Abstract: A method of handling a resource exchange for a network comprises the steps of receiving at least one channel information report transmitted by at least one communication device pair, respectively; determining at least one resource exchange according to the at least one channel information report; and performing the at least one resource exchange on at least one first resource allocated to the at least one communication device pair and on at least one available resource at the network, to allocate at least one second resource to the at least one communication device pair.

Abstract: A method for forming an integrated circuit having Micro-electromechanical Systems (MEMS) includes forming at least two recesses into a first layer, forming at least two recesses into a second layer, the at least two recesses of the second layer being complementary to the recesses of the first layer. An intermediate layer is bonded onto the second layer, the intermediate layer includes through-holes corresponding to the recesses of the second layer. The first layer is bonded to the intermediate layer such that cavities are formed, the cavities to act as operating environments for MEMS devices. The two cavities have different pressures.

Abstract: The present disclosure relates to a microelectromechanical systems (MEMS) package with an anti-stiction layer, and an associated method of formation. In some embodiments, the MEMS package comprises a device substrate and a CMOS substrate. The device substrate comprises a MEMS device having a moveable or flexible part that is movable or flexible with respect to the device substrate. A surface of the moveable or flexible part is coated by a conformal anti-stiction layer made of polycrystalline silicon. A method for manufacturing the MEMS package is also provided.

Abstract: The present disclosure relates to a microelectromechanical systems (MEMS) package with an anti-stiction layer, and an associated method of formation. In some embodiments, the MEMS package comprises a device substrate and a CMOS substrate. The device substrate comprises a MEMS device having a moveable or flexible part that is movable or flexible with respect to the device substrate. A surface of the moveable or flexible part is coated by a conformal anti-stiction layer made of polycrystalline silicon. A method for manufacturing the MEMS package is also provided.

Abstract: A realistic laser acupuncture apparatus includes a laser device having a laser driver and a laser head. The laser head emits a laser beam moving along a path. A focus tunable liquid lens is located in the path of the laser beam. A control unit is electrically connected to the laser device and the focus tunable liquid lens. This can substantially decrease the volume and increase the applicability of the realistic laser acupuncture apparatus.

Abstract: Embodiments of mechanisms for forming a micro-electro mechanical system (MEMS) device are provided. The MEMS device includes a substrate and a MEMS substrate disposed on the substrate. The MEMS substrate includes a movable element, a fixed element and at least a spring connected to the movable element and the fixed element. The MEMS device also includes a polysilicon layer on the movable element.

Abstract: A Micro-Electro-Mechanical System (MEMS) device includes a sensing element, and a proof mass over and overlapping at least a portion of the sensing element. The proof mass is configured to be movable toward the sensing element. A protection region is formed between the sensing element and the proof mass. The protection region overlaps a first portion of the sensing element, and does not overlap a second portion of the sensing element, wherein the first and the second portions overlap the proof mass.

Abstract: Embodiments of mechanisms for forming a micro-electro mechanical system (MEMS) device are provided. The MEMS device includes a substrate and a MEMS substrate disposed on the substrate. The MEMS substrate includes a movable element, a fixed element and at least a spring connected to the movable element and the fixed element. The MEMS device also includes a polysilicon layer on the movable element.

Abstract: A method for forming an integrated circuit having Micro-electromechanical Systems (MEMS) includes forming at least two recesses into a first layer, forming at least two recesses into a second layer, the at least two recesses of the second layer being complementary to the recesses of the first layer. An intermediate layer is bonded onto the second layer, the intermediate layer includes through-holes corresponding to the recesses of the second layer. The first layer is bonded to the intermediate layer such that cavities are formed, the cavities to act as operating environments for MEMS devices. The two cavities have different pressures.

Abstract: A Micro-Electro-Mechanical System (MEMS) device includes a sensing element, and a proof mass over and overlapping at least a portion of the sensing element. The proof mass is configured to be movable toward the sensing element. A protection region is formed between the sensing element and the proof mass. The protection region overlaps a first portion of the sensing element, and does not overlap a second portion of the sensing element, wherein the first and the second portions overlap the proof mass.

Abstract: An integrated circuit device includes a first layer comprising at least two partial cavities, an intermediate layer bonded to the first layer, the intermediate layer formed to support at least two Micro-electromechanical System (MEMS) devices, and a second layer bonded to the intermediate layer, the second layer comprising at least two partial cavities to complete the at least two partial cavities of the first layer through the intermediate layer to form at least two sealed full cavities. The at least two full cavities have different pressures within.

Abstract: A method of handling a resource exchange for a network comprises the steps of receiving at least one channel information report transmitted by at least one communication device pair, respectively; determining at least one resource exchange according to the at least one channel information report; and performing the at least one resource exchange on at least one first resource allocated to the at least one communication device pair and on at least one available resource at the network, to allocate at least one second resource to the at least one communication device pair.

Abstract: An integrated circuit device includes a first layer comprising at least two partial cavities, an intermediate layer bonded to the first layer, the intermediate layer formed to support at least two Micro-electromechanical System (MEMS) devices, and a second layer bonded to the intermediate layer, the second layer comprising at least two partial cavities to complete the at least two partial cavities of the first layer through the intermediate layer to form at least two sealed full cavities. The at least two full cavities have different pressures within.

Abstract: A fixing structure for signal wires of a resolver is disposable on an end face of a stator of the resolver. The fixing structure includes a circuit board, a fixing section disposed on the circuit board for connecting the circuit board to the end face of the stator, a connection terminal seat disposed on the circuit board, multiple connection sections formed through the circuit board in the form of holes, and multiple bridge circuits respectively arranged between the corresponding connection sections and the connection terminal seat for bridging the corresponding connection sections and the connection terminal seat.

Abstract: A Micro-Electro-Mechanical System (MEMS) device includes a sensing element, and a proof mass over and overlapping at least a portion of the sensing element. The proof mass is configured to be movable toward the sensing element. A protection region is formed between the sensing element and the proof mass. The protection region overlaps a first portion of the sensing element, and does not overlap a second portion of the sensing element, wherein the first and the second portions overlap the proof mass.

Abstract: A method for making a fluorescent gold nano-material having a gold nanocluster and thiol ligands on a surface of the gold nanocluster includes reacting a mixture of a gold-containing compound, an alkyl alcohol, and a thiol compound.

Abstract: A fixing structure for signal wires of a resolver is disposable on an end face of a stator of the resolver. The fixing structure includes a circuit board, a fixing section disposed on the circuit board for connecting the circuit board to the end face of the stator, a connection terminal seat disposed on the circuit board, multiple connection sections formed through the circuit board in the form of holes, and multiple bridge circuits respectively arranged between the corresponding connection sections and the connection terminal seat for bridging the corresponding connection sections and the connection terminal seat.

Abstract: A hiding structure for positioning signal conversion mechanism of a torque motor, which includes a stator having a curvature center line, a rotor coaxially fitted with the stator, a positioning/detecting section disposed on the stator between the stator and the rotor for detecting movements of the motor and outputting corresponding analog signals and a signal conversion section for receiving the analog signals provided by the positioning/detecting section and converting the analog signals into digital signals and outputting the digital signals. The signal conversion section is fixed on an end face of one end of the stator in an insulated state.

Abstract: A resolver unit including a first resolver and a second resolver. The first resolver includes a first rotor. A certain number of first rotor magnetic poles are annularly disposed on the first rotor at equal intervals. The second resolver includes a second rotor coaxial with the first rotor. A certain number of second rotor magnetic poles are annularly disposed on the second rotor at equal intervals. The number of the second rotor magnetic poles is different from the number of the first rotor magnetic poles.

Abstract: A hiding structure for positioning signal conversion mechanism of a torque motor, which includes a stator having a curvature center line, a rotor coaxially fitted with the stator, a positioning/detecting section disposed on the stator between the stator and the rotor for detecting movements of the motor and outputting corresponding analog signals and a signal conversion section for receiving the analog signals provided by the positioning/detecting section and converting the analog signals into digital signals and outputting the digital signals. The signal conversion section is fixed on an end face of one end of the stator in an insulated state.