CN213182299U - Multi-color laser light source light combination structure, projection device and lighting equipment - Google Patents

Multi-color laser light source light combination structure, projection device and lighting equipment Download PDF

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CN213182299U
CN213182299U CN202022241573.7U CN202022241573U CN213182299U CN 213182299 U CN213182299 U CN 213182299U CN 202022241573 U CN202022241573 U CN 202022241573U CN 213182299 U CN213182299 U CN 213182299U
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light beam
light
mixed
blue
light source
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邱柏渝
谢晨
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Suzhou Zhitong Daohe Display Technology Co ltd
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Suzhou Zhitong Daohe Display Technology Co ltd
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Abstract

The utility model provides a polychrome laser source closes light structure, projection arrangement and lighting apparatus, closes the light structure and includes: a multicolor laser light source for emitting a multicolor light beam; a blue laser light source for emitting a blue light beam; the combined lens comprises a reflecting mirror and a dichroic plate, the polychromatic light beam and the blue light beam respectively irradiate the reflecting mirror and the dichroic plate, the polychromatic light beam forms a first mixed light beam after being reflected, and the blue light beam is reflected by the dichroic plate; the blue light beam reflected by the dichroic sheet is excited by the reflection fluorescent wheel to form a second mixed light beam; the second mixed light beam passes through the dichroic plate to be mixed with the first mixed light beam to form a mixed light column. The light combination structure can enable the mixed light column to achieve high color gamut and high brightness, is beneficial to the use of mixed light, and has higher efficiency. A projection device and a lighting device both comprise the multi-color laser light source light-combining structure, and the projection and lighting effects of the device can be improved.

Description

Multi-color laser light source light combination structure, projection device and lighting equipment
Technical Field
The utility model relates to a projection technology field indicates a polychrome laser source closes light structure, projection arrangement and lighting apparatus especially.
Background
The red, green and blue are three primary colors in optics, most colors in a visible spectrum can be formed by mixing three basic color lights according to different proportions, the display colors of the display screen can be formed after the three primary colors are mixed, the three lights are mixed according to the same proportion and reach certain intensity to present white (white light), if the intensities of the three lights are all zero, the three lights are black (dark), the principle of the additive color method is adopted, and the principle of the additive color method is widely applied to active luminous products such as televisions, monitors and the like.
The fluorescent powder is generally divided into photo-induced energy storage luminous powder and luminous powder with radioactivity, wherein the photo-induced energy storage luminous powder stores light energy after the fluorescent powder is irradiated by natural light, sunlight light, ultraviolet light and the like, and slowly releases the light energy in a fluorescent mode after the light irradiation is stopped, so that the fluorescent powder can still see luminescence at night or in a dark place for a lasting time of several hours to more than ten hours.
In the prior art, a light source of a projection device generally uses blue laser to excite phosphor to obtain three primary colors of light, but since the phosphor is excited to a wide spectrum, the color gamut of a mixed light column is small, the brightness is low, and the projection effect is affected.
SUMMERY OF THE UTILITY MODEL
The utility model aims at providing a polychrome laser source closes optical structure, projection arrangement and lighting apparatus can make mixed light column reach high colour gamut, hi-lite, is favorable to improving the projection or the illuminating effect of mixed light, and exciting light and laser use speculum and two to the combination of colour chip, and efficiency can not be because of frequency spectrum restriction coating film and loss.
The utility model provides a technical scheme as follows:
the utility model provides a polychrome laser source closes light structure, include:
a multicolor laser light source for emitting a multicolor light beam;
a blue laser light source for emitting a blue light beam;
the combined lens comprises a reflecting mirror and a dichroic plate, the polychromatic light beam and the blue light beam respectively irradiate the reflecting mirror and the dichroic plate, the polychromatic light beam is reflected by the reflecting mirror to form a first mixed light beam, and the blue light beam is reflected by the dichroic plate;
the blue light beam reflected by the dichroic sheet is emitted to the reflective fluorescent wheel and is excited by the reflective fluorescent wheel to form a second mixed light beam;
the second mixed light beam passes through the dichroic plate to be mixed with the first mixed light beam to form a mixed light column.
By using a multicolor laser light source as a main light source, the color gamut is wider than the three primary colors of light obtained by exciting the phosphor with blue light; by arranging the blue laser light source and the reflective fluorescent wheel, auxiliary light beams can be obtained, and then a first mixed light beam formed by the multicolor light beams is mixed with a second mixed light beam of the auxiliary light beams, so that a mixed light column with wider color gamut and higher brightness can be formed; by arranging the combined lens which comprises the reflecting mirror and the dichroic sheet, the polychromatic light beam and the blue light beam respectively irradiate the reflecting mirror and the dichroic sheet, so that the polychromatic laser and the exciting light do not use the same dichroic sheet, and the efficiency is not lost due to spectrum limitation coating.
Further, a first condenser lens is arranged between the dichroic sheet and the reflective fluorescent wheel,
the blue light beam reflected by the dichroic sheet is focused by the first condenser lens and then emitted to the reflective fluorescent wheel,
the second mixed light beam formed by the excitation of the reflection fluorescent wheel is emitted to and passes through the dichroic sheet after being diverged by the first condenser lens.
The first collecting lens is arranged between the dichroic sheet and the reflection fluorescent wheel, so that the blue light beam reflected by the dichroic sheet can be focused by the first collecting lens and then emitted to the reflection fluorescent wheel, and the excitation effect of the blue light beam is improved; meanwhile, the second mixed light beam formed by the excitation of the reflecting fluorescent wheel can be diverged by the first condenser lens and then emitted to and passes through the dichroic plate, so that the second mixed light beam and the first mixed light beam can be fused.
Furthermore, a second condenser lens which is arranged on the same side with the multicolor laser light source is arranged on the side of the combined lens,
the first mixed light beam formed by reflection of the reflecting mirror and the second mixed light beam passing through the dichroic sheet are focused by the second condenser to form the mixed light column.
By arranging the second condenser lens on the same side as the multicolor laser light source on the side of the combined lens, the first mixed light beam formed by reflection of the reflector and the second mixed light beam passing through the dichroic sheet can be focused by the second condenser lens, so that a mixed light column is formed.
Further, the multicolor laser light source and the blue laser light source are respectively positioned on two sides of the combined lens, so that light combination is facilitated.
Furthermore, the combined lens is obliquely arranged, and the multicolor light beam emitted by the multicolor laser light source is parallel to the blue light beam emitted by the blue laser light source.
The combined lens is obliquely arranged, and the multicolor light beam emitted by the multicolor laser light source is parallel to the blue light beam emitted by the blue laser light source, so that the second mixed light beam formed after the blue light beam is reflected and excited and the first mixed light beam formed after the multicolor light beam is reflected are in the same direction and are converged, and a mixed light column is formed.
Furthermore, the included angles between the multicolor light beams and the blue light beams and the combined lens are both 45 degrees, so that the direction of the light rays can be controlled, and in other embodiments, the included angles can be adjusted according to use requirements.
Further, the combined lens is the same lens which is coated in a subarea mode to form the reflecting mirror and the dichroic sheet;
or;
the combined lens is formed by splicing the reflecting mirror and the dichroic sheet.
Further, the area of the reflector in the combined lens is between 10% and 90%.
Additionally, the utility model also provides a laser projection device, including foretell polychrome laser light source closed light structure. The mixed light column obtained by the light combination structure of the multi-color laser light source is used for projection, so that the projection effect of the projection device can be improved.
Additionally, the utility model also provides a lighting device: the multi-color laser light source light combining structure is included. The mixed light column obtained by the light combination structure of the multi-color laser light source is used for illumination, so that the illumination effect of the illumination equipment can be improved.
According to the utility model provides a polychrome laser source closes light structure, projection arrangement and lighting apparatus, through using polychrome laser source as the primary light source, compare with the three primary colors of the light that arouses phosphor powder through the blue light, the colour gamut is wider; by arranging the blue laser light source and the reflective fluorescent wheel, auxiliary light beams can be obtained, and then a first mixed light beam formed by the multicolor light beams is mixed with a second mixed light beam of the auxiliary light beams, so that a mixed light column with wider color gamut and higher brightness can be formed; through setting up the combination lens, and the combination lens includes speculum and dichroic sheet, polychrome laser source and blue laser source are located the both sides of combination lens respectively, and polychrome light beam and blue light beam shoot respectively to speculum and dichroic sheet for polychrome laser does not use same part dichroic sheet with the exciting light, and efficiency can not be because of spectral limit coating film loss.
Drawings
The foregoing features, technical features, advantages and embodiments of the present invention will be further explained in the following detailed description of the preferred embodiments, which is to be read in connection with the accompanying drawings.
Fig. 1 is a schematic overall structure diagram of an embodiment of the present invention;
fig. 2 is a schematic structural view of a combined lens according to an embodiment of the present invention.
Reference numbers in the figures: 1-a polychromatic laser source; 2-blue laser light source; 3-a combined lens; 31-a mirror; 32-dichroic plates; 4-a reflective fluorescent wheel; 5-mixing the light beams; 6-a first condenser; 7-second condenser.
Detailed Description
In order to more clearly illustrate embodiments of the present invention or technical solutions in the prior art, specific embodiments of the present invention will be described below with reference to the accompanying drawings. It is obvious that the drawings in the following description are only examples of the invention, and that for a person skilled in the art, other drawings and embodiments can be obtained from these drawings without inventive effort.
For the sake of simplicity, only the parts relevant to the present invention are schematically shown in the drawings, and they do not represent the actual structure as a product. In addition, in order to make the drawings concise and understandable, components having the same structure or function in some of the drawings are only schematically illustrated or only labeled. In this document, "one" means not only "only one" but also a case of "more than one".
Example 1
An embodiment of the utility model, as shown in fig. 1, the utility model provides a polychrome laser source closes optical structure, including polychrome laser source 1, blue laser source 2, combination lens 3 to and reflection fluorescence wheel 4. The multicolor laser light source 1 is used for emitting multicolor light beams with wider color gamut; the blue laser light source 2 emits a blue light beam.
The combined lens 3 includes a mirror 31 and a dichroic plate 32, and the mirror 31 and the dichroic plate 32 are located on the same plane.
Preferably, the area ratio of the reflector 31 to the combined lens 3 is between 10% and 90%, and the rest is the dichroic sheet 32, and the specific ratio is adjusted according to the use requirement and the use environment.
Specifically, the combination lens 3 has various composition forms, for example, the combination lens 3 is formed by coating the same lens in different zones to form the reflecting mirror 31 and the dichroic sheet 32, which has the advantages that the combination lens 3 has a stable structure, and the deviation of the angles of the reflecting mirror 31 and the dichroic sheet 32 is avoided when in use; or the combined lens 3 is formed by splicing the reflecting mirror 31 and the dichroic sheet 32, such as adhesion, etc., which has the advantage of facilitating the replacement of the reflecting mirror 31 and the dichroic sheet 32 with different areas, so that the device is more flexible to use.
Preferably, the multicolor laser light source 1 and the blue laser light source 2 are respectively positioned at two sides of the combined lens 3 so as to combine light.
The polychromatic light beam and the blue light beam are respectively emitted to the reflector 31 and the dichroic plate 32, the polychromatic light beam is reflected by the reflector 31 to form a first mixed light beam, and the blue light beam is reflected by the dichroic plate 32.
The blue light beam reflected by the dichroic plate 32 is emitted to the reflective fluorescent wheel 4 and is excited by the reflective fluorescent wheel 4 to form a second mixed light beam; the second mixed light beam passes through the dichroic plate 32 to be mixed with the first mixed light beam to form a mixed light beam 5.
By using the multicolor laser light source 1 as a main light source, the color gamut is wider than the three primary colors of light obtained by exciting the phosphor with blue light; by arranging the blue laser light source 2 and the reflective fluorescent wheel 4, auxiliary light beams can be obtained, and then a first mixed light beam formed by multicolor light beams is mixed with a second mixed light beam of the auxiliary light beams, so that a mixed light column 5 with wider color gamut and higher brightness can be formed, the projection effect can be improved by using the mixed light column 5 as a projection light source, and the illumination effect can be improved by using the mixed light column 5 as an illumination light source; by arranging the combined lens 3, wherein the combined lens 3 comprises the reflecting mirror 31 and the dichroic sheet 32, the multicolor laser light source 1 and the blue laser light source 2 are respectively positioned at two sides of the combined lens 3, and the multicolor light beam and the blue light beam respectively irradiate the reflecting mirror 31 and the dichroic sheet 32, so that the multicolor laser light and the exciting light do not use the same part of the dichroic sheet, and the efficiency is not lost due to spectrum-limited coating.
Example 2
The utility model discloses an embodiment, as shown in FIG. 1, on embodiment 1's basis, be equipped with first condensing lens 6 between dichroic sheet 32 and the reflection fluorescence wheel 4, the blue light beam after the reflection of dichroic sheet 32 passes through the focus of first condensing lens 6, and directive reflection fluorescence wheel 4 again, after the second mixed beam that arouses formation through reflection fluorescence wheel 4 diverges through first condensing lens 6, the directive again passes dichroic sheet 32.
The first condenser lens 6 is arranged between the dichroic sheet 32 and the reflective fluorescent wheel 4, so that the blue light beam reflected by the dichroic sheet 32 can be focused by the first condenser lens 6 and then emitted to the reflective fluorescent wheel 4, and the excitation effect of the blue light beam is improved; meanwhile, the second mixed light beam excited by the reflective fluorescent wheel 4 can be diverged by the first condenser lens 6 and then emitted to and passes through the dichroic plate 32, which is beneficial to the fusion of the second mixed light beam and the first mixed light beam.
Example 3
The utility model discloses an embodiment, as shown in FIG. 1, on embodiment 2's basis, the side of combination lens 3 is provided with the second condenser 7 with polychrome laser light source 1 homonymy, and the first mixed light beam that the reflection of speculum 31 reflection formed and the second mixed light beam that passes dichroic sheet 32 form mixed light column 5 after focusing through second condenser 7.
By providing the second condenser lens 7 on the same side as the multicolor laser light source 1 on the side of the combining lens 3, the first mixed light beam reflected by the reflecting mirror 31 and the second mixed light beam passing through the dichroic sheet 32 can be focused by the second condenser lens 7 to form the mixed light column 5, so as to facilitate the use of the mixed light column 5.
Example 4.
In an embodiment of the present invention, as shown in fig. 1, on the basis of any of the above embodiments, the combined lens 3 is disposed in an inclined manner, and the multicolor light beam emitted from the multicolor laser light source 1 is parallel to the blue light beam emitted from the blue laser light source 2.
By arranging the combined lens 3 obliquely and making the multicolor light beam emitted by the multicolor laser light source 1 parallel to the blue light beam emitted by the blue laser light source 2, the second mixed light beam formed by reflecting and exciting the blue light beam and the first mixed light beam formed by reflecting the multicolor light beam can be in the same direction and converged to form the mixed light column 5.
Preferably, the angles between the polychromatic and blue light beams and the combined lens 3 are 45 °, so as to control the direction of the light beams, and in other embodiments, the angles can be adjusted according to the use requirement.
Example 5
The utility model discloses an embodiment, on the basis of any embodiment in embodiment 1-4, the utility model discloses still provide a projection arrangement: the multi-color laser light source light combination structure is included. By projecting the mixed light beam 5 obtained by using the light combining structure of the multicolor laser light source, the projection effect of the projection device can be improved.
Example 6
The utility model discloses an embodiment, on the basis of any embodiment in embodiment 1-4, the utility model discloses still provide a lighting apparatus: the multi-color laser light source light combining structure is provided. By using the mixed light column 5 obtained by the light combination structure of the multicolor laser light source to illuminate, the illumination effect of the illumination device can be improved.
It should be noted that the above embodiments can be freely combined as necessary. The foregoing is only a preferred embodiment of the present invention, and it should be noted that, for those skilled in the art, a plurality of modifications and decorations can be made without departing from the principle of the present invention, and these modifications and decorations should also be regarded as the protection scope of the present invention.

Claims (10)

1. A multi-color laser light source light combining structure is characterized by comprising:
a multicolor laser light source for emitting a multicolor light beam;
a blue laser light source for emitting a blue light beam;
the combined lens comprises a reflecting mirror and a dichroic plate, the polychromatic light beam and the blue light beam respectively irradiate the reflecting mirror and the dichroic plate, the polychromatic light beam is reflected by the reflecting mirror to form a first mixed light beam, and the blue light beam is reflected by the dichroic plate;
the blue light beam reflected by the dichroic sheet is emitted to the reflective fluorescent wheel and is excited by the reflective fluorescent wheel to form a second mixed light beam;
the second mixed light beam passes through the dichroic plate to be mixed with the first mixed light beam to form a mixed light column.
2. The light combining structure of claim 1, wherein: a first condenser lens is arranged between the dichroic sheet and the reflection fluorescent wheel,
the blue light beam reflected by the dichroic sheet is focused by the first condenser lens and then emitted to the reflective fluorescent wheel,
the second mixed light beam formed by the excitation of the reflection fluorescent wheel is emitted to and passes through the dichroic sheet after being diverged by the first condenser lens.
3. The light combining structure of claim 2, wherein: a second condenser lens which is arranged on the same side of the combined lens as the multicolor laser light source,
the first mixed light beam formed by reflection of the reflecting mirror and the second mixed light beam passing through the dichroic sheet are focused by the second condenser to form the mixed light column.
4. The light combining structure of claim 1, wherein: the multicolor laser light source and the blue laser light source are respectively positioned on two sides of the combined lens.
5. The light combining structure of claim 1, wherein: the combined lens is obliquely arranged, and the multicolor light beams emitted by the multicolor laser light source are parallel to the blue light beams emitted by the blue laser light source.
6. The light combining structure of claim 5, wherein: the included angles between the multicolor light beam and the blue light beam and the combined lens are both 45 degrees.
7. The light combining structure of claim 1, wherein: the combined lens is the same lens which is coated in different areas to form the reflecting mirror and the dichroic sheet;
or;
the combined lens is formed by splicing the reflecting mirror and the dichroic sheet.
8. The light combining structure of claim 1, wherein: the area of the reflector in the combined lens is 10% -90%.
9. A projection device, characterized by: comprising the polychromatic laser light source light-combining structure according to any one of claims 1-8.
10. An illumination device, characterized by: comprising the polychromatic laser light source light-combining structure according to any one of claims 1-8.
CN202022241573.7U 2020-10-10 2020-10-10 Multi-color laser light source light combination structure, projection device and lighting equipment Active CN213182299U (en)

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Application Number Priority Date Filing Date Title
CN202022241573.7U CN213182299U (en) 2020-10-10 2020-10-10 Multi-color laser light source light combination structure, projection device and lighting equipment

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
CN202022241573.7U CN213182299U (en) 2020-10-10 2020-10-10 Multi-color laser light source light combination structure, projection device and lighting equipment

Publications (1)

Publication Number Publication Date
CN213182299U true CN213182299U (en) 2021-05-11

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