Abstract: An electrical connector including an insulative housing and a number of terminals. The insulative housing includes an upper substrate and a lower substrate. The upper substrate defines an array of upper holes and the lower substrate defines an array of lower holes corresponding to the upper holes. The terminals are received in the upper and lower holes and each comprises an upper contact, a lower contact electrically connecting with the upper contact and a spring located between the upper contact and the lower contact. The upper contact protrudes a restricting portion for restricting the spring. A diameter of the lower hole is less than that of the upper hole and a distance of the restricting portion. So a top surface of the lower substrate supports the restricting portion.

Abstract: A power semiconductor device having low gate input resistance and a manufacturing method thereof are provided. The power semiconductor device includes a substrate, at least a trench transistor, a conductive layer, a metal contact plug, an insulating layer, an interlayer dielectric, a gate metal layer, and a source metal layer. The metal contact plug can serve as a buried gate metal bus line, and the metal contact plug can pass under the source metal layer and keeps the area of the source metal layer complete. Accordingly, the present invention can provide a lower gate input resistance without dividing the source metal layer, so the source metal layer can have a larger and complete area for the following packaging and bonding process.

Abstract: Embodiments of circuits, apparatuses, and systems for an overdrive protection circuit arranged at an input to a primary power transistor to protect against overdrive conditions, where the overdrive protection circuit includes a sensing resistor. Other embodiments may be described and claimed.

Abstract: Embodiments of circuits, apparatuses, and systems for a protection circuit to protect against overdrive or overvoltage conditions. Other embodiments may be described and claimed.

Abstract: Gate structures of CMOS device and the method for manufacturing the same are provided. A substrate having an NMOS region, a PMOS region, and a work function modulation layer disposed on the NMOS region and the PMOS region is provided. A nitrogen doping process is performed to dope nitrogen into a portion of the work function modulation layer disposed on the PMOS region so as to form an N-rich work function modulation layer disposed on the PMOS region. A nonmetallic conductive layer is formed blanketly covering the work function modulation layer and the N-rich work function modulation layer. A portion of the nonmetallic conductive layer, the work function modulation layer, and the N-rich work function modulation layer is removed to form a first gate in the NMOS region and a second gate in the PMOS region.

Abstract: A bearing handling tool is revealed. The bearing handling tool includes a tool body having a fixing member arranged at a middle part thereof. The fixing member is for fixing the tool body to a machine such as engines or transmissions of car models, ship models, airplane models, etc. The tool body further has a connection end on one end and a plurality of locking parts on the other end thereof. The connection end is to handle the bearing near a surface of the machine while the locking part is for handling the bearing in the machine. The handling tool is used depending on the condition and providing convenient assembling and disassembling. Moreover, the attaching and detaching of the bearing have no influence on the machine and with high industrial application value.

Abstract: A laterally diffused metal-oxide-semiconductor device includes a substrate, a gate dielectric layer, a gate polysilicon layer, a source region, a drain region, a body region, a first drain contact plug, a source polysilicon layer, an insulating layer, and a source metal layer. The source polysilicon layer disposed on the gate dielectric layer above the drain region can serve as a field plate to enhance the breakdown voltage and to increase the drain-to-source capacitance. In addition, the first drain contact plug of the present invention can reduce the drain-to-source on-resistance and the horizontal extension length.

Abstract: A window covering includes at least one spring motor attached to a rotatable shaft. The spring motor includes at least one spring member that has an elongated body having a windable length, a uniform thickness throughout the windable length, a uniform width throughout the windable length, and a uniform rectangular cross section throughout the windable length. The spring member is configured so that it has a different microstructure at different portions of the first spring member located along the windable length of such that the spring member exerts an amount of force as the portions of the first spring member may wind about a roller of the spring motor that progressively increases such that the roller may prevent movement of the shaft to maintain a position of the window covering material after the window covering material is moved to a particular raised position.

Abstract: An electrical connector including an insulative housing and a number of terminals. The insulative housing includes an upper substrate and a lower substrate. The upper substrate defines an array of upper holes and the lower substrate defines an array of lower holes corresponding to the upper holes. The terminals are received in the upper and lower holes and each comprises an upper contact, a lower contact electrically connecting with the upper contact and a spring located between the upper contact and the lower contact. The upper contact protrudes a restricting portion for restricting the spring. A diameter of the lower hole is less than that of the upper hole and a distance of the restricting portion. So a top surface of the lower substrate supports the restricting portion.

Abstract: An electrical contact (1) comprises an upper contact (10), a lower contact (12) and a spring (14) located between the upper contact (10) and the lower contact (12). The upper contact (10) comprises a first contacting portion (104) at one end thereof and a first mating end (108) comprising two contacting sheets overlapped at an opposite end thereof, and a lower contact comprises a second contacting portion and a second mating end defining a channel, the channel providing a space to allow movement of the first mating end.

Abstract: A touch panel having hidden antenna has a multi-layer body and at least one antenna unit. The multi-layer body has a first electrode, a second electrode and an intermediate layer sandwiched by the first electrode and the second electrode. The at least one antenna unit is mounted on different positions inside the multi-layer body to constitute a plane antenna or a three-dimensional antenna. Accordingly, hidden inside the multi-layer body, the at least one antenna unit is not prone to defacement and damage, occupies little space, has a good communication quality and is durable.

Abstract: A method of fabricating a metal gate structure is provided. Firstly, a high-K gate dielectric layer is formed on a semiconductor substrate. Then, a first metal-containing layer having a surface away from the gate dielectric layer is formed on the gate dielectric layer. After that, the surface of the first metal-containing layer is treated to improve the nitrogen content thereof of the surface. Subsequently, a silicon layer is formed on the first metal-containing layer. Because the silicon layer is formed on the surface having high nitrogen content, the catalyzing effect to the silicon layer resulted from the metal material in the first metal-containing layer can be prevented. As a result, the process yield is improved.

Abstract: A window covering may include a roller attached to a mounting device, and a front member attached to the mounting device. Strips may extend from a roller attached to the mounting device. An upper portion of each strip may be attached to the roller and a lower portion of each strip may be connected to a bottom portion of the front member. Each strip passes through a respective column of ballast members. The ballast members are connected to the front member. The columns may each be comprised of ballast members that are not more than six inches below an immediately adjacent upper ballast member when the front member is in the extended position. The spacing of the ballast members and widths of the strips cooperate to prevent any of the strips from being pulled away from the ballast members to form a loop having a diameter greater than twelve inches.

Abstract: A window covering includes a roller attached to a mounting device and an actuation device attached to the roller to rotate the roller in at least one of a first direction and a second direction. A front member is attached to the mounting device. A second member is attached to the roller. A plurality of ballast members are attached to the front member. Each ballast member has a portion that extends to the second member to engage the second member to cause the front member to form substantially parallel folds when the second member is wound about the roller to retract the front member to a retracted position. Preferably, the folds are similar to or exactly like the transverse folds in shade material that are formed when a conventional Roman shade is raised.

Abstract: A window covering includes a roller attached to a mounting device and an actuation device attached to the roller to rotate the roller in at least one of a first direction and a second direction. A front member is attached to the mounting device. A second member is attached to the roller. A plurality of ballast members are attached to at least one of the front member and the second member. Each ballast member is configured to cause or enable the front member to form substantially parallel folds when the second member is wound about the roller to retract the front member to a retracted position. Preferably, the folds are similar to or exactly like the transverse folds in shade material that are formed when a conventional Roman shade is raised.

Abstract: An exemplary method of etching an oxide layer and a nitride layer is provided. In particular, a substrate is provided. A surface of the substrate has an isolating structure projecting therefrom. A first oxide layer, a nitride layer and a second oxide layer are sequentially provided on the surface of the substrate, wherein the first oxide layer is uncovered on the isolating structure, the nitride layer is formed overlying the first oxide layer, and the second oxide layer is formed overlying the nitride layer. An isotropic etching process is performed by using an etching mask unmasking the isolating structure, and thereby removing the unmasked portion of the second oxide layer and the unmasked portion of the nitride layer and further exposing sidewalls of the isolating structure. The unmasked portion of the first oxide layer generally is partially removed due to over-etching.

Abstract: A contact efuse structure includes a silicon layer and a contact contacting the silicon layer with one end. When a voltage is applied to the contact, a void is formed at the end of the contact, and thus the contact is open. Such structure may be utilized in an efuse device or a read only memory. A method of making a contact efuse device and a method of making a read only memory are also disclosed.

Abstract: An exemplary signal processing apparatus includes a signal transmission port, a first signal processing circuit, a second signal processing circuit, and a control circuit. The signal transmission port is shared between a first signal processing operation and a second signal processing operation. The first signal processing circuit performs the first signal processing operation, wherein when the signal processing apparatus operates, the first signal processing circuit is not required to be consistently enabled to use the signal transmission port for signal transmission. The second signal processing circuit performs the second signal processing operation, wherein the signal transmission port is not always required to carry out signal transmission each time the second signal processing circuit is enabled to perform the second signal processing operation. The control circuit selectively enables the first signal processing circuit or the second signal processing circuit.

Abstract: A hand gesture recognition method according to the present disclosure is applied to a touch panel comprising a plurality of sensors, each of which generating a sensing value according to a touch operation. The method includes providing a first reference value and a second reference value; generating a count value by counting a quantity of the sensing values that are greater than a threshold; determining the touch operation as a first hand gesture when the count value is greater than the first reference value but smaller than the second reference value; and determining the touch operation as a second hand gesture when the count value is greater than the second reference value.

Abstract: A driving apparatus for driving at least one first light emitting diode unit and a second light emitting diode unit includes a data transmitting unit and a driving unit. The data transmitting unit is used for receiving and storing driving data. The driving data includes first data corresponding to a first driving signal and second data corresponding to a second driving signal. The driving unit divides the first driving signal into a plurality of first sub-driving signals and the second driving signal into a plurality of second sub-driving signals, and then alternately outputs the first sub-driving signals and the second sub-driving signals to alternately drive the first light emitting diode unit and the second light emitting diode unit.