Abstract: A device for treating a user's skin using plasma is provided. The device comprises a plasma generation assembly and a power supply. The plasma generation assembly comprises a discharge electrode including a first surface; a first dielectric material layer provided on the first surface of the discharge electrode and the first surface, a ground electrode surrounding the discharge electrode, and an insulation member spacing around the discharge electrode from the ground electrode. The power supply configured to apply power to the plasma generation assembly so that plasma is generated from the first surface of the discharge electrode to the ground electrode and between the first dielectric material layer and the user's skin.

Abstract: A method of forming a semiconductor device includes the following steps. A first layer is provided, wherein a material of the first layer is amorphous or single crystal. A first conductive layer is directly deposited on the first layer, wherein the first conductive layer is in direct contact with the first layer, and a cross-sectional area of a grain of a material of the first conductive layer is larger than 500 nm2.

Abstract: A conveyor includes an operative platform and a crane. The crane includes two lateral frames, a crossbar, a longitudinal bar, two extensible elements, and a vacuum chuck. The lateral frames are supported on the operative platform. The crossbar is supported on the lateral frames. The crossbar is movable between a first position and a second position. The longitudinal bar is connected to the crossbar. The extensible elements are connected to the longitudinal bar. The vacuum chucks are respectively connected to the extensible elements. One of the vacuum chucks is located beyond an end of the operative platform and the other vacuum chuck is located above the operative platform when the crossbar is in the first position. One of the vacuum chucks is located above the operative platform and the other vacuum chuck is located beyond another end of the operative platform when the crossbar is in the second position.

Abstract: A log in system and a log in method of a field are provided. The log in method includes: broadcasting a first RF (RF) signal and a second RF signal by a gateway; a sensing card receiving the first RF signal to switch from a disable mode to an enable mode, the sensing card receiving the second RF signal in the enable mode and generating a communicating channel between the sensing card and the gateway in response to the second RF signal; the gateway receiving sensing card information from the sensing card via the communicating channel and recording an identity corresponding to the sensing card to a log in list corresponding to the field according to the sensing card information.

Abstract: An infrared control device is configured for use in a mesh network environment to control a controlled device by transmitting an infrared signal. The controlled device includes an identification tag. The identification tag includes a first control instruction. The control device includes a tag identification module and a database. The tag identification module scans the identification tag to identify the first control instruction. The database is electrically connected to the tag identification module to store the first control instruction.

Abstract: A conveyor includes two fences located on two sides of a platform. A fence-adjusting apparatus includes a primary driving unit, a secondary driving unit and a transmission. The primary driving unit includes two primary movable elements, two primary tracks and a primary driving element. Each primary movable element is connected to a corresponding one of the fences. The primary tracks movably support the primary movable elements. The primary driving element is operable to move the primary movable elements along the primary tracks. The secondary driving unit includes two secondary movable elements, two secondary tracks and a secondary driving element. Each secondary movable element is connected to a corresponding one of the fences. The secondary tracks movably support the secondary movable elements. The secondary driving element is operable to move the secondary movable elements along the secondary tracks. The transmission operatively connects the primary driving unit to the secondary driving unit.

Abstract: A bottle conveyor includes a platform and a bottle-stopping apparatus. The bottle-stopping apparatus includes a driving unit, a following unit, a transmission and two stoppers. The driving and following units are located near the platform. The transmission operatively connects the following unit to the driving unit. The stoppers are connected to two portions of the transmission so that the stoppers are moved toward and away from each other by operating the driving unit.

Abstract: A bottle conveyor includes a platform and a bottle-stopping apparatus. The bottle-stopping apparatus includes a driving unit, a following unit, a transmission and two stoppers. The driving and following units are located near the platform. The transmission operatively connects the following unit to the driving unit. The stoppers are connected to two portions of the transmission so that the stoppers are moved toward and away from each other by operating the driving unit.

Abstract: A conveyor includes two fences located on two sides of a platform. A fence-adjusting apparatus includes a primary driving unit, a secondary driving unit and a transmission. The primary driving unit includes two primary movable elements, two primary tracks and a primary driving element. Each primary movable element is connected to a corresponding one of the fences. The primary tracks movably support the primary movable elements. The primary driving element is operable to move the primary movable elements along the primary tracks. The secondary driving unit includes two secondary movable elements, two secondary tracks and a secondary driving element. Each secondary movable element is connected to a corresponding one of the fences. The secondary tracks movably support the secondary movable elements. The secondary driving element is operable to move the secondary movable elements along the secondary tracks. The transmission operatively connects the primary driving unit to the secondary driving unit.

Abstract: A SINR-based intrusion detection system comprises a first antenna, a second antenna, and an arithmetic unit connected to the second antenna. The first antenna simultaneously transmits one or plural beams having mutually different frequencies in an enclosed space so as to cover the enclosed space. The second antenna receives signals of the one or plural beams so as to capture signal parameters of the beam. The arithmetic unit is connected to the second antenna and detects the signal parameters in an always-on manner so as to obtain a SINR value from the signal parameters, comparing the SINR value to a predetermined threshold range, and determining that there is object intrusion when the SINR value falls within the predetermined threshold range.

Abstract: A FinFET includes a fin structure, a gate, a source-drain region and an inter layer dielectric (ILD). The gate crosses over the fin structure. The source-drain region is in the fin structure. The ILD is laterally adjacent to the gate and includes a dopant, in which a dopant concentration of the ILD adjacent to the gate is lower than a dopant concentration of the ILD away from the gate.

Abstract: A SINR-based intrusion detection system comprises a first antenna, a second antenna, and an arithmetic unit connected to the second antenna. The first antenna simultaneously transmits one or plural beams having mutually different frequencies in an enclosed space so as to cover the enclosed space. The second antenna receives signals of the one or plural beams so as to capture signal parameters of the beam. The arithmetic unit is connected to the second antenna and detects the signal parameters in an always-on manner so as to obtain a SINR value from the signal parameters, comparing the SINR value to a predetermined threshold range, and determining that there is object intrusion when the SINR value falls within the predetermined threshold range.

Abstract: A FinFET includes a fin structure, a gate, a source-drain region and an inter layer dielectric (ILD). The gate crosses over the fin structure. The source-drain region is in the fin structure. The ILD is laterally adjacent to the gate and includes a dopant, in which a dopant concentration of the ILD adjacent to the gate is lower than a dopant concentration of the ILD away from the gate.

Abstract: A method of forming a gate includes: forming a dummy gate; forming an inter layer dielectric (ILD) laterally adjacent to the dummy gate; doping a dopant into the dummy gate and the ILD, in which a surface dopant concentration of the dummy gate is lower than a surface dopant concentration of the ILD; removing the dummy gate to form a cavity after doping the dopant into the dummy gate and the ILD; and forming the gate in the cavity.

Abstract: The invention provides a boundary radiation prevention structure, comprising: a metal portion, and a guide portion. The metal portion has an incident plane adapted to block an incident electromagnetic wave, wherein the incident electromagnetic wave induces an induced current on the incident plane. The guide portion is located on one border of the incident plane and has a curved surface electrically connected to the metal portion for the induced current to pass through, wherein the curved surface is covered by an absorption layer for absorbing the incident electromagnetic wave and a boundary radiation generated from the induced current radiation.

Abstract: The invention provides a boundary radiation prevention structure, comprising: a metal portion, and a guide portion. The metal portion has an incident plane adapted to block an incident electromagnetic wave, wherein the incident electromagnetic wave induces an induced current on the incident plane. The guide portion is located on one border of the incident plane and has a curved surface electrically connected to the metal portion for the induced current to pass through, wherein the curved surface is covered by an absorption layer for absorbing the incident electromagnetic wave and a boundary radiation generated from the induced current radiation.