Abstract: An atomization module includes a main fixing member, an auxiliary fixing member, an atomization component and a piezoelectric component. The main fixing member includes a first bonding part, a second bonding part and a connecting part. The first bonding part has a first opening and a first bonding surface surrounding the first opening. The second bonding part is connected to the first bonding part, and the connecting part and the second bonding part surround the first bonding part. The auxiliary fixing member has a second opening and a second bonding surface surrounding the second opening. The piezoelectric component surrounds the first bonding part. The main fixing member has a first adhesive groove, which is jointly defined at least by the main fixing member, the auxiliary fixing member and the atomization component. The first adhesive is provided in the first adhesive groove.

Abstract: An electronic device includes a metal back cover, a metal frame, and a first, second, third, and fourth radiators. The metal frame includes a discrete part and two connection parts. The connection parts are located by two sides of the discrete part, separated from the discrete part, and connected to the metal back cover. A U-shaped slot is formed between the discrete part and the metal back cover and between the discrete part and the connection parts. The first radiator is separated from the discrete part and includes a feed end. The second, third, and fourth radiators are connected to the discrete part and the metal back cover. The third radiator is located between the first and second radiators. The first radiator is located between the third and fourth radiators. The discrete part and the first, second, third, and fourth radiators form an antenna module together.

Abstract: An assembly module is applicable to a casing of an expansion equipment. The assembly module includes a transmission component and an operating member. The transmission component is disposed in the casing. The transmission component includes a rotary member, a connecting member, and a buckle member. The rotary member is pivotally connected to the casing. The connecting member is connected between the rotary member and the buckle member. A part of the buckle member is exposed from a buckle hole of the casing. The operating member is disposed on the casing, and is connected to the transmission component. The operating member is configured to drive the transmission component, so that a part of the buckle member is movably disposed in the buckle hole of the casing.

Abstract: An adjustable shoe rack includes a support structure, at least one shoes plate, and at least one holding structure. The shoes plate is disposed on the support structure and is at a predetermined distance from a ground. The holding structure is disposed on a bottom face of the shoes plate and includes two clamping structures and a moving structure. The two clamping structures are parallel arranged. Each clamping structure includes a fixed clamping element and a movable clamping element wherein a clamping space is defined therebetween for receiving shoes. The two movable clamping elements are located between the two fixed clamping elements. The moving structure is located between the two movable clamping elements and is able to drive the two movable clamping elements to move toward opposite directions at the same time so as to alternate a width of the clamping space.

Abstract: An adjustable shoe rack includes a support structure, at least one shoes plate, and at least one holding structure. The shoes plate is disposed on the support structure and is at a predetermined distance from a ground. The holding structure is disposed on a bottom face of the shoes plate and includes two clamping structures and a moving structure. The two clamping structures are parallel arranged. Each clamping structure includes a fixed clamping element and a movable clamping element wherein a clamping space is defined therebetween for receiving shoes. The two movable clamping elements are located between the two fixed clamping elements. The moving structure is located between the two movable clamping elements and is able to drive the two movable clamping elements to move toward opposite directions at the same time so as to alternate a width of the clamping space.

Abstract: A pixel structure includes a gate line, a first data line, first and second pixel electrodes, first and second active devices, an insulation layer, and first and second connection electrodes. The first and second pixel electrodes are respectively disposed aside a first edge and a second edge of the gate line. The first drain electrode and second drain electrode of the first and second active devices both extend toward the second pixel electrode. The first connection electrode is electrically connected to the first drain electrode through a first contact hole and connected to the first pixel electrode; the first connection electrode and the first data line overlap in the vertical projection direction. The second connection electrode is disposed aside the second edge, and the second connection electrode is connected to the second pixel electrode and electrically connected to the second drain electrode through a second contact hole.

Abstract: A pixel structure includes a gate line, a first data line, first and second pixel electrodes, first and second active devices, an insulation layer, and first and second connection electrodes. The first and second pixel electrodes are respectively disposed aside a first edge and a second edge of the gate line. The first drain electrode and second drain electrode of the first and second active devices both extend toward the second pixel electrode. The first connection electrode is electrically connected to the first drain electrode through a first contact hole and connected to the first pixel electrode; the first connection electrode and the first data line overlap in the vertical projection direction. The second connection electrode is disposed aside the second edge, and the second connection electrode is connected to the second pixel electrode and electrically connected to the second drain electrode through a second contact hole.

Abstract: An adjustable supporting device includes a pivotal connection device and two supporting members individually pivotally connected to the pivotal connection device. The pivotal connection device includes a rotational restriction mechanism including a driving part and a restricting part connected to the driving part. The restricting part is capable of being driven by the driving part so as to move relative to the supporting members. Therein, the restricting part is capable of entering limitation ranges of rotational restriction structures of the supporting members simultaneously for individually limiting rotation ranges of the supporting members relative to the pivotal connection device according to the rotational restriction structures.

Abstract: A stand includes a base, a rotating element and a cover. The base includes a main body and a position device combined moveably with the main body. The rotating element combines rotatably with the position device to form a pivoting portion and is moved with the position device. The rotating element includes a guiding pillar. The cover combines with the main body, and the cover includes at least one guiding structure. The guiding pillar can be moved along the at least one guiding structure when the position device is moved, and a rotation operation of the guiding pillar can be limited by the at least one guiding structure when the guiding pillar is rotated with the rotating element.

Abstract: A shelf for boots storage includes a base, a bottom plate, at least one intermediate plate, plural connecting elements, and at least one hanging element. The bottom plate is rotatably disposed on the base. The intermediate plate is located by a side of the bottom plate opposite to the base and has a predetermined distance from the bottom plate. The connecting elements connect the intermediate plate and the bottom plate. A receiving room is defined between the connecting elements, the intermediate plate and the bottom plate. The hanging element extends from a bottom of the intermediate plate toward the receiving room, and a hanging space is defined between the hanging element and the intermediate plate.

Abstract: A shelf for boots storage includes a base, a bottom plate, at least one intermediate plate, plural connecting elements, and at least one hanging element. The bottom plate is rotatably disposed on the base. The intermediate plate is located by a side of the bottom plate opposite to the base and has a predetermined distance from the bottom plate. The connecting elements connect the intermediate plate and the bottom plate. A receiving room is defined between the connecting elements, the intermediate plate and the bottom plate. The hanging element extends from a bottom of the intermediate plate toward the receiving room, and a hanging space is defined between the hanging element and the intermediate plate.

Abstract: A stand includes a base, a rotating element and a cover. The base includes a main body and a position device combined moveably with the main body. The rotating element combines rotatably with the position device to form a pivoting portion and is moved with the position device. The rotating element includes a guiding pillar. The cover combines with the main body, and the cover includes at least one guiding structure. The guiding pillar can be moved along the at least one guiding structure when the position device is moved, and a rotation operation of the guiding pillar can be limited by the at least one guiding structure when the guiding pillar is rotated with the rotating element.

Abstract: An adjustable supporting device includes a pivotal connection device and two supporting members individually pivotally connected to the pivotal connection device. The pivotal connection device includes a rotational restriction mechanism including a driving part and a restricting part connected to the driving part. The restricting part is capable of being driven by the driving part so as to move relative to the supporting members. Therein, the restricting part is capable of entering limitation ranges of rotational restriction structures of the supporting members simultaneously for individually limiting rotation ranges of the supporting members relative to the pivotal connection device according to the rotational restriction structures.

Abstract: A method is provided for fabricating source/drain electrodes of a thin film transistor. The method generally provides a substrate having a first gate electrode and a second gate electrode adjacent and electrically connected. The method further provides coating a photoresist layer on the metal layer, and performing an exposure process on the photoresist layer by a photomask. The method further performs a development process on the exposed photoresist layer to form a photoresist pattern layer with different thicknesses on the metal layer, and then etches the metal layer using the photoresist pattern layer as an etch mask, to form a pair of first source/drain electrodes on the first gate electrode and a pair of second source/drain electrodes on the second gate electrode.

Abstract: A method is provided for fabricating source/drain electrodes of a thin film transistor. The method generally provides a substrate having a first gate electrode and a second gate electrode adjacent and electrically connected. The method further provides coating a photoresist layer on the metal layer, and performing an exposure process on the photoresist layer by a photomask. The method further performs a development process on the exposed photoresist layer to form a photoresist pattern layer with different thicknesses on the metal layer, and then etches the metal layer using the photoresist pattern layer as an etch mask, to form a pair of first source/drain electrodes on the first gate electrode and a pair of second source/drain electrodes on the second gate electrode.

Abstract: A photomask for fabricating a thin film transistor (TFT) is disclosed. The photomask includes a translucent layer disposed on a transparent substrate and covering U-shaped and rectangular channel-forming regions of the transparent substrate. First and second light-shielding layers are disposed on the translucent layer and located at the outer and inner sides of the U-shaped channel-forming region, respectively, and third and fourth light-shielding layers are disposed on the translucent layer and located at opposite sides of the rectangular channel-forming region, respectively, to serve as source/drain-forming regions. An end of the third light-shielding layer extends to the first light-shielding layer. A plurality of first light-shielding islands is disposed on the translucent layer and located within the rectangular channel-forming region. A method for fabricating source/drain electrodes of a TFT is also disclosed.

Abstract: A pixel structure fabricating method is provided. A gate is formed on a substrate. A gate insulation layer covering the gate is formed on the substrate. A channel layer, a source, and a drain are simultaneously formed on the gate insulation layer above the gate. The gate, channel layer, source, and drain form a thin film transistor (TFT). A passivation layer is formed on the TFT and the gate insulation layer. A black matrix is formed on the passivation layer. The black matrix has a contact opening above the drain and a color filter containing opening. A color filer layer is formed within the color filter containing opening through inkjet printing. A dielectric layer is formed on the black matrix and the color filter layer. The dielectric layer and the passivation layer are patterned to expose the drain. A pixel electrode electrically connected to the drain is formed.

Abstract: A photomask for fabricating a thin film transistor (TFT) is disclosed. The photomask includes a translucent layer disposed on a transparent substrate and covering U-shaped and rectangular channel-forming regions of the transparent substrate. First and second light-shielding layers are disposed on the translucent layer and located at the outer and inner sides of the U-shaped channel-forming region, respectively, and third and fourth light-shielding layers are disposed on the translucent layer and located at opposite sides of the rectangular channel-forming region, respectively, to serve as source/drain-forming regions. An end of the third light-shielding layer extends to the first light-shielding layer. A plurality of first light-shielding islands is disposed on the translucent layer and located within the rectangular channel-forming region. A method for fabricating source/drain electrodes of a TFT is also disclosed.

Abstract: A pixel structure fabricating method is provided. A gate and a gate insulation layer covering the gate are formed on a substrate. A channel layer is formed on the gate insulation layer. A conductive layer is formed on the channel layer and gate insulation layer. A black matrix having a color filer layer accommodating opening is formed on the conductive layer. The black matrix includes a first block and a second block which is thicker than the first block. The conductive layer is patterned with the black matrix as a mask to form a source and a drain on the channel layer. A color filter layer is formed within the color filter layer accommodating opening through inkjet printing. A dielectric layer is formed on the black matrix and color filter layer. The dielectric layer is patterned to expose the drain. A pixel electrode electrically connected to the drain is formed.

Abstract: A pixel structure fabricating method is provided. A gate and a gate insulation layer covering the gate are formed on a substrate. A channel layer is formed on the gate insulation layer. A conductive layer is formed on the channel layer and gate insulation layer. A black matrix having a color filer layer accommodating opening is formed on the conductive layer. The black matrix includes a first block and a second block which is thicker than the first block. The conductive layer is patterned with the black matrix as a mask to form a source and a drain on the channel layer. A color filter layer is formed within the color filter layer accommodating opening through inkjet printing. A dielectric layer is formed on the black matrix and color filter layer. The dielectric layer is patterned to expose the drain. A pixel electrode electrically connected to the drain is formed.