Analysis of a Positive Output Super-Lift Luo Boost Converter

Similar documents
ZVS Boost Converter. (a) (b) Fig 6.29 (a) Quasi-resonant boost converter with M-type switch. (b) Equivalent circuit.

MODULE TITLE : ELECTRONICS TOPIC TITLE : AMPLIFIERS LESSON 1 : FEEDBACK

Bicycle Generator Dump Load Control Circuit: An Op Amp Comparator with Hysteresis

A Novel Isolated Buck-Boost Converter

POWER AMPLIFIERS. 1. Explain what are classes A, B, AB and C amplifiers in terms of DC biasing using a MOSFET drain characteristic.

Design and Simulation of Dc-Dc Voltage Converters Using Matlab/Simulink

1. Transformer A transformer is used to obtain the approximate output voltage of the power supply. The output of the transformer is still AC.

JAZAN University. Department: Electrical Engineering. Names & ID: Electronics LAB - 1/ / Electronics LAB - EngE : 314 G:...

The Buck Resonant Converter

Multiple Sets of Pulse Adjustment Control Technique Based on Input Voltage Feed-forward Compensation for DC-DC Converters Ming Qina, Jingchao Lib

Verification of Quality Parameters of a Solar Panel and Modification in Formulae of its Series Resistance

Lab 11 LRC Circuits, Damped Forced Harmonic Motion

Prasanna U R, Member IEEE and Akshay K. Rathore, Senior Member, IEEE

ACTIVE FILTERS EXPERIMENT 2 (EXPERIMENTAL)

IGBT Power Losses Calculation Using the Data-Sheet Parameters

Part a: Writing the nodal equations and solving for v o gives the magnitude and phase response: tan ( 0.25 )

Chapter 30. Inductance

Synchronous Motor V-Curves

DC-DC Switch-Mode Converters

A Comparison of AC/DC Piezoelectric Transformer Converters with Current Doubler and Voltage Doubler Rectifiers

Simulation of Push-pull Multi-output Quasi-resonant Converter

SFDMB3638F. Specifications and Applications Information. orce LED Driver. Mass: 7 grams typ. 10/15/08 Preliminary. Package Configuration

Current/voltage-mode third order quadrature oscillator employing two multiple outputs CCIIs and grounded capacitors

Revision: August 19, E Main Suite D Pullman, WA (509) Voice and Fax

TOPPER SAMPLE PAPER 2 Class XII- Physics

Sections 15.1 to 15.12, 16.1 and 16.2 of the textbook (Robbins-Miller) cover the materials required for this topic.

Multi-objective Programming Approach for. Fuzzy Linear Programming Problems

(b) y(t) is not periodic although sin t and 4 cos 2πt are independently periodic.

BASIC DIRECT-CURRENT MEASUREMENTS

Edexcel GCSE Physics

GENERAL FORMULAS FOR FLAT-TOPPED WAVEFORMS. J.e. Sprott. Plasma Studies. University of Wisconsin

Ch5 Appendix Q-factor and Smith Chart Matching

Definition of Strain. Tutorial

Fourier Analysis, Low Pass Filters, Decibels

Lecture 13 - Boost DC-DC Converters. Step-Up or Boost converters deliver DC power from a lower voltage DC level (V d ) to a higher load voltage V o.

CHAPTER 5. Solutions for Exercises

Dead-beat controller design

Physics 102. Second Midterm Examination. Summer Term ( ) (Fundamental constants) (Coulomb constant)

The fuzzy decision of transformer economic operation

Relationships Between Frequency, Capacitance, Inductance and Reactance.

4) What is the magnitude of the net electric field at the center of the square?

Coupled Inductors and Transformers

IJISET - International Journal of Innovative Science, Engineering & Technology, Vol. 2 Issue 12, December

Theoretical Stability Analysis of Isolated Bidirectional Dual Full Bridge DC-DC Converter

Increasing Voltage Gain by New Structure of Inductive Switching DC-DC Converter

The Excel FFT Function v1.1 P. T. Debevec February 12, The discrete Fourier transform may be used to identify periodic structures in time ht.

PY3101 Optics. Learning objectives. Wave propagation in anisotropic media Poynting walk-off The index ellipsoid Birefringence. The Index Ellipsoid

Ch. 1 Introduction to Estimation 1/15

The ZCS Boost Converter

ECE 2100 Circuit Analysis

ECE 2100 Circuit Analysis

Current-Sourced Buck Converter

Phys102 Final-061 Zero Version Coordinator: Nasser Wednesday, January 24, 2007 Page: 1

Chapter 16. Capacitance. Capacitance, cont. Parallel-Plate Capacitor, Example 1/20/2011. Electric Energy and Capacitance

Lecture 02 CSE 40547/60547 Computing at the Nanoscale

Intermediate Division Solutions

CHAPTER 3 ANALYSIS OF KY BOOST CONVERTER

Chapter - 7 ALTERNATING CURRENT

OP AMP CHARACTERISTICS

Exclusive Technology Feature. Eliminate The Guesswork When Selecting Primary Switch V DD Capacitors. ISSUE: May 2011

Linearization of the Output of a Wheatstone Bridge for Single Active Sensor. Madhu Mohan N., Geetha T., Sankaran P. and Jagadeesh Kumar V.

Exergy Analysis of Large ME-TVC Desalination System

PHYSICS Unit 3 Trial Examination

Copyright Paul Tobin 63

Axial Temperature Distribution in W-Tailored Optical Fibers

2. Find i, v, and the power dissipated in the 6-Ω resistor in the following figure.

Quantum Mechanics for Scientists and Engineers. David Miller

Department of Electrical Engineering, University of Waterloo. Introduction

Sound Absorption Characteristics of Membrane- Based Sound Absorbers

Lecture 18 Title : Fine Structure : multi-electron atoms

OTHER USES OF THE ICRH COUPL ING CO IL. November 1975

General Amplifiers. Analog Electronics Circuits Nagamani A N. Lecturer, PESIT, Bangalore 85. Cascade connection - FET & BJT

Q1. A string of length L is fixed at both ends. Which one of the following is NOT a possible wavelength for standing waves on this string?

E o and the equilibrium constant, K

Photocoupler Product Data Sheet CNY17-1 THRU CNY17-4 SERIES Spec No.: DS Effective Date: 09/15/2001 LITE-ON DCC RELEASE

APPLICATION GUIDE (v4.1)

Q1. In figure 1, Q = 60 µc, q = 20 µc, a = 3.0 m, and b = 4.0 m. Calculate the total electric force on q due to the other 2 charges.

CHAPTER PRACTICE PROBLEMS CHEMISTRY

IGEE 401 Power Electronic Systems. Solution to Midterm Examination Fall 2004

A High Step-Down Interleaved Buck Converter with Active-Clamp Circuits for Wind Turbines

Waveshapping Circuits and Data Converters. Lesson #17 Comparators and Schmitt Triggers Section BME 373 Electronics II J.

Three charges, all with a charge of 10 C are situated as shown (each grid line is separated by 1 meter).

Electric Current and Resistance

B. Definition of an exponential

Q1. A) 48 m/s B) 17 m/s C) 22 m/s D) 66 m/s E) 53 m/s. Ans: = 84.0 Q2.

clicker 1/25/2011 All C s are 8.00 nf. The battery is 12 V. What is the equivalent capacitance? summary o

CHAPTER 5 ENTROPY GENERATION Instructor: Prof. Dr. Uğur Atikol

Least Squares Optimal Filtering with Multirate Observations

IXD4902. Three-Terminal Negative Voltage Regulator FEATURES DESCRIPTION APPLICATIONS

Department of Civil Engineering & Applied Mechanics McGill University, Montreal, Quebec Canada

Applying Kirchoff s law on the primary circuit. V = - e1 V+ e1 = 0 V.D. e.m.f. From the secondary circuit e2 = v2. K e. Equivalent circuit :

LITE-ON TECHNOLOGY CORPORATION

ECEN 4872/5827 Lecture Notes

THE EFFECT OF VARIATION OF NONLINEAR LOAD ON POWER FACTOR OF THE AC SUPPLY NETWORK

Displacement and Deflection Sensitivity of Gas-coupled Laser Acoustic. Detector

Data Sheet. ACPL-8x7 Multi-Channel Full-Pitch Phototransistor Optocoupler. Description. Features. ACPL-827 pin layout.

Attempts at Ion Cyclotron Heating. In a Toroidal Octupole. Presented at the Los Angeles Meeting of the American Physical Society. November 12-15, 1969

Ch5 Appendix Q-factor and Smith Chart Matching

SUMMER REV: Half-Life DUE DATE: JULY 2 nd

COMPARATIVE STUDY OF STANDALONE SPV FOR ENVIRONMENTAL CONDITION OF RAJASTHAN

Transcription:

Ausha eade et al. t. Jural f Egeerg esearch ad Applicats SSN: 8-96, l. 6, ssue, (Part - 5) February 06, pp.7-78 ESEACH ACE www.ijera.cm OPEN ACCESS Aalys f a Psitive Output Super-ift u Bst Cverter Ausha eade*, ahul Jueja**, Mah Kurwale***, Prashat Debre**** *(Departmet f Electrical Egeerg,.. M. Nagpur Uiversity, Nagpur) ** (Departmet f Electrical Egeerg,.. M. Nagpur Uiversity, Nagpur) *** (Departmet f Electrical Egeerg,.. M. Nagpur Uiversity, Nagpur) **** (Departmet f Electrical Egeerg,.. M. Nagpur Uiversity, Nagpur) ABSAC h paper presets a DC-DC cvers techique usg Psitive Output Super-lift u Bst Cverter circuit. recet treds, varius dustries DC-DC cvers has gaed greater imprtace fr varius applicats. h DC-DC cvers ca be cveietly btaed by Super-lift u Bst cverter. By emplyg vltage lift techique, utput vltage creased stage by stage arithmetic prgress. But by usg Super-lift techique, utput vltage creased gemetric prgress. Super-lift u cverters are geerally useful fr high utput vltage applicats ver the years. hese cverters ehace the vltage trasfer ga very effectively. A extesive simulat f Super-lift u Bst Cverter carried ut the bas f referece values MAAB/Simul evirmet. rder t calculate the cverter parameters MAAB prgram has bee used. Keywrds - Arithmetic Prgress, DC-DC Cverter, Gemetric Prgress, Super-ift, ltage Ga. NODUCON DC-DC Cverter circuit desig, vltage lift () ad super-lift (S) techique are ppular methd widely used fr bstg the vltage []. recet years these techiques have bee successfully emplyed DC-DC cverters ad have peed varius pprtuities t desig high vltage ga cverters. Hwever vltage lift techique the utput vltage creases stage by stage arithmetic prgress ad that super-lift techique the utput vltage creases gemetric prgress []. pwer series, the vltage trasfer ga effectively ehaced due t th techique []. hese cverters are geerally termed as; psitive utput Super-ift u Bst cverters rder t srt these cverters differet frm extg vltage lift cverters []. he series f these psitive utput super-lift cverters ca be divided t ma series ad addital series. Each ma series circuit ctas e switch S, ductrs, (-) dides ad capacitrs. he cduct duty rati, switchg frequecy f (perid =/f), the lad restive utput curret. Fr creasg the stages ly passive elemets are creased where as the umber switch t chaged ad ept ly e[5]-[7]. Assumg pwer lss durg cvers prcess, * = *. he vltage trasfer ga G: G = /. he sect describes the cmplete aalys f the Ma series circuit lie Elemetary circuit, e-lift Circuit ad riple- ift circuit. Sect reflects the varius stages f Psitive Output Super-ift Cverter. t als cvers vltage ga f varius DC- DC cverters. Sect ctas the mathematical www.ijera.cm calculat fr varius circuit parameters f Elemetary circuit f a Psitive Output Super-ift u Cverter usg a MAAB Prgram. Sect shws the simulated results f the Elemetary circuit, e-lift circuit ad riple-ift circuit f Psitive Output Super- ift u Cverter.. MAN SEES Psitive utput super-lift cverters are beg shw fr first three stages. Fr simplicity t expla, the Super- ift u cverter circuits are called as Elemetary circuit, e-lift circuit ad riple-lift circuit, respectively. hese series may be umbered as =,,.. Elemetary circuit f Psitive Output S Cverter he elemetary circuit alg with its equivalet circuits durg switch- ad switch-ff perid shw Fig.. he vltage acrss capacitr C charged t durg switch- perid. he curret flwg thrugh ductr i ad creases with put vltage durg switch- perid. he ductr curret i decreases with vltage ( - ) durg switch-ff perid (-). herefre the ripple f the ductr curret i ; * * ( ) i. () he vltage trasfer ga:. () 7 P a g e

Ausha eade et al. t. Jural f Egeerg esearch ad Applicats SSN: 8-96, l. 6, ssue, (Part - 5) February 06, pp.7-78 www.ijera.cm G he put curret i equal t ( i ic ) i i C ff i ff ic ff C ( ) ic ff i f ductace large eugh the i early equal t its average curret herefre i ff ic ff, i www.ijera.cm. () ic ad average put curret : i ( ) iff ( ) i ( ). () Csiderg =/f ad. he variat rati f ductr curret i : i / ( ) ( ). (5) ( ) f he ripple vltage f utput : Q ( ) ( ) v C C fc herefre, the variat rati f utput vltage : /. (6) fc C S D c D C c C C C C c Fig.. Elemetary circuit f Psitive Output Superlift u Bst Cverter : Elemetary Circuit diagram; Equivalet Circuit diagram durg switch- perid; Equivalet Circuit diagram durg Switch-ff perid.. e-ift Circuit f Psitive Output S Cverter he e-lift circuit btaed by addg ( -D - D -D 5 -C -C ) t the elemetary circuit. ts circuit diagram alg with its equivalet circuit durg switch- ad switch-ff shw Fig.. he capacitr C charged t put vltage. he vltage acrss capacitr C give by = ((- )/(-)) as described previus sect. he vltage acrss capacitr C charged t. he curret ductr creases with vltage durg the switch- perid ad it decreases with vltage ( - ) durg switch-ff perid (-). he ripple ductr curret i ( ) i. (7). (8) he vltage trasfer ga G. (9) Hece, the expresss fr ripples ductr curret ad curret thrugh ductr are btaed as- i i S, the variat rati f ductr curret i i / ( ) ( ). (0) ( ) f he variat rati f ductr curret i : i / ( ) ( ) ( ) ( ) ( ) f. () Ad variat rati f utput vltage : v /... () fc 75 P a g e

Ausha eade et al. t. Jural f Egeerg esearch ad Applicats SSN: 8-96, l. 6, ssue, (Part - 5) February 06, pp.7-78 www.ijera.cm D D D D 5 C C c www.ijera.cm D C C C C c C C S C c C C C c c c Fig.. e-ift Circuit f Psitive Output Super-lift u Bst Cverter: e-lift circuit diagram; Equivalet Circuit diagram durg Switch-; Equivalet circuit diagram durg Switch-ff.. riple-ift Circuit f Psitive Output S Cverter he riple-lift circuit btaed by addg ( - D 6 -D 7 -D 8- C 5 -C 6 ) t the e-lift circuit. ts circuit diagram alg with its equivalet circuit diagram durg switch- ad switch-ff are shw Fig.. he capacitr C charged t, the vltage acrss capacitr C =((-)/(-)), ad vltage acrss capacitr C =((-)/(-)). Durg switch- perid, the curret flwg thrugh ductr creases with vltage ad durg switch-ff perid (-) it decreases with vltage ( - ). Nw the ripple f ductr curret i : i ( ). (). () he vltage trasfer ga : G. (5) Hece, the expresss fr ripples ductr curret ad curret thrugh ductr are btaed as: i i ( ) i Nw, the variat rati f curret i thrugh ductr : 6 i / ( ) ( ). (6) 5 ( ) f he variat rati f curret i thrugh ductr i / ( ) ( ) ( ) ( ) ( ) ( ) f. (7) he variat rati f curret i thrugh ductr i / ( ) ( ) ( ) ( ) ( ) f. (8) he, variat rati f utput vltage : v /. (9) fc D D C D C C 6 D C C C5 C D 5 D 6 C C S D 7 D 8 C C C C 5 C 6 C C6 C C C C 5 C5 C 6 C6 C C 6 C6 Fig..riple-ift Circuit f Psitive Output Super-lift u Bst Cverter: riple-ift circuit diagram; (b ) Equivalet circuit Diagram durg Switch-; Equivalet circuit diagram durg Switch-ff. 76 P a g e

Ausha eade et al. t. Jural f Egeerg esearch ad Applicats SSN: 8-96, l. 6, ssue, (Part - 5) February 06, pp.7-78 www.ijera.cm. SUMMAY OF POSE OUPU SUPE-F UO BOOS CONEES arius stages f Psitive Output Super-lift u Bst cverters ca be arraged ascedg patter as shw Fig.. www.ijera.cm Ma Series Qutuple-ift Circuit Quadruple-ift Circuit riple-ift Circuit e-ift Circuit Elemetary circuit Fig.. arius stages f Psitive Output Super-lift u Bst cverter. Frm aalys f previus sect, fr calculatg the utput vltage ad vltage trasfer ga f Super-ift Cverter the cmm frmula give belw- G ( umber f stages) rder t shw the advatage f Super-ift u Bst Cverter, fllwg cmpar made with respect t vltage trasfer gas f varius cverters. Buc Cverter, G Frward Cverter, G N (N trasfrmer turs rati) Cu-Cverter, G Fly-bac Cverter, G N (N trasfrmer turs rati) Bst Cverter, G v Psitive Output u Cverter, G. MAHEMACA ESU Frm the desig pt f view varius circuit parameters are eed t be calculated. Hecefrth mathematical calculats fr a Elemetary Circuit f a Psitive Output Super-ift u Cverter ca be give by a MAAB prgram as give belw. Similarly, fr the calculat f parameters fr e- ift Circuit ad riple-ift Circuit ca be frmed. MAAB Prgram fr Elemetary Circuit:- clc clear all =0e; f=00e;% switchg frequecy v=60;%output vltage =0.5;% duty rati di=0.0;% ripple curret dv=0.005;% ripple vltage =/f v=v*((-)/(-))%put vltage =(v*)/(di*f) x=(*(-)^*)/(*(-)*f*)%variat ductr curret rati i=(di/)/x =(-)*i C=(*v)/(f**dv) =(dv*c)/((-)*) y=(dv/)/v%variat utput vltage rati p=v*%put pwer p=v*% utput pwer Prgram Output :- =.0000e-005 v =0 = 0.000 x =.500 i = 0.000 =0.0060 C =.0000e-006 = 0.000 y =.667e-005 p =0.00 p = 0.00 hus parameters fr Super ift cverters are give able give belw:- able Calculated Parameters usg MAAB Prgram. Parameters C = C P P ut alues 0mH μf 0.00 0.00. SMUAON ESU verify the desig ad calculat results, MAAB sftware used fr Super-ift u cverter desig. MAAB Prgram parameters fr Simulat are csidered as =0, = = =0mH, all the capacitrs i.e. C -C 8 =μf ad =0Ω fr =0.5 ad f=00hz. Switchg Pulses 0-0. 0.0 0.0 0.0 Fig.5. Wavefrm f Switchg pulses. 77 P a g e

Ausha eade et al. t. Jural f Egeerg esearch ad Applicats SSN: 8-96, l. 6, ssue, (Part - 5) February 06, pp.7-78 www.ijera.cm 0 9 0. 0. 0. 0. 0. 0.5 0.6 0.7 0.8 0.9 0.5 Fig.6. Wavefrm f put ltage t Psitive Output Super-lift cverter. 70 60 50 0. 0. 0. 0. 0. 0.5 0.6 0.7 0.8 0.9 0.5 Fig.7. Wavefrm f Output ltage fr st stage that fr Elemetary circuit f Psitive Output Superlift Cverter. 00 90 80 70 60 50 0. 0. 0. 0. 0. 0.5 0.6 0.7 0.8 0.9 0.5 Fig.8. Wavefrm f Output ltage fr d stage i.e. fr e-lift Circuit f Psitive Output Super-lift Cverter. 600 550 500 50 00 0. 0. 0. 0. 0. 0.5 0.6 0.7 0.8 0.9 0.5 Fig.9. Wavefrm f Output ltage fr rd stage i.e. fr riple-ift circuit f Psitive Output Super-ift Cverter. able Cmpar t heretical ad simulated esults f a Psitive Output Super-ift u Cverter. N. f Stages put vltage heretically calculated Output ltage Simulated Output ltage www.ijera.cm 0 0 0 60 80 50 59.78 79. 57.6 hus the utput vltages f Psitive Output Super-ift Cverter fr varius stages are btaed. We have als bserved that the utput vltage creases with addit f every stage t elemetary circuit. Fig.5 shws the wavefrm f switchg pulse f MOSFE. Fig.6 shws the put vltage wavefrm fr the Super-ift u cverter circuit. Fig.7 shws the utput vltage wavefrm f the Elemetary circuit f Psitive Output Super-ift u cverter. Fig.8 shws the wavefrm f Output ltage f e-ift Circuit f Psitive Output Super- ift u Cverter. Fig.9 shws the utput vltage wavefrm f the riple-ift circuit f Psitive Output Super-ift u cverter. hus btaed simulated utput vltage values f a Elemetary circuit, e-lift circuit ad riplelift circuit. he simulat results are shw able. he simulated vltage values are early equal t the theretically calculated results.. CONCUSON Psitive Output Super lift Cverter has bee successfully aalyzed ad simulated. t largely creases utput vltage ad vltage trasfer ga pwer circuit. he simulat results ad theretical results verified the desig ad calculats. t has bee bserved that the utput vltage has creased gemetric prgress. he circuit parameters ca be calculated by usg the MAAB prgram fr varius applicats. EFEENCES [] Silpa. N ad Chitra. J, A mprved u Cverter fr High ltage Applicats, teratal Jural f Emergg echlgy ad Advaced Egeerg, lume, ssue 5, May 0. [] Fag u ad Hg Ye, Super-lift Bst Cverter, E Pwer Electr, l. 7, ssue 7, 0. [] Muhammad H. ashid, Pwer Electrics Hadb, Device, Circuit ad Applicats, hird Edit, 0. [] Yef Bervich, Br Axelrd, tem Madar, Avraham wima, mprved u Cverter Mdificats with creasg ltage ati, E Pwer Electr, l. 8, ssue, 05. [5] Fag u, Psitive Output Super-ift Cverters, EEE rasacts Pwer Electrics, l. 8, N., Jauary 00, 05-. [6] u F.. Negative Output u-cverters, ltage ift echique, EE Prceedgs Electric Pwer Applicats, l. 6, N., March 999, 08-. [7] u F.. Duble Output u-cverters, Advaced ltage ift echique, EE Prceedgs Electric Pwer Applicats, l. 7, N. 6, Nvember 000, 69-85. 78 P a g e