Abstract: An integrated circuit structure includes a semiconductor substrate, a semiconductor strip over a portion of the semiconductor substrate, and a Shallow Trench Isolation (STI) region on a side of the semiconductor strip. The STI region includes a dielectric layer, which includes a sidewall portion on a sidewall of the semiconductor strip and a bottom portion. The dielectric layer has a first etching rate when etched using a diluted HF solution. The STI region further includes a dielectric region over the bottom portion of the dielectric layer. The dielectric region has an edge contacting an edge of the sidewall portion of the dielectric layer. The dielectric region has a second etching rate when etched using the diluted HF solution, wherein the second etching rate is smaller than the first etching rate.

Abstract: A method includes forming isolation regions in a semiconductor substrate, forming a first semiconductor strip between opposite portions of isolation regions, forming a second semiconductor strip overlying and contacting the first semiconductor strip, and performing a first recessing to recess the isolation regions. A portion of the second semiconductor strip over top surfaces of remaining portions of the isolation regions forms a semiconductor fin. A second recessing is performed to recess the isolation regions to extend the semiconductor fin downwardly, with an inter-diffusion region of the first semiconductor strip and the second semiconductor strip being exposed after the second recessing. The inter-diffusion region is then etched.

Abstract: A method includes forming isolation regions in a semiconductor substrate, forming a first semiconductor strip between opposite portions of isolation regions, forming a second semiconductor strip overlying and contacting the first semiconductor strip, and performing a first recessing to recess the isolation regions. A portion of the second semiconductor strip over top surfaces of remaining portions of the isolation regions forms a semiconductor fin. A second recessing is performed to recess the isolation regions to extend the semiconductor fin downwardly, with an inter-diffusion region of the first semiconductor strip and the second semiconductor strip being exposed after the second recessing. The inter-diffusion region is then etched.

Abstract: A method includes forming isolation regions in a semiconductor substrate, forming a first semiconductor strip between opposite portions of isolation regions, forming a second semiconductor strip overlying and contacting the first semiconductor strip, and performing a first recessing to recess the isolation regions. A portion of the second semiconductor strip over top surfaces of remaining portions of the isolation regions forms a semiconductor fin. A second recessing is performed to recess the isolation regions to extend the semiconductor fin downwardly, with an inter-diffusion region of the first semiconductor strip and the second semiconductor strip being exposed after the second recessing. The inter-diffusion region is then etched.

Abstract: An image capturing module and an electronic device having the same are disclosed. The image capturing module includes a swivel apparatus, a image sensor or photoelectric converter, and a lens. The swivel apparatus includes a carrying stage and a swivel mount. The image sensor or photoelectric converter is disposed on the carrying stage. The lens is connected to the swivel mount. The lens and the image sensor or photoelectric converter are relatively rotated by rotation of the swivel mount.

Abstract: A method includes forming isolation regions in a semiconductor substrate, forming a first semiconductor strip between opposite portions of isolation regions, forming a second semiconductor strip overlying and contacting the first semiconductor strip, and performing a first recessing to recess the isolation regions. A portion of the second semiconductor strip over top surfaces of remaining portions of the isolation regions forms a semiconductor fin. A second recessing is performed to recess the isolation regions to extend the semiconductor fin downwardly, with an inter-diffusion region of the first semiconductor strip and the second semiconductor strip being exposed after the second recessing. The inter-diffusion region is then etched.

Abstract: An image capturing module and an electronic device having the same are disclosed. The image capturing module includes a swivel apparatus, a image sensor or photoelectric converter, and a lens. The swivel apparatus includes a carrying stage and a swivel mount. The image sensor or photoelectric converter is disposed on the carrying stage. The lens is connected to the swivel mount. The lens and the image sensor or photoelectric converter are relatively rotated by rotation of the swivel mount.

Abstract: An adjustable holding frame mainly includes a first bar, a second bar and an adjusting means. The second bar has one end fastened to a lump element which is pivotally located in the adjusting means. The adjusting means is mounted onto the first bar and has a helical structure to adjust the position of a seat in the adjusting means. Thereby releasing or fastening of the lump element of the second bar can be controlled to adjust the posture condition of the holding frame.

Abstract: An anchor structure for electronic devices includes a plurality of bars that are pivotally coupled through a hinged means. At least one of the bars has a housing space formed in a portion of the interior to allow the bars to be swivelable relative to one another. The anchor structure further has a fastening means which has a handle with a bottom end located in the housing space and hinged on a corresponding bar. The hinged portion on the bottom end of the handle runs through the bar and is fastened to a cam. The housing space also holds a slidable brake element corresponding to the cam and a spring to keep the brake element in contact tightly with the cam so that turning of the cam can selectively move the brake element to a position to escape the axle or to another position to form a tight contact with an axle.

Abstract: An anchor structure for electronic devices includes a plurality of bars that are pivotally coupled through a hinged means. At least one of the bars has a housing space formed in a portion of the interior to allow the bars to be swivelable relative to one another. The anchor structure further has a fastening means which has a handle with a bottom end located in the housing space and hinged on a corresponding bar. The hinged portion on the bottom end of the handle runs through the bar and is fastened to a cam. The housing space also holds a slidable brake element corresponding to the cam and a spring to keep the brake element in contact tightly with the cam so that turning of the cam can selectively move the brake element to a position to escape the axle or to another position to form a tight contact with an axle.

Abstract: An anchor dock includes an anchor body, an adsorption portion and a bracing rack. The anchor body has a lower shell and an upper shell. The lower shell has a conical side surface formed at a sloped angle. The upper shell is located on an upper surface of the lower shell. The adsorption portion is located below the anchor body. The bracing rack is formed in a U-shape and surrounds the upper shell and has two ends hinged on the anchor body.

Abstract: An anchor structure for electronic devices includes a plurality of bars that are pivotally coupled through a hinged means. At least one of the bars has a housing space formed in a portion of the interior to allow the bars to be swivelable relative to one another. The anchor structure further has a fastening means which has a handle with a bottom end located in the housing space and hinged on a corresponding bar. The hinged portion on the bottom end of the handle runs through the bar and is fastened to a cam. The housing space also holds a slidable brake element corresponding to the cam and a spring to keep the brake element in contact tightly with the cam so that turning of the cam can selectively move the brake element to a position to escape the axle or to another position to form a tight contact with an axle.

Abstract: An anchor dock includes an anchor body, an adsorption portion and a bracing rack. The anchor body has a lower shell and an upper shell. The lower shell has a conical side surface formed at a sloped angle. The upper shell is located on an upper surface of the lower shell. The adsorption portion is located below the anchor body. The bracing rack is formed in a U-shape and surrounds the upper shell and has two ends hinged on the anchor body.

Abstract: A fastening holding rack includes a holding dock, a holding device and a fastening apparatus. The holding device has a holding bracket and a fastened member. The fastening apparatus includes a collet and a sleeve. The collet has a bottom and a plurality of jutting plates. The collet is mounted onto the holding dock to hold the fastened member. The jutting plates are located longitudinally on the bottom in a protrusive manner. Each of the jutting plates has an outer surface on which a portion is extended outwards greater than another portion. The collet is encased in the sleeve. The sleeve has a tubular wall which has a plurality of segments corresponding to the jutting plates. Each segment has an inner surface on which a portion is extended inwards greater than another portion. When the greater extended inward portion of the tubular wall is in contact with the greater extended outwards portion of the jutting plate, the jutting plate is tilted inwards to press the fastened member.

Abstract: A fastening apparatus and a holding rack which includes a holding dock, a holding device and the fastening apparatus. The holding device has a holding bracket and a fastened member. The fastening apparatus includes a collet and a sleeve. The collet has a bottom and a plurality of jutting plates. The collet is mounted onto the holding dock to hold the fastened member. The jutting plates are located longitudinally on the bottom in a protrusive manner. Each of the jutting plates has an outer surface on which a portion is extended outwards greater than other portion. The collet is encased in the sleeve. The sleeve has a tubular wall which has a plurality of segments corresponding to the jutting plates. Each segment has an inner surface on which a portion is extended inwards greater than other portion. When the greater extended inward portion of the tubular wall is in contact with the greater extended outwards portion of the jutting plate, the jutting plate is tilted inwards to press the fastened member.

Abstract: An adjustable holding frame mainly includes a first bar, a second bar and an adjusting means. The second bar has one end fastened to a lump element which is pivotally located in the adjusting means. The adjusting means is mounted onto the first bar and has a helical structure to adjust the position of a seat in the adjusting means. Thereby releasing or fastening of the lump element of the second bar can be controlled to adjust the posture condition of the holding frame.

Abstract: An anchor structure for electronic devices includes a plurality of bars that are pivotally coupled through a hinged means. At least one of the bars has a housing space formed in a portion of the interior to allow the bars to be swivelable relative to one another. The anchor structure further has a fastening means which has a handle with a bottom end located in the housing space and hinged on a corresponding bar. The hinged portion on the bottom end of the handle runs through the bar and is fastened to a cam. The housing space also holds a slidable brake element corresponding to the cam and a spring to keep the brake element in contact tightly with the cam so that turning of the cam can selectively move the brake element to a position to escape the axle or to another position to form a tight contact with an axle.

Abstract: An anchor rack having a coupling pawl has a plurality of slots on the coupling pawl and a conical outer surface. A sleeve and an elastic element are provided to be coupled with the coupling pawl to form interactions with one another. The coupling pawl has an opening which can be extended or shrunk. Hence a housing space formed in the coupling pawl also can be extended or shrunk. Thereby a tight coupling with a holding rack can be easily formed.