Inductance

1 ohm blow at 1000V • Use two different probes to measure the voltage across the resistor.   3 Ω Wirewound Resistor-Inductance test using LCR Frequency Resistance(Ω) Inductance (µH) VAC (V) 50Hz 7.37 0 2 500Hz 7.37 5.32 2 1kHz 7.37 4.84 2 100kHz 7.44 3.55 1 100kHz 7.52 3.53 2 1MHz 9.61 3.28 2 68.1 Ω Thick Film Resistor-Inductance test using LCR Frequency Resistance(Ω) Inductance (µH) VAC (V) 1kHz 70.13 0 1 50kHz 70.18 1.84 1 100kHz 70.21 1.58 1 500kHz 70.28 1.49 1 1MHz 69.71 1.29 1 Figure

1 Problem Statement A GSM base device creates severe interference with a wireless infrastructure. It can be used to activate any explosive device in an indoor environment. Moreover, a GSM signal is also very likely to interfere with wireless network, employed by emergency and/or confidential departments. 2 Aims & Objectives The motive of this paper is to propose a novel band stop Frequency Selective Surface (FSS). The proposed FSS provides security to wireless networks used by sensitive areas

This thesis deals with the configuration and investigation of control framework structures for electric drives furnished with changeless magnet synchronous machines (PMSM) in car application. With the expanding prominence of multi-level inverters, the opportunity to get better of the execution of voltage source inverters has persistently been tried for different applications. The fast improvement of high exchanging recurrence power gadgets in the previous decade leads towards more extensive use of

A small bundle of specialized cells located in the right atrium of the heart called the Sinus node is where the impulse of the heart starts. The electrical activity spreads through the walls of the atria and causes them to contract. This forces blood into the ventricles which sets the rate and rhythm of the heartbeat. A pacemaker is needed to maintain an adequate heart rate, either because the heart’s natural pacemaker – sinus node – is not fast enough or there is a block in the heart’s conduction

stator and rotor resistances per phase of induction generator stator, rotor and magnetizing inductances of induction generator self excitation capacitance per phase of induction generator Angular stator frequency of the induction generator Angular rotor speed (electrical rads/s) of the induction generator moment of inertia friction coefficient, differential operator d/dt DC-link inductance DC-link resistance firing angles of the converter and inverter d-q input voltage of

Superconducting Qubits Introduction and Background The quantum computation has remarkably improved since the use of quan- tum algorithms that have a run time which is exponentially faster compared to classical algorithms. Implementation of theory for practical computation presents various technological and scientific challenges. It is required that the Qubits be entirely free from external noise while at the same time they need to be strongly coupled amongst themselves using gates for computa-

function block 5.2 DC Motor The equivalent electrical circuit of a dc motor is shown in figure 5.2. It can be represented by a voltage source (Va) across the coil of the armature. The electrical equivalent of the armature coil can be described by an inductance (La) in series with a resistance (Ra) in series with an induced voltage (Vc) which

This thesis deals with the design and analysis of control system structures for electric drives equipped with permanent magnet synchronous machines (PMSM) in automotive application.With the increasing popularity of multi-level inverters, the room for improvement of the performance of voltage source inverters has continuously been tested for various applications. The rapid development of high switching frequency power electronics in the past decade leads towards wider application of voltage source

ACTIVE AND PASSIVE SNUBBER BASED DC-DC CONVERTER CONNECTED TO PMDC MOTOR WITH HIGH VOLTAGE GAIN K.Chandra Reddy,student,SIIET, Asst.Prof.A.Anjaneyulu,SIIET and Prof. Suresh H Ballala , HOD,SIIET. Chandrareddy.koppula755@gmail.com Abstract—In this paper, A bidirectional full-connected dc–dc converter with a change proportion around nine times, delicate start-up, and delicate

The Sinus node is a small bundle of specialised cells located in the right atrium of the which generates an impulse in the heart. The electrical activity spreads through the walls of the atria and causes them to contract. This forces blood into the ventricles, which sets the rate and rhythm of the heartbeat. A pacemaker is needed to maintain an adequate heart rate, either because the heart’s natural pacemaker – sinus node – is not fast enough or there is a block in the heart’s conduction system.