Abstract: A method includes establishing an initial shot layout in which a number of shots are arranged in vertically aligned columns and horizontally aligned rows to cover a semiconductor wafer. At least one of a row of shots or a column of shots is shifted relative to an adjacent row or column of shots to establish at least one additional shot layout that differs from the initial shot layout in that shots in the at least one shifted row or column of shots are not aligned with the shots in the adjacent row or column of shots with which they were aligned in the initial shot layout. One of the initial shot layout and the at least one additional shot layout is selected as a final shot layout. The wafer is exposed to light using the final shot layout.

Abstract: A wafer edge exposure module connected to a semiconductor wafer track system. The wafer edge exposure module includes a wafer spin device, an optical system, a scanner interface module, and a controller. The wafer spin device supports a wafer for processing. The optical system directs exposure light on a respective edge portion of the wafer simultaneously to create a dummy track on the edge of the wafer. The scanner interface module sends and/or receives dummy edge exposure information from a scanner via a computer network. The controller receives the dummy edge exposure information from the scanner interface module and uses the exposure information to control the optical system.

Abstract: A display device and a method of measuring a surface structure of the same are provided. The display device includes first and second substrates, first and second patterned light-shielding layers, and first and second pixel units. The first patterned light-shielding layer disposed on a surface of the first substrate includes first openings. The second patterned light-shielding layer disposed on the surface of the first substrate in the first patterned light-shielding layer includes second openings. The first pixel unit includes first and second protrusions. The first protrusion correspondingly covers the first openings and a portion of the first patterned light-shielding layer. The second protrusion is disposed in the first and second patterned light-shielding layers. The second pixel unit includes a third protrusion correspondingly covering the second openings and a portion of the second patterned light-shielding layer, wherein sizes of the second openings are smaller than sizes of the first openings.

Abstract: A method and apparatus provide for simultaneously moving multiple semiconductor wafers in opposite directions while simultaneously performing processing operations on each of the wafers. The semiconductor wafers are orientated in coplanar fashion and are disposed on stages that simultaneously translate in opposite directions to produce a net system momentum of zero. The die of the respective semiconductor wafers are processed in the same spatial sequence with respect to a global alignment feature of the semiconductor wafer. A balance mass is not needed to counteract the motion of a stage because the opposite motions of the respective stages cancel each other.

Abstract: A method includes receiving an integrated circuit chip size and determining a frame structure segment size based on the chip size. The frame structure segment size is less than the chip size. An initial shot layout having a chip count is established in which a number of shots, each including at least one frame structure segment and at least one chip, are arranged in vertically and horizontally aligned columns and rows. At least one additional shot layout is established in which at least one of a row or column of shots is offset from an adjacent row or column of shots. The initial shot layout is compared to the at least one additional shot layout, and a final shot layout is selected based in part on the total number of shots in the shot layout and has a final chip count that is greater than or equal to the initial chip count.

Abstract: The present disclosure provides a lithography apparatus with improved lithography throughput. The lithography apparatus includes a first lens system; a first substrate stage configured to receive a first radiation energy from the first lens system, and designed operable to move a substrate during an exposing process; a second lens system, having a higher resolution than that of the first lens system; and a second substrate stage approximate to the first substrate stage and configured to receive a second radiation energy from the second lens system, and designed operable to receive the substrate from the first substrate stage and move the substrate.

Abstract: The present disclosure provides a lithography apparatus. The apparatus includes an exposure module designed for exposure processing; a baking module embedded in the exposure module and designed for post exposure baking (PEB); and a control module designed to control the exposure module and the baking module.

Abstract: An LCD and a touch display panel that can be integrated in the LCD are provided. The touch display panel comprises an active device matrix substrate that includes multiple sensing lines disposed on multiple data lines correspondingly and arranged parallel thereto, and multiple sensing devices formed on multiple scan lines. When an external pressure is exerted, a current is generated in the sensing lines, and the X and Y coordinates of the touch point is determined from a slight leakage current generated in the scan lines. The conventional external touch screen LCD device is substantially improved in response accuracy of the touch coordinates, material costs, and mechanical thickness.

Abstract: The present invention provides a seat alignment sensing and safeguarding mechanism of an electric scooter cart. The seat is assembled rotatably via the chassis onto the top of a column on the main body of the electric scooter cart. The first and second sensors are arranged correspondingly between the top of the column and the chassis of the seat. The first sensor on the column is electrically connected with a controller, which can control on/off state of the drive motor of the electric scooter cart according to the sensing signal of the first sensor. When the seat of the electric scooter cart isn't realigned, the electric scooter cart cannot be activated, thereby improving the operational safety of the electric scooter cart with better applicability.

Abstract: The present invention provides a tilting sensing and safeguarding mechanism of the electric scooter cart. The mechanism includes a central processor, electrically connected with the throttle controller of the electric scooter cart, and a gravity sensor, used to sense the tilting state of the electric scooter cart and transmit the sensing signals to the central processor. There is a light control module, electrically connected with the central processor. The central processor enables the light control module to execute the respective command according to the tilting sensing signal of the gravity sensor. A light display screen is controlled by the light control module to determine the ON/OFF state of the lights. A speed control module generates a control signal for controlling the motor controller of the electric scooter cart, so as to adjust automatically the operating speed/state of the motor. The mechanism detects the tilting states of the electric scooter cart.

Abstract: The present disclosure provides a lithography apparatus. The apparatus includes an exposure module designed for exposure processing; a baking module embedded in the exposure module and designed for post exposure baking (PEB); and a control module designed to control the exposure module and the baking module.

Abstract: The present disclosure provides a lithography apparatus with improved lithography throughput. The lithography apparatus includes a first lens system; a first substrate stage configured to receive a first radiation energy from the first lens system, and designed operable to move a substrate during an exposing process; a second lens system, having a higher resolution than that of the first lens system; and a second substrate stage approximate to the first substrate stage and configured to receive a second radiation energy from the second lens system, and designed operable to receive the substrate from the first substrate stage and move the substrate.

Abstract: A method and test configuration for performing a gross I/O functionality test at wafer sort is described. The method uses a current injector, such as a pullup or a pulldown on an I/O pad, to inject current at the I/O pad, and based on the resulting voltage, determines if the I/O characteristics of the IC meet the performance criteria set by a manufacturer. In some embodiments, the test configuration can comprise an output buffer, which can be a tristate buffer, and/or an input buffer for verifying the performance of those components. The method and test configuration allow such tests to be performed at wafer sort without a precision measurement unit and without direct access to the I/O pad to be tested.

Abstract: An electric vehicle with partitionable frame includes a chassis assembly, a head tube, a front wheel, left and right rear wheels, and a seat. The front wheel is assembled at the base of the head tube through a fork, and the bottom part of the head tube is pivoted and located in the shaft sleeve lying on the front end of the oblique bracket. The seat is assembled on a vertical seat tube lying on the rear section of the chassis assembly. The chassis assembly includes front and rear assemblies that are partitionable. Connecting ends of the two assemblies are set with at least two groups of opposite jacks and opposite punch pins, which appear to be horizontally opposite and mutually embedded and mounted when assemblies are aligned. At least one set of positioning pieces controls the fixed or partitioned state of the two assemblies after they are aligned.

Abstract: A battery container of an electric vehicle is installed on the battery container supporting stand of the electric vehicle body. The container is a composite type and formed through alignment and combination of first and second cases. There are connecting ports, mutually embedded and mounted, on the assembled sides of these cases. The connecting ports have positive and negative electric connectors that can be oppositely inserted and jointed. The electrodes of the batteries inside the two cases can be connected. The battery container supporting stand forms a shape of a supporting surface. To ensure that the cases are placed together on the battery container supporting stand after alignment and combination, the assemblies of the positioning structure are used to control the positioning of and detachment between the battery container supporting stand and the cases. The battery container of an electric vehicle can be easily detached for independent charge.

Abstract: An electric vehicle with an innovative folding and positioning structure of the head tube includes a head tube having a bottom connected to the top of a top tube through a movable joint, constituting the swivel part of the head tube. The top of the top tube has a ratchet edge in a circumferential design. The bottom of the head tube is installed with a ratchet block, being pulled up and down to joggle with or detach from the ratchet edge. A transmission shaft, pivoted and located in the slot of the head tube, can be shifted upward and downward. A positioning component, shifting downward through forcing the transmission shaft, enables the joggling between ratchet edge and ratchet block. An elastic component, which pushes upward the transmission shaft when the positioning component is in a release state, and then enables the detachment of ratchet edge from ratchet block.

Abstract: A hidden radiating fin structure comprises a plurality of metal plates. Between the metal plates are connecting portions, thereby the metal plates can be stacked one on the other using the connecting portions. The connecting portion comprises a plurality of snap pieces and snap holes. The snap piece is formed onto two folded margins of the metal plate at a proper position and retracted to the inside of the folded margins. The snap hole relating to the position of the snap piece is formed on the main unit of the metal plate. The metal plates are hooked to each other using the snap holes and the snap pieces, thereby forming a hidden radiating fin structure that is hidden inside to allow the appearance of a neat and tidy exterior, and prevent itself from being loosened by outside impact.

Abstract: A heat sink fins processing installation comprised of a control adapted with a suction pad driven by a drive unit, a cutter fixed to and staying away from the console for a given distance being driven by another drive unit, the cutter descending to plane and cut a blank in thickness as desire; the suction pad moving laterally to define the length of the fin so that one end of the fin being lifted up while another end being connected to the blank; both of the suction pad and the cutter then respectively retreating and ascending; the suction pad advancing again to allow the cutter push against the fin to an angle as desired to complete a cycle; and the cycle being repeated to make multiple fins arranged in sequence on the blank.