A near-eye display system and a near-eye display
A near-eye display and micro-display technology, applied in instruments, optical components, optics, etc., can solve the problems of weakening user experience comfort and bulky near-eye displays, improving comfort and user experience, and reducing process complexity and manufacturing costs. , the effect of improving the transmission efficiency
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Embodiment 1
[0077] Such as figure 2 As shown in , the above-mentioned curved surface component includes a curved surface 11;
[0078] The microdisplay 21 in the imaging device 2 is an active microdisplay, and the light source is included in the microdisplay 21;
[0079] Then the micro-display 21 interferes with the user's forehead 22 through the isolation material, and forms a first preset angle α with the user's forehead 22, and the display surface of the micro-display 21 is arranged facing the curved surface component;
[0080] A mechanical mount 23 is provided between the microdisplay 21 and the curved surface 11 for fixing the relative positions of the microdisplay 21 and the curved surface 11 .
[0081] Specifically, in this embodiment, the above-mentioned microdisplay 21 is an active type display such as an OLED display, so the microdisplay 21 is equipped with an illuminator as a light source. Such a design does not require an additional light source in the display device, so that...
Embodiment 2
[0086] Such as image 3 As shown, on the basis of the first embodiment above, the thickness of the above-mentioned curved surface 11 can be unevenly distributed in the xy coordinate space, that is, the outer surface 11b adopts a free-form surface form different from the inner surface 11a, so as to specially provide for people with myopia or hyperopia users with visual impairments. For example, in order to make the near-eye display system more suitable for users with visual impairment, a transflective polymer can be coated on the inner surface 11a of the above-mentioned curved surface 11 to be responsible for collimating and combining light, and on the outer surface of the above-mentioned curved surface 11 Some optical processing is performed on 11b to configure eyeglasses for visually impaired users, so that the thickness of the curved surface 11 changes as described above. After the optical processing, the inner surface 11a of the above-mentioned curved surface 11 needs to b...
Embodiment 3
[0088] Such as Figure 4 As shown, the above-mentioned curved surface component includes a curved surface 11;
[0089] The microdisplay 21 in the imaging device 2 is a passive microdisplay;
[0090] The light source is arranged in front of the eyes 12 of the user;
[0091] The microdisplay 21 is perpendicular to the light source 45 and arranged above the light source, and the display surface 41 of the microdisplay 21 is arranged toward the curved surface 11 in the curved surface assembly;
[0092] A polarizing beam splitter 42 is arranged between the light source and the microdisplay 21 .
[0093] Specifically, in this embodiment, the above-mentioned microdisplay 21 is a passive microdisplay, such as a liquid crystal display (Liquid Crystal Display, LCD), or a silicon-based liquid crystal display (Liquid Crystal on Silicon, LCOS), or a digital micromirror device (Digital Mirror Device, DMD), or a scanner of a micro-electromechanical system (Micro-electromechanical Systems, ...
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