Abstract: In some embodiments, the present disclosure relates to a semiconductor device comprising a source and drain region arranged within a substrate. A conductive gate is disposed over a doped region of the substrate. A gate dielectric layer is disposed between the source region and the drain region and separates the conductive gate from the doped region. A bottommost surface of the gate dielectric layer is below a topmost surface of the substrate. First and second sidewall spacers are arranged along first and second sides of the conductive gate, respectively. An inner portion of the first sidewall spacer and an inner portion of the second sidewall spacer respectively cover a first and second top surface of the gate dielectric layer. A drain extension region and a source extension region respectively separate the drain region and the source region from the gate dielectric layer.

Abstract: A retractable connecting device is adapted to connect a casing and a tray, wherein the tray is slidably disposed on the casing. The retractable connecting device includes a retractable guiding rod and an electrical connecting wire set. Two opposite ends of the retractable guiding rod are respectively fixed to the casing and the tray. The electrical connecting wire set includes a flexible wire and an adhesive structure. The two opposite ends of the flexible wire are respectively fixed to the casing and the tray. The adhesive structure is connected to the flexible wire. The adhesive structure has a through hole. The retractable guiding rod is disposed through the first through hole in order to guide the flexible wire to be folded or unfolded along the extending direction of the retractable guiding rod when the tray is moved with respect to the casing.

Abstract: A fan module, applied to a server including a first joint portion, includes a fan body, a first metal casing, a second metal casing and a plastic handle. The fan body includes an outlet surface, an inlet surface opposite to the outer surface, a first lateral surface and a second lateral surface. The first and second lateral surfaces are located between the outlet surface and the inlet surface. The first metal casing includes an air-through wall located on the outlet surface or the inlet surface, a first lateral wall connected to the air-through wall and mounted on the first lateral surface, and a metal handle connected to the first lateral wall. The second metal casing includes a second lateral wall mounted on the second lateral surface. The plastic handle, mounted on the second lateral wall, includes a second joint portion, for being engaged with the first joint portion.

Abstract: A server casing includes a shell, a top cover, two first slide rails and two second slide rails. The shell includes two side frames. The two side frames are connected to the two sides of the shell. The top cover is movably disposed on the shell and includes an upper part. The two side parts are connected to the two sides of the upper part. Each first slide rail includes a first body part and a first extension part. The two first body parts are fixed to the two side frames of the shell. Each second slide rail includes a second body part and a second extension part. The two second body parts are fixed to the two side parts of the top cover. Each first extension part of each first slide rail are corresponding to and assembled with each second extension parts of each second slide rail.

Abstract: A hanging structure includes a main body, two first hooks and a second hook. The main body has an outer surface, and the outer surface has a first end. The two first hooks are disposed on the first end. The second hook is disposed on the first end. The second hook is located between the two first hooks, and the length of the part of each of the two first hooks above the outer surface is longer than the length of the part of the second hook above the outer surface.

Abstract: A hanging structure includes a main body, two first hooks and a second hook. The main body has an outer surface, and the outer surface has a first end. The two first hooks are disposed on the first end. The second hook is disposed on the first end. The second hook is located between the two first hooks, and the length of the part of each of the two first hooks above the outer surface is longer than the length of the part of the second hook above the outer surface.

Abstract: A fan module, applied to a server including a first joint portion, includes a fan body, a first metal casing, a second metal casing and a plastic handle. The fan body includes an outlet surface, an inlet surface opposite to the outer surface, a first lateral surface and a second lateral surface. The first and second lateral surfaces are located between the outlet surface and the inlet surface. The first metal casing includes an air-through wall located on the outlet surface or the inlet surface, a first lateral wall connected to the air-through wall and mounted on the first lateral surface, and a metal handle connected to the first lateral wall. The second metal casing includes a second lateral wall mounted on the second lateral surface. The plastic handle, mounted on the second lateral wall, includes a second joint portion, for being engaged with the first joint portion.

Abstract: This invention disclosed a method to detect bioparticles in the biological samples (stools, urine, or other body fluids). Bioparticles (e.g. virus, bacteria, and cells) often serve as carrier/indicator of pathogens and/or toxins. The method employs a substrate with interlaced comb-like electrodes on which a certain amount of sample mixed with antibodies-coated gold nanoparticles is dropped. Then the alternative signals with specific frequency bands are applied on the comb-like electrodes so that under such a DEP force the Au-modified bioparticles can be separated from the other constituents of the sample and can be absorbed effectively onto the edges of the electrodes. After rinsed with water to remove the residual sample several times, the device will be measured for the impedance of the absorbed bioparticles on the edges of the electrodes. The measured impedance deviation in comparison with that of the reference empty comb-like electrodes will quantify the amount of the absorbed bioparticles.

Abstract: A brake structure of a vehicle having a brake abrasion surface applied onto a braking device such as a brake disk, a brake drum case, a clutch housing of a stepless transmission clutch, and a clutch disk of a step transmission clutch. The brake abrasion surface has a plurality of equidistantly spaced crescent-shaped grooves whose number is variably changed depending on the application thereof in practical use. The crescent-shaped grooves thereof are partially overlapped in their ends to form a plurality of symmetrically intersecting points at the brake abrasion surface thereon. In braking operation, lining plates of the braking device are in abrasion engagement with the brake abrasion surface.

Abstract: A brake structure of a vehicle having a brake abrasion surface applied onto a braking device such as a brake disk, a brake drum case, a clutch housing of a stepless transmission clutch, and a clutch disk of a step transmission clutch. The brake abrasion surface has a plurality of equidistantly spaced crescent-shaped grooves whose number is variably changed depending on the application thereof in practical use. The crescent-shaped grooves thereof are partially overlapped in their ends to form a plurality of symmetrically intersecting points at the brake abrasion surface thereon. In braking operation, lining plates of the braking device are in abrasion engagement with the brake abrasion surface.