The Experts below are selected from a list of 60534 Experts worldwide ranked by ideXlab platform
Tian Tian - One of the best experts on this subject based on the ideXlab platform.
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design and experimental study of a current transformer with a stacked pcb based on b dot
Sensors, 2017Co-Authors: Jingang Wang, Diancheng Si, Tian TianAbstract:An electronic current transformer with a B-dot sensor is proposed in this study. The B-dot sensor can realize the current measurement of the transmission line in a non-contact way in accordance with the principle of magnetic field coupling. The multiple electrodes series-opposing structure is applied together with differential input structures and active Integrating Circuits, which can allow the sensor to operate in differential mode. Maxwell software is adopted to model and simulate the sensor. Optimization of the sensor structural parameters is conducted through finite-element simulation. A test platform is built to conduct the steady-state characteristic, on-off operation, and linearity tests for the designed current transformer under the power-frequency current. As shown by the test results, in contrast with traditional electromagnetic CT, the designed current transformer can achieve high accuracy and good phase-frequency; its linearity is also very good at different distances from the wire. The proposed current transformer provides a new method for electricity larceny prevention and on-line monitoring of the power grid in an electric system, thereby satisfying the development demands of the smart power grid.
Edwin C. Craig - One of the best experts on this subject based on the ideXlab platform.
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RC Integrating Circuits
Laboratory Manual for Electronics via Waveform Analysis, 1994Co-Authors: Edwin C. CraigAbstract:1. Capacitor: One 0.1 µF. 2. Resistors: One 100 kΩ, one 10 kΩ and one 1 kΩ. A resistor substitution box can be used instead of these resistors.
Rafael Reif - One of the best experts on this subject based on the ideXlab platform.
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technology performance and computer aided design of three dimensional integrated Circuits
International Symposium on Physical Design, 2004Co-Authors: Shamik Das, Andy Fan, Kuanneng Chen, Chuan Seng Tan, Nisha Checka, Rafael ReifAbstract:We present an overview of a new monolithic fabrication technology known as three-dimensional integration. 3D integration refers to any process by which multiple conventional device layers may be stacked and electrically interconnected. By combining state-of-the-art single-wafer integration with a high-density inter-wafer interconnect, our 3D integration process is capable of providing improved circuit performance in terms of metrics such as wire length, area, timing, and energy consumption. In this paper, we will discuss the overall 3D integration process flow, as well as specific technological challenges and the issues they present to circuit designers. We will also describe how these issues may be tackled during the placement, routing, and layout stages of physical design. Finally, we will present some performance results that may be obtained by Integrating Circuits in three dimensions.
É. V. Kal’yanov - One of the best experts on this subject based on the ideXlab platform.
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Autostochastic ring system of triggers connected through Integrating Circuits
Technical Physics Letters, 1999Co-Authors: É. V. Kal’yanovAbstract:A ring system of triggers connected to one another by Integrating Circuits is studied. Equations for a multiple-trigger ring systems are given, and the results of a numerical analysis for a system containing three triggers are presented. It is shown that chaotic oscillations with switching between two basins of attraction are excited in the ring system considered. The possibility of controlling chaotic oscillations is demonstrated.
Jingang Wang - One of the best experts on this subject based on the ideXlab platform.
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design and experimental study of a current transformer with a stacked pcb based on b dot
Sensors, 2017Co-Authors: Jingang Wang, Diancheng Si, Tian TianAbstract:An electronic current transformer with a B-dot sensor is proposed in this study. The B-dot sensor can realize the current measurement of the transmission line in a non-contact way in accordance with the principle of magnetic field coupling. The multiple electrodes series-opposing structure is applied together with differential input structures and active Integrating Circuits, which can allow the sensor to operate in differential mode. Maxwell software is adopted to model and simulate the sensor. Optimization of the sensor structural parameters is conducted through finite-element simulation. A test platform is built to conduct the steady-state characteristic, on-off operation, and linearity tests for the designed current transformer under the power-frequency current. As shown by the test results, in contrast with traditional electromagnetic CT, the designed current transformer can achieve high accuracy and good phase-frequency; its linearity is also very good at different distances from the wire. The proposed current transformer provides a new method for electricity larceny prevention and on-line monitoring of the power grid in an electric system, thereby satisfying the development demands of the smart power grid.