Abstract: Various embodiments of the present disclosure are directed towards a method for forming a semiconductor structure. The method includes forming a stack of semiconductor layers comprising a plurality of first semiconductor layers and a plurality of second semiconductor layers over a semiconductor substrate. A first stack of masking layers is formed over the stack of semiconductor layers with a first width and a second stack of masking layers is formed laterally offset from the stack of semiconductor layers with a second width less than the first width. A patterning process is performed on the semiconductor substrate and the stack of semiconductor layers, thereby defining a first fin structure laterally adjacent to a second fin structure. The first fin structure has the first width and the second fin structure has the second width. The stack of semiconductor layers directly overlies the first fin structure and has the first width.

Abstract: Semiconductor device and the manufacturing method thereof are disclosed. An exemplary semiconductor device comprises a dielectric layer formed over a conductive feature; a semiconductor stack formed over the dielectric layer, wherein the semiconductor stack including semiconductor layers stacked up and separated from each other; a first metal gate structure and a second metal gate structure formed over a channel region of the semiconductor stack, wherein the first metal gate structure and the second metal gate structure wrap each of the semiconductor layers of the semiconductor stack; and a first epitaxial feature disposed between the first metal gate structure and the second metal gate structure over a first source/drain region of the semiconductor stack, wherein the first epitaxial feature extends through the dielectric layer and contacts the conductive feature.

Abstract: A display connector includes a female connector and a male connector. The female connector is connected to a display card. The male connector is connected to an image output device. The female connector and the male connector each include an insulated main body, a plurality of connecting pins mounted on the main body, and an adsorption structure. The connecting pins of the male and female connectors are connected to each other by the adsorption of the adsorption structures of the male and female connectors.

Abstract: An energy-saving computer control system includes a motherboard, a magnetic field intensity inductor, and a micro processing controller. The magnetic field intensity inductor senses the proximity of a human body and the micro processing controller compares such information against a preset value of magnetic field intensity and a preset time. The micro processing controller further controls a state of the computer to be dormant or to wake up according to the comparison. A computer control method is also provided.

Abstract: A connector assembly includes a male connector and a female connector. An inserting portion and first and second magnets protrude from an end surface of the male connector. The polarities of the first magnet and the second magnet are reversed. A receiving portion is formed at an end of the female connector to be electrically connected to the inserting portion. A first fixing member and a second fixing member at opposite sides of the receiving portion protrude from an end surface of the female connector. Two rods coiled with coils are formed inside the female connector and are electrically connected to the first and second fixing members. When the coils are electrified, the first and second fixing members turn to have reverse polarities. The polarities of the first magnet and the first fixing member are reverse. The polarities of the second fixing member and the second magnet are reverse.

Abstract: A connector assembly includes a male connector and a female connector. An inserting portion and first and second magnets protrude from an end surface of the male connector. The polarities of the first magnet and the second magnet are reversed. A receiving portion is formed at an end of the female connector to be electrically connected to the inserting portion. A first fixing member and a second fixing member at opposite sides of the receiving portion protrude from an end surface of the female connector. Two rods coiled with coils are formed inside the female connector and are electrically connected to the first and second fixing members. When the coils are electrified, the first and second fixing members turn to have reverse polarities. The polarities of the first magnet and the first fixing member are reverse. The polarities of the second fixing member and the second magnet are reverse.

Abstract: In a method for encrypting and decrypting a document based on a voiceprint recognition technology on an electronic device, an encryption key is generated and stored in a storage device of the electronic device. And a voiceprint is verified to determined whether the voiceprint is identical to a predefined voiceprint. if the voiceprint is identical to a predefined voiceprint, the encryption key is obtained from the storage device to encrypt a document. When the encrypted document is decrypted, a decryption key is generated to decrypt the encrypted document.

Abstract: A testing device for testing resistance value includes a base, an operation pole, a sliding device, and a housing for enclosing the base. The base defines a hook receiving slot. A plurality of contact tabs is formed inside the hook receiving slot for contacting pins of the expansion card. A plurality of conductive tabs is formed on the base for being electrically coupled to the contact tabs. A ground terminal is electrically coupled to one of the conductive tabs coupling to the ground pins. The sliding device includes a resilient tab. The resilient tab includes a first end contacting one of the conductive tabs and a second end. The housing includes a connection portion for contacting the second end of the resilient tab and a test terminal electrically coupled to the connection portion.

Abstract: A noise suppression system is applicable to a first phone, to reduce noise received by a microphone of the first phone. The microphone receives sound signals with different frequencies and converts the sound signals to electrical signals. The noise suppression system includes a selection circuit, an amplifying circuit, and a processing circuit. The selection circuit selects special electrical signals with frequency between 65 hertz to 1.1 kilohertz from the electrical signals. The amplifying circuit amplifies the selected electrical signals. The processing circuit stores a first preset value and a second preset value less than the first preset value. If the value of the amplified electrical signal is greater than or equal to the first preset value, or less than or equal to the second preset value, the processing circuit outputs the amplified electrical signal.