Virtual ground

•Als PPT, PDF herunterladen•

1 gefällt mir•1,183 views

Then Murugeshwari

This presentation has the details about the Virtual Ground

Introduction ,[object Object],[object Object]

Circuit 1 ,[object Object],[object Object]

Total Resistance of the circuit ,[object Object]

Total Current of the circuit ,[object Object]

Voltage drop across the R1 ,[object Object]

Voltage drop across the R2 ,[object Object],[object Object]

Total Resistance ,[object Object],[object Object],[object Object]

Voltage drop ,[object Object],[object Object],[object Object]

Voltage at V2 ,[object Object],[object Object]

Weitere ähnliche Inhalte

Was ist angesagt?

Resonance in electrical circuits – series resonance

mrunalinithanaraj

Operational Amplifiers

Mahesh_Naidu

A.c circuits

RONAK SUTARIYA

Resonance in series and parallel circuits

hardikpanchal424

Differentiator OP Amp

Dr.Raja R

Operational Amplifier Part 1

Mukesh Tekwani

Oscillators

j naga sai

Oscillator multivibrotor

rakesh mandiya

Operational amplifier

Muhd Iqwan Mustaffa

Oscillators

Neha Mannewar

Schmitt trigger circuit

taranjeet10

Switching regulators

vishalgohel12195

Electrical Network Topology

RAGHU ENGINEERING COLLEGE

Logic families

Sandeep Kumar Singh

Small signal analysis of bjt amplifiers

PRAVEENA N G

Schmitt trigger basics

SAQUIB AHMAD

Ppt on sawtooth wave form generator

Voltage multiplier

Power amplifiers

Bridge ppt 1

Was ist angesagt? (20)

Resonance in electrical circuits – series resonance

Operational Amplifiers

A.c circuits

Resonance in series and parallel circuits

Differentiator OP Amp

Operational Amplifier Part 1

Oscillators

Oscillator multivibrotor

Operational amplifier

Oscillators

Schmitt trigger circuit

Switching regulators

Electrical Network Topology

Logic families

Small signal analysis of bjt amplifiers

Schmitt trigger basics

Ppt on sawtooth wave form generator

Voltage multiplier

Power amplifiers

Bridge ppt 1

Ähnlich wie Virtual ground

Lesson1

Kavin Paul

Op amps explained

rawsonvault

Unit5-Transformers.ppt

MdSazibMollik

Unit1-Transformers.ppt

MdSazibMollik

Electronics power supplies

sdacey

Lec-4.pdf

Gollapalli Sreenivasulu

Physics chapter 22 & 23

shaffelder

A tunnel diode or Esaki diode is a type of semiconductor that is capable of very fast operation, well into the microwave frequency region, made possible by the use of the quantum mechanical effect called tunneling. It was invented in August 1957 by Leo Esaki when he was with Tokyo Tsushin Kogyo, now known as Sony. In 1973 he received the Nobel Prize in Physics, jointly with Brian Josephson, for discovering the electron tunneling effect used in these diodes. Robert Noyce independently came up with the idea of a tunnel diode while working for William Shockley, but was discouraged from pursuing it.[1] These diodes have a heavily doped p–n junction only some 10 nm (100 Å) wide. The heavy doping results in a broken bandgap, where conduction band electron states on the n-side are more or less aligned with valence band hole states on the p-side Tunnel diodes were first manufactured by Sony in 1957[2] followed by General Electric and other companies from about 1960, and are still made in low volume today.[3] Tunnel diodes are usually made from germanium, but can also be made from gallium arsenide and silicon materials. They are used in frequency converters and detectors.[4] They have negative differential resistance in part of their operating range, and therefore are also used as oscillators, amplifiers, and in switching circuits using hysteresis. Figure 6: 8–12 GHz tunnel diode amplifier, circa 1970 In 1977, the Intelsat V satellite receiver used a microstrip tunnel diode amplifier (TDA) front-end in the 14 to 15.5 GHz band. Such amplifiers were considered state-of-the-art, with better performance at high frequencies than any transistor-based front end.[5] The highest frequency room-temperature solid-state oscillators are based on the resonant-tunneling diode (RTD).[6] There is another type of tunnel diode called a metal–insulator–metal (MIM) diode, but present application appears restricted to research environments due to inherent sensitivities.[7] There is also a metal–insulator–insulator–metal MIIM diode which has an additional insulator layer. The additional insulator layer allows "step tunneling" for precise diode control.[8]

Tunnel Diode (Esaki Diode )

Soudip Sinha Roy

Power Electronics - UJT.pptx

ArunachalamM22

Electricity

Sos Hemann Gmeiner School

Lec 2 ohms law, voltage source & current source

Haseeb Anwar Hayat Qureshi

Chapter1: Electricity

marjerin

Peakdetector

Manjunath Achari

Valladolid, charles edison

Sarah Krystelle

UNIT-3 OPAMP.pptx

yogitapatil87

18 FM_Demodulators-Foster_Seeley_and_Ratio_Detector.pdf

Mohamedshabana38

Experimental verification of network theorems, ugc practical physics s_paul

spaul15

Ankit singh

Vipul Pratap Singh

Transformer_theory.pptx

Satish Pydimarla

ELECTRICITY.ppt-converted.pptx

SiddalingeshwarSiddu

Ähnlich wie Virtual ground (20)

Lesson1

Op amps explained

Unit5-Transformers.ppt

Unit1-Transformers.ppt

Electronics power supplies

Lec-4.pdf

Physics chapter 22 & 23

Tunnel Diode (Esaki Diode )

Power Electronics - UJT.pptx

Electricity

Lec 2 ohms law, voltage source & current source

Chapter1: Electricity

Peakdetector

Valladolid, charles edison

UNIT-3 OPAMP.pptx

18 FM_Demodulators-Foster_Seeley_and_Ratio_Detector.pdf

Experimental verification of network theorems, ugc practical physics s_paul

Ankit singh

Transformer_theory.pptx

ELECTRICITY.ppt-converted.pptx

Mehr von Then Murugeshwari

Traffic safety

P h indicators

Avogadro's law

Resonance

Microwave remote sensing

Newton's law

Surface tension

Hook's law

Hook's law

ERP components

Database fundamentals

Mosfet

Operators

Hiperlan

Bluetooth profile

Router

Operators in java

Thread priorities

Threads

Identifiers

Mehr von Then Murugeshwari (20)

Traffic safety

P h indicators

Avogadro's law

Resonance

Microwave remote sensing

Newton's law

Surface tension

Hook's law

ERP components

Database fundamentals

Mosfet

Operators

Hiperlan

Bluetooth profile

Router

Operators in java

Thread priorities

Threads

Identifiers

Virtual ground

3. Virtual Ground

4. Virtual Ground circuit

5. Virtual Ground Circuit 1

10.

11.

12.

13. Virtual Ground Circuit 2

14.

15.

16.

17.

18.

Virtual ground

Empfohlen

Empfohlen

Weitere ähnliche Inhalte

Was ist angesagt?

Was ist angesagt? (20)

Ähnlich wie Virtual ground

Ähnlich wie Virtual ground (20)

Mehr von Then Murugeshwari

Mehr von Then Murugeshwari (20)

Virtual ground