Abstract:
The helmet has a cap, and a turning assembly and a fastening device assembled on the cap. The helmet is formed as an integral whole and has a simplified and compact structure. A camera is mounted to the fastening device and is held by a lower holder and an upper holder of the turning assembly. A locking panel of the fastening device allows the camera to be easily and quickly mounted onto the cap via the fastening device or removed from the fastening device. With a locking member engaging in or disengaging from one of multiple engaging recesses of a corresponding guiding rod of the turning assembly, a position of the camera relative to the cap can be also easily and quickly adjusted.
Abstract:
A refrigerating machine having a detachable Hall element is provided with a cold heat exchange mechanism. The cold-heat exchange mechanism is driven by a driving assembly to generate a low temperature cooling zone at one end of the cold heat exchange mechanism. The driving assembly is composed of at least one rotor and a stator. After the power is input, the rotor can rotate a shaft to drive the cold-heat exchange mechanism to work. The driving assembly further has at least one Hall element and a circuit board on which the Hall element is mounted. Therefore, when the Hall element is damaged, the circuit board can be easily removed for replacement or repair.
Abstract:
A FinFET device and method for fabricating a FinFET device is disclosed. An exemplary FinFET device includes a semiconductor substrate; a fin structure disposed over the semiconductor substrate; and a gate structure disposed on a portion of the fin structure. The gate structure traverses the fin structure and separates a source region and a drain region of the fin structure, the source and drain region defining a channel therebetween. The source and drain region of the fin structure include a strained source and drain feature. The strained source feature and the strained drain feature each include: a first portion having a first width and a first depth; and a second portion disposed below the first portion, the second portion having a second width and a second depth. The first width is greater than the second width, and the first depth is less than the second depth.
Abstract:
A method includes forming a gate stack including a gate electrode on a first semiconductor fin. The gate electrode includes a portion over and aligned to a middle portion of the first semiconductor fin. A second semiconductor fin is on a side of the gate electrode, and does not extend to under the gate electrode. The first and the second semiconductor fins are spaced apart from, and parallel to, each other. An end portion of the first semiconductor fin and the second semiconductor fin are etched. An epitaxy is performed to form an epitaxy region, which includes a first portion extending into a first space left by the etched first end portion of the first semiconductor fin, and a second portion extending into a second space left by the etched second semiconductor fin. A first source/drain region is formed in the epitaxy region.
Abstract:
A method includes providing a plurality of semiconductor fins parallel to each other, and includes two edge fins and a center fin between the two edge fins. A middle portion of each of the two edge fins is etched, and the center fin is not etched. A gate dielectric is formed on a top surface and sidewalls of the center fin. A gate electrode is formed over the gate dielectric. The end portions of the two edge fins and end portions of the center fin are recessed. An epitaxy is performed to form an epitaxy region, wherein an epitaxy material grown from spaces left by the end portions of the two edge fins are merged with an epitaxy material grown from a space left by the end portions of the center fin to form the epitaxy region. A source/drain region is formed in the epitaxy region.
Abstract:
A refrigerating machine having a detachable Hall element is provided with a cold heat exchange mechanism. The cold-heat exchange mechanism is driven by a driving assembly to generate a low temperature cooling zone at one end of the cold heat exchange mechanism. The driving assembly is composed of at least one rotor and a stator. After the power is input, the rotor can rotate a shaft to drive the cold-heat exchange mechanism to work. The driving assembly further has at least one Hall element and a circuit board on which the Hall element is mounted. Therefore, when the Hall element is damaged, the circuit board can be easily removed for replacement or repair.
Abstract:
A method includes forming a gate stack including a gate electrode on a first semiconductor fin. The gate electrode includes a portion over and aligned to a middle portion of the first semiconductor fin. A second semiconductor fin is on a side of the gate electrode, and does not extend to under the gate electrode. The first and the second semiconductor fins are spaced apart from, and parallel to, each other. An end portion of the first semiconductor fin and the second semiconductor fin are etched. An epitaxy is performed to form an epitaxy region, which includes a first portion extending into a first space left by the etched first end portion of the first semiconductor fin, and a second portion extending into a second space left by the etched second semiconductor fin. A first source/drain region is formed in the epitaxy region.
Abstract:
A dual broadband dipole array antenna has a grounding structure, a circuit module and two feeding boards. The grounding structure is a conductive hexagonal container with two open ends and has two opposite parallel panels. The circuit module is a transmitting antenna module, is phase reversible and has two feeding wires. The feeding wires of the circuit module are respectively mounted centrally through the parallel panels and each feeding wire is electrically connected to the corresponding feeding board. When in use, the dual broadband dipole array antenna transmits signals covering EGSM900 (880-960 MHz), GSM1800 (1710-1880 MHz) and PCS (1820-1970 MHz).
Abstract:
A long-wave infrared anti-reflective laminate includes a silicon substrate and an anti-reflective composite layer. The anti-reflective composite layer is disposed on the silicon substrate and has at least one first anti-reflective membrane. The at least one first anti-reflective membrane includes a first silicon nitride layer and a first silicon dioxide layer. The first silicon nitride layer is disposed between the silicon substrate and the first silicon dioxide layer. The thickness ratio of the first silicon nitride layer to the first silicon dioxide layer ranges from 175 to 225. The anti-reflective composite layer can be applied on the optical instrument to raise the transmitting rate of the silicon substrate. The transmitting rate of the long-wave infrared anti-reflective laminate is over 90% within the wave band from 8 μm to 12 μm.
Abstract:
The helmet has a cap, and a turning assembly and a fastening device assembled on the cap. The helmet is formed as an integral whole and has a simplified and compact structure. A camera is mounted to the fastening device and is held by a lower holder and an upper holder of the turning assembly. A locking panel of the fastening device allows the camera to be easily and quickly mounted onto the cap via the fastening device or removed from the fastening device. With a locking member engaging in or disengaging from one of multiple engaging recesses of a corresponding guiding rod of the turning assembly, a position of the camera relative to the cap can be also easily and quickly adjusted.