CN103197426A - Integrated imaging three-dimensional (3D) display device based on gradually-variable-aperture pinhole array - Google Patents
Integrated imaging three-dimensional (3D) display device based on gradually-variable-aperture pinhole array Download PDFInfo
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- CN103197426A CN103197426A CN2013101271913A CN201310127191A CN103197426A CN 103197426 A CN103197426 A CN 103197426A CN 2013101271913 A CN2013101271913 A CN 2013101271913A CN 201310127191 A CN201310127191 A CN 201310127191A CN 103197426 A CN103197426 A CN 103197426A
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- pinhole array
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- diameter pinhole
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Abstract
The invention provides an integrated imaging three-dimensional (3D) display device based on a gradually-variable-aperture pinhole array. The integrated imaging 3D display device comprises a 2D display device and the gradually-variable-aperture pinhole array which is placed in front of the 2D display device. In the gradually-variable-aperture pinhole array, the horizontal aperture widths of pinholes in any column are the same, the vertical aperture widths of pinholes in any row are the same, and the aperture widths of the pinholes of the gradually-variable-aperture pinhole array become greater gradually from the edges to the center of the array. The horizontal viewing angle of the integrated imaging 3D display device is only related to the horizontal aperture widths of the pin holes in a first column of the gradually-variable-aperture pinhole array. However, the optical efficiency is related to the horizontal aperture widths and the vertical aperture widths of all the pinholes of the gradually-variable-aperture pinhole array. Due to the fact that the aperture widths of the pinholes of the gradually-variable-aperture pinhole array become greater gradually from the edges to the center of the array, on the premise that the horizontal viewing angle is not reduced, high-brightness integrated imaging 3D displaying is realized.
Description
Technical field
The present invention relates to integration imaging 3D stereo display technique, more particularly, the present invention relates to a kind of 3D stereo display technique based on the gradual-change bore diameter pinhole array.
Background technology
Integration imaging 3D stereo display technique is a kind of any true 3D stereo display technique that helps the equipment of looking that need not.This technology has the advantages that bore hole is watched, and the process of its record and demonstration is relative simple, and can show the stereo-picture of full parallax and authentic color, is one of hot spot technology in the present 3D stereo display technique.
Integration imaging 3D 3 d display device has utilized the light path principle of reversibility, be recorded on the image recorder by pinhole array or the microlens array steric information with the 3D scene, generate little pattern matrix, then this little pattern matrix is shown on the 2D display screen, sees through the stereo-picture that pinhole array or microlens array reconstruct former 3D scene.Compare integration imaging 3D 3 d display device based on microlens array based on the integration imaging 3D 3 d display device of pinhole array and have that cost is low, weight is little, thickness of detector is thin and pitch is not subjected to advantages such as manufacture craft restriction.But, be significantly less than integration imaging 3D 3 d display device based on microlens array based on the brightness of the integration imaging 3D 3 d display device of pinhole array, thereby limited its practical application.The aperture width of tradition pinhole array is all identical, as shown in Figure 1.If the brightness that the aperture width of simple increase pinhole array increases stereo-picture watches the visual angle then can reduce thereupon.
Summary of the invention
The present invention proposes a kind of integration imaging 3D 3 d display device based on the gradual-change bore diameter pinhole array.This device comprises 2D display screen and gradual-change bore diameter pinhole array, and the gradual-change bore diameter pinhole array is placed on 2D display screen the place ahead, as shown in Figure 2.In the gradual-change bore diameter pinhole array, the horizontal aperture width of pin hole of any row is identical, and the vertical aperture width of the pin hole of delegation is identical arbitrarily, and the aperture width of gradual-change bore diameter pinhole array increases from the edge to the center gradually, as shown in Figure 3.Shown in attached Figure 4 and 5, the pitch of single pin hole is in the gradual-change bore diameter pinhole array
p, viewing distance is
L, the spacing of 2D display screen and gradual-change bore diameter pinhole array is
g, little pattern matrix and gradual-change bore diameter pinhole array all comprise
M*
NIndividual unit, wherein, on the horizontal direction
MIndividual unit is on the vertical direction
NIndividual unit, the horizontal aperture width and the vertical aperture width that are positioned at the pin hole of gradual-change bore diameter pinhole array center are respectively
H MAXWith
V MAX, then on the gradual-change bore diameter pinhole array
iThe horizontal aperture width of row pin hole
H i With
jThe vertical aperture width in hand-manipulating of needle hole
V j Calculated by following formula respectively:
(2)
Wherein
iBe to be less than or equal to
MPositive integer,
jBe to be less than or equal to
NPositive integer.
The level of the integration imaging 3D 3 d display device based on the gradual-change bore diameter pinhole array of the present invention is watched the visual angle
And optical efficiency
Be calculated as follows:
(4)
Found out by formula (3) and (4), level based on the integration imaging 3D 3 d display device of gradual-change bore diameter pinhole array watches the visual angle only relevant with the horizontal aperture width of the gradual-change bore diameter pinhole array first row pin hole, and is then relevant with the vertical aperture width with the horizontal aperture width of all pin holes of gradual-change bore diameter pinhole array based on the optical efficiency of the integration imaging 3D 3 d display device of gradual-change bore diameter pinhole array.Because the aperture width of gradual-change bore diameter pinhole array increases from the edge to the center gradually, so the present invention watches under the prerequisite at visual angle not reducing level, realized high brightness integration imaging 3D stereo display.
Description of drawings
Accompanying drawing 1 is the synoptic diagram of traditional pinhole array
The synoptic diagram of a kind of integration imaging 3D 3 d display device based on the gradual-change bore diameter pinhole array that accompanying drawing 2 proposes for the present invention
Accompanying drawing 3 is the synoptic diagram of gradual-change bore diameter pinhole array of the present invention
Accompanying drawing 4 is the horizontal aperture width principle figure of gradual-change bore diameter pinhole array of the present invention
Accompanying drawing 5 is the vertical aperture width principle figure of gradual-change bore diameter pinhole array of the present invention
Shown by reference numeral in the above-mentioned accompanying drawing is:
1. 2D display screen, 2. gradual-change bore diameter pinhole array, 3. beholder.
Should be appreciated that above-mentioned accompanying drawing just schematically, not drafting in proportion.
Embodiment
Describe an exemplary embodiments utilizing a kind of integration imaging 3D 3 d display device based on the gradual-change bore diameter pinhole array of the present invention below in detail, the present invention is further described specifically.Be necessary to be pointed out that at this; following examples only are used for the present invention and are described further; can not be interpreted as limiting the scope of the invention; this art skilled person makes some nonessential improvement and adjustment according to the invention described above content to the present invention, still belongs to protection scope of the present invention.
The present invention proposes a kind of integration imaging 3D 3 d display device based on the gradual-change bore diameter pinhole array.This device comprises 2D display screen and gradual-change bore diameter pinhole array, and the gradual-change bore diameter pinhole array is placed on 2D display screen the place ahead, as shown in Figure 2.In the gradual-change bore diameter pinhole array, the horizontal aperture width of pin hole of any row is identical, and the vertical aperture width of the pin hole of delegation is identical arbitrarily, and the aperture width of gradual-change bore diameter pinhole array increases from the edge to the center gradually, as shown in Figure 3.Shown in attached Figure 4 and 5, the pitch of single pin hole is in the gradual-change bore diameter pinhole array
p, viewing distance is
L, the spacing of 2D display screen and gradual-change bore diameter pinhole array is
g, little pattern matrix and gradual-change bore diameter pinhole array all comprise
M*
NIndividual unit, wherein, on the horizontal direction
MIndividual unit is on the vertical direction
NIndividual unit is positioned at horizontal aperture width and the vertical aperture width of the pin hole of gradual-change bore diameter pinhole array center
H MAXWith
V MAX, then on the gradual-change bore diameter pinhole array
iThe horizontal aperture width of row pin hole
H i With
jThe vertical aperture width in hand-manipulating of needle hole
V j Calculated by following formula respectively:
Wherein
iBe to be less than or equal to
MPositive integer,
jBe to be less than or equal to
NPositive integer.
The level of the integration imaging 3D 3 d display device based on the gradual-change bore diameter pinhole array of the present invention is watched the visual angle
And optical efficiency
Be calculated as follows:
Found out by formula (3) and (4), level based on the integration imaging 3D 3 d display device of gradual-change bore diameter pinhole array watches the visual angle only relevant with the horizontal aperture width of the gradual-change bore diameter pinhole array first row pin hole, and is then relevant with the vertical aperture width with the horizontal aperture width of all pin holes of gradual-change bore diameter pinhole array based on the optical efficiency of the integration imaging 3D 3 d display device of gradual-change bore diameter pinhole array.Because the aperture width of gradual-change bore diameter pinhole array increases from the edge to the center gradually, so the present invention watches under the prerequisite at visual angle not reducing level, realized high brightness integration imaging 3D stereo display.
Certain little pattern matrix comprises 32 * 20 image primitives altogether, and the pitch of single image unit is
p=1.25mm, viewing distance is
L=720mm, the spacing of little pattern matrix and gradual-change bore diameter pinhole array is
g=3.6mm is positioned at the horizontal aperture width of the pin hole of gradual-change bore diameter pinhole array center
H MAXWith the vertical aperture width
V MAXBe 0.25mm.The aperture width computation process of gradual-change bore diameter pinhole array is: at first the horizontal aperture width that calculates the 1st ~ 32 row pin hole by formula (1) is respectively 0.0625mm, 0.075mm, 0.0875mm, 0.1mm, 0.1125mm, 0.125mm, 0.1375mm, 0.15mm, 0.1625mm, 0.175mm, 0.1875mm, 0.2mm, 0.2125mm, 0.225mm, 0.2375mm, 0.25mm, 0.25mm, 0.2375mm, 0.225mm, 0.2125mm, 0.2mm, 0.1875mm, 0.175mm, 0.1625mm, 0.15mm, 0.1375mm, 0.125mm, 0.1125mm, 0.1mm, 0.0875mm, 0.075mm, 0.0625mm, the vertical aperture width that calculates the 1st ~ 20 hand-manipulating of needle hole by formula (2) is respectively 0.1375mm then, 0.15mm, 0.1625mm, 0.175mm, 0.1875mm, 0.2mm, 0.2125mm, 0.225mm, 0.2375mm, 0.25 mm, 0.25mm, 0.2375mm, 0.225mm, 0.2125mm, 0.2mm, 0.1875mm, 0.175mm, 0.1625mm, 0.15mm, 0.1375mm, as shown in Figure 2.
Can be 15.5 ° in the hope of watching the visual angle based on the level of the integration imaging 3D 3 d display device of the gradual-change bore diameter pinhole array of above-mentioned parameter according to formula (3) and (4), optical efficiency be 1.94%; And based on pinhole width be the level of integration imaging 3D 3 d display device of traditional pinhole array of 0.0625mm to watch the visual angle be 15.5 °, optical efficiency is 0.25%.Therefore, the present invention watches under the prerequisite at visual angle not reducing level, has realized high brightness integration imaging 3D stereo display.
Claims (1)
1. integration imaging 3D 3 d display device based on the gradual-change bore diameter pinhole array, this device comprises 2D display screen and gradual-change bore diameter pinhole array, the gradual-change bore diameter pinhole array is placed on 2D display screen the place ahead; In the gradual-change bore diameter pinhole array, the horizontal aperture width of the pin hole of any row is identical, and the vertical aperture width of the pin hole of delegation is identical arbitrarily, and the aperture width of gradual-change bore diameter pinhole array increases from the edge to the center gradually; The pitch of single pin hole is in the gradual-change bore diameter pinhole array
p, viewing distance is
L, the spacing of 2D display screen and gradual-change bore diameter pinhole array is
g, little pattern matrix and gradual-change bore diameter pinhole array all comprise
M*
NIndividual unit, wherein, on the horizontal direction
MIndividual unit is on the vertical direction
NIndividual unit, the horizontal aperture width and the vertical aperture width that are positioned at the pin hole of gradual-change bore diameter pinhole array center are respectively
H MAXWith
V MAX, then on the gradual-change bore diameter pinhole array
iThe horizontal aperture width of row pin hole
H i With
jThe vertical aperture width in hand-manipulating of needle hole
V j Calculated by following formula respectively:
Wherein
iBe to be less than or equal to
MPositive integer,
jBe to be less than or equal to
NPositive integer.
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Citations (2)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
CN102004323A (en) * | 2010-09-25 | 2011-04-06 | 四川大学 | Converging type integrated imaging three-dimensional display method for enlarging viewing angle and equipment thereof |
CN102647610A (en) * | 2012-04-18 | 2012-08-22 | 四川大学 | Integrated imaging directivity display method based on pixel extraction |
-
2013
- 2013-04-15 CN CN201310127191.3A patent/CN103197426B/en active Active
Patent Citations (2)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
CN102004323A (en) * | 2010-09-25 | 2011-04-06 | 四川大学 | Converging type integrated imaging three-dimensional display method for enlarging viewing angle and equipment thereof |
CN102647610A (en) * | 2012-04-18 | 2012-08-22 | 四川大学 | Integrated imaging directivity display method based on pixel extraction |
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