Abstract: An electronic device is disclosed. The electronic device includes a substrate, a plurality of color filters disposed on the substrate, an optical film disposed on the plurality of color filter, and a defect disposed between the substrate and the optical film. The optical film has a first base, a protective layer on the first base, and a second base between the first base and the protective layer and having a first processed area. In a top view of the electronic device, the first processed area corresponds to the defect and at least partially overlaps at least two color filters.

Abstract: A transistor includes a gate structure over a substrate, wherein the substrate includes a channel region. The transistor further includes a source/drain (S/D) in the substrate adjacent to the gate structure. The transistor further includes a lightly doped drain (LDD) region adjacent to the S/D, wherein a dopant concentration in the first LDD is less than a dopant concentration in the S/D. The transistor further includes a doping extension region adjacent the LDD region, wherein the doping extension region extends farther under the gate structure than the LDD region, and a maximum depth of the doping extension region is 10-times to 30-times greater than a maximum depth of the LDD.

Abstract: A connection module capable of integrating electronic control contains: a male connection assembly, a female connection assembly, and a controlling portion. The male connection assembly includes a coupling section, at least one current transmission set, at least one signal transmission set, and at least one engagement portion. The female connection assembly includes a coupling section, at least one current transmission set, at least one signal transmission set, and at least one engagement portion. The controlling portion is connected with the drive mechanism of the male connection assembly to actuate, control and detect the drive mechanism. The male connection assembly is located below the female connection assembly, and the coupling section of the female connection assembly is covered in the coupling section of the male connection assembly. The signal transmission set of the male connection assembly contacts with the signal transmission set of the female connection assembly.

Abstract: A wire-clamping connector assembly includes a wire-clamping connector and a mating connector that are mated with each other. The wire-clamping connector includes a casing and a conductive cable. The casing includes a first wire-fixing portion, a second wire-fixing portion, and a third wire-fixing portion that is located therebetween. A first gap is formed between the first wire-fixing portion and the third wire-fixing portion, and a second gap is formed between the second wire-fixing portion and the third wire-fixing portion. The conductive cable includes a conductive cable body and insulating bodies that cover the conductive cable body. The conductive cable passes through the first gap and the second gap, such that a third extension section is surroundingly arranged below the third wire-fixing portion. An extension direction of the conductive cable is perpendicular to a mating direction of the mating connector and the wire-clamping connector.

Abstract: A wire-clamping connector assembly includes a wire-clamping connector and a mating connector that are mated with each other. The wire-clamping connector includes a casing and a conductive cable. The casing includes a first wire-fixing portion, a second wire-fixing portion, and a third wire-fixing portion that is located therebetween. A first gap is formed between the first wire-fixing portion and the third wire-fixing portion, and a second gap is formed between the second wire-fixing portion and the third wire-fixing portion. The conductive cable includes a conductive cable body and insulating bodies that cover the conductive cable body. The conductive cable passes through the first gap and the second gap, such that a third extension section is surroundingly arranged below the third wire-fixing portion. An extension direction of the conductive cable is perpendicular to a mating direction of the mating connector and the wire-clamping connector.

Abstract: A wire-clamping connector assembly includes a wire-clamping connector and a mating connector. The wire-clamping connector includes a first main body that has a retaining groove, a cover, a conductive cable, and multiple first and second conductive terminals that are embedded in the first main body. The second and the first conductive terminals are opposite to each other and are in a staggered arrangement. Each of the first conductive terminals has one of multiple first upper contact portions, and each of the second conductive terminals has one of multiple second upper contact portions. The conductive cable is disposed on the first main body. The cover is disposed on the conductive cable, and is detachably fixed to the first main body. Each conductor in the conductive cable is in electrical contact with one of the first upper contact portions or one of the second upper contact portions.

Abstract: A socket connector includes an insulated housing and at least one socket terminal. The insulated housing has at least one terminal passage for receiving the at least one socket terminal. The socket terminal has a fixing portion, a conductive clasp extending rearward from the fixing portion along a longitudinal direction, and a pair of contacting arms respectively extending from two opposite sides of the fixing portion. Each contacting arm has an elastic clasp extending from the fixing portion along the longitudinal direction, a port portion connecting to a front end of the elastic clasp, and at least one extending portion extending rearward from an inner side of the port portion. A part of the elastic clasp is bent inward to form a second contacting portion. A part of the port portion and the extending portion form a first contacting section.

Abstract: A socket connector includes an insulated housing and at least one socket terminal. The insulated housing has at least one terminal passage for receiving the at least one socket terminal. The socket terminal has a fixing portion, a conductive clasp extending rearward from the fixing portion along a longitudinal direction, and a pair of contacting arms respectively extending from two opposite sides of the fixing portion. Each contacting arm has an elastic clasp extending from the fixing portion along the longitudinal direction, a port portion connecting to a front end of the elastic clasp, and at least one extending portion extending rearward from an inner side of the port portion. A part of the elastic clasp is bent inward to form a second contacting portion. A part of the port portion and the extending portion form a first contacting section.

Abstract: A torque system of a power tool includes a combination of a first body and a second body, in which a toothed ring is assembled; and a mode selecting assembly, a torque adjusting module and control pins disposed on the second body. The torque system further includes restricting mechanisms formed on the second body, and the control pins are respectively disposed in the restricting mechanisms. One side of the control pin has a stopper block, and the restricting mechanism includes a first stopper, a second stopper and a through hole. When the control pin is driven to rotate and the stopper block faces the first stopper or the through hole, the object of switching each operation mode is achieved.

Abstract: A torque system of a power tool includes a combination of a first body and a second body, in which a toothed ring is assembled; and a mode selecting assembly, a torque adjusting module and control pins disposed on the second body. The torque system further includes restricting mechanisms formed on the second body, and the control pins are respectively disposed in the restricting mechanisms. One side of the control pin has a stopper block, and the restricting mechanism includes a first stopper, a second stopper and a through hole. When the control pin is driven to rotate and the stopper block faces the first stopper or the through hole, the object of switching each operation mode is achieved.

Abstract: The present invention discloses a method of mask reduction for producing a low-temperature polysilicon thin film transistor array by use of a photo-sensitive low-K dielectric, which comprises the steps of: defining a polysilicon-island on a preprocessed glass substrate; forming a gate oxide layer and a first metal layer in sequence; patterning the first metal layer to define a gate; forming a photosensitive dielectric layer; patterning the photosensitive dielectric layer and the gate oxide layer to form a plurality of contact holes, wherein said photo-sensitive low-K dielectric masks said gate oxide layer during said patterning of said gate oxide layer; forming a transmissive pixel layer and patterning the same; and forming a reflective pixel electrode layer and patterning the same.

Abstract: A mechanism for locking and cushioning a spindle of a power tool includes a driving disk, a combination of a cam and a plurality of elastic components, and a plurality of roller pairs. The combination of the cam and the elastic components is accommodated in a body. The driving disk is disposed at one end of the body and in contact with the cam. A surface of the driving disk is formed with a plurality of stopping blocks inserted into the body to contact the elastic components, respectively. The roller pairs are respectively disposed between two adjacent stopping blocks and in contact with an inclined surface of an outer surface of the cam. When the power tool is powered off, relative movements between the elastic components and the stopping blocks and pressing forces between the inclined surface of the cam and the roller can cushion and lock the spindle.

Abstract: A mechanism for locking and cushioning a spindle of a power tool includes a driving disk, a combination of a cam and a plurality of elastic components, and a plurality of roller pairs. The combination of the cam and the elastic components is accommodated in a body. The driving disk is disposed at one end of the body and in contact with the cam. A surface of the driving disk is formed with a plurality of stopping blocks inserted into the body to contact the elastic components, respectively. The roller pairs are respectively disposed between two adjacent stopping blocks and in contact with an inclined surface of an outer surface of the cam. When the power tool is powered off, relative movements between the elastic components and the stopping blocks and pressing forces between the inclined surface of the cam and the roller can cushion and lock the spindle.