CN203301343U - Electric power conversion apparatus - Google Patents

Electric power conversion apparatus Download PDF

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Publication number
CN203301343U
CN203301343U CN2013201034769U CN201320103476U CN203301343U CN 203301343 U CN203301343 U CN 203301343U CN 2013201034769 U CN2013201034769 U CN 2013201034769U CN 201320103476 U CN201320103476 U CN 201320103476U CN 203301343 U CN203301343 U CN 203301343U
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China
Prior art keywords
reactor
power inverter
heating part
power
power model
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Expired - Fee Related
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CN2013201034769U
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Chinese (zh)
Inventor
樋口雅人
片山宽
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Yaskawa Electric Corp
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Yaskawa Electric Corp
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Abstract

The utility model provides an electric power conversion apparatus which is compact and has excellent anti-noise performance and heat dissipation performance. The electric power conversion apparatus has a housing that can be arranged on a wall surface, wherein the inside of the housing is divided into a high heating portion and a low heating portion; multiple power modules and multiple reactors which are respectively corresponding to the power modules, and a heat dissipation component disposed on a wall surface side of the housing are configured in the high heating portion in a abut joint manner; an input circuit and an output circuit are configured in the low heating portion; and furthermore, the high heating portion and the low heating portion are configured to be side by side in the horizontal direction.

Description

Power inverter
Technical field
The disclosed execution mode of the utility model relates to power inverter.
Background technology
In recent years, developing for the system of supplying with the energy that obtains from sunlight etc.In described electricity generation system, for example in the photovoltaic power generation system of generally being applied, need to will utilize direct current that solar power generation obtains to be converted to alternating current and supply to the power inverter of general family etc.
Be equipped with a large amount of heat generating components of the power model that forms power conversion circuit and reactor, capacitor and so at described power inverter.Therefore, need to make in the power inverter setting mechanism of these heat generating components heat radiation, but be arranged in the house of average family etc. the power inverter of therefore preferred quietness excellence in view of power inverter.
Therefore, such power inverter has been proposed: do not adopt the forced air-cooling mode that needs the larger parts of forced draft fan and so on operation sound, and the natural air cooling mode of employing use fin etc. has improved quietness (for example, with reference to patent documentation 1) thus.
In addition, in patent documentation 1, such supply unit (power inverter) is disclosed: utilize demarcation strip to be divided into central compartment and side room in housing, be provided with substrate in central compartment, be provided with reactor (reactor) in side room, electric power conversion element (power model) and circuit element are installed on described substrate.
Patent documentation 1: TOHKEMY 2001-028884 communique
Yet existing power inverter this respect in being suitable for being arranged on the house of average family etc. remains at further room for improvement, specifically, form noise immunity and thermal diffusivity excellence and compact conformation aspect remaining at further room for improvement.
For example, the large electric current that flows through because of the distribution between power model and reactor, capacitor easily produces noise, and existing power inverter is to the countermeasure of described noise and insufficient.And,, due to the heat generating components decentralized configuration of power model and reactor and so on, therefore not only can't obtain effective radiating effect, and be difficult to realize saving space.
The utility model content
A mode of execution mode is exactly to complete in view of the above problems, and its purpose is, a kind of noise immunity and thermal diffusivity excellence and compact power inverter are provided.
The power inverter that a mode of execution mode relates to possesses the housing that can be arranged at wall.Be divided into high heating part and low heating part in housing.High heating part disposes a plurality of power models and a plurality of reactors corresponding with described power model difference, and described a plurality of power model and a plurality of reactor and the thermal component butt of being located at the described side surface side of described housing.Low heating part disposes input circuit and output circuit.
In addition, in described power inverter, described high heating part and described low heating part along continuous straight runs configure side by side.
In described power inverter, described power model is configured in the vertical below of the described reactor corresponding with described power model with separating predetermined space, the group of described power model and described reactor with described power model reach each other described reactor separately from each other the mode that forms a line of along continuous straight runs be set up in parallel.
In described power inverter, described reactor forms respectively identical cylindric of outer circumference diameter, and described reactor is configured to, central axis and described central axis and the horizontal direction almost parallel of total described cylinder.
In described power inverter, described power inverter also possesses retainer, and described retainer is connected with described thermal component one under the state of all described reactors of maintenance.
In described power inverter, at least one described reactor is the direct current reactor that direct current is used, and described direct current reactor is configured near the substrate that possesses described input circuit.
In described power inverter, described power inverter also possesses capacitor, the group of described capacitor and described power model and described reactor is corresponding respectively, and described capacitor forms a line with the described capacitor along continuous straight runs with other groups between the described power model of corresponding group and described reactor mode is configured.
In described power inverter, described high heating part and described low heating part are demarcated by next door.
, according to a mode of execution mode, can provide a kind of noise immunity and thermal diffusivity excellence and compact power inverter.
Description of drawings
Fig. 1 is the key diagram that the use state of the power inverter that present embodiment relates to is shown.
Fig. 2 is the key diagram that the main circuit structure of this power inverter is shown.
Fig. 3 is the exploded perspective view of this power inverter.
Fig. 4 is the stereogram that the internal structure of this power inverter is shown.
Fig. 5 is the key diagram of observing from the side this power inverter.
Fig. 6 is the key diagram that the internal structure of this power inverter is shown.
Label declaration
1: power inverter;
3: the input substrate;
4: the output baseplate part;
5: capacitor;
6: power model;
7: reactor;
9: thermal component;
10: housing;
11: high heating part;
12: low heating part;
75: fixed retainer;
130: next door;
200: install and use wall.
Embodiment
Below, at length the execution mode of the disclosed power inverter of the application is described with reference to accompanying drawing.In addition, the execution mode shown in below the utility model is not subjected to limits.
At first, the summary situation of the power inverter that present embodiment relates to is described with Fig. 1 and Fig. 2.Fig. 1 is the key diagram that the use state of the power inverter 1 that execution mode relates to is shown, and Fig. 2 is the key diagram that the main circuit structure of power inverter 1 is shown.
The power inverter 1 that present embodiment relates to constitutes and can remain on the wall electric power conversion device of predetermined installation with wall 200, for example, this power inverter 1 possesses housing 10, and described housing 10 can be arranged at installation in the house of average family with wall 200.
As shown in Figure 1, housing 10 has: the housing body 100 of the rectangular box shape of front surface opening; Be installed on the front panel 110 of this housing body 100 in freely mode of loading and unloading, and housing 10 is installed on and installs with wall 200 via soleplate 120 is installed.
Being installed on the power inverter 1 of installing with wall 200 is that solar battery panel 2 is connected via inputting cable 21 with galvanic power-generating member, on the other hand, via the output cable 22 of single-phase three-wire, with the AC power 40 of alternating current, is connected.In addition, solar battery panel 2 consists of a plurality of solar battery cells, and be located at such as the roof in house etc., described a plurality of solar battery cells receive sunlights and produce direct current.
And, be provided with the socket 410 as lead-out terminal in the side, right side of the housing 10 of power inverter 1.By flexible cord 23 being connected to this socket 410, thus for example also can be to electrical equipment 430 supply capabilities when having a power failure.
In addition, below, in the situation that the relative position relation of each inscape of power inverter 1 is described, sometimes above lower left and right sides and front and back side or nearby side, depth side represent direction, but the benchmark of all directions is for being hung on power inverter 1 wall and over against the state of this power inverter 1.
Like this, power inverter 1 can receive sunlights with solar battery panel 2 and the direct current that obtains that generates electricity is converted to alternating current, and the alternating current after changing is via diverter switch 41(Fig. 2) be supplied to AC power 40 and electrical equipment 430.
As shown in Figure 2, be equipped with power model 6 and reactor 7 in the housing 10 of the power inverter 1 that present embodiment relates to.Power model 6 consists of the first power model 61, the second power model 62 and the 3rd power model 63.And reactor 7 consists of the first corresponding with the first power model 61, the second power model 62 and the 3rd power model 63 respectively reactor 71, the second reactor 72 and the 3rd reactor 73.At this, the first power model 61 and as the first reactor 71 of direct current reactor as one group.And, the second power model 62 and as the second reactor 72 of AC reactor as one group, and the 3rd power model 63 and also as the 3rd reactor 73 of AC reactor as one group.
And, as shown in the figure, also possessing capacitor 5, described capacitor 5 is corresponding with the group of power model 6 and reactor 7 respectively.Described capacitor 5 has as the function of inverter with smmothing capacitor, and it makes by the variation in voltage of the switch generation of power model 6 level and smooth.And as less important function, described capacitor 5 can also suppress the rising of surge voltage.Described capacitor 5 consists of with smmothing capacitor 53 with smmothing capacitor 52 and the 3rd inverter with smmothing capacitor 51, the second inverter the first inverter, and described capacitor 5 arranges (with reference to Fig. 4) accordingly with each group of the first~the 3rd power model 61~63 and the first~the 3rd reactor 71~73 respectively.
In addition, as mentioned above, the first~the 3rd inverter is referred to as capacitor 5 with smmothing capacitor 51,52,53, similarly, also has below the situation that three power models 61,62,63 is referred to as power model 6.And, also have for three reactors 71,72,73 situation that is referred to as reactor 7.
And, as shown in Figure 2, taken in input with substrate 3 in housing 10 and exported with baseplate part 4.Have input side noise filter 84 and input smmothing capacitor 50 etc. in input with substrate 3, and be provided with the input circuit for input dc power.Input smmothing capacitor 50 has the variation in voltage that makes by the input side of the solar battery panel 2 output sliding function that flattens.And, have outlet side noise filter 85 etc. in output with substrate 4, and be provided with the output circuit for the output AC electricity.
In addition, Fig. 2 is only the key diagram of circuit, and the key element of forming circuit etc. are different from the configuration of the physics of reality.For example, input with substrate 3 and export with baseplate part 4 figure in Fig. 2 be clip have power model 6, the power circuit of reactor 7 and capacitor 5 is positioned at the position, left and right, but in the present embodiment, like that, described input is arranged side by side (with reference to Fig. 3) with substrate 3 and output to an example at the fore-and-aft direction of housing 10 with baseplate part 4 as described later.
As shown in the figure, power model 6 has circuit, and described circuit possesses two semiconductor elements 60 playing a role as switch element, 60, three power models 61,62,63 are arranged side by side into row at the interior along continuous straight runs of housing 10.In addition,, for power model 61, there is the situation of a semiconductor element 60 employing diodes (not shown) in two semiconductor elements 60,60.
In addition, in the power inverter 1 that present embodiment relates to, three power models 61,62,63 constitute has respectively independently encapsulation.And, be not limited to so independently structure, for example also can in one shares encapsulation, semiconductor element 60 be set by twos and form three power models 61,62,63.
And,, as the material that forms semiconductor element 60, for example can suitably set preferred material from the silicon of element semiconductor, III-V compound semiconductor, III-VI compound semiconductor.
And, taken in external control substrate 81 in housing 10, controlled substrate 82 and power supply board 83.Power supply board 83 is provided with for the control power supply to external control substrate 81 and control substrate 82 supply capabilities.
As mentioned above, be provided with the input side noise filter 84 of a part that forms input circuit with substrate 3 in input, be provided with the outlet side noise filter 85 of a part that forms output circuit in output with baseplate part 4.These input side noise filters 84 and outlet side noise filter 85 are all be used to the EMI filter of removing high-frequency noise.
And, being provided with for the diverter switch 41 that switching is turned round voluntarily and system turns round with baseplate part 4 in output, and being provided with external connection terminals seat 42, described external connection terminals seat 42 possesses input terminal and the lead-out terminal for the power circuit of electric power conversion use.
By above-mentioned structure, the input terminal of the external connection terminals seat 42 that the direct current that is obtained by solar battery panel 2 generating arranges via the lower right side at housing 10, arrive by input smmothing capacitor 50 and the first reactor 71 from input side noise filter 84 possess semiconductor element 60,60 power model 6.Then, the alternating current that is converted to interchange from direct current by power model 6 uses capacitor 54 to arrive outlet side noise filters 85 via the second reactor 72, the 3rd reactor 73 and filter.The second reactor 72, the 3rd reactor 73 and filter play a role with the filter that capacitor 54 is used as the inhibition high order harmonic component.Then, alternating current is supplied to AC power 40 from outlet side noise filter 85 via the lead-out terminal of external connection terminals seat 42.
, at this, with reference to Fig. 3~Fig. 6, the internal structure of power inverter 1 is described.Fig. 3 is the exploded perspective view of power inverter 1, and Fig. 4 is the stereogram that the internal structure of power inverter 1 is shown, and Fig. 5 is the key diagram of observing from the side power inverter 1, and Fig. 6 is the key diagram that the internal structure of power inverter 1 is shown.
As shown in Figure 6, the power inverter 1 that relates to of present embodiment is divided into high heating part 11 and low heating part 12 with housing 10.That is, will as the power model 6 in generation source of noise and heat and reactor 7 and the input that does not substantially produce noise and heat with substrate 3 and export with baseplate part 4 the internal physical of housing 10 separate (with reference to Fig. 3).Like this,, by also being divided in housing 10 as the high heating part 11 of strong noise generating unit with also as the low heating part 12 of low noise generating unit, can suppress as best one can the harmful effect that noise and heat are brought input circuit and output circuit.
In the power inverter 1 that present embodiment relates to, high heating part 11 and low heating part 12 form in the horizontal direction side by side along the left and right length direction of housing 10.According to described structure, the key element that the various inscapes of power inverter 1 can be separated into the key element that produces high heat and not produce high heat also is accommodated in housing 10 compactly, thereby can be conducive to the miniaturization of power inverter 1.
, as Fig. 3~shown in Figure 6, also as the high heating part 11 of strong noise generating unit, by making the first~the 3rd power model 61~63 and the first~the 3rd reactor 71~73 and the depth side that is arranged at housing 10 that thermal component 9 butt ground with wall 200 sides namely are installed, configure and form.In addition, thermal component 9 in present embodiment is in fact by formations such as radiator 91 and conducting strip or silicon compounds (all not shown), and described conducting strip or silicon compound (silicon compound) are folded between this radiator 91 and power model 6 and reactor 7.Be formed with a plurality of fin 910(Fig. 3 at radiator 91).
On the other hand, also the low heating part 12 as the low noise generating unit forms, and disposes at the input described input circuit of substrate 3 settings and the described output circuit that arranges with baseplate part 4 in output.As shown in Figure 3, input is provided in the depth side (installing with wall 200 sides) of housing 10 across insulating trip 160 with substrate 3, and output separates predetermined space ground with respect to input with substrate 3 with baseplate part 4 and is configured in the front side of housing 10 with coincidence status.
As shown in Figure 6, the output in present embodiment is integrally formed with the power baseplate part 600 that is provided with power circuit with baseplate part 4, and as shown in the figure, this output is divided into high heating part 11 and low heating part 12 with baseplate part 4 via next door 130.In addition, next door 130 is formed by metallic plate, not only can avoid, from the heat of reactor 7, output is brought impact with each circuit of baseplate part 4 etc., and can avoid the impact that causes by radiating noise.And, in the present embodiment,, although omitted diagram, will be formed with output and also via next door, be divided into high heating part 11 and low heating part 12 with the space of the substrate dorsal part of baseplate part 4 and power baseplate part 600.In addition, illustrated next door 130 with can be split in the next door of substrate dorsal part setting, also can for example adopt the next door of one and with the state that connects substrate, set.
As shown in Figure 6, power model 6 separate predetermined arranged spaced the reactor corresponding with this power model 67 vertically below.And, each group (the first power model 61 and the first reactor 71, the second power model 62 and the second reactor 72, the 3rd power model 63 and the 3rd reactor 73) of power model 6 and reactor 7 with the first~the 3rd power model 61~63 reach each other the first~the 3rd reactor 71~73 separately from each other the mode that forms a line of along continuous straight runs be set up in parallel.
, by described structure, can dwindle as best one can the distance D 2 of power model 6 and reactor 7, and both uniformly-spaced can be configured.Therefore, the generation of noise can be stably suppressed, and the miniaturization of power inverter 1 can be conducive to.
And, as shown in Figure 6, the upside configuration reactor 7 in high heating part 11, the downside allocating power module 6 in high heating part 11.And as shown in Figure 5, each power model 6 that caloric value is large sets with the state with thermal component 9 butts.
That is, the heat of power model 6 is mainly distributed by radiator 91, but is provided in the parts of heating the position of below due to this power model 6, therefore easily touches the fresh air of the outside of housing 10, thereby can further improve cooling effect.On the other hand, cooling by the air of the internal flow at housing 10 by free convection etc. in the heat of the reactor 7 of the upside configuration of the high heating part 11 of housing 10.In addition, be formed with a large amount of slot set in upper surface and the bottom surface of the housing body 100 of housing 10, so that air flows to the inside (with reference to Fig. 1 and Fig. 3) of housing 10 swimmingly.
In addition, as shown in Figure 5, the power model 6 that sets overlappingly at fore-and-aft direction each other links together by wire 640 with power baseplate part 600.
In addition, as shown in Figure 6, for reactor 7, the first~the 3rd reactor 71~73, all form roughly the same roughly cylindric of outer circumference diameter D1.And the first~the 3rd reactor 71~73 is configured to, central axis and central axis and the horizontal direction almost parallel of total cylinder.
Therefore, as Fig. 3~shown in Figure 5, the first~the 3rd reactor 71~73 can be fixing by the fixed retainer 75 that shares, and can get rid of setting and the fixing required unnecessary space of reactor 7.Therefore, can be suppressed at the interior generation dead space of housing 10, can reduce the size of housing 10, result is to help the miniaturization of power inverter 1.
Fixed retainer 75 constitutes, can keep all reactor 7(first~the 3rd reactor 71~73) state under be connected with thermal component 9 one, as shown in Figure 5, fixed retainer 75 has the roughly the same flexure plane 751 of periphery of curvature and reactor 7.And, described fixed retainer 75 can and reactor pedestal 76 between keep reactor 7, described reactor pedestal 76 has the flexure plane 761 same with the flexure plane 751 of fixed retainer 75, and described reactor pedestal 76 is close to radiator 91 and is installed.In addition, as shown in Figure 3, fixed retainer 75 is connected with the reactor pedestal by connecting rod 77 connections.
And,, at the lateral surface first half of fixed retainer 75, be disposed with along its length a plurality of fins 752, thereby further improved the cooling effect to reactor 7.That is, reactor 7 is cooling by the free convection from below from entering between fixed retainer 75 and reactor pedestal 76, and from reactor pedestal 76, via radiator 91, dispels the heat.And the outer peripheral face of reactor 7 nearby side dispels the heat via the fixed retainer 75 with a plurality of fins 752.
In addition, at least one reactor 7 is direct current reactors, by this direct current reactor, will boost to required voltage to the direct current that power baseplate part 600 is supplied with.Then, being suppressed at by other AC reactor the harmonic wave that power baseplate part 600 produces flows out to outside.
, at this, as shown in Figure 2, the first reactor 71 is formed direct current reactor.And this first reactor 71 is configured with substrate 3 near input.Follow in this, corresponding with the first reactor 71 and form first power model 61 of a group and also be arranged near the position of input with substrate 3.
Compare with second, third reactor 72,73 as AC reactor, the length many, axial as the number of turn of the first reactor 71 of direct current reactor is long, so weight is also heavier.Like this, because the first close input of reactor 71 that weight is relatively large configures with substrate 3, result is that with its central configuration near housing 10, thereby the weight balancing when housing 10 is hung on installation with wall 200 is good.
And, the power inverter 1 that present embodiment relates to possesses corresponding with the group of power model 6 and reactor 7 respectively capacitor 5, i.e. the first inverter smmothing capacitor 51, the second inverter smmothing capacitor 52, the 3rd inverter smmothing capacitor 53.
As shown in Figure 6, described capacitor 5(first~the 3rd inverter is with smmothing capacitor 51~53) be configured with capacitor 5 along continuous straight runs of other groups between the power model 6 of the group of correspondence and reactor 7 with forming a line.
Like this, in the power circuit that comprises capacitor 5, in groups power model 6, reactor 7 and capacitor 5 equally spaced fitly is configured respectively, thereby can be with each key element centralized configuration in high heating part 11.Therefore, be conducive to the miniaturization of housing 10, and, because distribution length has also shortened, therefore also help the generation that suppresses noise.
As discussed above, a plurality of power models 6 of a side centralized configuration heating of the length direction of power inverter 1 in housing 10 that present embodiment relates to and with each power model 6 corresponding a plurality of reactors 7 and form high heating part 11 respectively.On the other hand, the opposite side of the length direction in the housing 10 configuration output circuit that is used for the input circuit of input dc power and is used for the output AC electricity forms low heating part 12.Like this, the interior along continuous straight runs of housing 10 is divided into high heating part 11 and low heating part 12 side by side, therefore can adopts small-sized and compact housing 10, and can form the power inverter 1 of noise immunity and thermal diffusivity excellence.
In addition, above-mentioned power inverter 1 utilizes next door 130 to be divided into high heating part 11 and low heating part 12, but next door 130 might not be set.And, in the situation that be provided with next door 130, can be not with the space of the rear side of the substrate of baseplate part 4 and power baseplate part 600, next door be set being formed with output as described above yet yet, but only in the face side of substrate, erects next door is set.Perhaps, also can be only in the spatial placement next door of the rear side of substrate.
And, above-mentioned power inverter 1 will be divided into high heating part 11 and low heating part 12 two parts in housing 10, but also can for example with hanging down heating part 12, be divided into the first low heating part and the second low heating part, form high heating part 11 in central authorities, in the mode that clips described high heating part 11, configure the first low heating part and the second low heating part.
In this case, can be: integrally formed power baseplate part 600 is separated formation with output with baseplate part 4, to use the input that sets in the overlapping mode in fore-and-aft direction devices spaced apart ground with substrate 3 and output with baseplate part 4 respectively as the first low heating part and the second low heating part, and to clip the mode left and right configuration of high heating part 11., according to described structure, can make housing 10 thinner.And,, in the situation that form such structure, also can utilize next door 130 that high heating part 11, the first low heating part and the second low heating part are demarcated.
Above, by above-mentioned execution mode, power inverter 1 has been described, but those skilled in the art can easily derive further effect and variation etc.Thus, form more widely of the present utility model is not represented and the specific detailed and representational execution mode recorded and narrated limits as described above.Therefore, can be in the situation that do not break away from by the conceptual spirit or scope of the utility model of appended claim and the defined blanket property of equivalent thereof and carry out various changes.

Claims (15)

1. a power inverter, is characterized in that,
Described power inverter possesses the housing that can be arranged at wall,
Be divided into high heating part and low heating part in described housing,
A plurality of power models and with described power model respectively corresponding a plurality of reactors and the described side surface side of being located at described housing the thermal component butt be configured in described high heating part,
Input circuit and output circuit are configured in described low heating part.
2. power inverter according to claim 1, is characterized in that,
Described high heating part and described low heating part along continuous straight runs configure side by side.
3. power inverter according to claim 1, is characterized in that,
Described power model is configured in the vertical below of the described reactor corresponding with described power model with separating predetermined space,
The group of described power model and described reactor with described power model reach each other described reactor separately from each other the mode that forms a line of along continuous straight runs be set up in parallel.
4. power inverter according to claim 2, is characterized in that,
Described power model is configured in the vertical below of the described reactor corresponding with described power model with separating predetermined space,
The group of described power model and described reactor with described power model reach each other described reactor separately from each other the mode that forms a line of along continuous straight runs be set up in parallel.
5. power inverter according to claim 3, is characterized in that,
Described reactor forms respectively identical cylindric of outer circumference diameter, and described reactor is configured to, central axis and described central axis and the horizontal direction parallel of total described cylinder.
6. power inverter according to claim 4, is characterized in that,
Described reactor forms respectively identical cylindric of outer circumference diameter, and described reactor is configured to, central axis and described central axis and the horizontal direction parallel of total described cylinder.
7. power inverter according to claim 5, is characterized in that,
Described power inverter also possesses retainer, and described retainer is connected with described thermal component one under the state of all described reactors of maintenance.
8. power inverter according to claim 6, is characterized in that,
Described power inverter also possesses retainer, and described retainer is connected with described thermal component one under the state of all described reactors of maintenance.
9. the described power inverter of any one according to claim 1~8, is characterized in that,
At least one described reactor is the direct current reactor that direct current is used,
Described direct current reactor is configured near the substrate that possesses described input circuit.
10. the described power inverter of any one according to claim 1~8, is characterized in that,
Described power inverter also possesses capacitor, and described capacitor is corresponding respectively with the group of described power model and described reactor,
Described capacitor forms a line with the described capacitor along continuous straight runs with other groups between the described power model of corresponding group and described reactor mode is configured.
11. power inverter according to claim 9, is characterized in that,
Described power inverter also possesses capacitor, and described capacitor is corresponding respectively with the group of described power model and described reactor,
Described capacitor forms a line with the described capacitor along continuous straight runs with other groups between the described power model of corresponding group and described reactor mode is configured.
12. the described power inverter of any one according to claim 1~8, is characterized in that,
Described high heating part and described low heating part are demarcated by next door.
13. power inverter according to claim 9, is characterized in that,
Described high heating part and described low heating part are demarcated by next door.
14. power inverter according to claim 10, is characterized in that,
Described high heating part and described low heating part are demarcated by next door.
15. power inverter according to claim 11, is characterized in that,
Described high heating part and described low heating part are demarcated by next door.
CN2013201034769U 2012-09-20 2013-03-07 Electric power conversion apparatus Expired - Fee Related CN203301343U (en)

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