Abstract: Systems and methods are described herein for attribute-point-based timing formal verification of application specific integrated circuit (ASIC) and system on chip (SoC) designs. A target circuit design having a first set of netlists and timing constraints is received. A plurality of key clock-pin-net-load-setting attributes are extracted from the first ported netlists and timing constraints. The clock-pin-net-load-setting attribute mismatch in the result report is checked between the target circuit design and a golden circuit design by comparing the plurality of target attributes with a plurality of golden attributes of the golden circuit design after the target design database is loaded for static timing analysis (STA).

Abstract: Systems, methods, and computer programs products are described for optimizing circuit synthesis for implementation on an integrated circuit. A register transfer level code description of logic behavior of a circuit. The register transfer level code description is converted into structurally defined circuit designs for multiple types of components and feature size technologies. A floor plan of each structurally defined circuit design is generated. A physically simulated circuit is created for each floor plan. A range of operating conditions is swept over to analyze power, performance, and area of each physically simulated circuit.

Abstract: A power diode device includes a substrate. The substrate includes a core layer of a first conductive type, a first diffusion layer of the first conductive type, a second diffusion layer of a second conductive type, and a heavily doped region of the second conductive type. The core layer is located between the first diffusion layer and the second diffusion layer. A thickness of the core layer is greater than that of the second diffusion layer. The heavily doped region is located in the second diffusion layer and extends toward the core layer to form a PN junction between the heavily doped region and the core layer. A method for manufacturing the power diode device is also provided.

Abstract: A method of fabricating a flash memory includes successively forming a floating gate insulating layer, a floating gate material layer, a dielectric layer, a control gate material layer, a silicide layer, and a hard mask layer on a semiconductor substrate, patterning the hard mask layer, removing portions of the silicide layer, the control gate material layer, the dielectric layer, and the floating gate material layer not covered by the hard mask layer to form a stacked structure, forming a silicon cap layer covering the surface of the stacked structure, and performing a thermal process.

Abstract: A locking device is described. The locking device is utilized to lock and unlock a removable device and especially to be suitable for locking and unlocking the removable device of a notebook computer. The locking device has a latch, an elastic member and a sliding switch. The latch engages a fixing indention of the removable device to fix the removable device. The elastic member provides a force to push the latch forward and a recess for retracting the latch backward. The sliding switch utilizes a stud to glidingly couple to a sliding surface of the latch so that the movements of the sliding switch and the latch form a predetermined included angle, preferably of about 90 degrees.

Abstract: An integrated locking device is described. The integrated locking device is utilized to lock and remove a removable device and is especially suitable in a notebook computer. The locking device has a latch, a first elastic device, a push arm, and a sliding switch. The latch locks a fixing indention of the removable device to fix the removable device. The first elastic device provides a force to push the latch moving forward and a space for the latch moving back. When the removable device is taken out, the sliding switch pushes the push arm first. Then, a slider of the push arm pushes a sliding inclined surface of the latch to withdraw the latch from the fixing indention. Subsequently, the push arm pushes the removable device outward for releasing the removable device. The movements of the sliding switch and the latch form an included angle, preferably about 90 degrees.

Abstract: An integrated locking device is described. The integrated locking device is utilized to lock and remove a removable device and is especially suitable in a notebook computer. The locking device has a latch, a first elastic device, a push arm, and a sliding switch. The latch locks a fixing indention of the removable device to fix the removable device. The first elastic device provides a force to push the latch moving forward and a space for the latch moving back. When the removable device is taken out, the sliding switch pushes the push arm first. Then, a slider of the push arm pushes a sliding inclined surface of the latch to withdraw the latch from the fixing indention. Subsequently, the push arm pushes the removable device outward for releasing the removable device. The movements of the sliding switch and the latch form an included angle, preferably about 90 degrees.

Abstract: A locking device is described. The locking device is utilized to lock and unlock a removable device and especially to be suitable for locking and unlocking the removable device of a notebook computer. The locking device has a latch, an elastic member and a sliding switch. The latch engages a fixing indention of the removable device to fix the removable device. The elastic member provides a force to push the latch forward and a recess for retracting the latch backward. The sliding switch utilizes a stud to glidingly couple to a sliding surface of the latch so that the movements of the sliding switch and the latch form a predetermined included angle, preferably of about 90 degrees.

Abstract: An automatic lifting apparatus for a liquid crystal display module of notebook computers is described. The automatic lifting apparatus comprises a latch hook, a latch button, a latch spring, a lifting plate, at least one lifting spring, and a housing. The latch hook fixes on a liquid crystal display module of the notebook computer. The others parts are positioned inside a base of the notebook computer for locking the latch hook. Furthermore, the lifting plate with the lifting spring power pushes the latch hook moving upward until the latch hook reaches about the height of the latch hook. Therefore, the automatic lifting apparatus can open the liquid crystal display module more efficiently and easily.

Abstract: A locking structure for a notebook computer with a main body and a monitor covering the main body. The locking structure includes a first support, a locking mechanism and a second support. The first support is set in the main body. The locking mechanism has a spring, a plug and a shaft. The spring is disposed in the first support. The plug is disposed on the spring. The shaft pivots to the first support and pushes against the plug. The shaft has a recess. The second support is set in the monitor and connected to the shaft of the locking mechanism. The plug is engaged in the recess by resilient force provided by the spring when the second support rotates to rotate the recess of the shaft onto the plug.

Abstract: An automatic lifting apparatus for a liquid crystal display module of notebook computers is described. The automatic lifting apparatus comprises a latch hook, a latch button, a latch spring, a lifting plate, at least one lifting spring, and a housing. The latch hook fixes on a liquid crystal display module of the notebook computer. The others parts are positioned inside a base of the notebook computer for locking the latch hook. Furthermore, the lifting plate with the lifting spring power pushes the latch hook moving upward until the latch hook reaches about the height of the latch hook. Therefore, the automatic lifting apparatus can open the liquid crystal display module more efficiently and easily.

Abstract: A locking structure for a notebook computer with a main body and a monitor covering the main body. The locking structure includes a first support, a locking mechanism and a second support. The first support is set in the main body. The locking mechanism has a spring, a plug and a shaft. The spring is disposed in the first support. The plug is disposed on the spring. The shaft pivots to the first support and pushes against the plug. The shaft has a recess. The second support is set in the monitor and connected to the shaft of the locking mechanism. The plug is engaged in the recess by resilient force provided by the spring when the second support rotates to rotate the recess of the shaft onto the plug.

Abstract: A multipurpose changeable module of a notebook computer is described. The multipurpose changeable module has a removable device module and a module case to install the removable device module in the notebook computer. The module case is attached to a motherboard in the notebook computer. There is a predetermined space between the module case and the motherboard to allow mounting of electronic devices on the motherboard. Therefore, the space of the motherboard may be extended. The module case further comprises a switch, a connecting rod, a latch and a push arm to release the removable device module. Hence, the removable device module is easily installed and released from the notebook computer. The removable device module comprises a floppy disk drive, hard disk, CD-ROM drive, CD-RW drive, DVD drive or secondary battery.