Abstract: A fingerprint identification apparatus, including a light path adjustment element, an optical filter layer, and an image sensor, is provided. The light path adjustment element is disposed on a transmission path of an image beam from a fingerprint of a user. The optical filter layer is disposed on a transmission path of the image beam from the light path adjustment element. The optical filter layer has openings. An inclined image beam in the image beam is obliquely incident to the light path adjustment element. The light path adjustment element adjusts a light path of the inclined image beam to be transmitted to the openings along a normal direction. The image sensor is disposed on a transmission path of the image beam from the optical filter layer. The image sensor has pixels. Positions of the pixels respectively correspond to positions of the openings.

Abstract: An image capturing device including a cover plate, an image capturing module, a frame body, a first adhesive layer, and a second adhesive layer is provided. The frame body and the image capturing module are located on the same side of the cover plate. The frame body is joined to the cover plate through the first adhesive layer. The image capturing module is joined to the frame body through the second adhesive layer. An orthographic projection of the second adhesive layer on the cover plate falls within an orthographic projection of the frame body on the cover plate.

Abstract: A fingerprint identification apparatus, including a light path adjustment element, an optical filter layer, and an image sensor, is provided. The light path adjustment element is disposed on a transmission path of an image beam from a fingerprint of a user. The optical filter layer is disposed on a transmission path of the image beam from the light path adjustment element. The optical filter layer has openings. An inclined image beam in the image beam is obliquely incident to the light path adjustment element. The light path adjustment element adjusts a light path of the inclined image beam to be transmitted to the openings along a normal direction. The image sensor is disposed on a transmission path of the image beam from the optical filter layer. The image sensor has pixels. Positions of the pixels respectively correspond to positions of the openings.

Abstract: An image capturing device includes a cover plate, a sensing module, a frame body, a first adhesive layer, and a second adhesive layer is provided. The sensing module includes a sensor and a light collimator. The light collimator is disposed between the cover plate and the sensor. The light collimator includes a plurality of light collimating units. Each of the light collimating units includes at least one fiber and a plurality of light absorbing columns. The light absorbing columns are disposed parallel to the at least one fiber and surround the at least one fiber. A thickness of the light collimator is T. A distance between two light absorbing columns farthest from each other among the light absorbing columns in each of the light collimating units is D. A numerical aperture of the at least one fiber is NA, NA?0.7, and D?T×tan[sin?1(NA)].

Abstract: A sensing module including a sensing array, a first shielding layer, a second shielding layer, and a reflective layer is provided. The sensing array includes a plurality of light passing regions and a light receiving surface facing away from an object, and the sensing array is located between the first shielding layer having a plurality of first openings and the second shielding layer having a plurality of second openings. The second shielding layer is located between the sensing array and the reflective layer. The light beams reflected by the object sequentially pass through the first openings, the light passing regions, the second openings, and are then transmitted to the reflective layer. The light beams are reflected by the reflective layer and then pass through the second openings again to be transmitted to the light receiving surface of the sensing array. An image capturing apparatus is also provided.

Abstract: A sensing module including a sensing array, a first shielding layer, a second shielding layer, and a reflective layer is provided. The sensing array includes a plurality of light passing regions and a light receiving surface facing away from an object, and the sensing array is located between the first shielding layer having a plurality of first openings and the second shielding layer having a plurality of second openings. The second shielding layer is located between the sensing array and the reflective layer. The light beams reflected by the object sequentially pass through the first openings, the light passing regions, the second openings, and are then transmitted to the reflective layer. The light beams are reflected by the reflective layer and then pass through the second openings again to be transmitted to the light receiving surface of the sensing array. An image capturing apparatus is also provided.

Abstract: An image capturing apparatus includes a light transmitting cover, a display panel, a Light guiding member, a light emitting element, and an image capturing element. The light transmitting cover has a surface in contact with the environmental medium. The light emitting element is disposed on one side of the Light guiding member. The sensing light beam is transmitted to the light penetrating portion in the first light guiding portion to be projected to the display area of the light transmitting cover, and a portion of the sensing light beam is totally reflected by the surface to form a signal beam that enters the second light guiding portion from the light penetrating portion. The image capturing element is disposed on the other side of the Light guiding member to receive the signal light beam that is transmitted in the second light guiding portion.

Abstract: An image capturing device including a cover plate, an image capturing module, a frame body, a first adhesive layer, and a second adhesive layer is provided. The frame body and the image capturing module are located on the same side of the cover plate. The frame body is joined to the cover plate through the first adhesive layer. The image capturing module is joined to the frame body through the second adhesive layer. An orthographic projection of the second adhesive layer on the cover plate falls within an orthographic projection of the frame body on the cover plate.

Abstract: An image capturing device includes a cover plate, a sensing module, a frame body, a first adhesive layer, and a second adhesive layer is provided. The sensing module includes a sensor and a light collimator. The light collimator is disposed between the cover plate and the sensor. The light collimator includes a plurality of light collimating units. Each of the light collimating units includes at least one fiber and a plurality of light absorbing columns. The light absorbing columns are disposed parallel to the at least one fiber and surround the at least one fiber. A thickness of the light collimator is T. A distance between two light absorbing columns farthest from each other among the light absorbing columns in each of the light collimating units is D. A numerical aperture of the at least one fiber is NA, NA?0.7, and D?T×tan[sin?1(NA)].

Abstract: An image capturing apparatus includes a light transmitting cover, a display panel, a Light guiding member, a light emitting element, and an image capturing element. The light transmitting cover has a surface in contact with the environmental medium. The light emitting element is disposed on one side of the Light guiding member. The sensing light beam is transmitted to the light penetrating portion in the first light guiding portion to be projected to the display area of the light transmitting cover, and a portion of the sensing light beam is totally reflected by the surface to form a signal beam that enters the second light guiding portion from the light penetrating portion. The image capturing element is disposed on the other side of the Light guiding member to receive the signal light beam that is transmitted in the second light guiding portion.

Abstract: A touch panel including a substrate, plural first electrode strings, plural second electrode strings, plural insulating patterns, and plural first optical matching patterns is provided. The substrate has plural bridge areas and a non-bridge area connected to the bridge areas. The first electrode strings and the second electrode strings are disposed on the substrate and staggered in the bridge areas. The insulating patterns are located in the bridge areas, and each of the insulating patterns is located between one of the first electrode strings and a corresponding second electrode string respectively. Each of the first optical matching patterns is located in one of the bridge areas respectively and located between a corresponding first electrode string and a corresponding second electrode string. Each of the insulating patterns is respectively disposed on a surface of one of the first optical matching patterns facing away from the substrate.

Abstract: A touch panel including a substrate, plural first electrode strings, plural second electrode strings, plural insulating patterns, and plural first optical matching patterns is provided. The substrate has plural bridge areas and a non-bridge area connected to the bridge areas. The first electrode strings and the second electrode strings are disposed on the substrate and staggered in the bridge areas. The insulating patterns are located in the bridge areas, and each of the insulating patterns is located between one of the first electrode strings and a corresponding second electrode string respectively. Each of the first optical matching patterns is located in one of the bridge areas respectively and located between a corresponding first electrode string and a corresponding second electrode string. Each of the insulating patterns is respectively disposed on a surface of one of the first optical matching patterns facing away from the substrate.

Abstract: An anti-burst, or so-called an anti-shatter, OGS (One-Glass-Solution) touch panel is provided. The OGS touch panel includes a cover lens of glass and a touch sensor layer formed on one side of the cover lens. The OGS touch panel further includes a polarizer, wherein the polarizer is bonded, by means of an adhesive layer included in the polarizer, to one side of the touch sensor layer which is the side opposite from the cover lens, or is bonded to one side of the cover lens which is the side opposite from the touch sensor layer. Because of the function of the adhesive layer included in the polarizer, the OGS touch panel as provided achieves the advantage of both being shatterproof and having a reduced total thickness.

Abstract: An underwater cutting device for the handle of MTR plate-type fuel has a housing that has an accommodation space for a feed pneumatic cylinder to drive a slidable base for lateral movement. And in front of the accommodation space there is a cutting chamber. A primary motor is located on the slidable base to drive the saw blade inside the cutting chamber to move and cut laterally with the slidable base that is driven by the feed pneumatic cylinder. A positioning block is located on the side with the housing and in the moving path of the saw blade. In the positioning block there is an accommodation space to hold the MTR plate-type fuel. Above the positioning block there is at least a pressing pneumatic cylinder to immobilize the MTR plate-type fuel and facilitate the saw blade to cut and remove the handle of MTR plate-type fuel.