Index. 1-π model, 370 1/f noise, 57, π model, 373 β-ratio, 425

Size: px
Start display at page:

Download "Index. 1-π model, 370 1/f noise, 57, π model, 373 β-ratio, 425"

Transcription

1 Index 1-π model, 370 1/f noise, 57, π model, 373 β-ratio, 425 A Ac symmetry test, 93 Acoustic phonons, 18 Admittance parameters, 209 All-around gate, 397, 410 Analytic potential model, 432, 447 Analytical approximations, 7 Asymmetric 2-π model, 375 Available bandwidth, 212 Avalanche, 214, 308 breakdown, 300 current, 238 current noise, 241 B Back-end of line (BEOL), 360 Back-gate induced bulk charge, 54 Balun, 380 Band-to-band tunneling, 46, 300, 307 Bandgap, 219 Bandgap circuit, 482 Base, 46 Base current components, 238 Base width, 169 Base-collector capacitance, 194 Base-collector junction, 168 Base-emitter junction, 168 Benchmark tests, 75 Bessel and Neumann functions, 444 Binning, 421 Bipolar gain, 47 Bipolar junction transistors, 167 BJTs, 167 Body contact, 53 Body doping, 421 Body factor, 5 Body potentials, 43 Body resistance, 42, 53 Body sheet resistance, 54 Body-contacted, 53 Body-contacted SOI nmosfet, 47 Boltzmann relation, 5 Boolean function, 50 Boundary condition, 5 Boundary conditions, 61 Backward propagation of variance (BPV), 491, 492 Brews model, 9 BSIM, 397 BSIM-CMG, 399, 409 BSIM-IMG, 399 BSIM-MG, 397 BSIM3, 397 BSIM4, 397, 425 BSIMSOI, 397 Built-in potential, 170 Built-in voltage, 318 Bulk charge, 122 Bulk charge effects, 144 Bulk FinFET, 397, 421 G. Gildenblat (ed.), Compact Modeling, DOI / , Springer Science+Business Media B.V

2 522 Index Bulk MOSFET, 64 Buried oxide, 43 C Capacitance, 52, 207 Capacitive coupling, 44 Channel induced gate noise, 57 Channel length modulation, 120, 124 Channel thermal noise, 139 Channel voltage, 5 Charge conservation, 407 Charge Control Relation, 216, 218 Charge density, 4 Charge neutrality, 10 Charge sheet approximation, 9, 83, 123, 432 Charge sheet model, 63, 83, 446 Charges, 206 Chemical mechanical polishing, 398 Cold S parameters measurements, 247 Collector, 46 Common centroid structures, 465 Common multi-gate (CMG), 409 Common-centroid structure, 466 Compact modeling, 3 Compressive stress, 461 Computational efficiency, 421 Computationally efficient, 415 Condition number, 505 Corner frequency, 58 Corner models, 514 Correlation coefficient between gate and drain thermal noise, 101 Coulomb scattering, 14 Covariance, 503 Critical current, 236 Cross-correlation, 142 Cross-coupled devices, 466 Current factor mismatch, 472 Current sheet, 362 Current sheet model, 362 Cut-off frequency, 214, 226 CV method, 247 D DC emitter current crowding, 239 Depletion charges, 225, 234 Derivation of spatial behavior, 485 Device invariant, 214 DIBL, 120 Dielectric permittivity, 4 Diffused resistor, 279 Diffusion capacitances, 47 Diffusion charges, 225 Direct gate tunneling, 43 Distortion, 260 Distribution effects, 56, 208, 240 Double-gate, 440, 447, 448 Double-gate FinFET, 397, 410 Double-gate MOSFET, 64, 431, 445 Drain charge, 122 Drain induced barrier lowering, 417 Drift region, 110 Drift-diffusion theory, 123 Dynamic depletion, 42, 60 Dynamic depletion effects, 41 Dynamic feedback, 425 Dynamically depleted SOI MOSFETs, 60, 61 E Early effect, 173, 218, 237 Early voltage, 47 Ebers-Moll model, 182 Eddy current, 371, 372 Effective channel mobility, 14 Effective electron mass, 30, 49 Effective lateral field, 15 Effective mass, 416 Effective width, 419 Electrical performances, 502 Electron and hole concentrations, 4 Electron conduction band tunneling (ECB), 31, 48 Electron current density, 177 Electron generation and recombination rates, 177 Electron quasi-fermi potential, 177 Electron valence band tunneling (EVB), 31, 42, 48 Electron-phonon interaction, 14 Emitter, 46 Emitter resistance, 239 Emitter-base junction, 46 Epilayer, 217 Equilibrium noise, 143 Equivalent circuit, 28 Equivalent oxide thickness, 417 Excess noise spectral density, 58

3 Index 523 External base resistance, 239 External collector resistance, 239 F Fermi potential, 45 Filling factor, 363 FinFET, 397 FinFET SRAM, 425 Fingers, 29 Finlay, 368 Flat-band voltage, 52 Flicker noise, 32 Floating body effect, 41, 43, 58, 68 Forward and reverse Early voltages, 173 Forward Gummel plot, 192 Forward propagation of variation, 492 FPV, 492 Frlan, 368 Full depletion, 42 Fully depleted, 68 G g m /I d,79 Gain factors, 500 Gate contacts, 29 Gate oxide, 43, 48 Gate tunneling, 29 Gate tunneling current, 396 Gate-induced drain leakage current, 32, 51, 421 GIDL, 27 Gate-induced drain/source leakage, 44 Gate-induced source leakage current, 32 GISL, 32 Gate-to-body tunneling current, 48 Gate-tunneling current, 58 Generalized ICCR (GICCR), 237 Geometrical scaling, 204, 214 Geometry dependence, 242 Gradients, 460 Grading coefficient, 301 Gradual channel approximation, 4, 123, 434, 446 Green s function based solution, 242 Gummel integral charge control relation, 177 Gummel number, 216, 218 Gummel plot, 47, 48 Gummel symmetry test, 80, 85 Gummel-Poon (GP) model, 47, 130, 179 H Harmonic balance simulation, 87 Harmonic distortion, 87 Heterojunction bipolar transistors, 167, 217, 231 HBTs, 167 HiCuM, 231 High frequency noise, 241 High voltage MOS transistors, 105 High-frequency capacitance, 335, 342 High-frequency substrate coupling, 240 High-K gate dielectric, 396 High-level injection, 47, 180 Higher order derivatives, 86, 87 Hole valence band tunneling, 31 Hot carrier current, 222 Householder s cubic iteration method, 413 HVB, 48 Hysteresis behavior, 51 I ICCR, 177 Ideal current, 302 Ideal junction current, 300 Ideality factor, 302, 311 Impact ionization, 27, 29, 42, 43, 45, 58 Impact ionization current, 421 Impact ionization exponent, 45 Imref splitting, 5 Independent double-gate FinFET, 398 Independent double-gate MOSFET, 399 Induced bulk current noise, 101 Induced gate noise, 34, 96, 101, 141 Induced substrate noise, 143 Injection region, 224 Integral charge-control relation, 237 Interlayer dielectrics (ILD), 360 Internal base resistance, 239 Internal transistor model, 239 Intrinsic fluctuations, 139 Inversion charge density, 63 J JFETs, 112 Joule heat, 51 JUNCAP2, 299 JUNCAP2 express, 313 Junction capacitance(s), 129, 300 Junction leakage, 46

4 524 Index Junction noise, 300 Junction shot noise, 309 K Kirk effect, 107, 214, 221 Knee current, 47, 218 Knee frequency, 34 Kull model, 220 Kull-Nagel model, 186 L Ladder circuit, 370, 371 Lateral electric field, 124 Lateral flux, 361 Lateral substrate RC coupling, 375 Lay-out common centroid, 466 LDMOS, 105 Leakage inductance, 381 LER, 493 Line edge roughness (LER), 426, 493 Linear charge partition, 445 Litho-proximity effect, 459 Lithography errors, 456 LNA, 367 Local optimization, 245 Lorentzian noise spectrum, 33 Low frequency noise, 57, 241 Low-field mobility, 273 Low-noise amplifiers, 32 M Magnetic coupling coefficient, 381 Majority carriers, 44 Matthiessen s rule, 14 Maximum velocity saturation, 124 McAndrew symmetry, 32 Measuring offset and mismatch, 477 Metal gate electrodes, 396 Mextram, 199 MIM, 360 Minority carrier diffusion length, 47 Mismatch, 453 Mismatch for various processes, 474 Mismatch in strong and weak inversion, 472 Mixer, 367 Mobile charges, 235 MOCVD, 189 Modified symmetry test (MST), 91, 92 Monte Carlo simulation, 426 MOS threshold mismatch, 469 MOS varactor, , 333, 336, , 346, 347, 350, 351 MOSVAR, , 333, , 341, 342, 346, 347, Multi-gate devices, 396 Multiple V th flavors, 410 Multiple-gate device(s), 43, 448 Mutual heating, 203 Mutual inductance, 380 N Nanowire, 448 Nanowire MOSFET(s), 397, 431, 437, 438, 440, 444, 445, 447 Narrow-width effects, 56 Newton Raphson iteration, 417 Newton-Raphson procedure, 7 Nodal charge, 122 Nodal voltage, 52 Noise, 204 Noise margins, 46 Noise spectra, 33 Non-ideality factors, 183 Non-quasi-static (NQS), 28, 93, 240 Non-uniformity, 13 Normalized base charge, 47, 179 Normalized body factor, 10 Nyquist relation, 139 O OD-spacing effect, 462 Offset voltage, 194 Offsets, 453 Ohmic carrier transport, 221 On-resistance, 107 ON/OFF ratio, 41 OPC, 492 Optical proximity correction, 492 Orthogonality relationship, 442, 444 Overlap, 27 Overlap capacitances, 27 Overview of matching models, 476 Oxide capacitance, 5 Oxide permittivity, 5 Oxide thickness, 5

5 Index 525 P Pao-Sah model, 83 Pao-Sah s integral, 432, 435, 437 Parameter extraction, 42, 244, 386 Parameter fluctuation model, 467 Parasitic BE capacitance, 240 Parasitic bipolar current, 47 Parasitic bipolar effect, 46 Parasitic bipolar transistor, 42, 46 Parasitic BJT effect, 108 Parasitic PNP-transistor, 207 Parasitic substrate transistor, 241 Partial depletion, 42, 414 Partially depleted, 41, 68 Partially-depleted SOI devices, 42 Pass-gate logic, 47 Passitivity, 369 PCA, 492 PD-SOI MOSFETs, 43, 46 Perturbation, 402, 411 Phase shift, 240 Phase-shift masking, 492 Pinch-off, 109 Planar double-gate SOI, 398 Pocket implants, 21 Poisson s equation, 400, 411 Poly-silicon gate depletion, 396 Poly-space effect, 463 Polysilicon, 29 Possion s equation, 61 Power amplifiers, 367 Primary and secondary windings, 388 Principle component analysis, 492 Process control monitor, 243 Process tolerances, 243 Process variation, 498 Process-voltage-temperature PVT analysis, 455 Proximity effect, 374, 458 PSM, 492 Pulsed measurements, 132 Punch-through effect, 23 Q Q, 328, 330, 347, 349, 350 Q for a transformer, 385 Quadruple-gate, 410 Quality-factor Q, 363 Quantum mechanical effects, 415, 419 Quasi-Fermi level, 434 Quasi-neutral body, 47 Quasi-neutral body region, 54 Quasi-saturation, 220, 222 Quasi-saturation effect, 108 Quasi-static, 28 Quasi-static approximation, 141 R Random dopant fluctuation (RDF) effect, 396 Random fluctuations, 466 RDF, 400, 426 Reciprocity, 82 Recombination current, 47 Recombination-generation current, 47 Resistivity, 273 RESURF, 107 Reverse Gummel plot, 193 RF CMOS, 327, 328, 348 RF LDMOS, 109 S Saturation, 206, 220 Saturation current, 47, 173 Saturation velocity, 17 Scale length, 418, 444 Scale length model, 432 Scharfetter-Gummel model, 18 Self inductances, 388 Self-heating, 42, 203, 287 Self-heating effect, 51, 96, 108 Self-resonant frequency, 366, 370, 386 Series resistance, 47, 239 Shallow trench isolation (STI), 124, 462 Sheet resistance, 29, 273, 359 Shockley-Read-Hall (SRH) process, 175, 300, 302 Short channel effect, 417 Shot noise, 34, 95 SiGe HBT, 231 Silicide, 29 Silicon trench isolation, 462 Skew, 495 Skin and proximity effects, 366 Skin/proximity effects, 370 SLCSM, 12 Slope of the harmonic, 88

6 526 Index Slope ratio, 77 Slope ratio test, 77 Small-geometry effects, 67 SOI FinFET, 397, 421 SOI MOSFETs, 43, 45 SOI multi-gate, 419 Solenoid, 361 Source/drain symmetry, 415 Specific contact resistance, 29 Spectral density, 58, 96 Spiral inductors, 358, 362 SRF, 366, 370 Static noise margin (SNM), 425 Statistical modelling, 243 Statistical variations, 454 Statistics for mismatch, 480 Strained silicon, 396 Stress, 461 Subcircuit, 52 Substrate current, 45 Substrate depletion capacitance, 240 Substrate effects, 240 Substrate inductance, 376 Substrate transconductance, 147 Substrate-eddy-π model, 376 Subthreshold region, 45 Super-shot noise, 148 Supply function, 30 Surface electric field, 5 Surface potential equation, 4, 61 Surface potential midpoint, 12 Surface potentials, 400 Surface recombination velocity, 176 Surface roughness scattering, 14, 397 Surface-potential-based approach, 3 Surface-roughness, 124 Surrounding-gate MOSFET, 431 Symmetric linearization method, 4, 9, 41, 43, 64, 447 Systematic offsets, 456 Systems-on-chip, 57 T T-model(s), 375, 377 Temperature coefficient, 359 Temperature dependence, 203, 421 Temperature effects, 241 Tensile stress, 461 Test structure approach, 479 Thermal capacitance, 241 Thermal channel noise, 95 Thermal conductance, 53 Thermal coupling, 241 Thermal noise, 34, 57, 96 Thermal resistance, 52, 241 Threshold voltage, 48 Topology, 205 Transcapacitance(s), 13, 68, 81, 407, 445 Transconductance efficiency g m /I ds, 405 Transfer current, 236 Transformers, 367 Transient switching, 46 Transit time, 47, 225, 236 Transmission coefficient, 30 Transmission line model, 98 Transmission-gate multiplexer, 50 Transport factor, 47 Trap-assisted tunneling, 46, 300, 305 Tree-top test, 79 Triple-gate FinFET(s), 397, 410 Tsu-Esaki equation, 30 Tsu-Esaki formulation, 49 Tunneling, 239 Tunneling barriers, 30 Tunneling current(s), 27, , 352 Tunneling current density, 30 Tunneling transmission coefficient, 49 U Unilateral gain, 214 V V th tuning, 424 Valence band, 49 Variability, 424, 425, 454, 492 Variational method, 416 VCO, 327, 347, 348, , 367 Vector network analyzer, 247 Velocity saturation, 17, 67, 120, 285 Velocity saturation effects, 57 Vertical doping non-uniformity, 23 Volume inversion, 436 W Ward-Dutton charge partition, 408 Ward-Dutton partition, 13, 66 Weak inversion, 77

7 Index 527 Webster effect, 218 Well-proximity effect, 460 Wheeler, 362 Wheeler formula, 365 White-noise gamma factor, 95 WKB approximation, 49 Worst-case, 495 Y Yield, 483

Gennady Gildenblat. Editor. Compact Modeling. Principles, Techniques and Applications. Springer

Gennady Gildenblat. Editor. Compact Modeling. Principles, Techniques and Applications. Springer Gennady Gildenblat Editor Compact Modeling Principles, Techniques and Applications Springer Contents Part I Compact Models of MOS Transistors 1 Surface-Potential-Based Compact Model of Bulk MOSFET 3 Gennady

More information

CONTENTS. 2.2 Schrodinger's Wave Equation 31. PART I Semiconductor Material Properties. 2.3 Applications of Schrodinger's Wave Equation 34

CONTENTS. 2.2 Schrodinger's Wave Equation 31. PART I Semiconductor Material Properties. 2.3 Applications of Schrodinger's Wave Equation 34 CONTENTS Preface x Prologue Semiconductors and the Integrated Circuit xvii PART I Semiconductor Material Properties CHAPTER 1 The Crystal Structure of Solids 1 1.0 Preview 1 1.1 Semiconductor Materials

More information

Semiconductor Devices

Semiconductor Devices Semiconductor Devices Modelling and Technology Source Electrons Gate Holes Drain Insulator Nandita DasGupta Amitava DasGupta SEMICONDUCTOR DEVICES Modelling and Technology NANDITA DASGUPTA Professor Department

More information

PHYSICS OF SEMICONDUCTOR DEVICES

PHYSICS OF SEMICONDUCTOR DEVICES PHYSICS OF SEMICONDUCTOR DEVICES PHYSICS OF SEMICONDUCTOR DEVICES by J. P. Colinge Department of Electrical and Computer Engineering University of California, Davis C. A. Colinge Department of Electrical

More information

Contents. Compact Models of MOS Transistors

Contents. Compact Models of MOS Transistors Part I Compact Models of MOS Transistors 1 Surface-Potential-Based Compact Model of Bulk MOSFET... 3 Gennady Gildenblat, Weimin Wu, Xin Li, Ronald van Langevelde, Andries J. Scholten, Geert D.J. Smit,

More information

Fundamentals of Power Semiconductor Devices

Fundamentals of Power Semiconductor Devices В. Jayant Baliga Fundamentals of Power Semiconductor Devices 4y Spri ringer Contents Preface vii Chapter 1 Introduction 1 1.1 Ideal and Typical Power Switching Waveforms 3 1.2 Ideal and Typical Power Device

More information

Index. Cambridge University Press Fundamentals of Modern VLSI Devices: Second Edition Yuan Taur and Tak H. Ning.

Index. Cambridge University Press Fundamentals of Modern VLSI Devices: Second Edition Yuan Taur and Tak H. Ning. abrupt junction, 38 acceptor, 17 acceptor level, 18 9 access transistor, 477 8, 496 accumulation, 76 7 accumulation layer, 250 charge density, 250 resistance, 274 5 sheet resistivity, 251 ac equivalent

More information

MOSFET short channel effects

MOSFET short channel effects MOSFET short channel effects overview Five different short channel effects can be distinguished: velocity saturation drain induced barrier lowering (DIBL) impact ionization surface scattering hot electrons

More information

FUNDAMENTALS OF MODERN VLSI DEVICES

FUNDAMENTALS OF MODERN VLSI DEVICES 19-13- FUNDAMENTALS OF MODERN VLSI DEVICES YUAN TAUR TAK H. MING CAMBRIDGE UNIVERSITY PRESS Physical Constants and Unit Conversions List of Symbols Preface page xi xiii xxi 1 INTRODUCTION I 1.1 Evolution

More information

1286 IEEE TRANSACTIONS ON ELECTRON DEVICES, VOL. 52, NO. 7, JULY MOSFET Modeling for RF IC Design

1286 IEEE TRANSACTIONS ON ELECTRON DEVICES, VOL. 52, NO. 7, JULY MOSFET Modeling for RF IC Design 1286 IEEE TRANSACTIONS ON ELECTRON DEVICES, VOL. 52, NO. 7, JULY 2005 MOSFET Modeling for RF IC Design Yuhua Cheng, Senior Member, IEEE, M. Jamal Deen, Fellow, IEEE, and Chih-Hung Chen, Member, IEEE Invited

More information

Review Energy Bands Carrier Density & Mobility Carrier Transport Generation and Recombination

Review Energy Bands Carrier Density & Mobility Carrier Transport Generation and Recombination Review Energy Bands Carrier Density & Mobility Carrier Transport Generation and Recombination Current Transport: Diffusion, Thermionic Emission & Tunneling For Diffusion current, the depletion layer is

More information

Active Technology for Communication Circuits

Active Technology for Communication Circuits EECS 242: Active Technology for Communication Circuits UC Berkeley EECS 242 Copyright Prof. Ali M Niknejad Outline Comparison of technology choices for communication circuits Si npn, Si NMOS, SiGe HBT,

More information

Contents. Contents... v. Preface... xiii. Chapter 1 Introduction...1. Chapter 2 Significant Physical Effects In Modern MOSFETs...

Contents. Contents... v. Preface... xiii. Chapter 1 Introduction...1. Chapter 2 Significant Physical Effects In Modern MOSFETs... Contents Contents... v Preface... xiii Chapter 1 Introduction...1 1.1 Compact MOSFET Modeling for Circuit Simulation...1 1.2 The Trends of Compact MOSFET Modeling...5 1.2.1 Modeling new physical effects...5

More information

Tradeoffs and Optimization in Analog CMOS Design

Tradeoffs and Optimization in Analog CMOS Design Tradeoffs and Optimization in Analog CMOS Design David M. Binkley University of North Carolina at Charlotte, USA A John Wiley & Sons, Ltd., Publication Contents Foreword Preface Acknowledgmerits List of

More information

Microwave Semiconductor Devices

Microwave Semiconductor Devices INDEX Avalanche breakdown, see reverse breakdown, Avalanche condition, 61 generalized, 62 Ballistic transport, 322, 435, 450 Bandgap, III-V-compounds, 387 Bandgap narrowing, Si, 420 BARITT device, 111,

More information

UNIT 3: FIELD EFFECT TRANSISTORS

UNIT 3: FIELD EFFECT TRANSISTORS FIELD EFFECT TRANSISTOR: UNIT 3: FIELD EFFECT TRANSISTORS The field effect transistor is a semiconductor device, which depends for its operation on the control of current by an electric field. There are

More information

Davinci. Semiconductor Device Simulaion in 3D SYSTEMS PRODUCTS LOGICAL PRODUCTS PHYSICAL IMPLEMENTATION SIMULATION AND ANALYSIS LIBRARIES TCAD

Davinci. Semiconductor Device Simulaion in 3D SYSTEMS PRODUCTS LOGICAL PRODUCTS PHYSICAL IMPLEMENTATION SIMULATION AND ANALYSIS LIBRARIES TCAD SYSTEMS PRODUCTS LOGICAL PRODUCTS PHYSICAL IMPLEMENTATION SIMULATION AND ANALYSIS LIBRARIES TCAD Aurora DFM WorkBench Davinci Medici Raphael Raphael-NES Silicon Early Access TSUPREM-4 Taurus-Device Taurus-Lithography

More information

MOSFET Parasitic Elements

MOSFET Parasitic Elements MOSFET Parasitic Elements Three MITs of the ay Components of the source resistance and their influence on g m and R d Gate-induced drain leakage (GIL) and its effect on lowest possible leakage current

More information

Alternatives to standard MOSFETs. What problems are we really trying to solve?

Alternatives to standard MOSFETs. What problems are we really trying to solve? Alternatives to standard MOSFETs A number of alternative FET schemes have been proposed, with an eye toward scaling up to the 10 nm node. Modifications to the standard MOSFET include: Silicon-in-insulator

More information

NAME: Last First Signature

NAME: Last First Signature UNIVERSITY OF CALIFORNIA, BERKELEY College of Engineering Department of Electrical Engineering and Computer Sciences EE 130: IC Devices Spring 2003 FINAL EXAMINATION NAME: Last First Signature STUDENT

More information

Session 3: Solid State Devices. Silicon on Insulator

Session 3: Solid State Devices. Silicon on Insulator Session 3: Solid State Devices Silicon on Insulator 1 Outline A B C D E F G H I J 2 Outline Ref: Taurand Ning 3 SOI Technology SOl materials: SIMOX, BESOl, and Smart Cut SIMOX : Synthesis by IMplanted

More information

Semiconductor Physics and Devices

Semiconductor Physics and Devices Metal-Semiconductor and Semiconductor Heterojunctions The Metal-Oxide-Semiconductor Field-Effect Transistor (MOSFET) is one of two major types of transistors. The MOSFET is used in digital circuit, because

More information

1 Introduction to analog CMOS design

1 Introduction to analog CMOS design 1 Introduction to analog CMOS design This chapter begins by explaining briefly why there is still a need for analog design and introduces its main tradeoffs. The need for accurate component modeling follows.

More information

Solid State Devices- Part- II. Module- IV

Solid State Devices- Part- II. Module- IV Solid State Devices- Part- II Module- IV MOS Capacitor Two terminal MOS device MOS = Metal- Oxide- Semiconductor MOS capacitor - the heart of the MOSFET The MOS capacitor is used to induce charge at the

More information

VALLIAMMAI ENGINEERING COLLEGE SRM Nagar, Kattankulathur

VALLIAMMAI ENGINEERING COLLEGE SRM Nagar, Kattankulathur VALLIAMMAI ENGINEERING COLLEGE SRM Nagar, Kattankulathur 603 203. DEPARTMENT OF ELECTRONICS & COMMUNICATION ENGINEERING SUBJECT QUESTION BANK : EC6201 ELECTRONIC DEVICES SEM / YEAR: II / I year B.E.ECE

More information

Layout and technology

Layout and technology INF4420 Layout and technology Dag T. Wisland Spring 2015 Outline CMOS technology Design rules Analog layout Mismatch Spring 2015 Layout and technology 2 Introduction As circuit designers we must carefully

More information

ECE 3040 Dr. Alan Doolittle.

ECE 3040 Dr. Alan Doolittle. ECE 3040 Dr. Alan Doolittle I have thoroughly enjoyed meeting each of you and hope that I have had a positive influence on your carriers. Please feel free to consult with me in your future work. If I can

More information

Section 2.3 Bipolar junction transistors - BJTs

Section 2.3 Bipolar junction transistors - BJTs Section 2.3 Bipolar junction transistors - BJTs Single junction devices, such as p-n and Schottkty diodes can be used to obtain rectifying I-V characteristics, and to form electronic switching circuits

More information

ANALYSIS AND DESIGN OF ANALOG INTEGRATED CIRCUITS

ANALYSIS AND DESIGN OF ANALOG INTEGRATED CIRCUITS ANALYSIS AND DESIGN OF ANALOG INTEGRATED CIRCUITS Fourth Edition PAUL R. GRAY University of California, Berkeley PAUL J. HURST University of California, Davis STEPHEN H. LEWIS University of California,

More information

a leap ahead in analog

a leap ahead in analog Analog modeling requirements for HV CMOS technology Ehrenfried Seebacher 2011-12-15 a leap ahead in analog Presentation Overview Design perspective on High Performance Analog HV CMOS Analog modeling requirements

More information

Reg. No. : Question Paper Code : B.E./B.Tech. DEGREE EXAMINATION, NOVEMBER/DECEMBER Second Semester

Reg. No. : Question Paper Code : B.E./B.Tech. DEGREE EXAMINATION, NOVEMBER/DECEMBER Second Semester WK 5 Reg. No. : Question Paper Code : 27184 B.E./B.Tech. DEGREE EXAMINATION, NOVEMBER/DECEMBER 2015. Time : Three hours Second Semester Electronics and Communication Engineering EC 6201 ELECTRONIC DEVICES

More information

Lecture 4 -- Tuesday, Sept. 19: Non-uniform injection and/or doping. Diffusion. Continuity/conservation. The five basic equations.

Lecture 4 -- Tuesday, Sept. 19: Non-uniform injection and/or doping. Diffusion. Continuity/conservation. The five basic equations. 6.012 ELECTRONIC DEVICES AND CIRCUITS Schedule -- Fall 1995 (8/31/95 version) Recitation 1 -- Wednesday, Sept. 6: Review of 6.002 models for BJT. Discussion of models and modeling; motivate need to go

More information

Analog and Telecommunication Electronics

Analog and Telecommunication Electronics Politecnico di Torino - ICT School Analog and Telecommunication Electronics F2 Active power devices»mos»bjt» IGBT, TRIAC» Safe Operating Area» Thermal analysis 30/05/2012-1 ATLCE - F2-2011 DDC Lesson F2:

More information

Simulation of MOSFETs, BJTs and JFETs. At and Near the Pinch-off Region. Xuan Yang

Simulation of MOSFETs, BJTs and JFETs. At and Near the Pinch-off Region. Xuan Yang Simulation of MOSFETs, BJTs and JFETs At and Near the Pinch-off Region by Xuan Yang A Thesis Presented in Partial Fulfillment of the Requirements for the Degree Master of Science Approved November 2011

More information

Chapter 8. Field Effect Transistor

Chapter 8. Field Effect Transistor Chapter 8. Field Effect Transistor Field Effect Transistor: The field effect transistor is a semiconductor device, which depends for its operation on the control of current by an electric field. There

More information

SRM INSTITUTE OF SCIENCE AND TECHNOLOGY (DEEMED UNIVERSITY)

SRM INSTITUTE OF SCIENCE AND TECHNOLOGY (DEEMED UNIVERSITY) SRM INSTITUTE OF SCIENCE AND TECHNOLOGY (DEEMED UNIVERSITY) QUESTION BANK I YEAR B.Tech (II Semester) ELECTRONIC DEVICES (COMMON FOR EC102, EE104, IC108, BM106) UNIT-I PART-A 1. What are intrinsic and

More information

Session 10: Solid State Physics MOSFET

Session 10: Solid State Physics MOSFET Session 10: Solid State Physics MOSFET 1 Outline A B C D E F G H I J 2 MOSCap MOSFET Metal-Oxide-Semiconductor Field-Effect Transistor: Al (metal) SiO2 (oxide) High k ~0.1 ~5 A SiO2 A n+ n+ p-type Si (bulk)

More information

CHAPTER 8 The PN Junction Diode

CHAPTER 8 The PN Junction Diode CHAPTER 8 The PN Junction Diode Consider the process by which the potential barrier of a PN junction is lowered when a forward bias voltage is applied, so holes and electrons can flow across the junction

More information

Department of Electrical Engineering IIT Madras

Department of Electrical Engineering IIT Madras Department of Electrical Engineering IIT Madras Sample Questions on Semiconductor Devices EE3 applicants who are interested to pursue their research in microelectronics devices area (fabrication and/or

More information

The Art of ANALOG LAYOUT Second Edition

The Art of ANALOG LAYOUT Second Edition The Art of ANALOG LAYOUT Second Edition Alan Hastings 3 EARSON Pearson Education International Contents Preface to the Second Edition xvii Preface to the First Edition xix Acknowledgments xxi 1 Device

More information

ANALYSIS AND DESIGN OF ANALOG INTEGRATED CIRCUITS

ANALYSIS AND DESIGN OF ANALOG INTEGRATED CIRCUITS ANALYSIS AND DESIGN OF ANALOG INTEGRATED CIRCUITS Fourth Edition PAUL R. GRAY University of California, Berkeley PAUL J. HURST University of California, Davis STEPHEN H. LEWIS University of California,

More information

Conduction Characteristics of MOS Transistors (for fixed Vds)! Topic 2. Basic MOS theory & SPICE simulation. MOS Transistor

Conduction Characteristics of MOS Transistors (for fixed Vds)! Topic 2. Basic MOS theory & SPICE simulation. MOS Transistor Conduction Characteristics of MOS Transistors (for fixed Vds)! Topic 2 Basic MOS theory & SPICE simulation Peter Cheung Department of Electrical & Electronic Engineering Imperial College London (Weste&Harris,

More information

Topic 2. Basic MOS theory & SPICE simulation

Topic 2. Basic MOS theory & SPICE simulation Topic 2 Basic MOS theory & SPICE simulation Peter Cheung Department of Electrical & Electronic Engineering Imperial College London (Weste&Harris, Ch 2 & 5.1-5.3 Rabaey, Ch 3) URL: www.ee.ic.ac.uk/pcheung/

More information

Conduction Characteristics of MOS Transistors (for fixed Vds) Topic 2. Basic MOS theory & SPICE simulation. MOS Transistor

Conduction Characteristics of MOS Transistors (for fixed Vds) Topic 2. Basic MOS theory & SPICE simulation. MOS Transistor Conduction Characteristics of MOS Transistors (for fixed Vds) Topic 2 Basic MOS theory & SPICE simulation Peter Cheung Department of Electrical & Electronic Engineering Imperial College London (Weste&Harris,

More information

Figure 1. The energy band model of the most important two intrinsic semiconductors, silicon and germanium

Figure 1. The energy band model of the most important two intrinsic semiconductors, silicon and germanium Analog Integrated ircuits Fundamental Building Blocks 1. The pn junction The pn junctions are realized by metallurgical connection of two semiconductor materials, one with acceptor or p type doping (excess

More information

Lecture 020 ECE4430 Review II (1/5/04) Page 020-1

Lecture 020 ECE4430 Review II (1/5/04) Page 020-1 Lecture 020 ECE4430 Review II (1/5/04) Page 020-1 LECTURE 020 ECE 4430 REVIEW II (READING: GHLM - Chap. 2) Objective The objective of this presentation is: 1.) Identify the prerequisite material as taught

More information

Field Effect Transistors (npn)

Field Effect Transistors (npn) Field Effect Transistors (npn) gate drain source FET 3 terminal device channel e - current from source to drain controlled by the electric field generated by the gate base collector emitter BJT 3 terminal

More information

Lecture 020 ECE4430 Review II (1/5/04) Page 020-1

Lecture 020 ECE4430 Review II (1/5/04) Page 020-1 Lecture 020 ECE4430 Review II (1/5/04) Page 020-1 LECTURE 020 ECE 4430 REVIEW II (READING: GHLM - Chap. 2) Objective The objective of this presentation is: 1.) Identify the prerequisite material as taught

More information

Index. Small-Signal Models, 14 saturation current, 3, 5 Transistor Cutoff Frequency, 18 transconductance, 16, 22 transit time, 10

Index. Small-Signal Models, 14 saturation current, 3, 5 Transistor Cutoff Frequency, 18 transconductance, 16, 22 transit time, 10 Index A absolute value, 308 additional pole, 271 analog multiplier, 190 B BiCMOS,107 Bode plot, 266 base-emitter voltage, 16, 50 base-emitter voltages, 296 bias current, 111, 124, 133, 137, 166, 185 bipolar

More information

Introduction to semiconductor technology

Introduction to semiconductor technology Introduction to semiconductor technology Outline 7 Field effect transistors MOS transistor current equation" MOS transistor channel mobility Substrate bias effect 7 Bipolar transistors Introduction Minority

More information

QUESTION BANK EC6201 ELECTRONIC DEVICES UNIT I SEMICONDUCTOR DIODE PART A. It has two types. 1. Intrinsic semiconductor 2. Extrinsic semiconductor.

QUESTION BANK EC6201 ELECTRONIC DEVICES UNIT I SEMICONDUCTOR DIODE PART A. It has two types. 1. Intrinsic semiconductor 2. Extrinsic semiconductor. FATIMA MICHAEL COLLEGE OF ENGINEERING & TECHNOLOGY Senkottai Village, Madurai Sivagangai Main Road, Madurai - 625 020. [An ISO 9001:2008 Certified Institution] QUESTION BANK EC6201 ELECTRONIC DEVICES SEMESTER:

More information

An Analytical model of the Bulk-DTMOS transistor

An Analytical model of the Bulk-DTMOS transistor Journal of Electron Devices, Vol. 8, 2010, pp. 329-338 JED [ISSN: 1682-3427 ] Journal of Electron Devices www.jeldev.org An Analytical model of the Bulk-DTMOS transistor Vandana Niranjan Indira Gandhi

More information

I E I C since I B is very small

I E I C since I B is very small Figure 2: Symbols and nomenclature of a (a) npn and (b) pnp transistor. The BJT consists of three regions, emitter, base, and collector. The emitter and collector are usually of one type of doping, while

More information

SCALING AND NUMERICAL SIMULATION ANALYSIS OF 50nm MOSFET INCORPORATING DIELECTRIC POCKET (DP-MOSFET)

SCALING AND NUMERICAL SIMULATION ANALYSIS OF 50nm MOSFET INCORPORATING DIELECTRIC POCKET (DP-MOSFET) SCALING AND NUMERICAL SIMULATION ANALYSIS OF 50nm MOSFET INCORPORATING DIELECTRIC POCKET (DP-MOSFET) Zul Atfyi Fauzan M. N., Ismail Saad and Razali Ismail Faculty of Electrical Engineering, Universiti

More information

UNIT-VI FIELD EFFECT TRANSISTOR. 1. Explain about the Field Effect Transistor and also mention types of FET s.

UNIT-VI FIELD EFFECT TRANSISTOR. 1. Explain about the Field Effect Transistor and also mention types of FET s. UNIT-I FIELD EFFECT TRANSISTOR 1. Explain about the Field Effect Transistor and also mention types of FET s. The Field Effect Transistor, or simply FET however, uses the voltage that is applied to their

More information

MSE 410/ECE 340: Electrical Properties of Materials Fall 2016 Micron School of Materials Science and Engineering Boise State University

MSE 410/ECE 340: Electrical Properties of Materials Fall 2016 Micron School of Materials Science and Engineering Boise State University MSE 410/ECE 340: Electrical Properties of Materials Fall 2016 Micron School of Materials Science and Engineering Boise State University Practice Final Exam 1 Read the questions carefully Label all figures

More information

A New SiGe Base Lateral PNM Schottky Collector. Bipolar Transistor on SOI for Non Saturating. VLSI Logic Design

A New SiGe Base Lateral PNM Schottky Collector. Bipolar Transistor on SOI for Non Saturating. VLSI Logic Design A ew SiGe Base Lateral PM Schottky Collector Bipolar Transistor on SOI for on Saturating VLSI Logic Design Abstract A novel bipolar transistor structure, namely, SiGe base lateral PM Schottky collector

More information

Three Terminal Devices

Three Terminal Devices Three Terminal Devices - field effect transistor (FET) - bipolar junction transistor (BJT) - foundation on which modern electronics is built - active devices - devices described completely by considering

More information

CHAPTER 8 The PN Junction Diode

CHAPTER 8 The PN Junction Diode CHAPTER 8 The PN Junction Diode Consider the process by which the potential barrier of a PN junction is lowered when a forward bias voltage is applied, so holes and electrons can flow across the junction

More information

cost and reliability; power considerations were of secondary importance. In recent years. however, this has begun to change and increasingly power is

cost and reliability; power considerations were of secondary importance. In recent years. however, this has begun to change and increasingly power is CHAPTER-1 INTRODUCTION AND SCOPE OF WORK 1.0 MOTIVATION In the past, the major concern of the VLSI designer was area, performance, cost and reliability; power considerations were of secondary importance.

More information

444 Index. F Fermi potential, 146 FGMOS transistor, 20 23, 57, 83, 84, 98, 205, 208, 213, 215, 216, 241, 242, 251, 280, 311, 318, 332, 354, 407

444 Index. F Fermi potential, 146 FGMOS transistor, 20 23, 57, 83, 84, 98, 205, 208, 213, 215, 216, 241, 242, 251, 280, 311, 318, 332, 354, 407 Index A Accuracy active resistor structures, 46, 323, 328, 329, 341, 344, 360 computational circuits, 171 differential amplifiers, 30, 31 exponential circuits, 285, 291, 292 multifunctional structures,

More information

Power MOSFET Zheng Yang (ERF 3017,

Power MOSFET Zheng Yang (ERF 3017, ECE442 Power Semiconductor Devices and Integrated Circuits Power MOSFET Zheng Yang (ERF 3017, email: yangzhen@uic.edu) Evolution of low-voltage (

More information

MASTER OF TECHNOLOGY in VLSI Design & CAD

MASTER OF TECHNOLOGY in VLSI Design & CAD ANALYSIS AND DESIGN OF A DRAM CELL FOR LOW LEAKAGE Thesis submitted in partial fulfillment of the requirements for the award of the degree of MASTER OF TECHNOLOGY in VLSI Design & CAD By Rashmi Singh Roll

More information

CHAPTER 3 TWO DIMENSIONAL ANALYTICAL MODELING FOR THRESHOLD VOLTAGE

CHAPTER 3 TWO DIMENSIONAL ANALYTICAL MODELING FOR THRESHOLD VOLTAGE 49 CHAPTER 3 TWO DIMENSIONAL ANALYTICAL MODELING FOR THRESHOLD VOLTAGE 3.1 INTRODUCTION A qualitative notion of threshold voltage V th is the gate-source voltage at which an inversion channel forms, which

More information

Outline. Layout and technology. CMOS technology Design rules Analog layout Mismatch INF4420. Jørgen Andreas Michaelsen Spring / 80 2 / 80

Outline. Layout and technology. CMOS technology Design rules Analog layout Mismatch INF4420. Jørgen Andreas Michaelsen Spring / 80 2 / 80 INF4420 Layout and technology Jørgen Andreas Michaelsen Spring 2013 1 / 80 Outline CMOS technology Design rules Analog layout Mismatch Spring 2013 Layout and technology 2 2 / 80 Introduction As circuit

More information

Semiconductor Device Physics and Simulation

Semiconductor Device Physics and Simulation Semiconductor Device Physics and Simulation MICRODEVICES Physics and Fabrication Technologies Series Editors: Ivor Brodie and Arden Sher SRI International Menlo Park, California Recent volumes in the series:

More information

Sub-Threshold Region Behavior of Long Channel MOSFET

Sub-Threshold Region Behavior of Long Channel MOSFET Sub-threshold Region - So far, we have discussed the MOSFET behavior in linear region and saturation region - Sub-threshold region is refer to region where Vt is less than Vt - Sub-threshold region reflects

More information

Chapter 6. Silicon-Germanium Technologies

Chapter 6. Silicon-Germanium Technologies Chapter 6 licon-germanium Technologies 6.0 Introduction The design of bipolar transistors requires trade-offs between a number of parameters. To achieve a fast base transit time, hence achieving a high

More information

ELECTRONIC DEVICES AND CIRCUITS

ELECTRONIC DEVICES AND CIRCUITS ELECTRONIC DEVICES AND CIRCUITS 1. At room temperature the current in an intrinsic semiconductor is due to A. holes B. electrons C. ions D. holes and electrons 2. Work function is the maximum energy required

More information

Fabrication, Corner, Layout, Matching, & etc.

Fabrication, Corner, Layout, Matching, & etc. Advanced Analog Building Blocks Fabrication, Corner, Layout, Matching, & etc. Wei SHEN (KIP) 1 Fabrication Steps for MOS Wei SHEN, Universität Heidelberg 2 Fabrication Steps for MOS Wei SHEN, Universität

More information

Digital Electronics. By: FARHAD FARADJI, Ph.D. Assistant Professor, Electrical and Computer Engineering, K. N. Toosi University of Technology

Digital Electronics. By: FARHAD FARADJI, Ph.D. Assistant Professor, Electrical and Computer Engineering, K. N. Toosi University of Technology K. N. Toosi University of Technology Chapter 7. Field-Effect Transistors By: FARHAD FARADJI, Ph.D. Assistant Professor, Electrical and Computer Engineering, K. N. Toosi University of Technology http://wp.kntu.ac.ir/faradji/digitalelectronics.htm

More information

Key Questions. ECE 340 Lecture 39 : Introduction to the BJT-II 4/28/14. Class Outline: Fabrication of BJTs BJT Operation

Key Questions. ECE 340 Lecture 39 : Introduction to the BJT-II 4/28/14. Class Outline: Fabrication of BJTs BJT Operation Things you should know when you leave ECE 340 Lecture 39 : Introduction to the BJT-II Fabrication of BJTs Class Outline: Key Questions What elements make up the base current? What do the carrier distributions

More information

Semiconductor Devices Lecture 5, pn-junction Diode

Semiconductor Devices Lecture 5, pn-junction Diode Semiconductor Devices Lecture 5, pn-junction Diode Content Contact potential Space charge region, Electric Field, depletion depth Current-Voltage characteristic Depletion layer capacitance Diffusion capacitance

More information

EE 5611 Introduction to Microelectronic Technologies Fall Thursday, September 04, 2014 Lecture 02

EE 5611 Introduction to Microelectronic Technologies Fall Thursday, September 04, 2014 Lecture 02 EE 5611 Introduction to Microelectronic Technologies Fall 2014 Thursday, September 04, 2014 Lecture 02 1 Lecture Outline Review on semiconductor materials Review on microelectronic devices Example of microelectronic

More information

SYED AMMAL ENGINEERING COLLEGE

SYED AMMAL ENGINEERING COLLEGE SYED AMMAL ENGINEERING COLLEGE (Approved by the AICTE, New Delhi, Govt. of Tamilnadu and Affiliated to Anna University, Chennai) Established in 1998 - An ISO 9001:2008 Certified Institution Dr. E.M.Abdullah

More information

UNIT 3 Transistors JFET

UNIT 3 Transistors JFET UNIT 3 Transistors JFET Mosfet Definition of BJT A bipolar junction transistor is a three terminal semiconductor device consisting of two p-n junctions which is able to amplify or magnify a signal. It

More information

EECS130 Integrated Circuit Devices

EECS130 Integrated Circuit Devices EECS130 Integrated Circuit Devices Professor Ali Javey 11/6/2007 MOSFETs Lecture 6 BJTs- Lecture 1 Reading Assignment: Chapter 10 More Scalable Device Structures Vertical Scaling is important. For example,

More information

CHAPTER 8 The pn Junction Diode

CHAPTER 8 The pn Junction Diode CHAPTER 8 The pn Junction Diode Consider the process by which the potential barrier of a pn junction is lowered when a forward bias voltage is applied, so holes and electrons can flow across the junction

More information

Ultra-sensitive SiGe Bipolar Phototransistors for Optical Interconnects

Ultra-sensitive SiGe Bipolar Phototransistors for Optical Interconnects Ultra-sensitive SiGe Bipolar Phototransistors for Optical Interconnects Michael Roe Electrical Engineering and Computer Sciences University of California at Berkeley Technical Report No. UCB/EECS-2012-123

More information

ECE 5745 Complex Digital ASIC Design Topic 2: CMOS Devices

ECE 5745 Complex Digital ASIC Design Topic 2: CMOS Devices ECE 5745 Complex Digital ASIC Design Topic 2: CMOS Devices Christopher Batten School of Electrical and Computer Engineering Cornell University http://www.csl.cornell.edu/courses/ece5950 Simple Transistor

More information

FET(Field Effect Transistor)

FET(Field Effect Transistor) Field Effect Transistor: Construction and Characteristic of JFETs. Transfer Characteristic. CS,CD,CG amplifier and analysis of CS amplifier MOSFET (Depletion and Enhancement) Type, Transfer Characteristic,

More information

High Performance Lateral Schottky Collector Bipolar Transistors on SOI for VLSI Applications

High Performance Lateral Schottky Collector Bipolar Transistors on SOI for VLSI Applications High Performance Lateral Schottky Collector Bipolar Transistors on SOI for VLSI Applications A dissertation submitted in partial fulfillment of the requirement for the degree of Master of Science (Research)

More information

Parameter Optimization Of GAA Nano Wire FET Using Taguchi Method

Parameter Optimization Of GAA Nano Wire FET Using Taguchi Method Parameter Optimization Of GAA Nano Wire FET Using Taguchi Method S.P. Venu Madhava Rao E.V.L.N Rangacharyulu K.Lal Kishore Professor, SNIST Professor, PSMCET Registrar, JNTUH Abstract As the process technology

More information

TSMC Property. The Impacts of BSIM. Sally Liu TSMC. S. Liu TSMC, Ltd Dec 13, 2012P TSMC, Ltd

TSMC Property. The Impacts of BSIM. Sally Liu TSMC. S. Liu TSMC, Ltd Dec 13, 2012P TSMC, Ltd The Impacts of BSIM Sally Liu TSMC 1 The Impacts of BSIM Outline What is BSIM Industry standard Breadth and depth Moving forward 2 What s in a name of BSIM The making of BSIM 631 papers in IEEE Explore

More information

MOSFET & IC Basics - GATE Problems (Part - I)

MOSFET & IC Basics - GATE Problems (Part - I) MOSFET & IC Basics - GATE Problems (Part - I) 1. Channel current is reduced on application of a more positive voltage to the GATE of the depletion mode n channel MOSFET. (True/False) [GATE 1994: 1 Mark]

More information

Radio Frequency Electronics

Radio Frequency Electronics Radio Frequency Electronics Active Components II Harry Nyquist Born in 1889 in Sweden Received B.S. and M.S. from U. North Dakota Received Ph.D. from Yale Worked and Bell Laboratories for all of his career

More information

Lecture-45. MOS Field-Effect-Transistors Threshold voltage

Lecture-45. MOS Field-Effect-Transistors Threshold voltage Lecture-45 MOS Field-Effect-Transistors 7.4. Threshold voltage In this section we summarize the calculation of the threshold voltage and discuss the dependence of the threshold voltage on the bias applied

More information

Drive performance of an asymmetric MOSFET structure: the peak device

Drive performance of an asymmetric MOSFET structure: the peak device MEJ 499 Microelectronics Journal Microelectronics Journal 30 (1999) 229 233 Drive performance of an asymmetric MOSFET structure: the peak device M. Stockinger a, *, A. Wild b, S. Selberherr c a Institute

More information

Lesson 5. Electronics: Semiconductors Doping p-n Junction Diode Half Wave and Full Wave Rectification Introduction to Transistors-

Lesson 5. Electronics: Semiconductors Doping p-n Junction Diode Half Wave and Full Wave Rectification Introduction to Transistors- Lesson 5 Electronics: Semiconductors Doping p-n Junction Diode Half Wave and Full Wave Rectification Introduction to Transistors- Types and Connections Semiconductors Semiconductors If there are many free

More information

Semiconductor Detector Systems

Semiconductor Detector Systems Semiconductor Detector Systems Helmuth Spieler Physics Division, Lawrence Berkeley National Laboratory OXFORD UNIVERSITY PRESS ix CONTENTS 1 Detector systems overview 1 1.1 Sensor 2 1.2 Preamplifier 3

More information

EE301 Electronics I , Fall

EE301 Electronics I , Fall EE301 Electronics I 2018-2019, Fall 1. Introduction to Microelectronics (1 Week/3 Hrs.) Introduction, Historical Background, Basic Consepts 2. Rewiev of Semiconductors (1 Week/3 Hrs.) Semiconductor materials

More information

6.776 High Speed Communication Circuits Lecture 6 MOS Transistors, Passive Components, Gain- Bandwidth Issue for Broadband Amplifiers

6.776 High Speed Communication Circuits Lecture 6 MOS Transistors, Passive Components, Gain- Bandwidth Issue for Broadband Amplifiers 6.776 High Speed Communication Circuits Lecture 6 MOS Transistors, Passive Components, Gain- Bandwidth Issue for Broadband Amplifiers Massachusetts Institute of Technology February 17, 2005 Copyright 2005

More information

PN Junction in equilibrium

PN Junction in equilibrium PN Junction in equilibrium PN junctions are important for the following reasons: (i) PN junction is an important semiconductor device in itself and used in a wide variety of applications such as rectifiers,

More information

Dynamic Threshold MOS transistor for Low Voltage Analog Circuits

Dynamic Threshold MOS transistor for Low Voltage Analog Circuits 26 Dynamic Threshold MOS transistor for Low Voltage Analog Circuits Vandana Niranjan, Akanksha Singh, Ashwani Kumar Electronics and Communication Engineering Department Indira Gandhi Delhi Technical University

More information

Bipolar Junction Transistors (BJTs) Overview

Bipolar Junction Transistors (BJTs) Overview 1 Bipolar Junction Transistors (BJTs) Asst. Prof. MONTREE SIRIPRUCHYANUN, D. Eng. Dept. of Teacher Training in Electrical Engineering, Faculty of Technical Education King Mongkut s Institute of Technology

More information

MTLE-6120: Advanced Electronic Properties of Materials. Semiconductor transistors for logic and memory. Reading: Kasap

MTLE-6120: Advanced Electronic Properties of Materials. Semiconductor transistors for logic and memory. Reading: Kasap MTLE-6120: Advanced Electronic Properties of Materials 1 Semiconductor transistors for logic and memory Reading: Kasap 6.6-6.8 Vacuum tube diodes 2 Thermionic emission from cathode Electrons collected

More information

Integrated diodes. The forward voltage drop only slightly depends on the forward current. ELEKTRONIKOS ĮTAISAI

Integrated diodes. The forward voltage drop only slightly depends on the forward current. ELEKTRONIKOS ĮTAISAI 1 Integrated diodes pn junctions of transistor structures can be used as integrated diodes. The choice of the junction is limited by the considerations of switching speed and breakdown voltage. The forward

More information

EFFECT OF THRESHOLD VOLTAGE AND CHANNEL LENGTH ON DRAIN CURRENT OF SILICON N-MOSFET

EFFECT OF THRESHOLD VOLTAGE AND CHANNEL LENGTH ON DRAIN CURRENT OF SILICON N-MOSFET EFFECT OF THRESHOLD VOLTAGE AND CHANNEL LENGTH ON DRAIN CURRENT OF SILICON N-MOSFET A.S.M. Bakibillah Nazibur Rahman Dept. of Electrical & Electronic Engineering, American International University Bangladesh

More information

An introduction to Depletion-mode MOSFETs By Linden Harrison

An introduction to Depletion-mode MOSFETs By Linden Harrison An introduction to Depletion-mode MOSFETs By Linden Harrison Since the mid-nineteen seventies the enhancement-mode MOSFET has been the subject of almost continuous global research, development, and refinement

More information

INTERNATIONAL JOURNAL OF APPLIED ENGINEERING RESEARCH, DINDIGUL Volume 1, No 3, 2010

INTERNATIONAL JOURNAL OF APPLIED ENGINEERING RESEARCH, DINDIGUL Volume 1, No 3, 2010 Low Power CMOS Inverter design at different Technologies Vijay Kumar Sharma 1, Surender Soni 2 1 Department of Electronics & Communication, College of Engineering, Teerthanker Mahaveer University, Moradabad

More information