Abstract: A built-in FM transmitting antenna applied to a mobile device, includes a substrate unit, a first antenna unit, a conducting unit and a second antenna unit. The substrate unit has a circuit substrate, at least one grounding layer disposed on the circuit substrate, and a plurality of conducting pads disposed on the circuit substrate. The first antenna unit is disposed above the substrate unit and substantially parallel to the substrate unit. The conducting unit is electrically connected between the substrate unit and the first antenna unit. The second antenna unit is directly disposed on the edge of the top surface of the circuit substrate. The second antenna unit has two ends electrically connected between two of the conducting pads, respectively. The two ends of the second antenna unit are electrically connected to an FM chip module and the conducting unit through the two of the conducting pads, respectively.

Abstract: A method of transferring a wafer is disclosed. The method comprises providing a pedestal and at least one spray orifice extending through the pedestal; disposing a wafer above the pedestal using a first robot, wherein the wafer has a first surface and a second surface, the first surface faces the pedestal, a fluid is sprayed onto the first surface simultaneously to avoid a contact of the first surface with the pedestal, and the fluid contains a charge-forming chemical substance dissolved therein; and taking the wafer using a robot for delivery. Due to the charge-forming chemical substance dissolved in the fluid, the waterfall effect to cause discharge damage on the wafer is avoided in the spraying of the fluid.

Abstract: A built-in FM transmitting antenna applied to a mobile device, includes a substrate unit, a first antenna unit, a conducting unit and a second antenna unit. The substrate unit has a circuit substrate, at least one grounding layer disposed on the circuit substrate, and a plurality of conducting pads disposed on the circuit substrate. The first antenna unit is disposed above the substrate unit and substantially parallel to the substrate unit. The conducting unit is electrically connected between the substrate unit and the first antenna unit. The second antenna unit is directly disposed on the edge of the top surface of the circuit substrate. The second antenna unit has two ends electrically connected between two of the conducting pads, respectively. The two ends of the second antenna unit are electrically connected to an FM chip module and the conducting unit through the two of the conducting pads, respectively.

Abstract: A method of transferring a wafer is disclosed. The method comprises providing a pedestal and at least one spray orifice extending through the pedestal; disposing a wafer above the pedestal using a first robot, wherein the wafer has a first surface and a second surface, the first surface faces the pedestal, a fluid is sprayed onto the first surface simultaneously to avoid a contact of the first surface with the pedestal, and the fluid contains a charge-forming chemical substance dissolved therein; and taking the wafer using a robot for delivery. Due to the charge-forming chemical substance dissolved in the fluid, the waterfall effect to cause discharge damage on the wafer is avoided in the spraying of the fluid.

Abstract: A method of transferring a wafer is disclosed. The method comprises providing a pedestal and at least one spray orifice extending through the pedestal; disposing a wafer above the pedestal using a first robot, wherein the wafer has a first surface and a second surface, the first surface faces the pedestal, a fluid is sprayed onto the first surface simultaneously to avoid a contact of the first surface with the pedestal, and the fluid contains a charge-forming chemical substance dissolved therein; and taking the wafer using a robot for delivery. Due to the charge-forming chemical substance dissolved in the fluid, the waterfall effect to cause discharge damage on the wafer is avoided in the spraying of the fluid.

Abstract: A method of cleaning a reaction chamber having a wafer holder is provided. First, the reaction chamber is cleaned by a cleaning gas. Next, a protection film is formed on the inner surface of the reaction chamber, wherein a gap is formed between the protection wafer and the wafer holder, and a cooling gas is guided therebetween simultaneously.

Abstract: The invention is directed to a method for manufacturing semiconductor device. The method comprises steps of providing a substrate and then forming a dielectric material-containing device over the substrate. A plasma vapor deposition process is performed to form a dielectric layer over the substrate. A first baking process is performed.

Abstract: A wafer including a high stressed thin film thereon is lifted, and a pre-heating process is performed while the wafer is lifted. Subsequently, a dielectric layer is deposited on the high stressed thin film.

Abstract: A method of transferring a wafer is disclosed. The method comprises providing a pedestal and at least one spray orifice extending through the pedestal; disposing a wafer above the pedestal using a first robot, wherein the wafer has a first surface and a second surface, the first surface faces the pedestal, a fluid is sprayed onto the first surface simultaneously to avoid a contact of the first surface with the pedestal, and the fluid contains a charge-forming chemical substance dissolved therein; and taking the wafer using a robot for delivery. Due to the charge-forming chemical substance dissolved in the fluid, the waterfall effect to cause discharge damage on the wafer is avoided in the spraying of the fluid.

Abstract: A method of cleaning a reaction chamber having a wafer holder is provided. First, the reaction chamber is cleaned by a cleaning gas. Next, a protection film is formed on the inner surface of the reaction chamber, wherein a gap is formed between the protection wafer and the wafer holder, and a cooling gas is guided therebetween simultaneously.

Abstract: A presentation apparatus includes a power management module, a storage unit, an amplifier amplifying an audio signal based on an audio control signal, a socket receiving the amplified audio signal from the amplifier, a detection circuit, a plurality of buttons, a wireless receiver/transmitter and a processing chip which connects with the power management module, the storage unit, the amplifier, the detection circuit, the buttons, the wireless receiver/transmitter to control the movement of a cursor, receive/transmit an audio signal, output the audio control signal, and determine the type of plug plugged into the socket according to the detection circuit connecting with the socket.

Abstract: The invention is directed to a method for manufacturing semiconductor device. The method comprises steps of providing a substrate and then forming a dielectric material-containing device over the substrate. A plasma vapor deposition process is performed to form a dielectric layer over the substrate. A first baking process is performed.

Abstract: A wafer including a high stressed thin film thereon is lifted, and a pre-heating process is performed while the wafer is lifted. Subsequently, a dielectric layer is deposited on the high stressed thin film.

Abstract: A shield adapted to be fit into an opening defined in a casing of an electronic device to protect the electronic device from electromagnetic interference, includes a shielding panel dimensioned to be received in the opening of the casing. The shielding panel has outward flanges contacting support flanges extending from a periphery of the opening of the casing for retaining the shield in the opening. The outward flanges of the shielding panel form at least one retaining tongue extending therefrom and receivable in a gap defined in the support flanges of the casing for securely retaining the shield in the opening.

Abstract: A shield adapted to protect an electronic device from electromagnetic interference includes a shielding panel having two board support arms extending from opposite sides thereof. Each board support arm defines an elongate slot therein extending in a direction substantially normal to the panel from a remote end to a proximal end. An expanded hole is defined in the board support arm at the remote end of the slot and communicates with the slot by means of a converging section whereby a mounting extension of a circuit board of the electronic device is received in the slot by being inserted in the expanded hole and guided by the converging section into the slot toward the proximal end thereof. The expanded hole facilitates the insertion of the mounting extension into the slot thus the width of the slot may be dimensioned to securely retain the circuit board without interfering with the insertion of the circuit board. The expanded hole also facilitates removal of the circuit board from the slot.