CN202523745U - Semiconductor DC photoelectric transformer - Google Patents
Semiconductor DC photoelectric transformer Download PDFInfo
- Publication number
- CN202523745U CN202523745U CN2011204445542U CN201120444554U CN202523745U CN 202523745 U CN202523745 U CN 202523745U CN 2011204445542 U CN2011204445542 U CN 2011204445542U CN 201120444554 U CN201120444554 U CN 201120444554U CN 202523745 U CN202523745 U CN 202523745U
- Authority
- CN
- China
- Prior art keywords
- conversion layer
- layer
- electrode layer
- electrode
- electric light
- Prior art date
- Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
- Expired - Lifetime
Links
Images
Abstract
The utility model provides a semiconductor DC (direct current) photoelectric transformer, comprising a first electrode layer, a photoelectric conversion layer formed on the first electrode layer, a second electrode layer formed on the photoelectric conversion layer, a first isolation layer formed on the second electrode layer, a third electrode layer formed on the first isolation layer, a photoelectric conversion layer formed on the third electrode layer and a fourth electrode layer formed on the photoelectric conversion layer, wherein the first isolation layer, the second electrode layer and the third electrode layer transmit transparent work lights to the photoelectric conversion layer. The semiconductor DC photoelectric transformer can directly realize transformation of the DC voltage, and at the same time has the advantages of being high-voltage resistant, having no electromagnetic radiation and coil structure, having no influence of solar radiation and solar storm, being safe and reliable, being small in volume, having long service life and light weight, and being convenient for installation and maintenance.
Description
Technical field
The utility model relates to current/voltage transformation field, particularly a kind of semiconductor direct current opto-electronic transformers.
Background technology
In the daily use, traditional electric power carries the main alternating current that adopts to transmit, and mainly is because the alternating current transformation is easy, realizes the remote distance power transmission easily, and with the low-voltage distribution power transformation of user side.But adopt ac transmission to have very big defective: at first, the induction reactance effect that alternating current produces can not be ignored, and especially to high-frequency alternating current, its induction reactance effect can produce greatly influence to alternating current; Simultaneously, because the existence of skin effect makes that the effective area of alternating current transfer wire is less, can a large amount of electric energy of loss in the long distance power transmission process.Secondly, ac power line generally all is an overhead wire, and submerged cable and underground cable are also arranged, and alternating current " shunting " is caused in they and " shunt capacitance " that cable produces, causes the energy loss in the transmission of electricity process.Also have, in the ac transmission process, whole electrical network needs synchronous operation, and all electricity generation systems will to guarantee power grid operation, exchange the Phase synchronization difficulty synchronously in same phase place, and the variation of an electricity generation system will influence the stable of whole electrical network.In addition, in small-power electronics product was used, traditional dc low-voltage becomes high direct voltage often need become AC low-tension earlier; Become ac high-voltage with coil transformer again, become the method for high direct voltage again, this method complicated circuit; Element is many, and volume is big, and cost height and conversion efficiency are low.
Compare with ac transmission, direct current transportation has plurality of advantages:
1, the circuit cost is low: for overhead transmission line, the direct current one pole only needs one, and two of bipolar need are more economical.Every lead can move as an independent loop simultaneously, and can adopt the earth or seawater to do the loop.
2, loss is little: DC line does not have reactive loss, does not have charge power and charging current, and the direct current overhead transmission line does not have skin effect, and its corona loss is all little than exchanging overhead transmission line with radio interference.And cable line can move under higher electric potential gradient.
3, operation of power networks is more stable: itself has modulation function direct current, can react according to the requirement of system, moves more stable.Can get in touch with the AC system of two different frequencies, the power on the interconnection is easy to control.
But present direct current transportation is a direct current in this link of transmission of electricity only, and generating is still interchange.In the origin or beginning of transmission line converter being arranged is direct current with exchange conversion, becomes direct current again interchange again to line end.Present this converter manufacturing difficulty, cost an arm and a leg, so the direct current transportation range of application of present stage mainly is confined to remote large capacity transmission and submarine cable transmission of electricity etc., greatly limited the application of direct current transportation.For making direct current transportation obtain widespread usage, development direct current transformation technology is the key issue that needs to be resolved hurrily with development direct current transformation device.
The utility model content
The purpose of the utility model is intended to solve at least one of above-mentioned technological deficiency, particularly proposes a kind of semiconductor direct current opto-electronic transformers.
The utility model provides a kind of commutator transformer, comprising: first electrode layer; Be formed on the electric light conversion layer on said first electrode layer; Be formed on the second electrode lay on the said electric light conversion layer; Be formed on first separator on the said the second electrode lay; Be formed on the third electrode layer on said first separator; Be formed on the photoelectric conversion layer on the said third electrode layer; And be formed on the 4th electrode layer on the said photoelectric conversion layer, wherein, said first separator, said the second electrode lay and said third electrode layer are transparent to the work light that said electric light conversion layer sends.
Commutator transformer according to an embodiment of the utility model also comprises: first reflector between said first electrode layer and said electric light conversion layer; And second reflector between said the 4th electrode layer and said photoelectric conversion layer.Said first and second reflector are limited in light between said electric light conversion layer and the said photoelectric conversion layer comes back reflective, prevents the light leakage, improves light wave transmissions efficient.
According to the commutator transformer of an embodiment of the utility model, said first reflector and second reflector are Bragg mirror or metal completely reflecting mirror.
According to the commutator transformer of an embodiment of the utility model, said first electrode layer and said the 4th electrode layer are metal electrode.
According to the commutator transformer of an embodiment of the utility model, said first insolated layer materials is Al
2O
3, AlN, SiO
2, MgO, Si
3N
4, BN, diamond, LiAlO
2, LiGaO
2, semi-insulated GaAs, SiC or GaP, a kind of and combination among the GaN, and rare earth oxide REO and combination thereof, so that said first separator is transparent to said work light, insulation characterisitic is good, high pressure resistant anti-puncture.
According to the commutator transformer of an embodiment of the utility model, the material refraction coefficient echelon of said electric light conversion layer, said the second electrode lay, said first separator, said third electrode layer and said photoelectric conversion layer increases.The implication of said " echelon increase " is: the material refraction coefficient that does not require each said layer all progressively increases with respect to its previous said layer; Material refraction coefficient of some said layer can be identical with its previous said layer, and promptly the material refraction coefficient integral body of said each layer is and increases progressively trend and get final product.Avoid light when said photoelectric conversion layer direction is transmitted, (to comprise the light of said electric light conversion layer generation and the light of said each electrode layer and each reflective layer reflects) on the one hand total reflection takes place, to improve the efficiency of transmission of light along said electric light conversion coating; Impel light (mainly comprising third and fourth electrode of said photoelectric conversion layer and the light of second reflective layer reflects) when the said electric light conversion layer of said opto-electronic conversion course direction is transmitted that emission entirely takes place on the other hand; So that more light is limited in the photoelectricity conversion coating, convert electric efficient into thereby improve light.
According to the semiconductor direct current opto-electronic transformers of an embodiment of the utility model, the material refraction coefficient of said electric light conversion layer, said the second electrode lay, said first separator, said third electrode layer and said photoelectric conversion layer is approaching.Inner layers of material is preferably the identical or close material of refraction coefficient to reduce reflection of light and loss.
Commutator transformer according to an embodiment of the utility model; In said electric light conversion layer, said the second electrode lay, said first separator, said third electrode layer and the said photoelectric conversion layer at least one has roughened surface or photon crystal structure; To increase light transmission, reduce the total reflection of light.
Commutator transformer according to an embodiment of the utility model; The photon energy of the work light that the energy gap of said the second electrode lay, said first separator and said third electrode layer material is sent greater than said electric light conversion layer; To prevent the absorption of said the second electrode lay, said first separator and said third electrode layer, improve light wave transmissions efficient to said work light.
According to the commutator transformer of an embodiment of the utility model, said photoelectric conversion layer is LED structure or laser structure, and said LED structure comprises resonance LED structure.
Semiconductor direct current opto-electronic transformers according to an embodiment of the utility model; The material of said electric light conversion layer comprises the AlGaInP of reddish yellow light, the InGaN of the GaN of ultraviolet and InGaN, royal purple light and the AlGaInAs of AlGaInN, ZnO, ruddiness or infrared light, GaAS, InGaAs and other III family compound nitrogen series, the As of III family system or phosphorus series compound semi-conducting material and combination thereof.
According to the semiconductor direct current opto-electronic transformers of an embodiment of the utility model, the material of said photoelectric conversion layer comprises AlGaInP, InGaAs, InGaN, AlGaInN, InGaAsP, InGaP, and other III-V family direct energy-gap semiconductor material and combination thereof.
Commutator transformer according to an embodiment of the utility model; The band structure of said electric light conversion layer and said photoelectric conversion layer is complementary so that the wave band of the work light that said electric light conversion layer sends and the highest wave band of said photoelectric conversion layer absorption efficiency are complementary, to reach the highest light-wave energy efficiency of transmission.
Commutator transformer according to an embodiment of the utility model; Said the second electrode lay and said third electrode layer are heavily doped semi-conducting material GaAs, GaN, GaP; AlGaInP, AlGaInN, AlGaInAs, perhaps conductive, transparent metal oxide materials ITO, SnO
2, ZnO and combination thereof.
According to the commutator transformer of an embodiment of the utility model, said electric light conversion layer and/or said photoelectric conversion layer are the multilayer multijunction structure.
Commutator transformer according to an embodiment of the utility model; Also comprise second separator that is formed on said the 4th electrode layer; And being formed on the electric light transformational structure on said second separator, said electric light transformational structure comprises said first electrode layer, is formed on the said electric light conversion layer on said first electrode layer and is formed on the said the second electrode lay on the said electric light conversion layer.This structure can further improve the direct voltage transformation ratio.In this structure, the 4th middle electrode layer is heavily doped semi-conducting material GaAs, GaN, GaP, AlGaInP, AlGaInN, AlGaInAs, perhaps conductive, transparent metal oxide materials ITO, SnO
2, ZnO and combination thereof.
The utility model provides a kind of commutator transformer; Through input the electric light conversion layer is set at commutator transformer; The light radiation that utilizes the semiconductor electronic transition between the energy levels to produce converts direct current into light and transmits, and photoelectric conversion layer is set with phototransformation to be direct current output at output; Because the voltage of input and output unit cell depends on electric light conversion layer and photoelectric conversion layer properties of materials parameter respectively, so this transformer can directly be realized the transformation of direct voltage.Have simultaneously high pressure resistant, electromagnetic-radiation-free, advantage such as no loop construction does not receive the influence of solar radiation and solar windstorm etc., and safe and reliable, volume is little, and the life-span is long, and is in light weight, convenient for installation and maintenance.
Aspect that the utility model is additional and advantage part in the following description provide, and part will become obviously from the following description, or recognize through the practice of the utility model.
Description of drawings
Above-mentioned and/or additional aspect of the utility model and advantage are from obviously with easily understanding becoming the description of embodiment below in conjunction with accompanying drawing, wherein:
Fig. 1 is the structural representation of the commutator transformer of the utility model embodiment;
Fig. 2 is the structural representation of the commutator transformer that comprises an electric light conversion layer and two photoelectric conversion layers of the utility model embodiment;
Fig. 3 is the structural representation of the commutator transformer that comprises two electric light transformational structures and an opto-electronic conversion structure of the utility model embodiment.
Embodiment
Describe the embodiment of the utility model below in detail, the example of said embodiment is shown in the drawings, and wherein identical from start to finish or similar label is represented identical or similar elements or the element with identical or similar functions.Be exemplary through the embodiment that is described with reference to the drawings below, only be used to explain the utility model, and can not be interpreted as restriction the utility model.
Hereinafter the different structure that provides many various embodiment or example to be used for realizing the utility model disclosed.In order to simplify disclosing of the utility model, hereinafter the parts and the setting of specific examples are described.Certainly, they only are example, and purpose does not lie in restriction the utility model.In addition, the utility model can be in different examples repeat reference numerals and/or letter.This repetition is in order to simplify and purpose clearly, itself not indicate the relation between various embodiment that discuss of institute and/or the setting.In addition, various specific technology and examples of material that the utility model provides, but those of ordinary skills can recognize the property of can be applicable to of other technologies and/or the use of other materials.In addition; First characteristic of below describing second characteristic it " on " structure can comprise that first and second characteristics form the embodiment of direct contact; Can comprise that also additional features is formed on the embodiment between first and second characteristics, such first and second characteristics possibly not be direct contacts.
The utility model provides a kind of commutator transformer; Through injecting the compound generation photon of charge carrier in the semi-conducting material that utilizes input; In the semi-conducting material of light wave transmissions to output; Cause that bound electronics produces transition between different can being with, and separate, thereby realize power transfer and transformation through internal electric field.
Shown in Figure 1 is structural representation according to the commutator transformer of the utility model embodiment.This commutator transformer comprises: first electrode layer 100; Be formed on the electric light conversion layer 102 on first electrode layer 100; Be formed on the second electrode lay 104 on the electric light conversion layer 102; Be formed on first separator 106 on the second electrode lay 104; Be formed on the third electrode layer 108 on first separator 106; Be formed on the photoelectric conversion layer 110 on the third electrode layer 108; And be formed on the 4th electrode layer 112 on the photoelectric conversion layer 110.
Wherein, electric light conversion layer 102 converts light in order to the direct current with input, sends the work light of necessary wavelength scope.The combination of the one or more wave bands work light comprises from the ultraviolet light of 100nm to the overall optical spectral limit of the infrared light of 10um; Be preferably unifrequent light; The purple light of the blue light of the ruddiness of 620nm, 460nm, 380nm for example is to help using ripe prior art to make the electric light conversion layer.For example electric light conversion layer 102 can adopt the structure and material with high-quantum efficiency, high electro-optical efficiency.Particularly, can generally comprise active layer for LED structure or laser structure; Limiting layer, electric current dispersion layer, structures such as PN junction; Wherein active layer can be multi-quantum pit structure, and the electric light conversion layer of laser structure also comprises resonant cavity, and the LED structure comprises resonance LED structure.The material of electric light conversion layer 102 is selected based on material self-characteristic (like defect concentration, band structure etc.) and needed light wave characteristic (like wave-length coverage); For example can adopt the AlGaInP of reddish yellow light; The AlGaInAs of the InGaN of the GaN of ultraviolet and InGaN, royal purple light and AlGaInN, ZnO, ruddiness or infrared light, GaAS, InGaAs and other III family compound nitrogen series, the As of III family system or phosphorus series compound semi-conducting material and combination thereof; The material that wherein defect concentration is low, light conversion efficiency is high (like AlGaInP, InGaN, is preferred GaN).
Wherein, photoelectric conversion layer 110 is in order to convert light into electricity to realize transformation.The material of photoelectric conversion layer 110 comprises AlGaInP, InGaAs, InGaN, AlGaInN, InGaAsP, InGaP, and other III-V family direct energy-gap semiconductor material and combination thereof.Electric light conversion layer 102 generally can be selected the direct energy-gap semiconductor material for use; The band structure of its band structure and photoelectric conversion layer 110 is complementary so that the wave band of the work light that electric light conversion layer 102 sends and the highest wave band of photoelectric conversion layer 110 absorption efficiencies are complementary, to reach the highest light-wave energy conversion efficiency.
Wherein, the work light that sends of first separator 106, the second electrode lay 104 and 108 pairs of electric light conversion layer 102 of third electrode layer is transparent.In the utility model embodiment; The photon energy of the work light that the energy gap of the second electrode lay 104, first separator 106 and third electrode layer 108 material is sent greater than electric light conversion layer 102; To prevent the absorption of the second electrode lay 104,106 layers of isolation and 108 pairs of said work light of third electrode layer, improve the light wave conversion efficiency.
In addition, the material refraction coefficient of first separator 106, the second electrode lay 104 and third electrode layer 108 and the material refraction coefficient of electric light conversion layer 102 and photoelectric conversion layer 110 coupling are to avoid in light communication process total reflection taking place at the interface.Total reflection takes place in light when the bigger material of refraction coefficient gets into the refraction coefficient materials with smaller because and if only if; So in preferred embodiment of the utility model; The material refraction coefficient of the second electrode lay 104, first separator 106, third electrode layer 108 and photoelectric conversion layer 110 is identical, full emission takes place at the interface to avoid light when electric light conversion layer 102 transfers to photoelectric conversion layer 110 at each; In preferred embodiment of the utility model, the material refraction coefficient echelon of the second electrode lay 104, first separator 106, third electrode layer 108 and photoelectric conversion layer 110 increases.The implication of said " echelon increase " is: the material refraction coefficient of each said layer is not less than the material refraction coefficient of its previous said layer; The material refraction coefficient that is some said layer can be identical with its previous said layer, but the material refraction coefficient integral body of said each layer is and increases progressively trend; In preferred embodiment of the utility model, the material refraction coefficient of the second electrode lay 104, first separator 106, third electrode layer 108 and photoelectric conversion layer 110 increases gradually.Through above-mentioned preferred embodiment; Avoid light when photoelectric conversion layer 110 directions are transmitted, (to comprise the light of electric light conversion layer 102 generations and the light of said each electrode layer and each reflective layer reflects) on the one hand total reflection takes place, to improve the efficiency of transmission of light along electric light conversion coating 102; Impel light when electric light conversion layer 102 directions are transmitted, (mainly to comprise third and fourth electrode of photoelectric conversion layer 110 and the light of second reflective layer reflects) on the other hand emission entirely takes place from photoelectric conversion layer 110; So that more light is limited in the photoelectricity conversion coating 110, convert electric efficient into thereby improve light.
In addition, the utility model figure such as photon crystal structure through roughening or rule at the interface that can also be employed in different material layer waits and lowers total reflection.So in the utility model preferred embodiment; In electric light conversion layer 102, the second electrode lay 104, first separator 106, third electrode layer 108 and the photoelectric conversion layer 110 at least one has roughened surface or photon crystal structure; To increase light transmission, reduce the total reflection of light.
In preferred embodiment of the utility model, also comprise between first electrode layer 100 and the electric light conversion layer 102 between first reflector, 101, the four electrode layers 112 and the photoelectric conversion layer 110 also comprising second reflector 111, as shown in Figure 1.Said first and second reflector are limited in light between electric light conversion layer 102 and the photoelectric conversion layer 110 comes back reflective, reveals to prevent light, improves the light wave conversion efficiency.The material require in reflector satisfies, requirements such as material property stable, interface contact resistance low, good conductivity high to work light reflection efficiency.Specifically can realize through following dual mode: a kind of is the Bragg mirror structure; Utilize multilayer refractive index material different layer to realize reflection; Processing sandwich construction such as the material that adopts two kinds of different refractivities (for example the 0.6GaAs and the AlAs that differ of refractive index, refractive index differs 2.2 Si and rare earth oxide REO) reflects realizing; A kind of is metal completely reflecting mirror structure, and directly the metal of deposit high conductivity and thermal conductivity is realized reflection, for example Ag, Au, Cu, Ni, Al, Sn, Co, W and combination thereof etc.Since thicker with the thickness of the contacted dorsum electrode layer in reflector (i.e. first electrode layer 100 and the 4th electrode layer 112), so the reflector adopts metal completely reflecting mirror structure to have the function of heat radiation simultaneously concurrently, can the inner heat that produces of transformer be conducted out.
Wherein, First electrode layer 100 and the 4th electrode layer 112 are used as extraction electrode with the input and output electric current; Because need be not transparent to work light; So can adopt materials such as metal, alloy, pottery, glass, plastics, conductive oxide to form individual layer and/or multi-layer compound structure, wherein be preferably the metal of low-resistivity, for example Cu.Preferably, the thickness that can pass through to increase metal electrode layer plays heat sink work in order to heat radiation simultaneously to reduce resistance.
Be pointed out that, because the input threshold voltage of this commutator transformer and the material characteristic parameter that output voltage is decided by photoelectric conversion layer and electric light conversion layer, like energy gap, doping content etc., so through regulating corresponding characterisitic parameter to realize transformation.Further, can compare to improve the transformation amplitude through the number of adjusting electric light conversion layer 102 and photoelectric conversion layer 110 according to actual needs; Realize the expection transformation, for example, as shown in Figure 2; Commutator transformer comprises an electric light conversion layer 102 and two photoelectric conversion layer 110A and 110B; This structure has increased the transformation of vertical stratification with respect to the commutator transformer that comprises identical single electric light conversion layer and single photoelectric conversion layer, so transformation ratio is bigger.
In an embodiment of the utility model, with first electrode layer 100, be formed on the electric light conversion layer 102 on first electrode layer 100 and be formed on the second electrode lay 104 on the electric light conversion layer 102 as an electric light transformational structure; In like manner with third electrode layer 108, be formed on the photoelectric conversion layer 110 on the third electrode layer 108 and be formed on the 4th electrode layer 112 on the photoelectric conversion layer 110 as an opto-electronic conversion structure.This semiconductor direct current opto-electronic transformers can also comprise the electric light transformational structure and the opto-electronic conversion structure of multilayer alternated in vertical direction.Comprise separator between every adjacent electric light transformational structure and the opto-electronic conversion structure, with further raising direct voltage transformation ratio.Wherein, a plurality of electric light transformational structures (or a plurality of opto-electronic conversion structure) are series connection each other, and the structure of each electric light transformational structure (or each opto-electronic conversion structure) can be with reference to the described structure of the foregoing description.Shown in Figure 3 for having the semiconductor direct current opto-electronic transformers structural representation of two electric light transformational structures and an opto-electronic conversion structure in vertical direction; Wherein, comprise first separator 106 and second separator 107 between electric light transformational structure and the opto-electronic conversion structure respectively.Be pointed out that; In this structure; Except that first and last electric light (or photoelectricity) transformational structure, first electrode layer and the 4th electrode layer of middle each electric light transformational structure and opto-electronic conversion structure can not be selected metal electrode for use, and select heavily doped semi-conducting material GaAs, GaN, the GaP identical with the third electrode layer with second for use; AlGaInP, AlGaInN, AlGaInAs, perhaps conductive, transparent metal oxide materials ITO, SnO
2, ZnO and combination thereof, thereby help light ray propagation.
The utility model provides a kind of commutator transformer; Through input the electric light conversion layer is set at commutator transformer; The light radiation that utilizes the semiconductor electronic transition between the energy levels to produce converts direct current into light and transmits, and photoelectric conversion layer is set with phototransformation to be direct current output at output; Because the voltage of input and output unit cell depends on electric light conversion layer and photoelectric conversion layer properties of materials parameter respectively, so this transformer can directly be realized the transformation of direct voltage.Have simultaneously high pressure resistant, electromagnetic-radiation-free, advantage such as no loop construction does not receive the influence of solar radiation and solar windstorm etc., and safe and reliable, volume is little, and the life-span is long, and is in light weight, convenient for installation and maintenance.
Although illustrated and described the embodiment of the utility model; For those of ordinary skill in the art; Be appreciated that under the situation of principle that does not break away from the utility model and spirit and can carry out multiple variation, modification, replacement and modification that the scope of the utility model is accompanying claims and be equal to and limit to these embodiment.
Claims (12)
1. a semiconductor direct current opto-electronic transformers is characterized in that, comprising:
First electrode layer;
Be formed on the electric light conversion layer on said first electrode layer;
Be formed on the second electrode lay on the said electric light conversion layer;
Be formed on first separator on the said the second electrode lay;
Be formed on the third electrode layer on said first separator;
Be formed on the photoelectric conversion layer on the said third electrode layer; And
Be formed on the 4th electrode layer on the said photoelectric conversion layer, wherein, said first separator, said the second electrode lay and said third electrode layer are transparent to the work light that said electric light conversion layer sends.
2. semiconductor direct current opto-electronic transformers as claimed in claim 1 is characterized in that, also comprises:
First reflector between said first electrode layer and said electric light conversion layer; And
Second reflector between said the 4th electrode layer and said photoelectric conversion layer.
3. semiconductor direct current opto-electronic transformers as claimed in claim 2 is characterized in that, said first reflector and second reflector are Bragg mirror or metal completely reflecting mirror.
4. semiconductor direct current opto-electronic transformers as claimed in claim 1 is characterized in that, said first electrode layer and said the 4th electrode layer are metal electrode.
5. semiconductor direct current opto-electronic transformers as claimed in claim 1 is characterized in that, the material refraction coefficient echelon of said electric light conversion layer, said the second electrode lay, said first separator, said third electrode layer and said photoelectric conversion layer increases.
6. semiconductor direct current opto-electronic transformers as claimed in claim 1 is characterized in that, the material refraction coefficient of said electric light conversion layer, said the second electrode lay, said first separator, said third electrode layer and said photoelectric conversion layer is approaching.
7. semiconductor direct current opto-electronic transformers as claimed in claim 1; It is characterized in that at least one in said electric light conversion layer, said the second electrode lay, said first separator, said third electrode layer and the said photoelectric conversion layer has roughened surface or photon crystal structure.
8. semiconductor direct current opto-electronic transformers as claimed in claim 1 is characterized in that, the photon energy of the work light that the energy gap of said the second electrode lay, said first separator and said third electrode layer material is sent greater than said electric light conversion layer.
9. semiconductor direct current opto-electronic transformers as claimed in claim 1 is characterized in that said photoelectric conversion layer is LED structure or laser structure, and wherein, said LED structure comprises resonance LED structure.
10. semiconductor direct current opto-electronic transformers as claimed in claim 1; It is characterized in that the band structure of said electric light conversion layer and said photoelectric conversion layer is complementary so that the wave band of the work light that said electric light conversion layer sends and the highest wave band of said photoelectric conversion layer absorption efficiency are complementary.
11. semiconductor direct current opto-electronic transformers as claimed in claim 1 is characterized in that said electric light conversion layer and/or said photoelectric conversion layer are the multilayer multijunction structure.
12. like each described semiconductor direct current opto-electronic transformers of claim 1-11; It is characterized in that; Also comprise second separator that is formed on said the 4th electrode layer; And being formed on the electric light transformational structure on said second separator, said electric light transformational structure comprises said first electrode layer, is formed on the said electric light conversion layer on said first electrode layer and is formed on the said the second electrode lay on the said electric light conversion layer.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN2011204445542U CN202523745U (en) | 2011-11-10 | 2011-11-10 | Semiconductor DC photoelectric transformer |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN2011204445542U CN202523745U (en) | 2011-11-10 | 2011-11-10 | Semiconductor DC photoelectric transformer |
Publications (1)
| Publication Number | Publication Date |
|---|---|
| CN202523745U true CN202523745U (en) | 2012-11-07 |
Family
ID=47106677
Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN2011204445542U Expired - Lifetime CN202523745U (en) | 2011-11-10 | 2011-11-10 | Semiconductor DC photoelectric transformer |
Country Status (1)
| Country | Link |
|---|---|
| CN (1) | CN202523745U (en) |
Cited By (4)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN102832287A (en) * | 2011-11-10 | 2012-12-19 | 郭磊 | Semiconductor direct current (DC) photoelectric transformer |
| WO2013067966A1 (en) * | 2011-11-10 | 2013-05-16 | Lei Guo | Chip with semiconductor electricity conversion structure |
| WO2013067968A1 (en) * | 2011-11-10 | 2013-05-16 | Guo Lei | Semiconductor photoelectric power conversion system |
| US8941126B2 (en) | 2011-11-10 | 2015-01-27 | Lei Guo | Semiconductor electricity converter |
-
2011
- 2011-11-10 CN CN2011204445542U patent/CN202523745U/en not_active Expired - Lifetime
Cited By (8)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN102832287A (en) * | 2011-11-10 | 2012-12-19 | 郭磊 | Semiconductor direct current (DC) photoelectric transformer |
| WO2013067969A1 (en) * | 2011-11-10 | 2013-05-16 | Lei Guo | Semiconductor voltage transformation structure |
| WO2013067966A1 (en) * | 2011-11-10 | 2013-05-16 | Lei Guo | Chip with semiconductor electricity conversion structure |
| WO2013067968A1 (en) * | 2011-11-10 | 2013-05-16 | Guo Lei | Semiconductor photoelectric power conversion system |
| US8785950B2 (en) | 2011-11-10 | 2014-07-22 | Lei Guo | Chip with semiconductor electricity conversion structure |
| US8809877B2 (en) | 2011-11-10 | 2014-08-19 | Lei Guo | Semiconductor voltage transformation structure |
| US8941126B2 (en) | 2011-11-10 | 2015-01-27 | Lei Guo | Semiconductor electricity converter |
| CN102832287B (en) * | 2011-11-10 | 2015-11-25 | 郭磊 | A kind of Semi-conductor DC photoelectric transformer |
Similar Documents
| Publication | Publication Date | Title |
|---|---|---|
| CN102832287B (en) | A kind of Semi-conductor DC photoelectric transformer | |
| CN102427094B (en) | Semiconductor direct current photoelectric transformer | |
| CN202503017U (en) | Semiconductor direct current photoelectric transformer | |
| US9391226B2 (en) | Semiconductor DC transformer | |
| US8941126B2 (en) | Semiconductor electricity converter | |
| CN202523745U (en) | Semiconductor DC photoelectric transformer | |
| CN101937764B (en) | Active photoelectric current transformermutual inductor by mixed power supply of ultrasound and induction | |
| CN102569488B (en) | A kind of semiconductor direct current transformer | |
| CN102569489B (en) | A kind of semiconductor direct current transformer | |
| CN103456828A (en) | Semiconductor photoelectric power converter | |
| CN103247635B (en) | Laser photovoltaic cell of positive-negative-positive structure and preparation method thereof | |
| CN103426967B (en) | Semiconductor photoelectric/electric energy conversion system | |
| CN201946339U (en) | Photoelectric compound overhead insulating cable with rated voltage of 1KV or below | |
| CN104009046A (en) | Laser photovoltaic battery of upside-down mounting structure, and manufacturing method therefor | |
| WO2013067805A1 (en) | Semiconductor dc transformer | |
| CN103378184A (en) | III-V group semiconductor direct current transformer and forming method thereof | |
| CN103378086B (en) | A kind of chip with semiconductor direct current variable pressure structure | |
| CN202978365U (en) | Building integrated photovoltaic (BIPV) solar noncontact charging device | |
| CN103268893A (en) | Laser photovoltaic battery with NPN (negative-positive-negative) structure and preparation method thereof | |
| CN2601457Y (en) | Photon quasi-superconductive cable | |
| CN1419248A (en) | Photon quasi-ultraconductive cable |
Legal Events
| Date | Code | Title | Description |
|---|---|---|---|
| C14 | Grant of patent or utility model | ||
| GR01 | Patent grant | ||
| AV01 | Patent right actively abandoned |
Granted publication date: 20121107 Effective date of abandoning: 20151125 |
|
| C25 | Abandonment of patent right or utility model to avoid double patenting |