Piero Belforte, HDT 1999: PRESTO Modeling Alessandro Arnulfo R&D Application Engineer.

Slides:



Advertisements
Similar presentations
Memory Section 7.2. Types of Memories Definitions – Write: store new information into memory – Read: transfer stored information out of memory Random-Access.
Advertisements

High efficiency Power amplifier design for mm-Wave
Experiment #2: Introduction to Logic Functions and their Gate-Level Hardware Implementations CPE 169 Digital Design Laboratory.
Special Projects on Control Topic : MATLAB Simulink.
An amplifier with a transistor that conducts during the entire 360º of the input signal cycle. Optimum class A operation is obtained by designing an amplifier.
An Inverting Amplifier. Op Amp Equivalent Circuit The differential voltage v d = v 2 – v 1 A is the open-loop voltage gain v2v2 v1v1 An op amp can be.
ST14 CODEC – IR/RF Remote Control Encoder/Decoder IC
Layout Considerations of Non-Isolated Switching Mode Power Supply
EE130/230M Review Session 1.Small Signal Models for MOSFET/BJT 2.MOS Electrostatics.
Behavioral Buffer Modeling with HSPICE – Intel Buffer
Signality System Engineering Co., LTD. Signality System Engineering Co., LTD. 訊利電業股份有限公司 SanCode 100/256 Test System High Speed System Interface TX / RX.
CHAPTER HARDWARE CONNECTION. Pin Description 8051 family members ◦ e.g., 8751, 89C51, 89C52, DS89C4x0) ◦ Have 40 pins dedicated for various functions.
 Most of today’s SSIs are cased in DIPs, or dual-in-line packages. Each pin corresponds to a number, with pin number 1 can be as found in the drawing.
Basic Logic Functions Defined with Truth Tables AND OR Complement ABF ABF AF
MOTORS. Definition Of Motor That powered by electricity or internal combustion, that supplies motive power for a vehicle or for some other device. A device.
Validation of EIAJ IMIC Models Raj Raghuram Applied Simulation Technology IBIS Summit Dec. 7, 1998.
ABE425 Engineering Measurement Systems Electronic Parts Dr. Tony E. Grift Dept. of Agricultural & Biological Engineering University of Illinois.
Electrical Characteristics of IC’s Part 2
Physical Properties of Logic Devices Technician Series Created Mar
Boolsk algebra. Logiske funktioner i Peel PEEL 18CV8 logic diagram.
親愛的吉姆舅舅: 今天吃完晚餐後,奶奶說,在家 裡情況變好以前,您要我搬到城裡跟 您住。奶奶有沒有跟您說,爸爸已經 好久沒有工作,也好久沒有人請媽媽 做衣服了? 我們聽完都哭了,連爸爸也哭了, 但是媽媽說了一個故事讓我們又笑了。 她說:您們小的時候,她曾經被您追 得爬到樹上去,真的嗎? 雖然我個子小,但是我很強壯,
Waveform 1.1 Basic Digital Waveform Parameters 1 Paul Godin Updated December 2014.
HIGH VOLTAGE DC BY MARX GENERATOR PRINCIPLES
Penn ESE370 Fall DeHon 1 ESE370: Circuit-Level Modeling, Design, and Optimization for Digital Systems Day 8: September 21, 2012 Delay and RC Response.
Lab 3 Slide 1 PYKC 19 May 2016 EA1.3 - Electronics Laboratory Experiment 3 Operational Amplifiers Peter Cheung Department of Electrical & Electronic Engineering.
Piero Belforte, HDT High Design Technology presentation by Alessandro Arnulfo (1998).
Piero Belforte, HDT Signal Integrity & EMC
Piero Belforte, HDT DYNAMIC MODELING Emmanuel Leroux, Sergio G. Rocco THOMSON-DASSAULT MODELING MEETING DAY 25.
Piero Belforte, HDT-CSELT: TECHNIQUES DE MODELISATION POUR LES COMPOSANTS ACTIFS E. Leroux, R. Ene F. Maggioni CEM COMPO 99 - TOULOUSE - 14, 15 Janvier 1999.
Piero Belforte, HDT GENERAL OVERVIEW by Emmanuel LEROUX Chief Application Engineer 1999.
Piero Belforte, HDT 1998 :DWS Digital Wave Simulator.
Piero Belforte, HDT 1998: Digital and Analog signals,New Trends, Clock Speed, Buses.
Piero Belforte, HDT 1998: Technology Evolution. Digital signal Problems, Single net Multiple net Reflections, EMC radiation, Stub ringing Jitter, Losses, Crosstalk, SSN, Power supply distribution by Flavio Maggioni.
Piero Belforte, HDT May 1999: MOD_ENV 3.2 Training Course Version 1.0 By Carla Giachino.
Piero Belforte, HDT May 1999: PRESTO 3.2 Training Course Version 1.0 by Flavio Maggioni.
Piero Belforte, HDT 1999: PRESTO POWER by Alessandro Arnulfo.
High Speed Properties of Digital Gates, Copyright F. Canavero, R. Fantino Licensed to HDT - High Design Technology
Piero Belforte, HDT 1999: Modeling for EMC and High Frequency Devices, DAC 1999,New Orleans USA.
Piero Belforte, HDT 1998: Advanced Simulation and Modeling for Electronic System Hardware Design Part2 .
Piero Belforte, HDT, July 2000: MERITA Methodology to Evaluate Radiation in Information Technology Application, methodologies and software solutions by Carla Giachino,
RASH DRIVING WARNING SYSTEM FOR HIGHWAY POLICE
Chapter 5 Combinational Logic 组合逻辑
Digital Fundamentals Floyd Chapter 3 Tenth Edition
BP560X System Application Notes
HIDDEN ACTIVE CELL PHONE DETECTOR
Dept. of Electrical and Computer Eng., NCTU
8051 Pin - out PORT 0 PORT 1 PORT 2 PORT 3.
OVER VOLTAGE OR UNDER VOLTAGE
LOAD CUTOFF SWITCH UPON OVER VOLTAGE OR UNDER VOLTAGE
MARX GENERATOR BASED HIGH VOLTAGE USING MOSFETs
REMOTE JAMMING DEVICE.
Engr. Micaela Renee Bernardo
Digital Fundamentals Floyd Chapter 3 Tenth Edition
Lecture 6: TI MSP430 IO Interfacing
Serial Communication: RS-232 (IEEE Standard)
Topics Off-chip connections..
DC Motor and Stepper Controller
More about DesignWorks
Fanout Clock Skew Lab Exercise
Digital Fundamentals Floyd Chapter 3 Tenth Edition
Tri-state Buffers and Drivers By Taweesak Reungpeerakul
Data Distribution Board
Michael McGrath Simple DC Motor Michael McGrath
74LS245: 3-State Octal Bus Transceiver
Part of knowledge base of fuzzy logic expert system for exercise control of diabetics
CHAPTER HARDWARE CONNECTION.
Improved study of the cells
DC-20KHz Driver for NanoSpeedTM VOA (patents pending)
Arithmatic Logic Unit (ALU). ALU Input Data :  A0-A3  B0-B3 Output Data :  F0 – F3.
Lecture 1: Logic Gates & Analog Behavior of Digital Systems
Presentation transcript:

1 PRESTO Modeling Alessandro Arnulfo R&D Application Engineer

2 PRESTO Modeling

3

4

5 CMOS Driver PRESTO Modeling

6

7

8

9

10 FILE_TYPE=HDT_PLIB; TIME=Fri May 31 11:19: COMPONENT=ACT240; FAMILY=DEFAULT; PACKAGE=DEFAULT,DIP20,SOIC20,PLCC20; FACTORY=DEFAULT; TYPE= IC; NPINS=20; BEGIN_PIN FACT_RCT_P=1,2,3,4,5,6,7,8,9,11,12,13,14,15,16,17,18,19; FACT_3S24_P=3,5,7,9,12,14,16,18; FACT_GND_P=10; FACT_VCC_P=20; END_PIN; BEGIN_FUNCTION RECEIVER=1,2,4,6,8,11,13,15,17,19; 3STATE=3,5,7,9,12,14,16,18; POWER=10,20; END_FUNCTION; BEGIN_POWER GND1=10,ALL; POW1=20,ALL; END_POWER; BEGIN_CLASS DEFAULTCMOS=1,2,3,4,5,6,7,8,9,11,12,13,14,15,16,17,18,19; DEFAULTGND=10; DEFAULTVCC=20; END_CLASS; BEGIN_DR_LIST FACT_3S24_P; END_DR_LIST; END. S_MODEL = PACKAGE; DESCRIPTION = DIP16 pin; BEGIN_SUBCKT ************** DIP16 model ****.SUBCKT DIP * 1=input, output=2, LR model, date:13 Jan 1993 R L N L N.ENDS DIP16 ************ END_SUBCKT PRESTO Modeling

11 S_MODEL = 3STATE; DESCRIPTION = FACT 3-state 24mA driver ; RISE_DRVR_DELAY= 1.25 ; FALL_DRVR_DELAY= 1.25 ; BEGIN_SUBCKT *************** FACT 3STATE MODEL *********** * creation date: 19 Jan 1993 * * maximum simulation time step: 100ps * recommended simulation time step <= 50ps * ideal logic input stimulus (0 1) *********************************************.SUBCKT FACT_3S * in out VCC GND * output capacitance COUT P * 0-1 waveform RSWVCC PWL(0V 1E6 1V 1E-02 2V 1E-02) C=2P PVCC V -141MA -4V -140MA -3V -130MA -640MV -50MA MV 52MA C=3P E s(t)=PWL ( N 1) THR(.5V 0 5).1N VCOMP 10 9 DC(5) * 1-0 waveform RSWGND PWL(-1V 1E-02 0V 1E-2 1V 1E6) C=2P PGND V -170MA -1.8V -162MA -0.5V -93MA V 140MA + 3V 170MA 5V 175MA C=3P E s(t)=PWL ( N 1) THR(.5V 0 5).1N TDECOUP C=6P.ENDS FACT_3S24 ********************************************* END_SUBCKT S_MODEL = DRIVER; DESCRIPTION = FACT 24mA driver with package; RISE_DRVR_DELAY= 1.18 ; FALL_DRVR_DELAY= 1.18 ; BEGIN_SUBCKT *************** FACT PACKAGED DRIVER MODEL *********** * creation date: 19 Jan 1993 * * maximum simulation time step: 100ps * recommended simulation time step <= 50ps * ideal logic output signal (0 1) *********************************************.SUBCKT FACT_DR24_P * in out VCC GND * power package and dynamic behavior XVCC $P1 XGND $P1 XCOMP FACT_DR24.ENDS FACT_DR24_P ****************** END_SUBCKT PRESTO Modeling