CN201875933U - Solar energy thermoelectrical lighting device adopting parabolic cylindrical surface for condensation and semi-cylindrical surface closed cavity for lighting - Google Patents
Solar energy thermoelectrical lighting device adopting parabolic cylindrical surface for condensation and semi-cylindrical surface closed cavity for lighting Download PDFInfo
- Publication number
- CN201875933U CN201875933U CN2010205820076U CN201020582007U CN201875933U CN 201875933 U CN201875933 U CN 201875933U CN 2010205820076 U CN2010205820076 U CN 2010205820076U CN 201020582007 U CN201020582007 U CN 201020582007U CN 201875933 U CN201875933 U CN 201875933U
- Authority
- CN
- China
- Prior art keywords
- semi
- cylindrical
- receiving mechanism
- gathering receiving
- luminous energy
- 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 - Fee Related
Links
Images
Classifications
-
- Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
- Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
- Y02E—REDUCTION OF GREENHOUSE GAS [GHG] EMISSIONS, RELATED TO ENERGY GENERATION, TRANSMISSION OR DISTRIBUTION
- Y02E10/00—Energy generation through renewable energy sources
- Y02E10/40—Solar thermal energy, e.g. solar towers
- Y02E10/44—Heat exchange systems
-
- Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
- Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
- Y02E—REDUCTION OF GREENHOUSE GAS [GHG] EMISSIONS, RELATED TO ENERGY GENERATION, TRANSMISSION OR DISTRIBUTION
- Y02E10/00—Energy generation through renewable energy sources
- Y02E10/50—Photovoltaic [PV] energy
-
- Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
- Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
- Y02E—REDUCTION OF GREENHOUSE GAS [GHG] EMISSIONS, RELATED TO ENERGY GENERATION, TRANSMISSION OR DISTRIBUTION
- Y02E10/00—Energy generation through renewable energy sources
- Y02E10/60—Thermal-PV hybrids
Landscapes
- Photovoltaic Devices (AREA)
- Optical Elements Other Than Lenses (AREA)
Abstract
A solar energy thermoelectrical lighting device adopting a parabolic cylindrical surface for condensation and a semi-cylindrical surface closed cavity for lighting comprises a rectangular box body, a water tank, a cold water pipe, a hot water pipe, a transparent plane cover plate, and a solar energy condense receiving machine; the device receives solar energy through the reflection and focusing functions of the parabolic cylindrical surface, the receiving efficiency can be greatly improved, and the collection and receiving of solar energy under strong and dim light environments can be realized.
Description
Affiliated technical field:
The utility model relates to a kind of Application of Solar Energy technology, the thermoelectric lighting equipment of particularly a kind of parabolic cylinder optically focused semi-cylindrical closed housing lighting solar that utilizes parabolic cylinder optically focused principle to receive solar energy, this device receives solar energy by the reflective focussing force of reflective surface, can significantly improve the receiving efficiency of solar energy.
Background technology:
Solar energy is a kind of clean energy resource, inexhaustible, nexhaustible, can not cause environmental pollution yet, nowadays, no matter in coastal cities, still in inland city, solar product enters people's the visual field just more and more, solar street light, solar lawn lamp, solar energy garden lamp, solar corridor lamp, bus station's desk lamp, traffic lights or the like, various solar water heaters have also been walked close to huge numbers of families.But these solar product great majority all do not have light-focusing function, cause solar energy utilization ratio low.The light intensity on solar energy receiving element surface doubles, the receiving efficiency of solar energy receiving element will double, the focus of solar energy industry technology competition at present mainly is the battle of solar energy receiving efficiency, as seen improve receiving efficiency to whole industry significance level, therefore can effectively improve the intensity of illumination of solar energy receiving element, just become the problem of paying close attention to the most when people utilize solar energy.
In recent years, realized the Salar light-gathering reception abroad in the photovoltaic matrix of some solar power stations, domestic also have similar experimental rig, promotes obtaining on the solar domestic product but these apparatus structure complexity, bulky, cost are high-leveled and difficult.
The utility model content:
In order to overcome shortcomings such as existing beam condensing unit complicated in mechanical structure, bulky, cost height. the deficiency that the utility model exists at prior art, prior art is improved, proposed the Salar light-gathering receiving system that a kind of volume is little, simple and reliable for structure, cost is low, the optically focused reception that it can realize solar energy.
The technical scheme that its technical problem that solves the utility model adopts is: a plurality of Salar light-gathering receiving mechanisms have been installed in a rectangular box, each Salar light-gathering receiving mechanism all is made of a parabolic cylinder reflective mirror and a luminous energy receiver, each Salar light-gathering receiving mechanism proper alignment is in rectangular box, a water tank has been installed above rectangular box, on rectangular box, be stamped a planar transparent cover plate, the planar transparent cover plate is enclosed in each Salar light-gathering receiving mechanism in the rectangular box, the opening of the parabolic cylinder reflective mirror of each Salar light-gathering receiving mechanism is over against the planar transparent cover plate, the focal line of the parabolic cylinder reflective mirror of each Salar light-gathering receiving mechanism is parallel to each other, the focal line of the parabolic cylinder reflective mirror of each Salar light-gathering receiving mechanism is positioned on the same plane parallel with the planar transparent cover plate, and the luminous energy receiver of each Salar light-gathering receiving mechanism is installed on the focal line of parabolic cylinder reflective mirror of this Salar light-gathering receiving mechanism.
The luminous energy receiver of each Salar light-gathering receiving mechanism is by a hollow heat pipe of long straight semi-cylindrical, the semi-cylindrical solar panel that one block length is straight, a long straight semi-cylindrical transparent light guide is covered and two block length square planar reflective mirrors formation, the semi-cylindrical solar panel close adhesion of each luminous energy receiver is on the surface of the hollow heat pipe of semi-cylindrical of this luminous energy receiver, the lower end of the hollow heat pipe of semi-cylindrical of each luminous energy receiver communicates with water tank by a cold water pipe, and the upper end of the hollow heat pipe of semi-cylindrical of each luminous energy receiver communicates with water tank by a hot-water line.
The both sides of the plane of symmetry of the hollow heat pipe of semi-cylindrical that is positioned at this luminous energy receiver of two block length square planar reflective mirror symmetries of each luminous energy receiver, wherein a long limit of a block length square planar reflective mirror is connected with a straight flange of the hollow heat pipe of this semi-cylindrical, a long limit of another block length square planar reflective mirror is connected with another straight flange of the hollow heat pipe of this semi-cylindrical, the two other of two block length square planar reflective mirrors forms the light entrance slit that width is identical between the long limit, the semi-cylindrical transparent light guide of this luminous energy receiver is covered on this light entrance slit, the semi-cylindrical transparent light guide of each Salar light-gathering receiving mechanism lid, hollow heat pipe of semi-cylindrical and two block length square planar reflective mirrors constitute a closed cavities.
The semi-cylindrical solar panel close adhesion of each light energy receiver is on the surface of the hollow heat pipe of semi-cylindrical of this light energy receiver; The opening of the hollow heat pipe of semi-cylindrical of each Salar light-gathering receiving mechanism light energy receiver makes the lip-deep semi-cylindrical solar panel that is bonded in the hollow heat pipe of semi-cylindrical over against the reflective surface of the parabolic cylinder reflective mirror of this Salar light-gathering receiving mechanism over against the reflective surface of the parabolic cylinder reflective mirror of this Salar light-gathering receiving mechanism; The focal line of the light entrance slit that forms between two facet mirrors of the light energy receiver of each Salar light-gathering receiving mechanism and the parabolic cylinder reflective mirror of this Salar light-gathering receiving mechanism overlaps, and the focal line of the axis of the axis of the hollow heat pipe of semi-cylindrical of each Salar light-gathering receiving mechanism light energy receiver and semi-cylindrical transparent light guide lid and the parabolic cylinder reflective mirror of this Salar light-gathering receiving mechanism overlaps.
When sunshine during perpendicular to the incident of planar transparent cover plate, can both pass the light entrance slit vertical irradiation that forms between two facet mirrors behind the reflect focalization of incident ray by the parabolic cylinder reflective mirror of each Salar light-gathering receiving mechanism on the semi-cylindrical solar panel of each luminous energy receiver, the semi-cylindrical solar panel of a luminous energy part by each luminous energy receiver that is radiated on the semi-cylindrical solar panel of each luminous energy receiver is converted to electric energy, another part of luminous energy is converted to heat energy by the hollow heat pipe of the semi-cylindrical of each luminous energy receiver, semi-cylindrical transparent light guide lid because of each luminous energy receiver, the hollow heat pipe of semi-cylindrical and two facet mirrors constitute a closed cavities, and the light entrance slit that forms between two facet mirrors is very narrow, the light that enters this light entrance slit is radiated on the semi-cylindrical solar panel of each luminous energy receiver once more through the reflection of two facet mirrors of each luminous energy receiver, the major part of luminous energy changes electric energy and heat energy in closed cavities, therefore significantly improved the photoelectricity and the photo-thermal conversion ratio of each luminous energy receiver.
The beneficial effects of the utility model are: the reflective focussing force by each parabolic cylinder reflective mirror has significantly improved the sun light intensity that is radiated on the luminous energy receiver, thereby significantly improved the photoelectricity and the photo-thermal conversion ratio of luminous energy receiver, realized that higher photoelectricity and photo-thermal conversion ratio are all arranged under the environment of the high light and the low light level.
Description of drawings:
Below in conjunction with drawings and Examples the utility model is further specified.
Fig. 1 is overall structure figure of the present utility model.
Fig. 2 is the A-A cutaway view of overall structure figure of the present utility model.
Fig. 3 is the enlarged drawing of the Salar light-gathering receiving mechanism cutaway view of the utility model embodiment.
Fig. 4 is the schematic diagram of parabolic cylinder.
In the parabolic cylinder pie graph of Fig. 4: parabola L, directrix L1, summit O, focus f, symmetry axis L2, parabolic cylinder S, directrix plane S1, plane of symmetry S2, focal line L3.
The specific embodiment:
In Fig. 1 and Fig. 2, the Salar light-gathering receiving mechanism one that is made of parabolic cylinder reflective mirror 1-1-1 and luminous energy receiver 1-2-1 has been installed in rectangular box 3-1, the Salar light-gathering receiving mechanism two that constitutes by parabolic cylinder reflective mirror 1-1-2 and luminous energy receiver 1-2-2, the Salar light-gathering receiving mechanism three that constitutes by parabolic cylinder reflective mirror 1-1-3 and luminous energy receiver 1-2-3, the Salar light-gathering receiving mechanism four that constitutes by parabolic cylinder reflective mirror 1-1-4 and luminous energy receiver 1-2-4, the Salar light-gathering receiving mechanism five that constitutes by parabolic cylinder reflective mirror 1-1-5 and luminous energy receiver 1-2-5, the proper alignment of five Salar light-gathering receiving mechanisms is in rectangular box 3-1, the structure of five Salar light-gathering receiving mechanisms and every measure-alike, the structure of the luminous energy receiver of five Salar light-gathering receiving mechanisms and every measure-alike, be stamped a planar transparent cover plate 4-1 on rectangular box 3-1, planar transparent cover plate 4-1 is enclosed in the rectangular box 3-1 five Salar light-gathering receiving mechanisms.
The opening of the parabolic cylinder reflective mirror of five Salar light-gathering receiving mechanisms is over against the planar transparent cover plate, the focal line of the parabolic cylinder reflective mirror of five Salar light-gathering receiving mechanisms is parallel to each other, the focal line of the parabolic cylinder reflective mirror of five Salar light-gathering receiving mechanisms is positioned on the same plane parallel with the planar transparent cover plate, and the luminous energy receiver of each Salar light-gathering receiving mechanism is installed on the focal line of parabolic cylinder reflective mirror of this Salar light-gathering receiving mechanism.
Provided the structure of the first Salar light-gathering receiving mechanism among Fig. 3, the first Salar light-gathering receiving mechanism is made of parabolic cylinder reflective mirror 1-1-1 and luminous energy receiver 1-2-1 in Fig. 3, luminous energy receiver 1-2-1 is by facet mirror 7-1-1, facet mirror 7-1-2, the hollow heat pipe 5-1 of semi-cylindrical, semi-cylindrical solar panel 10-1 and semi-cylindrical transparent light guide lid 6-1 constitute, the hollow heat pipe 5-1 of semi-cylindrical upper end communicates with water tank 8-1 by hot-water line 9-1-1, the hollow heat pipe 5-1 of semi-cylindrical lower end communicates with water tank 8-1 by cold water pipe 9-1-2, and semi-cylindrical solar panel 10-1 close adhesion is on the surface of the hollow heat pipe 5-1 of semi-cylindrical.
The both sides of the plane of symmetry that is positioned at the hollow heat pipe 5-1 of semi-cylindrical of facet mirror 7-1-1 and facet mirror 7-1-2 symmetry, wherein facet mirror 7-1-1 long limit is connected with the straight flange of the hollow heat pipe 5-1 of semi-cylindrical, the long limit of facet mirror 7-1-2 is connected with another straight flange of the hollow heat pipe 5-1 of semi-cylindrical, the two other of facet mirror 7-1-1 and facet mirror 7-1-2 forms the light entrance slit that width is identical between the long limit, semi-cylindrical transparent light guide lid 6-1 covers on this light entrance slit, semi-cylindrical transparent light guide lid 6-1, the hollow heat pipe 5-1 of semi-cylindrical, facet mirror 7-1-1 and facet mirror 7-1-2 constitute a closed cavities.
The opening of the hollow heat pipe 5-1 of semi-cylindrical is over against the reflective surface of parabolic cylinder reflective mirror 1-1-1, the axis of the axis of the hollow heat pipe 5-1 of semi-cylindrical and semi-cylindrical transparent light guide lid 6-1 and the focal line of parabolic cylinder reflective mirror 1-1-1 overlap, the focal line of light entrance slit that forms between facet mirror 7-1-1 and the facet mirror 7-1-2 and parabolic cylinder reflective mirror 1-1-1 overlaps, and semi-cylindrical transparent light guide lid 6-1, the hollow heat pipe 5-1 of semi-cylindrical, facet mirror 7-1-1 and facet mirror 7-1-2 constitute a closed cavities.
When sunshine during perpendicular to planar transparent cover plate 4-1 incident, incident ray can both pass the light entrance slit vertical irradiation that forms between facet mirror 7-1-1 and the facet mirror 7-1-2 after by the reflect focalization of parabolic cylinder reflective mirror 1-1-1 on semi-cylindrical solar panel 10-1, a part that is radiated at the luminous energy on the semi-cylindrical solar panel 10-1 is converted to electric energy by semi-cylindrical solar panel 10-1, another part is converted to heat energy by the hollow heat pipe 5-1 of semi-cylindrical, because of semi-cylindrical transparent light guide lid 6-1, the hollow heat pipe 5-1 of semi-cylindrical, facet mirror 7-1-1 and facet mirror 7-1-2 constitute a closed cavities, and the light entrance slit that forms between facet mirror 7-1-1 and the facet mirror 7-1-2 is very narrow, the light that enters this light entrance slit is radiated on the semi-cylindrical solar panel 10-1 once more through the reflection of facet mirror 7-1-1 and facet mirror 7-1-2, the major part of luminous energy changes electric energy and heat energy in closed cavities, therefore photoelectricity and the photo-thermal conversion ratio of luminous energy receiver 1-2-1 have significantly been improved, the structure of the luminous energy receiver of each Salar light-gathering receiving mechanism, every size is identical with luminous energy receiver 1-2-1 with the luminous energy receiving course.
Claims (1)
1. the thermoelectric lighting equipment of a parabolic cylinder optically focused semi-cylindrical closed housing lighting solar, by rectangular box, water tank, cold water pipe, hot-water line, planar transparent cover plate and Salar light-gathering receiving mechanism constitute, each Salar light-gathering receiving mechanism all is made of a parabolic cylinder reflective mirror and a luminous energy receiver, it is characterized in that: the luminous energy receiver of each Salar light-gathering receiving mechanism is by a hollow heat pipe of long straight semi-cylindrical, the semi-cylindrical solar panel that one block length is straight, a long straight semi-cylindrical transparent light guide is covered and two block length square planar reflective mirrors formation, the semi-cylindrical solar panel close adhesion of each luminous energy receiver is on the surface of the hollow heat pipe of semi-cylindrical of this luminous energy receiver, the opening of the hollow heat pipe of semi-cylindrical of each Salar light-gathering receiving mechanism luminous energy receiver makes the lip-deep semi-cylindrical solar panel that is bonded in the hollow heat pipe of the semi-cylindrical reflective surface over against the parabolic cylinder reflective mirror of this Salar light-gathering receiving mechanism over against the reflective surface of the parabolic cylinder reflective mirror of this Salar light-gathering receiving mechanism, the focal line of the light entrance slit that forms between two facet mirrors of the luminous energy receiver of each Salar light-gathering receiving mechanism and the parabolic cylinder reflective mirror of this Salar light-gathering receiving mechanism overlaps, and the focal line of the axis of the axis of the hollow heat pipe of semi-cylindrical of each Salar light-gathering receiving mechanism luminous energy receiver and semi-cylindrical transparent light guide lid and the parabolic cylinder reflective mirror of this Salar light-gathering receiving mechanism overlaps.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN2010205820076U CN201875933U (en) | 2010-10-25 | 2010-10-25 | Solar energy thermoelectrical lighting device adopting parabolic cylindrical surface for condensation and semi-cylindrical surface closed cavity for lighting |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN2010205820076U CN201875933U (en) | 2010-10-25 | 2010-10-25 | Solar energy thermoelectrical lighting device adopting parabolic cylindrical surface for condensation and semi-cylindrical surface closed cavity for lighting |
Publications (1)
| Publication Number | Publication Date |
|---|---|
| CN201875933U true CN201875933U (en) | 2011-06-22 |
Family
ID=44163850
Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN2010205820076U Expired - Fee Related CN201875933U (en) | 2010-10-25 | 2010-10-25 | Solar energy thermoelectrical lighting device adopting parabolic cylindrical surface for condensation and semi-cylindrical surface closed cavity for lighting |
Country Status (1)
| Country | Link |
|---|---|
| CN (1) | CN201875933U (en) |
-
2010
- 2010-10-25 CN CN2010205820076U patent/CN201875933U/en not_active Expired - Fee Related
Similar Documents
| Publication | Publication Date | Title |
|---|---|---|
| CN101968277B (en) | Solar water heater based on parabolic cylinder concentrated cylindrical surface closed cavity lighting | |
| CN201875949U (en) | Parabolic cylindrical surface condensing hollow cylindrical closed cavity daylighting solar pyroelectricity daylighting device | |
| CN201875942U (en) | Solar energy water heater adopting parabolic cylindrical surface for condensation and hollow concave closed cavity for lighting | |
| CN201875937U (en) | Solar thermoelectric day-lighting device adopting parabolic-cylindrical planes and light condensing closed cavities for planar day-lighting | |
| CN201875941U (en) | Solar water heater adopting parabolic-cylindrical planes and light condensing hollow parabolic-cylindrical closed cavities for day-lighting | |
| CN201875943U (en) | Solar water heater with secondary-reflection parabolic cylindrical surfaces for light condensing and semi-cylindrical closed cavities for light collecting | |
| CN201992859U (en) | Daylighting solar hot water power generation device for focusing cylindrical surface cavity of secondary reflection parabolic cylinder | |
| CN101975460A (en) | Secondary reflection solar heater with parabolic cylinder surface for gathering light and hollow square closed cavity for daylighting | |
| CN201875946U (en) | Solar energy water heater adopting parabolic cylindrical surface for condensation and hollow and square closed cavity for lighting through secondary reflection | |
| CN201875933U (en) | Solar energy thermoelectrical lighting device adopting parabolic cylindrical surface for condensation and semi-cylindrical surface closed cavity for lighting | |
| CN201875935U (en) | Solar energy thermoelectrical lighting device adopting parabolic cylindrical surface for condensation and hollow and concave closed cavity for lighting | |
| CN201875936U (en) | Solar energy thermoelectrical lighting device adopting parabolic cylindrical surface for condensation and paraboloid closed cavity for lighting | |
| CN201875940U (en) | Parabolic cylindrical surface condensing semi-cylindrical surface closed cavity daylighting solar water heater | |
| CN101968269B (en) | Solar thermoelectricity lighting device capable of condensing lights via parabolic cylinder and lighting via semi-circular cylinder close cavity | |
| CN101963401B (en) | Parabolic cylinder concentrating semi-cylinder enclosed cavity lighting solar water heater | |
| CN201875938U (en) | Secondary condensing semi-cylindrical surface closed cavity daylighting solar hot water generating set | |
| CN202141225U (en) | Solar water heater using parabolic cylindrical surface for condensation and cylndrical surface closed cavity for daylighting | |
| CN201875934U (en) | Solar water heater adopting parabolic-cylindrical planes and light condensing closed cavities for planar day-lighting | |
| CN101968273B (en) | Solar thermoelectric lighting device for collecting solar energy by parabolic cylindrical surface-focusing hollow concave closed cavity | |
| CN101963406B (en) | Parabolic cylinder concentrating hollow parabolic-cylindrical closed cavity lighting solar water heater | |
| CN201875931U (en) | Solar energy water heating and generating device adopting parabolic cylindrical surface for condensation and lighting through secondary reflection | |
| CN101968270B (en) | Plane lighting solar water heater based on parabolic cylinder condensation and closed cavity | |
| CN201875950U (en) | Solar thermoelectric day-lighting device adopting parabolic-cylindrical planes and light condensing hollow cylinders for day-lighting | |
| CN102012112B (en) | Parabolic cylinder light-gathering parabolic closed cavity daylighting solar thermoelectric daylighting device | |
| CN201875948U (en) | Parabolic cylindrical surface condensing planar daylighting solar pyroelectricity daylighting device |
Legal Events
| Date | Code | Title | Description |
|---|---|---|---|
| C14 | Grant of patent or utility model | ||
| GR01 | Patent grant | ||
| C17 | Cessation of patent right | ||
| CF01 | Termination of patent right due to non-payment of annual fee |
Granted publication date: 20110622 Termination date: 20111025 |