Abstract: The bonding pad structure includes a main bonding pad and a blank path. The blank path crosses through the main bonding pad for dividing the main bonding pad into a first sub-bonding pad and a second sub-bonding pad. The bonding pad structure may further include a solder covered on the blank path and the main bonding pad selectively. The main bonding pad is regarded as a closed circuit when the solder is covered on the blank path and the main bonding pad. The main bonding pad is regarded as a open circuit when the solder is not covered on the blank path and the main bonding pad. A debug method with the bonding pad structure is also disclosed.

Abstract: An expansion structure of memory module slots is provided. A circuit switch board and a substrate are disposed on a motherboard, wherein a plurality of first memory module slots is disposed on the motherboard, at least one second memory module slot is disposed on one side of the substrate, and a plurality of third memory module slots is disposed on the other side of the substrate. The third memory module slots are electrically connected to the second memory module slot, and two ends of the circuit switch board are plugged into one of the first memory module slots and the second memory module slot. When memory modules are plugged in the third memory module slots, the memory modules are electrically connected to the first memory module slots respectively through the circuit switch board and then transmit data and signals with the motherboard.

Abstract: A computer-assisted schematic linking method for electronic components includes naming the circuits of various electronic components according to signal line naming conventions; storing in an electronic component specification data base; selecting a plurality of first electronic components from the electronic component data base to generate a first electronic component list for users to select the first electronic components; searching second electronic components from the electronic component data base corresponding to the selected first electronic components and generating a second electronic component list for users to select the second electronic components; processing schematic linking operation for the first electronic components and the second electronic components; and repeating the foregoing steps to select other electronic components until a complete schematic chart is finished.

Abstract: An auxiliary intake device for an engine includes a bypass tube and a control valve mounted on the bypass tube. The bypass tube includes a first end connected to an air cleaner and a second end connected to an intake tube at a position between an intake manifold and a throttle that is mounted in an intake tube between the air cleaner and the intake manifold. The control valve is closed when a speed of an engine is below a predetermined value. The control valve is opened when the speed of the engine is equal to or greater than the predetermined value, allowing additional air from the air cleaner to enter the manifold via the bypass tube and the control valve. An air intake system for an engine with the auxiliary intake device is also provided.

Abstract: A computer-assisted schematic linking method for electronic components includes naming the circuits of various electronic components according to signal line naming conventions; storing in an electronic component specification data base; selecting a plurality of first electronic components from the electronic component data base to generate a first electronic component list for users to select the first electronic components; searching second electronic components from the electronic component data base corresponding to the selected first electronic components and generating a second electronic component list for users to select the second electronic components; processing schematic linking operation for the first electronic components and the second electronic components; and repeating the foregoing steps to select other electronic components until a complete schematic chart is finished.

Abstract: An assisted generating system and method for layout data conversions converts an output file generated by a circuit design program (such as ConceptHDL). In addition to rule setting, the method automatically adjusts fields with abnormal properties. It provides a user interface with hints for the user to edit the contents. The system finally outputs a converted file compatible with a circuit layout program (such as Allegro) to assist subsequent layout designs.