Abstract: Provided is a tap cell including a substrate, a first well, a second well, a first doped region, and the second doped region. The substrate has a first region and a second region. The first well has a first dopant type and includes a first portion disposed in the first region and a second portion extending into the second region. The second well has a second dopant type and includes a third portion disposed in the second region and a fourth portion extending into the first region. The first doped region having the first dopant type is disposed in the second portion of the first well and the third portion of the second well along the second region. The second doped region having the second dopant type is disposed in the first portion of the first well and the fourth portion of the second well along the first region.

Abstract: Electrostatic discharge (ESD) structures are provided. An ESD structure includes a semiconductor substrate, a first epitaxy region with a first type of conductivity over the semiconductor substrate, a second epitaxy region with a second type of conductivity over the semiconductor substrate, and a plurality of semiconductor layers. The semiconductor layers are stacked over the semiconductor substrate and between the first and second epitaxy regions. A first conductive feature is formed over the first epitaxy region and outside an oxide diffusion region. A second conductive feature is formed over the second epitaxy region and outside the oxide diffusion region. A third conductive feature is formed over the first epitaxy region and within the oxide diffusion region. A fourth conductive feature is formed over the second epitaxy region and within the oxide diffusion region. The oxide diffusion region is disposed between the first and second conductive features.

Abstract: A gas-supply system includes a gas container filled with gas, a gas flow controller coupled to the gas container via a first tube, and an operation device electrically connected to the gas flow controller. The gas-supply system further includes a pressure transducer installed on a second tube connected to the gas flow controller and configured to generate a pressure signal to the operation device according to the pressure of the gas in the second tube. The operation device is configured to generate a control signal to the gas flow controller according the pressure signal, and the gas flow controller is configured to adjust the flow rate of the gas in the second tube according to the control signal.

Abstract: A fluid supply system includes a pressure tank configured to contain a pressurized gas and a fluid, a delivery point configured to be connected to a point of use, a recirculation piping connecting the pressure tank to the delivery point, and a return pump connected to the recirculation piping. The recirculation piping defines a circulation path for the fluid from the pressure tank through the delivery point and back to the pressure tank. The return pump is downstream of the delivery point and upstream of the pressure tank in the circulation path.

Abstract: A gas-supply system includes a gas container filled with gas, a gas flow controller coupled to the gas container, and an operation device electrically connected to the gas flow controller. The gas-supply system further includes a buffer tank coupled to the gas flow controller and configured to receive the gas from the gas container via the gas flow controller. Furthermore, a pressure transducer disposed on the buffer tank and configured to generate a pressure signal to the operation device according to the pressure of the gas in the buffer tank. The operation device is configured to generate a control signal to the gas flow controller according the pressure signal, and the gas flow controller is configured to adjust the flow rate of the gas according to the control signal to keep the pressure of the gas in the buffer tank in a predetermined pressure range.

Abstract: A gas-supply system includes a gas container filled with gas, a gas flow controller coupled to the gas container via a first tube, and an operation device electrically connected to the gas flow controller. The gas-supply system further includes a pressure transducer installed on a second tube connected to the gas flow controller and configured to generate a pressure signal to the operation device according to the pressure of the gas in the second tube. The operation device is configured to generate a control signal to the gas flow controller according the pressure signal, and the gas flow controller is configured to adjust the flow rate of the gas in the second tube according to the control signal.

Abstract: A gas-supply system includes a gas container filled with gas, a gas flow controller coupled to the gas container, and an operation device electrically connected to the gas flow controller. The gas-supply system further includes a buffer tank coupled to the gas flow controller and configured to receive the gas from the gas container via the gas flow controller. Furthermore, a pressure transducer disposed on the buffer tank and configured to generate a pressure signal to the operation device according to the pressure of the gas in the buffer tank. The operation device is configured to generate a control signal to the gas flow controller according the pressure signal, and the gas flow controller is configured to adjust the flow rate of the gas according to the control signal to keep the pressure of the gas in the buffer tank in a predetermined pressure range.

Abstract: A fluid supply system includes a pressure tank configured to contain a pressurized gas and a fluid, a delivery point configured to be connected to a point of use, a recirculation piping connecting the pressure tank to the delivery point, and a return pump connected to the recirculation piping. The recirculation piping defines a circulation path for the fluid from the pressure tank through the delivery point and back to the pressure tank. The return pump is downstream of the delivery point and upstream of the pressure tank in the circulation path.

Abstract: A container includes a closed end, several first ring-shaped parts, and several second-ring-shaped parts adjoining the first ring-shaped parts; each of the first ring-shaped parts has a vertical annular side while each of the second ring-shaped parts has a sloping annular side; when the container is stretched, the ring-shaped parts will be one on top of another to comprise a substantially cone-shaped vessel, which can be pressed into a flattened shape with smaller ones of the ring-shaped parts being relocated within adjacent larger ring-shaped parts; the second ring-shaped parts are formed in such a manner that an angle between each of the second ring-shaped parts and a horizontal line is 60 to 80 degrees; thus, the container is more similar to a cylinder to have a large volume; therefore, the container can be pressed to become flat so as to occupy less space, thus being easy to carry and transport.

Abstract: A seal container includes a container, a lid, a knob fitted on the lid, a soft seal fitted over a lower side of the lid, and a depressing member arranged under the knob and connected with a middle of the seal at a lower end; the depressing member has several slopes on an annular edge; the knob has projections, which are spaced on an annular edge, and touch the slopes respectively; the depressing member will move down, and the seal will be depressed at the middle to reduce in circumference immediately after the knob is turned to such a position that the projections touch higher ends of the slopes; the seal will stretch to a normal shape to seal the container immediately after the knob is turned to such a position that the projections touch lower ends of the slopes.

Abstract: A seal container includes a container, a lid, a knob fitted on the lid, a soft seal fitted over a lower side of the lid, and a depressing member arranged under the knob and connected with a middle of the seal at a lower end; the depressing member has several slopes on an annular edge; the knob has projections, which are spaced on an annular edge, and touch the slopes respectively; the depressing member will move down, and the seal will be depressed at the middle to reduce in circumference immediately after the knob is turned to such a position that the projections touch higher ends of the slopes; the seal will stretch to a normal shape to seal the container immediately after the knob is turned to such a position that the projections touch lower ends of the slopes.

Abstract: A water container cap including a push button for closing and opening a cap member is provided. A nipple disposed in the cap body is pulled up by the cap member when it is opened, by pushing the push button inward within a recess formed in the cap body. The nipple is connected with a soft flexible sucking tube fluidly communicating with the interior of a water container to which the cap is coupled. In this manner, the liquid stored in the water container may be withdrawn by sucking through the nipple.

Abstract: The housing of a strainer for washed vegetables includes a top open end a bottom opening. The housing has a rotary member at the top and a closing member at the bottom opening. The closing member comprises a device for holding the water from the washed vegetables and which device is reversable to form a seal bottom. The housing can serves as container for storing things. The rotary member can serve as chopping board.