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This document appears to be from a textbook. It includes an introduction chapter that discusses various topics and concepts. Subsequent chapters focus on specific design considerations like manufacturability and testability. The document provides solutions to exercises at the end of relevant chapters.
Cmos digital integrated circuits analysis and design 4th edition kang solutio...vem2001
CMOS Digital Integrated Circuits Analysis and Design 4th Edition Kang Solutions Manual
Download:https://goo.gl/n2KuTT
cmos digital integrated circuits 4th edition pdf
cmos digital integrated circuits analysis & design 4th edition
cmos digital integrated circuits analysis and design 3rd edition solution manual
cmos kang solutions chapter 6
cmos digital circuits
analysis and design of digital integrated circuits hodges pdf free download
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analysis and design of digital integrated circuits pdf
- The document discusses various techniques for designing fast complex logic gates in VLSI circuits.
- Two transistor sizing techniques are presented: progressive transistor sizing and transistor ordering to reduce signal delay.
- Alternative logic structures, buffer insertion, and reducing voltage swing are additional techniques described.
- The concept of logical effort is introduced as a way to optimize logic paths for speed based on the topology rather than transistor sizing.
The document discusses transmission line impedance and input impedance. It defines characteristic impedance as the ratio of voltage to current waves travelling along a transmission line. It provides expressions for characteristic impedance in terms of line parameters R, L, G, C. It then derives expressions for input impedance of open circuit, short circuit, matched and mismatched lossless transmission lines. It shows that input impedance is capacitive for a short open circuit line and inductive for a short circuit line.
This presentation discusses the basics of Pass Transistor Logic, its advantages, limitation and finally implementation of Boolean functions/Combinational Logic circuits using Pass Transistor Logic.
Digital logic families classify integrated circuits by their circuit technology. A logic family consists of chips that perform logic functions like AND and OR with similar input/output characteristics. Popular families include TTL, ECL, MOS, and CMOS. CMOS uses fewer transistors than other families for inversion and is known for low power. Logic levels and noise margins define input and output voltage thresholds. Transition times and capacitive loading affect a circuit's propagation delay.
The document discusses the Radix-2 discrete Fourier transform (DFT) algorithm. It explains that the Radix-2 DFT divides an N-point sequence into two N/2-point sequences, computes the DFT of each subsequence, and then combines the results to compute the N-point DFT. It involves decimating the sequence, computing smaller DFTs, and combining results over multiple stages. The Radix-2 algorithm reduces the computation from O(N^2) for the direct DFT to O(NlogN) operations.
This document appears to be from a textbook. It includes an introduction chapter that discusses various topics and concepts. Subsequent chapters focus on specific design considerations like manufacturability and testability. The document provides solutions to exercises at the end of relevant chapters.
Cmos digital integrated circuits analysis and design 4th edition kang solutio...vem2001
CMOS Digital Integrated Circuits Analysis and Design 4th Edition Kang Solutions Manual
Download:https://goo.gl/n2KuTT
cmos digital integrated circuits 4th edition pdf
cmos digital integrated circuits analysis & design 4th edition
cmos digital integrated circuits analysis and design 3rd edition solution manual
cmos kang solutions chapter 6
cmos digital circuits
analysis and design of digital integrated circuits hodges pdf free download
digital integrated circuits pdf
analysis and design of digital integrated circuits pdf
- The document discusses various techniques for designing fast complex logic gates in VLSI circuits.
- Two transistor sizing techniques are presented: progressive transistor sizing and transistor ordering to reduce signal delay.
- Alternative logic structures, buffer insertion, and reducing voltage swing are additional techniques described.
- The concept of logical effort is introduced as a way to optimize logic paths for speed based on the topology rather than transistor sizing.
The document discusses transmission line impedance and input impedance. It defines characteristic impedance as the ratio of voltage to current waves travelling along a transmission line. It provides expressions for characteristic impedance in terms of line parameters R, L, G, C. It then derives expressions for input impedance of open circuit, short circuit, matched and mismatched lossless transmission lines. It shows that input impedance is capacitive for a short open circuit line and inductive for a short circuit line.
This presentation discusses the basics of Pass Transistor Logic, its advantages, limitation and finally implementation of Boolean functions/Combinational Logic circuits using Pass Transistor Logic.
Digital logic families classify integrated circuits by their circuit technology. A logic family consists of chips that perform logic functions like AND and OR with similar input/output characteristics. Popular families include TTL, ECL, MOS, and CMOS. CMOS uses fewer transistors than other families for inversion and is known for low power. Logic levels and noise margins define input and output voltage thresholds. Transition times and capacitive loading affect a circuit's propagation delay.
The document discusses the Radix-2 discrete Fourier transform (DFT) algorithm. It explains that the Radix-2 DFT divides an N-point sequence into two N/2-point sequences, computes the DFT of each subsequence, and then combines the results to compute the N-point DFT. It involves decimating the sequence, computing smaller DFTs, and combining results over multiple stages. The Radix-2 algorithm reduces the computation from O(N^2) for the direct DFT to O(NlogN) operations.
The document presents a presentation by Arvind Dautaniya on velocity saturation in semiconductors. It discusses that when a strong enough electric field is applied, the carrier velocity in the semiconductor reaches a maximum saturation velocity as carriers lose energy through increased interactions with the lattice and by emitting phonons. It then provides a better model to describe carrier velocity at high fields, showing that velocity reaches a saturation value vsat due to carrier scattering off atoms in the semiconductor lattice, with typical saturation velocities of 106-107 cm/s for electrons and holes. The presentation concludes by discussing effects of velocity saturation on transistor current-voltage characteristics.
The document discusses four topics related to transistors:
1. Threshold voltage is the minimum gate voltage needed to create a conducting path between source and drain, and depends on oxide thickness, temperature, and random dopant fluctuations.
2. Latchup refers to a short circuit formed between power and ground rails in an integrated circuit, caused by interaction between parasitic bipolar transistors.
3. Electromigration is the forced movement of metal ions due to an electric field, with atoms traveling toward the positive conductor end and vacancies toward the negative end.
4. Mobility degradation occurs due to lateral and vertical electric fields scattering carriers, reducing surface mobility as channel lengths shrink.
This document discusses using a Smith chart to analyze transmission line parameters. It provides examples to determine the voltage reflection coefficient, voltage standing wave ratio (VSWR), and impedance (Zx) from a load at a distance along a transmission line. The document first introduces the Smith chart and how it represents normalized impedance values graphically. It then provides an example problem and solution to calculate the reflection coefficient, VSWR, and Zx for a given transmission line and load impedance using both MATLAB formulas and the Smith chart.
This document compares the use of complementary pass-transistor logic (CPL) to conventional CMOS design. CPL uses fewer transistors than CMOS gates, has smaller capacitances, and is faster. A 2:1 multiplexer is designed using both CMOS and CPL in Microwind and DSCH2 layout tools. Simulation results show the CPL multiplexer has lower power consumption, smaller area, faster rise/fall delays compared to the CMOS multiplexer. Therefore, CPL offers advantages over conventional CMOS in terms of speed, area, and power-delay products.
This document provides an overview of the CMOS fabrication process. It begins by defining CMOS technology and its use of complementary nMOS and pMOS transistors. It then outlines the major steps in the CMOS fabrication process, including lithography to pattern transistors and wires on the silicon wafer. Key steps include oxidation, photolithography, etching, doping via diffusion or implantation, and metallization. The document notes current problems with optical lithography limitations and materials issues. It concludes by discussing potential future changes like new materials, SOI, finFETs, and other design modifications.
This document discusses MOS transistor theory, including MOS structure, ideal and non-ideal I-V characteristics, capacitance models, and delay models. It describes how MOS transistors operate in different modes depending on terminal voltages and how carrier mobility and channel charge determine current in linear and saturation regions. Non-ideal effects like velocity saturation, body effect, and leakage currents are also covered. The document concludes with discussions of pass transistors, tri-state inverters, and using resistor-capacitor models to estimate delay.
Short channel effects arise when the channel length of a MOSFET becomes comparable to the depletion layer width. This causes unwanted effects such as drain-induced barrier lowering (DIBL), where the drain voltage lowers the channel potential barrier; surface scattering, where carriers collide with the surface increasing; and velocity saturation, where the electric field saturates the carrier drift velocity. Other effects are impact ionization, where high-energy carriers generate electron-hole pairs, and hot carrier injection (HCI). Short channel effects degrade performance and reliability in smaller transistors.
This document outlines the syllabus for a VLSI design course. The syllabus covers five units: (1) CMOS technology, including history, characteristics, and enhancements; (2) circuit characterization and simulation; (3) combinational and sequential circuit design; (4) CMOS testing; and (5) specification using Verilog HDL. The first unit provides an introduction to CMOS technology, discussing MOS transistors, CMOS processes like p-well and n-well, and layout design rules. Subsequent units cover circuit analysis, common circuit elements, testing approaches, and hardware description languages. References include textbooks on VLSI design, digital circuits, and Verilog HDL.
This presentation has given a brief introduction and working of CMOS Logic Structures which includes MOS logic, CMOS logic, CMOS logic structure, CMOS complementary logic, pass transistor logic, bi CMOS logic, pseudo –nMOS logic, CMOS domino logic, Cascode Voltage Switch Logic(CVSL), clocked CMOS logic(c²mos), dynamic CMOS logic
BCH codes, part of the cyclic codes, are very powerful error correcting codes widely used in the information coding techniques. This presentation explains these codes with an example.
A simple N-channel MOSFET can be used as a diode, Switch and Active resistor. This presentation is a part of course of Analog CMOS Design, based on textbook of same title by Allen Holberg.
This document discusses multi mode multi corner (MMMC) analysis for chip design. It defines that a mode is a set of design parameters like clocks and timing constraints, and a corner captures process, voltage, and temperature variations. It provides examples of multiple modes like normal, sleep, and test modes and corners for temperature, voltage, process variations, and parasitic interconnects. The document gives an example of analyzing a chip with 4 modes under 3 process-voltage-temperature corners and 3 parasitic interconnect corners, showing 9 analysis cases.
Stick Diagram and Lambda Based Design RulesTahsin Al Mahi
This presentation discusses stick diagrams and lambda-based design rules for VLSI system design. It begins with an overview of the top-down design hierarchy and then defines stick diagrams as a way to represent different layers of a layout using colors or monochrome lines. Common stick encodings are presented along with examples of drawing a CMOS inverter. Design rules are then covered, with lambda serving as a size-independent unit and rules specifying dimensions for wires, transistors, and contacts between layers. The goal is to convey key layer information and spacing requirements for mask layouts in a standardized way.
The document discusses CMOS VLSI design technology and future trends. It provides an overview of CMOS technology and basic MOSFET operation. It then discusses how nanotechnology and integrated tri-gate transistors can help address limitations of CMOS scaling by reducing feature sizes and parasitic leakage. The document concludes that continued CMOS scaling will eventually be limited and alternatives like nanotechnology may be needed to retain device characteristics at smaller sizes.
This document summarizes techniques for minimizing crosstalk in VLSI designs. It discusses the VLSI design cycle and physical design cycle. Routing is a key stage that involves global and detailed routing. Crosstalk occurs due to mutual inductance and capacitance between wires and can affect signal integrity, delay, and timing. Basic approaches to reduce crosstalk include segregating wires, increasing spacing between wires, using ground shields, optimizing the net ordering and layer assignments. Specific techniques mentioned are widening spacing, minimizing wire heights and lengths of parallel runs, using differential routing, and routing orthogonal layers.
1. The document describes the structure and operation of metal-oxide-semiconductor field-effect transistors (MOSFETs).
2. It explains how applying a voltage to the gate can induce an electric field that forms a channel for current to flow between the source and drain.
3. The threshold voltage is the minimum gate voltage needed to form an inversion layer and turn the MOSFET on.
This document discusses the physics of MOS devices. It begins by describing the basic operation of an MOSFET as a switch controlled by the gate voltage. It then covers the structure of NMOS, PMOS, and CMOS devices. The key aspects of MOSFET operation are explained, including the formation of the depletion region and inversion layer, threshold voltage, and I-V characteristics in the triode and saturation regions. The document also discusses transconductance, body effect, channel-length modulation, capacitances, and the small-signal model of MOSFETs.
The document presents a presentation by Arvind Dautaniya on velocity saturation in semiconductors. It discusses that when a strong enough electric field is applied, the carrier velocity in the semiconductor reaches a maximum saturation velocity as carriers lose energy through increased interactions with the lattice and by emitting phonons. It then provides a better model to describe carrier velocity at high fields, showing that velocity reaches a saturation value vsat due to carrier scattering off atoms in the semiconductor lattice, with typical saturation velocities of 106-107 cm/s for electrons and holes. The presentation concludes by discussing effects of velocity saturation on transistor current-voltage characteristics.
The document discusses four topics related to transistors:
1. Threshold voltage is the minimum gate voltage needed to create a conducting path between source and drain, and depends on oxide thickness, temperature, and random dopant fluctuations.
2. Latchup refers to a short circuit formed between power and ground rails in an integrated circuit, caused by interaction between parasitic bipolar transistors.
3. Electromigration is the forced movement of metal ions due to an electric field, with atoms traveling toward the positive conductor end and vacancies toward the negative end.
4. Mobility degradation occurs due to lateral and vertical electric fields scattering carriers, reducing surface mobility as channel lengths shrink.
This document discusses using a Smith chart to analyze transmission line parameters. It provides examples to determine the voltage reflection coefficient, voltage standing wave ratio (VSWR), and impedance (Zx) from a load at a distance along a transmission line. The document first introduces the Smith chart and how it represents normalized impedance values graphically. It then provides an example problem and solution to calculate the reflection coefficient, VSWR, and Zx for a given transmission line and load impedance using both MATLAB formulas and the Smith chart.
This document compares the use of complementary pass-transistor logic (CPL) to conventional CMOS design. CPL uses fewer transistors than CMOS gates, has smaller capacitances, and is faster. A 2:1 multiplexer is designed using both CMOS and CPL in Microwind and DSCH2 layout tools. Simulation results show the CPL multiplexer has lower power consumption, smaller area, faster rise/fall delays compared to the CMOS multiplexer. Therefore, CPL offers advantages over conventional CMOS in terms of speed, area, and power-delay products.
This document provides an overview of the CMOS fabrication process. It begins by defining CMOS technology and its use of complementary nMOS and pMOS transistors. It then outlines the major steps in the CMOS fabrication process, including lithography to pattern transistors and wires on the silicon wafer. Key steps include oxidation, photolithography, etching, doping via diffusion or implantation, and metallization. The document notes current problems with optical lithography limitations and materials issues. It concludes by discussing potential future changes like new materials, SOI, finFETs, and other design modifications.
This document discusses MOS transistor theory, including MOS structure, ideal and non-ideal I-V characteristics, capacitance models, and delay models. It describes how MOS transistors operate in different modes depending on terminal voltages and how carrier mobility and channel charge determine current in linear and saturation regions. Non-ideal effects like velocity saturation, body effect, and leakage currents are also covered. The document concludes with discussions of pass transistors, tri-state inverters, and using resistor-capacitor models to estimate delay.
Short channel effects arise when the channel length of a MOSFET becomes comparable to the depletion layer width. This causes unwanted effects such as drain-induced barrier lowering (DIBL), where the drain voltage lowers the channel potential barrier; surface scattering, where carriers collide with the surface increasing; and velocity saturation, where the electric field saturates the carrier drift velocity. Other effects are impact ionization, where high-energy carriers generate electron-hole pairs, and hot carrier injection (HCI). Short channel effects degrade performance and reliability in smaller transistors.
This document outlines the syllabus for a VLSI design course. The syllabus covers five units: (1) CMOS technology, including history, characteristics, and enhancements; (2) circuit characterization and simulation; (3) combinational and sequential circuit design; (4) CMOS testing; and (5) specification using Verilog HDL. The first unit provides an introduction to CMOS technology, discussing MOS transistors, CMOS processes like p-well and n-well, and layout design rules. Subsequent units cover circuit analysis, common circuit elements, testing approaches, and hardware description languages. References include textbooks on VLSI design, digital circuits, and Verilog HDL.
This presentation has given a brief introduction and working of CMOS Logic Structures which includes MOS logic, CMOS logic, CMOS logic structure, CMOS complementary logic, pass transistor logic, bi CMOS logic, pseudo –nMOS logic, CMOS domino logic, Cascode Voltage Switch Logic(CVSL), clocked CMOS logic(c²mos), dynamic CMOS logic
BCH codes, part of the cyclic codes, are very powerful error correcting codes widely used in the information coding techniques. This presentation explains these codes with an example.
A simple N-channel MOSFET can be used as a diode, Switch and Active resistor. This presentation is a part of course of Analog CMOS Design, based on textbook of same title by Allen Holberg.
This document discusses multi mode multi corner (MMMC) analysis for chip design. It defines that a mode is a set of design parameters like clocks and timing constraints, and a corner captures process, voltage, and temperature variations. It provides examples of multiple modes like normal, sleep, and test modes and corners for temperature, voltage, process variations, and parasitic interconnects. The document gives an example of analyzing a chip with 4 modes under 3 process-voltage-temperature corners and 3 parasitic interconnect corners, showing 9 analysis cases.
Stick Diagram and Lambda Based Design RulesTahsin Al Mahi
This presentation discusses stick diagrams and lambda-based design rules for VLSI system design. It begins with an overview of the top-down design hierarchy and then defines stick diagrams as a way to represent different layers of a layout using colors or monochrome lines. Common stick encodings are presented along with examples of drawing a CMOS inverter. Design rules are then covered, with lambda serving as a size-independent unit and rules specifying dimensions for wires, transistors, and contacts between layers. The goal is to convey key layer information and spacing requirements for mask layouts in a standardized way.
The document discusses CMOS VLSI design technology and future trends. It provides an overview of CMOS technology and basic MOSFET operation. It then discusses how nanotechnology and integrated tri-gate transistors can help address limitations of CMOS scaling by reducing feature sizes and parasitic leakage. The document concludes that continued CMOS scaling will eventually be limited and alternatives like nanotechnology may be needed to retain device characteristics at smaller sizes.
This document summarizes techniques for minimizing crosstalk in VLSI designs. It discusses the VLSI design cycle and physical design cycle. Routing is a key stage that involves global and detailed routing. Crosstalk occurs due to mutual inductance and capacitance between wires and can affect signal integrity, delay, and timing. Basic approaches to reduce crosstalk include segregating wires, increasing spacing between wires, using ground shields, optimizing the net ordering and layer assignments. Specific techniques mentioned are widening spacing, minimizing wire heights and lengths of parallel runs, using differential routing, and routing orthogonal layers.
1. The document describes the structure and operation of metal-oxide-semiconductor field-effect transistors (MOSFETs).
2. It explains how applying a voltage to the gate can induce an electric field that forms a channel for current to flow between the source and drain.
3. The threshold voltage is the minimum gate voltage needed to form an inversion layer and turn the MOSFET on.
This document discusses the physics of MOS devices. It begins by describing the basic operation of an MOSFET as a switch controlled by the gate voltage. It then covers the structure of NMOS, PMOS, and CMOS devices. The key aspects of MOSFET operation are explained, including the formation of the depletion region and inversion layer, threshold voltage, and I-V characteristics in the triode and saturation regions. The document also discusses transconductance, body effect, channel-length modulation, capacitances, and the small-signal model of MOSFETs.
This document provides a tutorial on semiconductor diodes with 20 practice problems. It covers topics such as determining diode resistance and capacitance from characteristic curves, calculating diffusion current density, and solving circuits that include diodes and zener diodes. The problems involve calculating values such as current, voltage, resistance, capacitance, and concentrations using semiconductor properties, characteristic curves, and circuit equations.
Stability with analysis and psa and load flow.pptZahid Yousaf
The document summarizes a lecture on Newton-Raphson power flow analysis. It provides a two bus example to demonstrate the Newton-Raphson method. The example calculates the voltage magnitude and angle at the second bus iteratively until convergence is reached. There are two possible solutions for this system, a high voltage and low voltage solution, depending on the starting guess values. The document also briefly describes a three bus PV case example.
This document provides an overview of PSPICE and how to use it to simulate analog circuits. It describes the different types of input files for PSPICE, how to define circuit components and models, and the various analysis statements like .OP, .DC, .AC, and .TRAN to set up DC operating point, DC sweep, AC, and transient analyses respectively. It also covers topics like subcircuits, semiconductor device models, and scale factors for numbers in PSPICE.
This document provides lecture notes on MOS design equations and parameters. It includes:
- MOS transistor symbol definitions and varieties
- Support equations for threshold voltage, subthreshold slope, gate overdrive voltage, velocity saturation, drain current factor, channel length modulation, and thermal voltage
- Current equations for strong, weak, and moderate inversion regions
- Sample MOSFET parameters for 0.35μm and 0.18μm processes
- Problems involving calculating small signal parameters, voltage gain, and transistor sizing for different circuits like common source amplifiers, NAND gates, and current mirrors.
The document discusses AC to DC converters and controlled rectifiers. It covers single-phase and three-phase controlled rectifiers with resistive, inductive, and EMF loads. Key points include: analyzing power electronic circuits by considering different linear circuit states; current waveforms depending on load type; average output voltage and current equations; and thyristor voltages and transformer currents depending on firing angle.
Lecture slides Ist & 2nd Order Circuits[282].pdfsami717280
- The document discusses first-order differential circuits that contain a single storage element like a capacitor or inductor. It describes how to analyze such circuits by examining their behavior over time after a switch opens or closes.
- The time constant, represented by tau (τ), is defined as the time required for the storing element in a circuit to charge. Common time constants include L/R for inductors and RC for capacitors.
- Differential equations can be used to model first-order circuits and solutions involve finding the particular integral and complementary solutions based on initial conditions.
The document provides an overview of PN junctions and CMOS transistors. It begins by describing how PN junctions are used in CMOS, including as diodes, ESD protection, and depletion capacitors. It then discusses the components and characteristics of abrupt and graded PN junctions, including depletion regions, capacitance, and forward/reverse bias behavior. The document also covers MOS transistors, including enhancement/depletion modes, weak inversion, and layout considerations. Key concepts are graphical representations of PN junction characteristics and the factors that determine MOS transistor threshold voltage.
Original Mosfet F3205S 3205 IRF3205S IRF3205 55V 110A D2Pak NewAUTHELECTRONIC
This document provides information on IRF3205 power MOSFETs from International Rectifier. It summarizes the key specifications and performance characteristics of the MOSFETs, including an on-resistance of 8.0 mOhms, a continuous drain current of 110A, and an operating junction temperature range of -55°C to +175°C. The document also provides the package details, electrical characteristics, and test conditions/diagrams to evaluate the switching performance and safe operating area of the devices.
Vlsi DEsign with buck-boost converter using Matlab Simulink software.pptNikhilKumarJaiswal2
This document contains 21 questions related to CMOS logic circuit design. The questions cover topics such as calculating output voltages and transistor states for various CMOS inverter, NAND, and NOR gate circuits given different input conditions and transistor parameters. They also include questions about designing CMOS circuits to implement specific logic functions without inverters and analyzing pass transistor logic circuits.
1. The document describes the process of load flow analysis using the Newton-Raphson power flow method.
2. The Newton-Raphson power flow method uses Newton's method to solve the nonlinear power balance equations to determine the voltage magnitude and angle at each bus in the power system.
3. It derives the real and reactive power balance equations, defines the power flow variables, describes calculating the Jacobian matrix and its elements, and provides an example of applying the method to a two bus system to solve for the unknown voltage magnitude and angle at the second bus.
This document contains 16 questions related to diode circuits and rectifiers. The questions cover topics such as:
1) Calculating the minimum load resistance needed to limit ripple voltage to a specified value for a half wave rectifier.
2) Determining the required filter capacitor value to prevent the output voltage of a full wave rectifier from dropping below a specified level.
3) Drawing output voltage waveforms for various rectifier circuits given input voltage waveforms and specifications about diode cut-in voltages and time constants.
4) Plotting output voltage and current versus input voltage or time for circuits containing diodes with specified piecewise linear parameters.
5) Calculating output voltages, currents, and required capacitor values
This document summarizes charged pion production measurements from the T2K experiment. It discusses the need to understand pion production for T2K's oscillation analysis and as a background. It then presents recent T2K measurements of charged-current single pion production, including production in water targets using the ND280 detector and production in carbon targets using both ND280 and INGRID. The water results show suppression compared to predictions in specific kinematic regions.
This document discusses power flow analysis and the Newton-Raphson power flow method. It provides details on setting up the power flow problem, including defining the power balance equations in terms of real and reactive power. It also describes calculating the Jacobian matrix and differentiating the power flow equations to populate the matrix. An example power flow case is presented on a two bus system to illustrate applying the Newton-Raphson method through multiple iterations to solve for the voltage magnitude and angle.
This document summarizes the principles and design of temperature stable voltage references. It discusses how to generate voltages with positive temperature coefficients (PTAT) and negative temperature coefficients (CTAT) using diodes and resistors. The key principle is that a temperature independent reference voltage can be achieved by cancelling a PTAT voltage with a CTAT voltage using the appropriate ratio of resistor values. Two common configurations - series and parallel - are presented along with examples of calculating resistor ratios to achieve temperature independence.
Original P Channel Mosfet IRF9Z34 IRF9Z34N IRF9Z34NPBF 9Z34 60V 18A TO 220 NewAUTHELECTRONIC
Original P Channel Mosfet IRF9Z34 IRF9Z34N IRF9Z34NPBF 9Z34 60V 18A TO 220 New
https://authelectronic.com/original-p-channel-mosfet-irf9z34-irf9z34n-irf9z34npbf-9z34-60v-18a-to-220-new
Waveguiding Structures Part 2 (Attenuation).pptxPawanKumar391848
1. The document discusses attenuation in waveguiding structures due to dielectric loss and conductor loss. It provides expressions for calculating the attenuation constant for these two loss mechanisms.
2. It defines the surface resistance of a conductor and derives an expression for it based on the material conductivity and frequency. The surface resistance is related to an effective surface current density.
3. Approximations are made to calculate the dielectric attenuation constant for the TEM mode and general waveguide modes based on assuming small dielectric losses. Expressions for the attenuation constants are provided.
Original Transistor 2SC2026-Y KTC2026 C2026 3A 60V TO-220 New KECAUTHELECTRONIC
This document provides technical specifications for the KTC2026 epitaxial planar NPN transistor. It includes:
- Maximum ratings for voltage, current, power and temperature.
- Electrical characteristics like gain, saturation voltage, cutoff current.
- Graphs of current vs voltage and power dissipation vs temperature under different conditions.
- Safe operating area curves showing maximum pulsed and continuous collector current limits.
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ISO/IEC 27001, ISO/IEC 42001, and GDPR: Best Practices for Implementation and...PECB
Denis is a dynamic and results-driven Chief Information Officer (CIO) with a distinguished career spanning information systems analysis and technical project management. With a proven track record of spearheading the design and delivery of cutting-edge Information Management solutions, he has consistently elevated business operations, streamlined reporting functions, and maximized process efficiency.
Certified as an ISO/IEC 27001: Information Security Management Systems (ISMS) Lead Implementer, Data Protection Officer, and Cyber Risks Analyst, Denis brings a heightened focus on data security, privacy, and cyber resilience to every endeavor.
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The temple and the sanctuary around were dedicated to Asklepios Zmidrenus. This name has been known since 1875 when an inscription dedicated to him was discovered in Rome. The inscription is dated in 227 AD and was left by soldiers originating from the city of Philippopolis (modern Plovdiv).
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Strategies for Effective Upskilling is a presentation by Chinwendu Peace in a Your Skill Boost Masterclass organisation by the Excellence Foundation for South Sudan on 08th and 09th June 2024 from 1 PM to 3 PM on each day.
LAND USE LAND COVER AND NDVI OF MIRZAPUR DISTRICT, UPRAHUL
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The utilization of land is impacted by human needs and environmental factors. In countries
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9
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This document provides an overview of wound healing, its functions, stages, mechanisms, factors affecting it, and complications.
A wound is a break in the integrity of the skin or tissues, which may be associated with disruption of the structure and function.
Healing is the body’s response to injury in an attempt to restore normal structure and functions.
Healing can occur in two ways: Regeneration and Repair
There are 4 phases of wound healing: hemostasis, inflammation, proliferation, and remodeling. This document also describes the mechanism of wound healing. Factors that affect healing include infection, uncontrolled diabetes, poor nutrition, age, anemia, the presence of foreign bodies, etc.
Complications of wound healing like infection, hyperpigmentation of scar, contractures, and keloid formation.
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Chapter wise All Notes of First year Basic Civil Engineering.pptxDenish Jangid
Chapter wise All Notes of First year Basic Civil Engineering
Syllabus
Chapter-1
Introduction to objective, scope and outcome the subject
Chapter 2
Introduction: Scope and Specialization of Civil Engineering, Role of civil Engineer in Society, Impact of infrastructural development on economy of country.
Chapter 3
Surveying: Object Principles & Types of Surveying; Site Plans, Plans & Maps; Scales & Unit of different Measurements.
Linear Measurements: Instruments used. Linear Measurement by Tape, Ranging out Survey Lines and overcoming Obstructions; Measurements on sloping ground; Tape corrections, conventional symbols. Angular Measurements: Instruments used; Introduction to Compass Surveying, Bearings and Longitude & Latitude of a Line, Introduction to total station.
Levelling: Instrument used Object of levelling, Methods of levelling in brief, and Contour maps.
Chapter 4
Buildings: Selection of site for Buildings, Layout of Building Plan, Types of buildings, Plinth area, carpet area, floor space index, Introduction to building byelaws, concept of sun light & ventilation. Components of Buildings & their functions, Basic concept of R.C.C., Introduction to types of foundation
Chapter 5
Transportation: Introduction to Transportation Engineering; Traffic and Road Safety: Types and Characteristics of Various Modes of Transportation; Various Road Traffic Signs, Causes of Accidents and Road Safety Measures.
Chapter 6
Environmental Engineering: Environmental Pollution, Environmental Acts and Regulations, Functional Concepts of Ecology, Basics of Species, Biodiversity, Ecosystem, Hydrological Cycle; Chemical Cycles: Carbon, Nitrogen & Phosphorus; Energy Flow in Ecosystems.
Water Pollution: Water Quality standards, Introduction to Treatment & Disposal of Waste Water. Reuse and Saving of Water, Rain Water Harvesting. Solid Waste Management: Classification of Solid Waste, Collection, Transportation and Disposal of Solid. Recycling of Solid Waste: Energy Recovery, Sanitary Landfill, On-Site Sanitation. Air & Noise Pollution: Primary and Secondary air pollutants, Harmful effects of Air Pollution, Control of Air Pollution. . Noise Pollution Harmful Effects of noise pollution, control of noise pollution, Global warming & Climate Change, Ozone depletion, Greenhouse effect
Text Books:
1. Palancharmy, Basic Civil Engineering, McGraw Hill publishers.
2. Satheesh Gopi, Basic Civil Engineering, Pearson Publishers.
3. Ketki Rangwala Dalal, Essentials of Civil Engineering, Charotar Publishing House.
4. BCP, Surveying volume 1
Beyond Degrees - Empowering the Workforce in the Context of Skills-First.pptxEduSkills OECD
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Film vocab for eal 3 students: Australia the movie
Solutions manual for cmos digital integrated circuits analysis and design 4th edition by kang
1. A
F
t
SOLUTIONS MANUAL for CMOS Digital Integrated Circuits
Analysis and Design 4th Edition by Kang
Full download:
http://downloadlink.org/p/solutions-manual-for-cmos-digital-
integrated-circuits-analysis-and-design-4th-edition-by-kang/
Exercise Problems
3.1 Consider a MOS system with the following parameters:
tox 1.6nm
GC
1.04V
N =2.8 1018
cm -3
QOX
q4 1010
C/cm 2
a. Determine the threshold voltage VT0 under zero bias at room temperature (T = 300 K).
Note that ox 3.970 and si 11.70 .
SOLUTION :
First, calculate the Fermi potentials for the p-type substrate and for the n-type polysilicon gate:
kT n 1.451010
(substrate) ln i
0.026V ln 0.49V
q NA 2.81018
The depletion region charge density at VSB
= 0 is found as follows:
QB0
2 q NA Si 2F (substrate)
21.61019
(2.81018
)11.7 8.851014
2 0.49
9.53107
C/cm2
The oxide-interface charge is:
Q q N 1.61019
C 41010
cm-2
6.4109
C/cm2
ox ox
The gate oxide capacitance per unit area is calculated using the dielectric constant of silicon dioxide and
the oxide thickness tox.
3.97 8.851014
F/cm
C ox
2.2106
F/cm2
ox
ox 1.6107
cm
Now, we can combine all components and calculate the threshold voltage.
VT 0 GC 2
F (substrate)
QB0 Qox
Cox Cox
1.04 (0.98) (0.53) (0.03) 0.44V
b. Determine the type (p-type or n-type) and amount of channel implant (NI/cm2
) required to change the
threshold voltage to 0.6V
2. D
A
n
SOLUTION :
p-type implanted needed in the amount of:
V 0.6 VT0 0.6 0.44 1.04
qNI
Cox
1.04C 1.04 2.2106
N ox
1.431013
cm-2
I
q 1.61019
3.2 Consider a diffusion area that has the dimensions 0.4m 0.2m and the abrupt junction depth is
32 nm . Its n-type impurity doping level is N =21020
cm-3
and the surrounding p-type substrate doping
level is N =21020
cm-3
. Determine the capacitance when the diffusion area is biased at 1.2V and
substrate is biased at 0V. In this problem, assume that there is no channel-stop implant.
SOLUTION :
C (V) A
si q NA ND 1
j
2 N N
VA D 0
kT
0
q
ln
N A ND
2
i
0.026ln
21020
21020
(1.451010
)2
1.21
A 0.2 0.4 20.2 0.032 20.4 0.032 1.18109
[cm2
]
14 19 40
C (V) 1.18109 11.7 8.85410 1.610 410 1
j
2
2.181015
[F]
41020
1.21 1.2
3.3 Describe the relationship between the mask channel length, LM, and the electrical channel length, L.
Are they identical? If not, how would you express L in terms of LM and other parameters?
SOLUTION :
The electrical channel length is related to the mask channel length by:
L LM 2LD
Where LD is the lateral diffusion length.
3. D
A
3.4 How is the device junction temperature affected by the power dissipation of the chip and its package?
Can you describe the relationship between the device junction temperature, ambient temperature, chip
power dissipation and the packaging quality?
SOLUTION :
The device junction temperature at operating condition is given as Tj Ta Pdiss , where Ta is the ambient
temperature; Pdiss is the power dissipated in the chip; is the thermal resistance of the packaging. A cheap
package will have high which will result in large and possibly damaging junction temperature. Thus the
choice of packaging must be such that it is both economic and pretective of the device.
3.5 Describe the three components of the load capacitance Cload , where a logic gate is driving other fanout
gates.
SOLUTION :
The three major components of the load capacitance are interconnect capacitance, the next stage input
capacitance, i.e., the gate capacitance and the drain parasitic capacitances of the current stage.
3.6 Consider a layout of an nMOS transistor shown in Fig. P3.6.
The process parameters are:
N 21020
cm3
N 21020
cm3
X j 32nm
LD 10nm tox
1.6nm VT 0
0.53V
Channelstopdoping16.0( p typesubstratedoping )
Find the effective drain parasitic capacitance when the drain node voltage changes from 1.2V to 0.6V.
4. GND
n+
Output
n+
i
N
Y=6μm
Wn =10μm
Figure P3.6
SOLUTION :
kT N N 21020
21020
0 ln
q
A D
0.026ln
n 2
(1.451010
)2 1.21
i
kT N '
N 16 21020
21020
ln A D
0.026ln 2.31osw
q n 2
(1.451010
)2
C si q NA ND 1
j0
2 N NA D 0
14 19 20
11.7 8.85410 1.610 10
2.61106
[F/cm2
]
21.21
q N '
N 1
C si A D
josw
2 N '
A D osw
14 19 20
11.7 8.85410 1.610 1.8810
2.59106
[F/cm2
]
2 2.31
5. VGS
(V) VDS
(V) VSB
(V) ID
(
0.6 0.6 0.0 6
0.65 0.6 0.0 12
0.9 1.2 0.3 44
1.2 1.2 0.3 156
Cjsw X jCjosw
32109
2.59106
0.083[pF/cm]
A Y W 610 60[m2
]
P 2(Y W) 2(6 10) 32[m]
0 5
0 2.5
Keq 2 0
5 2.5
5.8967 3.3967
2 0.8967 0.44
2.5
K '
2
5 2.5
0 0
eq 0
5 2.5
5.8967 3.3967
2 0.8967 0.44
2.5
Cdrain Keq Cj0 A Keq'Cjsw P
0.44 9.6109
60108
0.461.8471012
32104
5.25[ fF]
3.7 A set of I-V characteristics for an nMOS transistor at room temperature is shown for different
biasing conditions. Figure P3.7 shows the measurement setup.
Using the data, find : (a) the threshold voltage VT0
and, (b) velocity saturation vsat
.
Some of the parameters are given as: W=0.6m, EcL=0.4 V, , tox
= 16 Å, |2F
| = 1.1 V.
A)
6. T 0
ox 4
t
0 V ID
VDS
VGS VSB
Figure P3.7
SOLUTION :
(a)
First, the MOS transistor is on (ID
> 0) for VGS
> 0 and VDS
> 0. Thus, the transistor must be an n-
channel MOSFET. Assume that the transistor is enhancement-type and, therefore, operating mode.
(V V )2
I W v C GS T
(1 V )D sat ox
(V V ) E L
DS
GS T c
When VGS and VT are similar, velocity saturation terms are neglected.
Let (V , I ) and (V , I ) be any two current-voltage pairs obtained from the table. Then, the VGS1 D1 GS2 D2 T0,
can be calculated.
I (V V )2
6A
0.65V 0.6V
12AD1 GS1 T 0
V 0.48V
(b)
ID2 (VGS 2 V )2 T 0
6A
1
12A
Find velocity saturation
C
3.9 8.851014
21610 F / mox
ox 0.16108
(V V )2
I W v C GS T
(1 V )D sat ox
(V V ) E L
DS
GS T c
2
12 0.6106
v sat
216106 0.17
(1 0.05 0.6)
0.17 0.4
vsat 1.06106
m / s
3.8 Compare the two technology scaling methods, namely, (1) the constant electric field scaling and (2) the
constant power supply voltage scaling. In particular, show analytically by using equations how the delay
7. Const.E field Const.VDD
W, L,tox 1/ S 1/ S
VDD 1/ S 1
Cox S S
C CoxWL 1/ S 1/ S
kn ,kp S S
IDD 1/ S S
t
CV IDD
1/ S 1/ S2
Power IDDVDD 1/ S2
S
Powerdensity
Power
Area
1 S3
ox
20
D D
F
t
time, power dissipation, and power density are affected in terms of the scaling factor, S. To be more
specific, what would happen if the design rules change from, say, 1 μm to 1/S μm (S>1)?
SOLUTION :
delay
3.9 A pMOS transistor was fabricated on an n-type substrate with a bulk doping density of
N 11016
cm3
, gate doping density (n-type poly) of N 1020
cm3
, Q / q 41010
cm2
,
and gate oxide thickness of tox 1.6nm . Calculate the threshold voltage at room temperature for VSB=0.
Use si 11.70
SOLUTION :
kT N 11016
(substrate) ln D,sub
0.026ln 0.348[V]
q ni 1.451010
F (gate)
kT
ln
ND, poly
q n
0.026ln
110
1.451010
0.587[V]
i
GC F (substrate) F (gate) 0.348 0.587 0.239[V]
3.9 8.851014
C ox
3.45108
[F / cm2
]ox
ox 0.1104
8. F
QB0 2qND,sub si 2F
21.61019
1016
11.7 8.851014
2 0.348
4.8108
[C / cm2
]
VT 0 GC 2F
QB0 Qox
Cox Cox
4.8108
41010
1.61019
0.239 2 0.348
3.45108
3.45108
2.51[V]
3.10 Using the parameters given, calculate the current through two nMOS transistors in series (see Fig.
P3.11), when the drain of the top transistor is tied to VDD
, the source of the bottom transistor is tied
to VSS
= 0 and their gates are tied to VDD
. The substrate is also tied to VSS
= 0 V. Assume that W/L =
10 for both transistors and L=4m.
k' = 168 A/V2
VT0
= 0.48 V
= 0.52 V1/2
|2 | = 1.01 V
Hint : The solution requires several iterations, and the body effect on threshold voltage has to be taken
into account. Start with the KCL equation.
1 V
+1 V
ID= ?
Figure P3.10
SOLUTION :
9.
18
20
10
1 V
+1 V
ID= ?
Vx
Figure P3.10
Since gate voltage is high, the midpoint Vx is expected to be low. Therefore, the load is in saturation and
the driver is in linear region. From KCL
1
k '
W
1 V
ID ID,driver ID,load
V (V )
2 1
k '
W
21 V V V 2
2 L
x T ,L x
2 L
T 0 x x
Using the following two equations to iterate find the solution.
1 V V (V )
2
1.04V V 2
x T ,L x x x
VT ,L (Vx ) 0.48 0.52 1.01 Vx 1.01
The intermediate values are listed in the table:
VT,L(Vx) Vx
0.480 0.1523
0.518 0.1337
0.513 0.1359
0.514 0.1357
0.514 0.1357
I
1
k '
W
(1.04V V 2
) 0.516810 1.04 0.1357 0.13572
103.1[A]D
2 L
x x
3.11 The following parameters are given for an nMOS process:
tox
= 16 Å
substrate doping NA
= 4·10 cm-3
polysilicon gate doping ND
= 2·10 cm-3
oxide-interface fixed-charge density Nox
= 2·10 cm-3
(a) Calculate VT
for an unimplanted transistor.
(b) What type and what concentration of impurities must be implanted
to achieve VT
= + 0.6 V and VT
= – 0.6 V ?
10.
F
t
SOLUTION :
(a) For unimplanted transistor,
kT n 1.451010
(substrate) ln i
0.026V ln 0.51V
q NA 41018
( )
kT
ln
ND, poly
21020
0.026V ln 0.61V
F gate
q
ni
1.451010
GC F (substrate) F (gate) 0.51V 0.61V 1.12V
QB0
2 q NA Si 2F (substrate)
21.61019
(41018
)11.7 8.851014
2 0.51
1.16106
C/cm2
14
C ox 3.97 8.8510 F/cm
2.2106
F/cm2
ox
ox 1.6107
cm
VT 0 GC
2F (substrate)
QB0 Qox
Cox Cox
(b) For VT= 2V;
1.06 (1.12) (0.53) (0.03) 0.56V
V 2 V
QII
T T 0
C
0.56
QII
C
ox ox
Negative charges needed in this case, so it must be p-type implant in the amount of
QII qNI (VT VT 0 )Cox
2.2106
N (2 0.56) 1.981013
cm3
I
1.61019
For VT=-2V, positive charges need, must be n-type implant,
6
N (2 0.56)
2.210
3.521013
cm3
I
1.61019
3.12 Using the measured data given, determine the device parameters VT0
, k, , andassuming F
= –
1.1 V and L=4m.
VGS
(V) VDS
(V) VBS
(V) ID
(A)
0.6 0.8 0 8
0.8 0.8 0 59
0.8 0.8 -0.3 37
SOLUTION :
0.8 1.0 0 60
11. 18
20
Because the given device is a long channel device, when VDS≥VGS, the transistor operates in s
aturation region, therefore
I
k
V V
2
1 V
a) Find
DSAT
2
GS T DS
IDSAT Row4 1VDS Row4 1 60
IDSAT Row2 1 VDS Row2
0.09 V 1
1 0.8 59
b) Find V
I Row2 0.8 V
2
DSAT T 0
I Row1 0.6 V
2
c) Find k:
From Row2 data,
DSAT T 0
VT0=0.48V
59
k
0.8 0.48
2
1 0.09 0.8
2
k 1.08mA/V2
d) Find :
From Row3 data,
37
1075
0.8 V (V 0.3)
2
1 0.09 0.8
2
T BS
VT (VBS 0.3) 0.55V
0.55 0.48 0.3 1.1 1.1
0.52V1/2
3.13 Using the design rules specified in Chapter 2, sketch a simple layout of an
nMOS transistor on grid paper. Use a minimum feature size of 60 nm. Neglect
the substrate connection. After you complete the layout, calculate approximate
values for Cg
, Csb
, and Cdb
. The following parameters are given.
Substrate doping NA
= 4·10 cm-3
Junction depth = 32 nm
Drain/source doping ND
= 2·10 cm-3
Sidewall doping = 4·109
cm-3
W = 300 nm Drain bias = 0 V
L = 60 nm
tox
= 1.6 nm
12. t
SOLUTION :
Because the drain bias is equal to 0V, there is no current in the device.
First of all, Cox is calculated like below:
3.97 8.851014
F/cm
C ox
2.2106
F/cm2
ox
ox 1.6107
cm
So total gate capacitance Cg is
Cg Cgb Cgd Cgs
CoxWL CoxWLD CoxWLD
CoxWL(totallength )
2.2102
F/m2
300109
m 60109
m
0.396fF
kT N N 41018
21020
0
q
ln A D
0.026V ln
n 2 2.1 1020
1.11V
i
kT N (sw) N 4109
21020
0sw
q
ln A D
0.026V ln
n 2 2.1 1020
0.57V
i
13.
jsw j0sw j
F
Cj0
Si q NA ND 1
2 NA ND 0
11.7 8.851014
F/cm1.61019
41018
21020
1
2
54.1108
F/cm2
41018
21020
1.11V
Cj0sw
Si q NA ND 1
2 NA ND 0
11.7 8.851014
F/cm1.61019
4109
21020
1
2
24.11012
F/cm2
4109
21020
0.57V
The zero-bias sidewall junction capacitance per unit length can also be found as follows.
C C x 24.11012
F/cm2
32107
cm 77.15aF/cm
The total area of the n+/p junctions is calculated as the sum of the bottom area and the sidewall area facing
the channel region.
A (0.3 0.15)m2
(0.15 0.032)m2
0.05m2
P 2 0.3 m 0.15m 0.75m
Cdb A Cj0 P Cjsw
0.05108
cm2
54.1108
F/cm2
0.75104
cm 77.21018
F/cm 0.2711015
F
0.271fF Csb
3.14 An enhancement-type nMOS transistor has the following parameters:
VT0
= 0.48 V
= 0.52 V1/2
= 0.05 V-1
|2 | = 1.01 V
k' = 168 A/V2
(a) When the transistor is biased with VG
= 0.6 V, VD
= 0.22 V, VS
= 0.2 V,
and VB
= 0 V, the drain current is ID
= 24A. Determine W/L.
(b) Calculate ID
for VG
= 1 V, VD
= 0.8 V, VS
= 0.4 V, and VB
= 0 V.
(c) If n = 76.3 cm2/V·s and Cg = Cox·W·L = 1.0 x 10-15 F, find W and L.
SOLUTION :
14. 15
(a) For enhancement transistor and VT0 > 0, it must be nMOS.
VT VT 0 2F VSB 2F
0.48 0.52 1.01 0.2 1.01 0.529V
VDS 4 VGS VT 0.6 0.52 0.08
nMOS transistor is in saturation.
I sat
k
V V
2
1 VD
2
GS T DS
W 2ID (sat)
L k 'V V
2
1 V
(b)
GS T DS
2 24106
42.92
168106
0.082
1 0.05 0.8
VT VT 0 2F VSB 2F
0.48 0.52 1.01 0.4 1.01 0.575V
VDS 0.02 VGS VT 0.6 0.575 0.025
nMOS transistor is in linear region.
I (lin.)
k ' W
2V V V V 2
1 VD
2 L GS T DS DS DS
(c)
84106
42.92
2.16 A
2 0.025 0.02 0.022 1 0.05 0.02
k ' 168106
C 2.2106
F/cm2
ox
n 76.3
L
Cg 10
4.5 10 8
F/cm2
W
Cox
W
42.92
2.2106
L
Solve for W and L,
W 14.2m
L 0.33m
3.15 An nMOS transistor is fabricated with the following physical parameters:
N = 2.4·1018 cm-3
D
15.
A D
2
j
j
j
N (substrate) = 2.4·1018 cm-3
A
+
N (chan. stop) = 1019 cm-3
A
W =400 nm
Y = 175 nm
L = 60 nm
L = 0.01 mD
X = 32 nmj
(a) Determine the drain diffusion capacitance for VDB
= 1.2 V and 0.6 V.
(b) Calculate the overlap capacitance between gate and drain for an
oxide thickness of tox = 18 Å.
SOLUTION :
(a)
kT N N 2.41018
2.41018
0 ln A D
0.026V ln
20
984mV
q
Cj0
ni 2.110
Si q NA ND 1
2 NA ND 0
11.7 8.851014
F/cm 1.61019
2.41018
2.41018
1
2
31.8108
F/cm2
A W Y W X j
2.41018
2.41018
0.4 0.175 0.4 0.32 0.198 m2
A C
984mV
C V
j0
1
V
0
8 8
C 1.2
0.19810 31.810
0.4231015
F
1
1.2
0.984
8 8
C 0.6
0.19810 31.810
0.4961015
F
1
0.6
0.984
For sidewall capacitance calculation,
kT N swN 1019
2.41018
ln 0.026V ln 1.02 Vosw
q n 2
2.11020
i
16.
15
t
Cjosw
Si q NA swND 1
2 NA sw ND osw
11.7 8.851014
F/cm1.61019
2.41018
1019
1
2
39.6108
F/cm2
2.41018
1019
1.02V
P X C 2175 400107
32107
39.6108
Cjsw (V )
j josw
1
V
osw
1.771014
F
1
V
osw
1
V
osw
14
Cjsw
Cjsw
(1.2V )
1.7710
121015
F
1
1.2
1.02
1.771014
(0.6V ) 1410 F
1
0.6
1.02
Cdb
Cdb
1.2V Cj 1.2V Cjsw 1.2V 0.423 12 12.423 fF
0.6V Cj 0.6V Cjsw 0.6V 0.496 39.6 40.096 fF
(b)
3.9 8.851014
C ox
1.92106
F / cm3
ox
ox 18108
C C W L 1.92106
400107
0.01104
0.077 fFgd ox D
SOLUTIONS MANUAL for CMOS Digital Integrated Circuits
Analysis and Design 4th Edition by Kang
Full download:
http://downloadlink.org/p/solutions-manual-for-cmos-digital-
integrated-circuits-analysis-and-design-4th-edition-by-kang/
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