Abstract: A circuit device includes a drive circuit that drives a physical quantity transducer, an FLL circuit that includes a frequency comparator and an oscillator, and generates a clock signal with a signal from the drive circuit as a reference clock signal, and a detection circuit that includes a circuit operated based on the clock signal, and performs detection processing on a detection signal from the physical quantity transducer.

Abstract: A detection device includes a drive circuit of a physical quantity transducer, a synchronization signal output circuit, and a detection circuit that performs detection of a physical quantity signal based on a physical quantity. The synchronization signal output circuit includes a delay locked loop (DLL) circuit that includes: a delay control circuit that outputs a delay control signal and a delay circuit that includes a plurality of delay units in which a delay time is controlled by the delay control signal; an adjustment circuit that includes at least one delay unit in which a delay time is controlled by the delay control signal, and outputs a signal obtained by delaying an input signal based on the output signal from the drive circuit to the DLL circuit; and an output circuit that outputs the synchronization signal based on multi-phase clock signals from the DLL circuit.

Abstract: A circuit device includes a drive circuit that drives a physical quantity transducer, an FLL circuit that includes a frequency comparator and an oscillator, and generates a clock signal with a signal from the drive circuit as a reference clock signal, and a detection circuit that includes a circuit operated based on the clock signal, and performs detection processing on a detection signal from the physical quantity transducer.

Abstract: A production management system is configured so as to make it possible to produce component mounting boards to the same specifications in two lanes of a component mounting machine using one set of NC data by arranging feeders of two feeder set bases in the same manner and setting the mounting order of the components to the circuit boards in the two lanes to be the same in a same-direction production mode in which circuit boards are conveyed in the same front/back direction in the two lanes. In addition, the arrangement of the feeders and the mounting order of the components are optimized so that the difference in production times in the two lanes in the same-direction production mode is minimized.

Abstract: A component mounting system that efficiently determines a component as a bulk component to be mounted on a bulk feeder through a simulation, and a bulk component determining method. The component mounting system includes a printed-circuit-board conveyance section that includes conveyance lanes and which convey a plurality of different types of printed circuit boards, a component supply section, a mounting head, a bulk feeder, and a bulk component determining section that performs a simulation in which operation times when the components supplied from the component supply section are moved on the printed circuit boards on the conveyance lanes are calculated for all the components and determines the bulk component to be mounted on the bulk feeder based on the calculated operation times.

Abstract: A production line management system that registers and manages distribution data for each of a plurality of production lines, and thus, manages work data in a unitary manner. The management system being constructed to manage production in a plurality of the production lines with a small amount of data and to simplify a system configuration. In particular, the distribution data is created by an identifier added to work data.

Abstract: A detection device includes a drive circuit of a physical quantity transducer, a synchronization signal output circuit, and a detection circuit that performs detection of a physical quantity signal based on a physical quantity. The synchronization signal output circuit includes a delay locked loop (DLL) circuit that includes: a delay control circuit that outputs a delay control signal and a delay circuit that includes a plurality of delay units in which a delay time is controlled by the delay control signal; an adjustment circuit that includes at least one delay unit in which a delay time is controlled by the delay control signal, and outputs a signal obtained by delaying an input signal based on the output signal from the drive circuit to the DLL circuit; and an output circuit that outputs the synchronization signal based on multi-phase clock signals from the DLL circuit.

Abstract: A detection device includes a driving circuit and a detection circuit. The detection circuit includes first and second electric charge-voltage conversion circuits to which first and second detection signals are input, first and second gain adjustment amplifiers that amplify output signals of the circuits, a switching mixer that has first and second input nodes to which the output signals of the first and second gain adjustment amplifiers are input, and performs differential synchronous detection thereon on the basis of a synchronization signal from the driving circuit, so as to output first and second output signals to first and second output nodes, first and second filters that receive the first and second output signals from the first and second output nodes of the switching mixer, and an A/D conversion circuit that receives output signals from the first and second filters so as to perform differential A/D conversion thereon.

Abstract: A host computer 80 for wholly controlling an electronic component mounting line displays a surface side image and a reverse side image which respectively show a surface side and a reverse side of a board having components mounted thereon, with the images being superposed; displays components mounted on the surface side of the board and components mounted on the reverse side in visually different modes; and designates and determines the positions of support places of a backup device on the displayed superposed image (step 108).

Abstract: A host computer 80 for wholly controlling an electronic component mounting line displays a surface side image and a reverse side image which respectively show a surface side and a reverse side of a board having components mounted thereon, with the images being superposed; displays components mounted on the surface side of the board and components mounted on the reverse side in visually different modes; and designates and determines the positions of support places of a backup device on the displayed superposed image (step 108).