switching mechanism 30 to the mode that the 2nd direction is blown out.
(5-3) variation C
The structure of the wind direction switching mechanism 30 of above embodiment is an example, and wind direction switching mechanism is not limited to above structure. For example, wind direction switching mechanism is also configured to the baffle using 2 baffles below or use 3 or more, in the 1st direction Switch the wind direction that blow out air is blown out from blow-off outlet 27 between the 2nd direction.
In addition, the position in shell 11 at 2 or more forms blow-off outlet for example, air conditioner indoor unit is also configured to, When to the 1st direction blow out air and when to the 2nd direction blow out air, from different blow-off outlet blow out air.Moreover, wind direction switches Mechanism can also be when to the 1st direction blow out air and when to the 2nd direction blow out air, respectively using different baffles to wind direction It is adjusted.
(5-4) variation D
In the above-described embodiment, when blow out air is blown out to the 1st direction, when detecting in air-conditioning object space RS It generates the situation of temperature unevenness and deduces under the situation both of these case for generating temperature unevenness in air-conditioning object space RS, Switching mechanism control unit 81 is controlled such that blow out air is temporarily blown to the 2nd direction to the movement of wind direction switching mechanism 30 Out.
But not limited to this, for example, air conditioner indoor unit is also configured to do not have temperature unevenness presumption unit 85, is blowing out When air is blown out to the 1st direction, in the case where temperature unevenness is only generated in detecting air-conditioning object space RS, switching mechanism control Portion 81 processed is controlled such that blow out air is temporarily blown out to the 2nd direction to the movement of wind direction switching mechanism 30.In addition, example Such as, air conditioner indoor unit is also configured to do not have temperature unevenness test section 84, when blow out air is blown out to the 1st direction, only In the case where generating temperature unevenness in deducing air-conditioning object space RS, switching mechanism control unit 81 is to wind direction switching mechanism 30 Movement be controlled such that blow out air temporarily to the 2nd direction blow out.
But it in order to more reliably inhibit the generation of temperature unevenness, is preferably produced in detecting air-conditioning object space RS It gives birth to the situation of temperature unevenness and deduces under the situation both of these case for generating temperature unevenness in air-conditioning object space RS, to wind It is controlled such that blow out air is temporarily blown out to the 2nd direction to the movement of switching mechanism 30.
Industrial availability
The present invention can be widely applied for air conditioner indoor unit, be useful.
Label declaration
10 air conditioner indoor unit
11 shells
13 indoor heat exchangers (heat exchanger)
14 indoor fans (fan)
25 top surface suction inlets (suction inlet)
26 bottom surface suction inlets (suction inlet)
27 blow-off outlets
30 wind direction switching mechanisms
70 floor temperature sensors (temperature unevenness detection sensor, the 1st temperature sensor, the 2nd temperature sensor)
71 room temperature sensors
72 space humidity sensors
81 switching mechanism control units
82 control permission portions
83 fan control portions (Boiler pressure control portion)
84 temperature unevenness test sections
85 temperature unevenness presumption units
RS air-conditioning object space
WL wall
Existing technical literature
Patent document
Patent document 1: Japanese Unexamined Patent Publication 2013-076530 bulletin

Claims (10)

1. a kind of air conditioner indoor unit (10), which is included
Shell (11) is provided with suction inlet (25,26) and blow-off outlet (27)；
Heat exchanger (13) carries out heat exchange with the air sucked from the suction inlet, seizes heat from air；
Fan (14) is carried out the air after heat exchange by the heat exchanger from blow-off outlet blowout；
Wind direction switching mechanism (30), at least it is horizontal or close to the 1st horizontal direction and vertical it is downward or close to vertical it is downward The 2nd direction between switch the wind direction of blow out air blown out from the blow-off outlet；And
Switching mechanism control unit (81) controls the movement of the wind direction switching mechanism, to the blow out air Wind direction switches over,
When the blow out air is blown out to the 1st direction, produced in air-conditioning object space (RS) when detecting or deducing When raw temperature unevenness, the switching mechanism control unit controls the movement of the wind direction switching mechanism, so that described blow Air is temporarily blown out to the 2nd direction out.
2. air conditioner indoor unit according to claim 1, wherein
The air conditioner indoor unit also includes
Temperature unevenness detection sensor (70) is used to detect temperature unevenness；And
Temperature unevenness test section (84), according to the measurement result of the temperature unevenness detection sensor, in the air-conditioning pair The situation for generating temperature unevenness in image space is detected,
When the blow out air is blown out to the 1st direction, the switching mechanism control unit is detected according to the temperature unevenness The testing result in portion controls the movement of the wind direction switching mechanism, so that the blow out air is temporarily to the described 2nd Direction blowout.
3. air conditioner indoor unit according to claim 2, wherein
The air conditioner indoor unit be it is wall-mounted,
The temperature unevenness detection sensor includes the 1st temperature sensor for measuring the temperature of the lower section of the air conditioner indoor unit.
4. air conditioner indoor unit according to claim 3, wherein
The temperature unevenness detection sensor further includes the 2nd temperature sensor, the 2nd temperature sensor pair and is provided with the sky The temperature of the air-conditioning object space of wall (WL) separation of indoor unit is adjusted to measure,
The temperature unevenness test section is according to the measured value of the 1st temperature sensor and the measurement of the 2nd temperature sensor The comparison result of value detects the situation that temperature unevenness is generated in the air-conditioning object space.
5. air conditioner indoor unit according to claim 3, wherein
The temperature unevenness test section detects the air-conditioning according to the ongoing change of the temperature of the 1st temperature sensor measurement The temperature of object space is uneven.
6. air conditioner indoor unit according to any one of claims 1 to 5, wherein
The air conditioner indoor unit also has temperature unevenness presumption unit (85), continuously blows in the blow out air to the 1st direction In the case that time out was more than the 1st time, which is estimated as producing in the air-conditioning object space Temperature is uneven,
When the blow out air is blown out to the 1st direction, the switching mechanism control unit is estimated according to the temperature unevenness The presumption result in portion controls the movement of the wind direction switching mechanism, so that the blow out air is temporarily to the described 2nd Direction blowout.
7. air conditioner indoor unit according to any one of claims 1 to 6, wherein
The air conditioner indoor unit also includes
Room temperature sensor (71) detects the temperature of the air-conditioning object space；
Space humidity sensor (72) detects the humidity of the air-conditioning object space；And
It controls permission portion (82), the switching mechanism control unit is allowed to control the movement of the wind direction switching mechanism,
In the temperature that the room temperature sensor detects be predetermined temperature or less and the space humidity sensor detects Humidity be the control permission portion permission switching in the case that it is more than the time to continue the 2nd specified humidity state below Mechanism controls portion is controlled such that the blow out air is blown to the 2nd direction to the movement of the wind direction switching mechanism Out.
8. air conditioner indoor unit according to claim 7, wherein
After operation start, start to blow out holding for the blow out air to the 1st direction for the first time in the air conditioner indoor unit In the case that the continuous duration of runs was more than the 3rd time, the control permission portion further allows the switching mechanism control unit to institute The movement for stating wind direction switching mechanism is controlled such that the blow out air is blown out to the 2nd direction.
9. air conditioner indoor unit according to any one of claims 1 to 8, wherein
The air conditioner indoor unit also has Boiler pressure control portion (83), which controls the air quantity of the fan,
The wind direction switching mechanism is to the wind direction of the blow out air continuously to become from the 1st direction to the 2nd direction Change or switched over from the 2nd direction to the mode that the 1st direction continuously changes,
The wind direction switching mechanism by the wind direction of the blow out air switch from the 1st direction to the 2nd direction or from During 2nd direction switches to the 1st direction, the Boiler pressure control portion makes the air quantity ratio of the fan to the described 1st The air quantity of fan when direction and the 2nd direction blow out the blow out air is reduced.
10. air conditioner indoor unit according to claim 9, wherein
The Boiler pressure control portion makes the air quantity ratio of fan when blowing out the blow out air to the 2nd direction to described The air quantity of fan when 1 direction blows out the blow out air is reduced.
CN201780065236.5A 2016-10-28 2017-10-23 Indoor unit of air conditioner Active CN109891159B (en)

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Families Citing this family (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN108843608A (en) * 2018-06-08 2018-11-20 珠海格力电器股份有限公司 One kind compensating closed-loop control system based on different wind direction wind speed
CN108954709B (en) * 2018-06-29 2019-12-10 广东美的制冷设备有限公司 Control method and device of air conditioning equipment and air conditioning equipment
JP7356219B2 (en) 2018-11-30 2023-10-04 ホシザキ株式会社 cooling storage
CN112228956B (en) * 2020-10-16 2022-01-21 珠海格力节能环保制冷技术研究中心有限公司 Air conditioner and control method thereof

Citations (7)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPH06313607A (en) * 1993-04-28 1994-11-08 Sanyo Electric Co Ltd Air conditioner
CN1820167A (en) * 2004-01-26 2006-08-16 大金工业株式会社 Ceiling-embedded air conditioner and method of controlling the same
CN1906445A (en) * 2003-11-28 2007-01-31 夏普株式会社 Air conditioner
CN101932885A (en) * 2008-02-05 2010-12-29 大金工业株式会社 Air conditioner
JP2011069593A (en) * 2009-09-28 2011-04-07 Daikin Industries Ltd Air conditioner
CN103673093A (en) * 2012-09-13 2014-03-26 大金工业株式会社 Indoor unit of air conditioner
JP5504845B2 (en) * 2009-11-25 2014-05-28 ダイキン工業株式会社 Air conditioning controller

Family Cites Families (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JP3446478B2 (en) * 1996-05-10 2003-09-16 ダイキン工業株式会社 Air conditioner
WO2011037095A1 (en) * 2009-09-28 2011-03-31 ダイキン工業株式会社 Control device
JP5365675B2 (en) 2011-09-30 2013-12-11 ダイキン工業株式会社 Air conditioning indoor unit

Patent Citations (7)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPH06313607A (en) * 1993-04-28 1994-11-08 Sanyo Electric Co Ltd Air conditioner
CN1906445A (en) * 2003-11-28 2007-01-31 夏普株式会社 Air conditioner
CN1820167A (en) * 2004-01-26 2006-08-16 大金工业株式会社 Ceiling-embedded air conditioner and method of controlling the same
CN101932885A (en) * 2008-02-05 2010-12-29 大金工业株式会社 Air conditioner
JP2011069593A (en) * 2009-09-28 2011-04-07 Daikin Industries Ltd Air conditioner
JP5504845B2 (en) * 2009-11-25 2014-05-28 ダイキン工業株式会社 Air conditioning controller
CN103673093A (en) * 2012-09-13 2014-03-26 大金工业株式会社 Indoor unit of air conditioner

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