Abstract: The problem of forming a deep trench isolation structure suitable for photodetectors with small pitch is solved by a process in which a grid of trenches is etched from the front side using high energy plasma followed by annealing. The trenches are filled with an oxide followed by etching to recess the oxide. The trench recesses are filled with semiconductor to form a grid-shaped semiconductor structure. After FEOL processing, BEOL processing, attachment to a second substrate, and thinning from the back side, an etch removes the oxide from the back side. The etch stops on the grid-shaped semiconductor structure. The trenches are then lined and filled from the back side. The front side etch allows the trenches to be made narrow and with highly vertical sidewalls. Lining and filling the trenches from the back side provides good optical and electrical isolation.

Abstract: An electronic device is provided. The electronic device includes a first substrate, an insulating layer, a first conductive layer and a second conductive layer. The insulating layer is overlapped with the first substrate. The second conductive layer contacts with the first conductive layer. The first conductive layer and the second conductive layer are disposed between the first substrate and the insulating layer. The second conductive layer is disposed between the first conductive layer and the insulating layer. Moreover, a thermal expansion coefficient of the second conductive layer is between a thermal expansion coefficient of the first conductive layer and a thermal expansion coefficient of the insulating layer.

Abstract: An inspection method and an inspection platform applicable for inspecting a light source used to expose a substrate. The light source is adapted to form an illuminated area on a surface of the substrate. The inspection method includes the following steps: placing at least one inspection component on the surface of the substrate; causing the at least one inspection component and the illuminated area to have a relative movement and a relative speed in a specific direction so as to make the illuminated area move across the at least one inspection component, wherein in the specific direction, the illuminated area is smaller in size than the at least one inspection component; inspecting photon energy of incident light in the illuminated area by the at least one inspection component during the relative movement; and determining optical values of the light source according to the photon energy and the relative speed.

Abstract: A coolant distribution device includes a housing, a heat exchanger, a first inlet port, a first outlet port, at least one pump assembly, and a first power connector. The housing has at least one opening. The heat exchanger and the at least one pump assembly are disposed in the housing. The first inlet port and the first outlet port are connected to the heat exchanger. A part of the at least one pump assembly passes through the at least one opening and is exposed from the housing. The at least one pump assembly is interconnected with the first inlet port and the heat exchanger. The first power connector is disposed on the housing and is configured to receive DC power.

Abstract: A coil module is provided, including a second coil mechanism. The second coil mechanism includes a third coil assembly and a second base corresponding to the third coil assembly. The second base has a positioning assembly corresponding to a first coil mechanism.

Abstract: Disclosed in the present invention are a camera module and an electronic device. The camera module includes a housing, a temperature sensor, a temperature adjusting device, and an infrared detector, the temperature sensor is configured to sense a first temperature in the interior of the housing, the temperature adjusting device is configured to adjust the first temperature to a target temperature when the first temperature is not equal to the target temperature, the infrared detector is configured to detect infrared rays of an object when the first temperature reaches the target temperature.

Abstract: A camera assembly able to perform spectral imaging includes a flexible cable, a filter, a bearing block, and a lens module. The flexible cable is electrically connected to the filter. The bearing block includes intercommunicating first and second receiving grooves. The filter is in the first receiving groove and the lens module is in the second receiving groove. The filter and the bearing block are connected by elastic and shock-absorbent glue and the filter is of the MEMS-type and voltage-tunable to adjust the wavelengths of light permitted to go through to the light sensor, to as to achieve spectral imaging.

Abstract: A camera assembly able to perform spectral imaging includes a flexible cable, a filter, a bearing block, and a lens module. The flexible cable is electrically connected to the filter. The bearing block includes intercommunicating first and second receiving grooves. The filter is in the first receiving groove and the lens module is in the second receiving groove. The filter and the bearing block are connected by elastic and shock-absorbent glue and the filter is of the MEMS-type and voltage-tunable to adjust the wavelengths of light permitted to go through to the light sensor, to as to achieve spectral imaging.

Abstract: The present invention provides an image focusing method that is applied to an image capture device having an optical image stabilization (OIS) function, including: driving the at least one optical lens to tilt by an angle in response to a first selected target and a second selected target, and enabling a first light beam group from the first selected target and a second light beam group from the second selected target to be focused on a same imaging surface after passing through the at least one optical lens. In addition, the present invention further provides an image capture device and an electronic device that apply the foregoing method.

Abstract: The present invention provides an image focusing method that is applied to an image capture device having an optical image stabilization (OIS) function, including: driving the at least one optical lens to tilt by an angle in response to a first selected target and a second selected target, and enabling a first light beam group from the first selected target and a second light beam group from the second selected target to be focused on a same imaging surface after passing through the at least one optical lens. In addition, the present invention further provides an image capture device and an electronic device that apply the foregoing method.

Abstract: A camera module includes a substrate, a sensing chip, an electronic component, a base plate and a lens module. The sensing chip is disposed on a first surface of the substrate. The electronic component is disposed on a second surface of the substrate. The base plate covers the second surface of the substrate. The base plate includes an opening. The electronic component is received within the base plate through the opening. The lens module covers the first surface of the substrate. Since the electronic component is installed on the second surface of the substrate, the electronic component is not covered by the lens module. Since the substrate with small volume is used in the camera module, the volume of the camera module is reduced.

Abstract: A surveillance device includes a front cover, at least two guide rods, a lens module, a mounting plate, a first balance spring, a circuit board, and a number of second balance springs. The guide rods are mounted in the front cover. The lens module is received the first through hole. The mounting plate is slidably mounted to the guide rods. The mounting plate defines a through hole. The first balance spring is positioned between the front cover and the mounting plate. The circuit board is mounted to the mounting plate and opposite to the first balance spring. The image sensor is mounted on the circuit board and faces the through and the lens module. The second balance springs are positioned between the mounting plate and the circuit board. The first balance spring and the second balance springs keep the image sensor being aligned with the lens module.

Abstract: An electronic device includes a shell, an image capturing device, a sliding key, and a driving element. The shell defines a receiving space and a through hole communicating the receiving space. The image capturing device is received in the receiving space and includes a supporting frame having a pair of rotation shafts rotatably connected with the shell and a matching block. The matching block defines a rectangular matching hole. The sliding key includes an operation portion outside receiving space and a connection portion extending from the operation portion into the receiving space. The connection portion is received and slidable in the through hole. The driving element includes a main portion connected with the connection portion and a driving arm extending from the main portion. The driving arm includes a driving portion slidable in the matching hole for driving the supporting frame to rotate.

Abstract: An electronic device includes a shell, an image capturing device, a sliding key, a driving element, and a sliding pin. The shell defines a receiving space, a number of positioning grooves, and a through hole communicating with the receiving space. The image capturing device is received in the receiving space. The image capturing device includes a supporting frame rotatably connected with the shell and defining a matching hole. The sliding key includes an operation portion and a connection portion. The connection portion is received and slidable in the through hole. The driving element includes a main portion connected with the connection portion, at least one driving arm, and a tail portion. The tail portion includes a positioning protrusion received in one positioning groove. The sliding pin engages with the at least one driving arm and is slidable in the matching hole for driving the supporting frame to rotate.

Abstract: An electronic device includes a casing, a camera module, a shielding plate, and an actuator. The casing includes a front plate and a sidewall extending from an outer periphery of the front plate. The front plate defines a through hole. The camera module is positioned on and received in the casing and aims at the through hole. The shielding plate is rotatably positioned on and received within the casing and located between the front plate and the camera module. The shielding plate defines an aperture. The actuator is positioned on and received in the casing for driving the shielding plate to rotate between a closed position, in which the through hole is shielded by the shielding plate, and an open position, in which the aperture is aligned with the through hole.

Abstract: An electronic device includes a shell, an image capturing device, a sliding key, and a driving element. The shell defines a receiving space and a through hole communicating the receiving space. The image capturing device is received in the receiving space and includes a supporting frame having a pair of rotation shafts rotatably connected with the shell and a matching block. The matching block defines a rectangular matching hole. The sliding key includes an operation portion outside receiving space and a connection portion extending from the operation portion into the receiving space. The connection portion is received and slidable in the through hole. The driving element includes a main portion connected with the connection portion and a driving arm extending from the main portion. The driving arm includes a driving portion slidable in the matching hole for driving the supporting frame to rotate.

Abstract: An electronic device includes a shell, an image capturing device, a sliding key, a driving element, and a sliding pin. The shell defines a receiving space, a number of positioning grooves, and a through hole communicating with the receiving space. The image capturing device is received in the receiving space. The image capturing device includes a supporting frame rotatably connected with the shell and defining a matching hole. The sliding key includes an operation portion and a connection portion. The connection portion is received and slidable in the through hole. The driving element includes a main portion connected with the connection portion, at least one driving arm, and a tail portion. The tail portion includes a positioning protrusion received in one positioning groove. The sliding pin engages with the at least one driving arm and is slidable in the matching hole for driving the supporting frame to rotate.

Abstract: A vehicle running board includes a treadle body provided with a receiving surface with plural recesses and having its underside disposed with a recessed chamber. A decorative plate is mounted on the receiving surface of the treadle body, and an anti-skid pad is set on the decorative plate. A connecting base is received in the recessed chamber of the treadle body and has two lower sides respectively bent inward to form a sliding rail. A plurality of inverted-U shaped positioning members are positioned at the underside of the connecting base, respectively having two sides received in the sliding rails of the connecting base and respectively bored with a long insert hole having a third screw inserted therein. Thus, the positioning members in the connecting base can be adjusted in setting position for matching vehicles of different styles, convenient in assembly and use and stable in whole structure.

Abstract: An adjustable lens structure includes a lens housing, a lens module, a rotatable lens seat, and a shifting apparatus. The lens housing has a front housing and a top housing located behind the front housing. The front housing is a hollow cylinder and the rotatable lens seat is placed inside the front housing. The lens module is placed on the rotatable lens seat. The shifting apparatus is engaged with the top housing. The shifting apparatus has a gear assembly engaged with the rotatable lens seat to provide adjustable shooting angle for the lens module.

Abstract: A vehicle running board includes a treadle body provided with a receiving surface with plural recesses and having its underside disposed with a recessed chamber. A decorative plate is mounted on the receiving surface of the treadle body, and an anti-skid pad is set on the decorative plate. A connecting base is received in the recessed chamber of the treadle body and has two lower sides respectively bent inward to form a sliding rail. A plurality of inverted-U shaped positioning members are positioned at the underside of the connecting base, respectively having two sides received in the sliding rails of the connecting base and respectively bored with a long insert hole having a third screw inserted therein. Thus, the positioning members in the connecting base can be adjusted in setting position for matching vehicles of different styles, convenient in assembly and use and stable in whole structure.