FINITE ELEMENT MODELING OF PIEZOELECTRIC PATCHES FOR VIBRATION ANALYSIS OF STRUCTURES

Similar documents
Finite Element Analysis of Piezoelectric Cantilever

VIBRATION CONTROL OF RECTANGULAR CROSS-PLY FRP PLATES USING PZT MATERIALS

Computational Analysis for Composites

HEALTH MONITORING OF PLATE STRUCTURE USING PIEZO ELECTRIC PATCHES AND CURVATURE MODE SHAPE

Thermal deformation compensation of a composite beam using piezoelectric actuators

COUPLED FIELD ANALYSIS OF PIEZOELECTRIC CANTILEVER BEAM

Effect of Specimen Dimensions on Flexural Modulus in a 3-Point Bending Test

Modeling and analysis of the electromechanical behavior of surface-bonded piezoelectric actuators using finite element method

MCE603: Interfacing and Control of Mechatronic Systems

Principles of Active Vibration Control: Piezoelectric materials

The Analysis of Aluminium Cantilever Beam with Piezoelectric Material by changing Position of piezo patch over Length of Beam

NUMERICAL EVALUATION OF A TEFLON BASED PIEZOELECTRIC SENSOR EFFECTIVITY FOR THE MONITORING OF EARLY AGE COCRETE STRENGTHING

ANALYSIS AND NUMERICAL MODELLING OF CERAMIC PIEZOELECTRIC BEAM BEHAVIOR UNDER THE EFFECT OF EXTERNAL SOLICITATIONS

INVESTIGATION OF STRESSES IN MASTER LEAF OF LEAF SPRING BY FEM AND ITS EXPERIMENTAL VERIFICATION

CHAPTER 4 DESIGN AND ANALYSIS OF CANTILEVER BEAM ELECTROSTATIC ACTUATORS

Finite Element Method

Piezo materials. Actuators Sensors Generators Transducers. Piezoelectric materials may be used to produce e.g.: Piezo materials Ver1404

Finite Element Method in Geotechnical Engineering

ACTIVE VIBRATION CONTROL PROTOTYPING IN ANSYS: A VERIFICATION EXPERIMENT

Design and simulation of piezotyres using comsol multiphysics 4.3b software tool

Dynamic (Vibrational) and Static Structural Analysis of Ladder Frame

Two Tier projects for students in ME 160 class

Development of the Screw-driven Motors by Stacked Piezoelectric Actuators

Analysis Of Naca 2412 For Automobile Rear Spoiler Using Composite Material *

A RESEARCH ON NONLINEAR STABILITY AND FAILURE OF THIN- WALLED COMPOSITE COLUMNS WITH OPEN CROSS-SECTION

EFFECTS OF THERMAL STRESSES AND BOUNDARY CONDITIONS ON THE RESPONSE OF A RECTANGULAR ELASTIC BODY MADE OF FGM

A coupled field finite element model to predict actuation properties of piezoelectrically actuated bistable composites.

1106. Numerical investigation of dynamical properties of vibroactive pad during hot imprint process

UNIVERSITY OF SASKATCHEWAN ME MECHANICS OF MATERIALS I FINAL EXAM DECEMBER 13, 2008 Professor A. Dolovich

INTERNATIONAL JOURNAL OF APPLIED ENGINEERING RESEARCH, DINDIGUL Volume 2, No 1, 2011

Modal and Static Structural Analysis of Exhaust Collector Box for Compressor test facility

Lecture 20. Measuring Pressure and Temperature (Chapter 9) Measuring Pressure Measuring Temperature MECH 373. Instrumentation and Measurements

Effect of Angular movement of Lifting Arm on Natural Frequency of Container Lifting Mechanism using Finite Element Modal Analysis

Active Integral Vibration Control of Elastic Bodies

Evaluation and comparison of estimated wave elastic modulus of concrete, using embedded and surface bonded PZT sensor/actuator systems

Mechanical Properties

Coupled Field Analysis using the ANSYS/Multiphysics Commercial FEA Code

PIEZOELECTRIC TECHNOLOGY PRIMER

Nonlinear bending analysis of laminated composite stiffened plates

COURSE OUTLINE. Introduction Signals and Noise Filtering Sensors: Piezoelectric Force Sensors. Sensors, Signals and Noise 1

Theoretical Manual Theoretical background to the Strand7 finite element analysis system

FE Analysis on Circular Disc under Diametrical Compression using ANSYS

ACCURATE MODELLING OF STRAIN DISCONTINUITIES IN BEAMS USING AN XFEM APPROACH

Piezoelectric Crystals Application on Landing Gears for Harvesting Energy

FLEXIBILITY METHOD FOR INDETERMINATE FRAMES

Prediction of Micromechanical Behaviour of Elliptical Frp Composites

SIMULATION AND OPTIMIZATION OF MEMS PIEZOELECTRIC ENERGY HARVESTER WITH A NON-TRADITIONAL GEOMETRY

440. Simulation and implementation of a piezoelectric sensor for harmonic in-situ strain monitoring

Ravichetan Dharenni, Ashok M H, Santoshkumar Malipatil

INF5490 RF MEMS. LN03: Modeling, design and analysis. Spring 2008, Oddvar Søråsen Department of Informatics, UoO

ANALYTICAL PENDULUM METHOD USED TO PREDICT THE ROLLOVER BEHAVIOR OF A BODY STRUCTURE

Piezoelectric Bimorph Response with Imperfect Bonding Conditions

BIAXIAL STRENGTH INVESTIGATION OF CFRP COMPOSITE LAMINATES BY USING CRUCIFORM SPECIMENS

Fracture Test & Fracture Parameters of Self Compacting Concrete using ANSYS. Zeel Vashi 1,Megha Thomas 2 I. INTRODUCTION

MECHANICAL PROPERTIES OF MATERIALS

Institute of Structural Engineering Page 1. Method of Finite Elements I. Chapter 2. The Direct Stiffness Method. Method of Finite Elements I

Effect of magnetostrictive material layer on the stress and deformation behaviour of laminated structure

Dynamic Analysis of Composite Propeller of Ship Using FEA

International Journal of Advanced Engineering Technology E-ISSN

Non-Linear Finite Element Modeling of THUNDER Piezoelectric Actuators

Piezoactuators. Jiří Tůma

University of Sheffield The development of finite elements for 3D structural analysis in fire

Size Effects In the Crushing of Honeycomb Structures

Development of a code to generate randomly distributed short fiber composites to estimate mechanical properties using FEM

Stress Analysis and Validation of Superstructure of 15-meter Long Bus under Normal Operation

Plates and Shells: Theory and Computation. Dr. Mostafa Ranjbar

Optimizing the Design of Polymer Based Unimorph Actuator using COMSOL Multiphysics Vineet Tiwari, Rashiya Sharma, R. K. Dwivedi and Geetika Srivastava

Finite element analysis of ultrasonic vibratory tool and experimental study in ultrasonic vibration-assisted Turning (uvt)

Experimental Study and Numerical Simulation on Steel Plate Girders With Deep Section

MECHANICS OF MATERIALS

Simulation of functionally graded material beam with Piezoelectric Actuators

VIBRATION ENERGY FLOW IN WELDED CONNECTION OF PLATES. 1. Introduction

Effect of Mass Matrix Formulation Schemes on Dynamics of Structures

The numerical simulation research of an Ultra-Light Photovoltaic Cell multilayer composite structure

Design of an Innovative Acoustic Metamaterial

Validation of High Displacement Piezoelectric Actuator Finite Element Models

THE EFFECT OF GEOMETRY ON FATIGUE LIFE FOR BELLOWS

ME 160 Introduction to Finite Element Method

Institute of Structural Engineering Page 1. Method of Finite Elements I. Chapter 2. The Direct Stiffness Method. Method of Finite Elements I

Structural Health Monitoring Using Smart Piezoelectric Material

IDENTIFICATION OF THE ELASTIC PROPERTIES ON COMPOSITE MATERIALS AS A FUNCTION OF TEMPERATURE

FABRICATION, TESTING AND CALIBRATION OF TWO DIRECTIONAL FORCE SENSOR

SPECTRAL FINITE ELEMENT METHOD

Strength Study of Spiral Flexure Spring of Stirling Cryocooler

Magneto-Mechanical Modeling and Simulation of MEMS Sensors Based on Electroactive Polymers

Failure analysis of serial pinned joints in composite materials

Thermo Mechanical Analysis of AV1 Diesel Engine Piston using FEM

Composite Structures- Modeling, FEA, Optimization and Diagnostics

DYNAMIC MODELING OF SPOT WELDS USING THIN LAYER INTERFACE THEORY

Active elastomer components based on dielectric elastomers

Dynamic Response Of Laminated Composite Shells Subjected To Impulsive Loads

Determination of Natural Frequency of Transportation Container by Experimental Modal Analysis

Temperature Dependent and Independent Material Properties of FGM Plates

Shape Control of Composite Structures with Optimally Placed Piezoelectric Patches

Experimental and Numerical Modal Analysis of a Compressor Mounting Bracket

Single-phase driven ultrasonic motor using two orthogonal bending modes of sandwiching. piezo-ceramic plates

FINITE ELEMENT MODELLING OF COMPOSITES USING PIEZOELECTRIC MATERIAL

MET 487 Instrumentation and Automatic Controls. Lecture 13 Sensors

DISPENSA FEM in MSC. Nastran

ANSYS Explicit Dynamics Update. Mai Doan

Transcription:

FINITE ELEMENT MODELING OF PIEZOELECTRIC PATCHES FOR VIBRATION ANALYSIS OF STRUCTURES 1 Pavankumar Kulkarni 2 R K Kanakaraddi 1 PG student, Department of mechanical engineering, BLDEA s V P DR. P G H CET VIJAYPUR, KARNATAKA, INDIA. 2 Professor, Department of mechanical engineering, BLDEA s V P DR. P G H CET VIJAYPUR, KARNATAKA, INDIA. ---------------------------------------------------------------------***--------------------------------------------------------------------- Abstract - Finite element modeling and analysis is energy into electrical energy this is generally achieved by one of the important tool for analysis and this report or DYNAMO. study explains the recent development of modeling and numerical analysis of piezoelectric material and also Piezoelectricity: Now the present invention on the piezoelectric system, using one of the finite element piezoelectricity, deals with the physical phenomena that modeling and analysis software as ANSYS. The analyst can convert mechanical movement into electricity. This to get knowledge about how to control the structure work is made by Pierre curie and Paul Jacques in 1880. from vibration by getting possible results of static and dynamic analysis and simulations when using Piezoelectric effect: Now moving to the next concept, piezoelectric patches. These piezoelectric patches used that is piezoelectric effect. This is one of the concept exist mainly in delicate places that is Aero space structures, in two main aspects like, direct and indirect (converse) complex shapes or complex structures etc because these piezoelectric effect. are light in nature and activate with voltage. Finally, the study concentrate on a simple plate structure and Direct effect: Ability of the material to mechanical strain is apply an unity voltage to understand the concept converts into electrical charge. clearly. And piezoelectric patches use to study the Indirect effect: Ability to electric potential energy vibration analysis of structure using an ANSYS transform into mechanical strain energy. software. The system of steel plate and piezoelectric patch gives the clear knowledge about how to apply the patches to study the vibration analysis for further controlling purpose. The study continues for one step ahead i.e this patch can be able to use on composite materials using same step. Key Words: Finite element technique, composite plates, piezoelectric material. 1. INTRODUCTION The project work presents the fundamental conceptual knowledge about piezoelectricity, piezoelectric effect and its different domains, piezoelectric materials, piezoelectric patches and finally works strategy. The objective of the present project work is to study the vibration analysis of structure with the help of piezoelectric patches by application of voltage, using one of the strong tool finite element modeling and analysis software as ANSYS. The shape and size of the material and patches, are used in delicate places like aerospace and how it works then it gives the proper results. These results gives the basic knowledge about piezoelectric patches. In older days the fundamental concept about conversion of mechanical a) Direct effect b) converse effect Fig1 piezoelectric effect Piezoelectric materials: Different materials are used as a piezoelectric materials naturally exist in Quartz. The Quartz material possess properties for production of electricity in a very small quantity. Now a days PZT (Lead Zirconate Titanate) is used as the artificial piezoelectric material. Compare to Quartz to PZT (Lead Zirconate Titanate) gives more advantageous characteristics of 2015, IRJET.NET- All Rights Reserved Page 1207

generating more electricity. Apart from these materials some other materials are also used like Topaz, Rochelle salt, wood, Gallium orthophosphate (Gapo4), Langasite(La3Ga5Sio4). Piezoelectric patches: The above discussion is made only for knowledge about piezoelectric related concept. Now we deal with piezoelectric patches in detail, like how it works, their applications etc., Development of piezoelectric materials have established a revolution in actuation and sensing application in recent years. Because it requires (i.e piezoelectric patches) little power consumption, large bandwidth, make piezoelectric materials increasingly popular as its potentiality more suites for sensor and actuators. Usages of piezoelectric patches: The piezoelectric patches are mainly used in many structures including aerospace, MEMs applications...etc. In recent study explains the piezoelectric patches are more useful in flexible structure because of its more withstanding capacity of vibration. Piezoelectric patch has got a very good precision quality to control the noise and vibration and enhances the smooth flow of linear motion. other engineering applications because of they exhibit outstanding strength. Like that most commonly used composites are Glass, Graphite, Kevlar, Boron or Silicon carbide fibers in polymeric matrices have been studied because of some outstanding properties like strength and weight aspects, used in most application in aerospace and space vehicle technology. The selected composite materials are glass fiber,graphite fiber and for both fibers epoxy is the common resin. Fiberglass In the present days the composite materials most used in some important industries like Aerospace, automobile and other engineering applications because of they exhibit outstanding strength. used in most application in aerospace and space vehicle technology. But the fiberglass to use because of, Less stiff and less brittle Raw material are much less expensive. Compare to metals it has less weight. Epoxy is the thermosetting plastic and used in our present work. Patches are used in measuring the precision deflection analysis, to control and to predict the structure response. In this work using a steel plate structure having dimensions 0.6*0.4 (l x*l y) in m and also 1*10-3 m. mesh and analyze the model to get a frequency range. using piezoelectric patch to a plate for a vibration analysis for a further study means after getting results, in our required frequency range we have to control the vibration in at particular point or we have to jump the frequency range. The reference paper is carried out a study on the simple steel plate now we want to study the topic as the paper says and made a validation for study for both results after that we want to adopt a method to a composite materials and make it as a best project. The aim of this project is Application of piezoelectric patch to composite structures for study of vibration analysis, adapt same method as applied by the steel plate structures. Composites are one of the useful and ongoing technique and most helpful in engineering works. These Composite materials have wonderful advantage in the engineering work. Composite materials are in heterogeneous nature, made up of two or more components like reinforcing fibers having a compactable matrix. Some matrix origin like metallic, polymeric or ceramic. In the present days the composite materials most used in some important industries like Aerospace, automobile and Fig2 glass fiber Fine ground, chopped these are different forms of Glass reinforcements used and supplied. In the final structure the glass fiber are used for insulation then the structure will be strong, as this permits the fibers to reach GPa (Giga Pascal) tensile strengths. The fiber surface almost have no defect throughout the model. The model (bulk piece) has no defect then it is strong as compared to glass fiber. Be that as it may, it is for the most part unrealistic to create mass material in a no deformity state outside of research facility conditions. Graphite fiber Graphite fibes are commonly used in the aircraft component. It has some properties like, High modulus & strength, Low coefficient of thermal expansion, High specific strength, Have the drawback of high cost Low impact resistance, high electrical conductivity. 2015, IRJET.NET- All Rights Reserved Page 1208

For the most part graphite filaments are assembling from three antecedents materials i.e Rayon, Polyacrylonitrile (PAN) and Pitch. Skillet is the most utilized material as a part of the assembling graphite strands. It has 99% of carbon substance. In the present days the composite materials most used in some important industries like Aerospace, automobile and other engineering applications because of strength and weight. Table 1 plate material properties After modeling a plate structure have to attach the piezoelectric patches according to this table. a)unidirectional graphite Fig3 graphite fiber b) Plane wave graphite. Table 2 position of patches 2. METHODOLOGY AND ANALYSIS The study is carried out on the vibration analysis of a structure with the help of piezoelectric patches. Here the work is carried out and performed using the ANSYS software 14.5, the material properties chosen for this evaluation are structural, linear, elastic, isotropic material and this analysis can also be adopted for composite materials. 1. Model or structure modeling 2. Specify material properties 3. Meshing the created model 4. Analysis made before application of piezoelectric patch 5. Apply piezoelectric patch 6. Once again carry out the analysis 7. Apply voltage 8. Obtain the results. 9. Adopt to a composite structure. MODEL USED We are considering a simple plate structure having dimensions 0.6 * 0.4 and thickness 1*E-1 in meters. Using above tables the final system is shown as Fig4 piezoelectric actuator test configuration After application of patch as an actuator we have to apply voltage to get results. 1. FINITE ELEMENT METHOD With the rapid advancement of technology, the complexity of the problem to be dealt by a design engineer is also increasing. This outline demand speedy, efficient and optimal design from an engineer. To be continuous developing and ensure better output, the engineer today resorting to numerical methods. For the problems that have complex shapes, material properties and complicated boundary conditions, it is very difficult to obtain analytical 2015, IRJET.NET- All Rights Reserved Page 1209

solutions. Numerical methods provide approximate but acceptable solutions to such a complex problems. Finite element analysis is one of such numerical method for analyzing and solving wide range of complex engineering problems which are to solve by any of the available classical analytical methods. The computer is the backbone of the procedure since in involves the solution of many simultaneous algebraic equations, which can be solved easily and quickly by the computer. Basically Finite Element Method was originated as a method of stress analysis. But today the applications are numerous. Now a days, each and every design is developed through Finite Element Method. The numerous applications include the fields of Fluid flow, Heat transfer, Electric and Magnetic field, Seepage and other flow problems. The various areas of application include design of buildings and bridges, aircraft structures, electric motors, heat engines, spacecrafts etc. With the advances in interactive CAD systems complex problems can be modeled with relative ease. Several alternative configurations can be tried out on a computer before the final prototype is built. Assembled system when meshing takes place the three of the piezoelectric patch used and Apply boundary conditions to piezoelectric patches Element type= brick 8 noded 185 Dof k 1=U x U y U z volt Finite Element Method of analysis complex region of a continuum is descretized into number of simple geometric shapes called finite elements. The material properties and governing relationships are considered over these elements and expressed in terms of unknown values at the corners of the element. As assembly process, duly considering the loading and constraint results in a set of equations. Solutions of these equations give approximate behaviour of the continuum. 2. RESULTS AND DISCUSSIONS First we have to study the steel plate to know the concept for how to apply and study the composite structure. To make a steel plate structure with required mechanical properties and Apply Meshing with the help of ANSYS 14.5 software. Modal analysis Fig5 boundary condition on patch STATIC DISPLACEMENT DISTRIBUTION Total plate displacement amplitude calculated by using closed form, using FEM and ANSYS software,when a static input voltage (ϕ a) is applied to actuators (1,2 & 3)for the following magnitude and the result will be shown below. (ϕ a) = {-1 1 1} Shows the result by using ANSYS with same load and boundary conditions. 2015, IRJET.NET- All Rights Reserved Page 1210

Fig6 displacement under action of voltage The static displacement distribution is calculated by using numerical techniques for two particular section of the plate i.e (y=l y/2 and x=l x/2) as shown below. Fig9 deformed under voltage action for steel plate & Nodal solution Piezoelectric action under composite material. Used materials are 1. Glass fiber with epoxy resin 2.Graphite fiber with epoxy resin Table 4 properties of composite materials Fig7 static displacement distribution (section y=l y/2)for numerical technique Composite materials Specific Gravity Young s modulu s E (GPa) Ε/ρ (GPam 3/ /k g) Ε 1/2 /ρ (Pam 3/ /k g) Ε 1/3 /ρ (Pa 1/3 - m 3/ /k g) Comparison of the static displacement distribution (section x=l x/2)for numerical technique. Graphite/ epoxy Glass/epo xy 1.6 181.00 0.1131 265.9 3.535 1.8 38.60 0.0214 4 109.1 1.878 Shell type element Element type = 8 noded solid 5 (couple field) Dof k 1=Ux Uy U z volts Fig8 static displacement distribution (section x=l x/2)for numerical technique Nodal solution for this system is, 2015, IRJET.NET- All Rights Reserved Page 1211

Fig 10 composite arrangement Fig 13 displacement at frequency 373Hz Fig 11 displacement at frequency 100Hz Fig 14 amplitude at 373Hz Glass epoxy Fig 12 amplitude at 100Hz Fig 15 arrangement of patch and composite plate Deformed shape 2015, IRJET.NET- All Rights Reserved Page 1212

REFERENCE 1. VINCENT PIEFORT & ANDRE PREUMONT Active Structures Laboratory, Av F.D. Roosevelt 50, B- 1050 Brussels, Belgium. 2. Development of a Two- Dimensional Piezo Finite Element in an ANSYS Environment Partha Bhattacharya, Michael Rose. Fig 16 deformed under voltage action for glass epoxy plate Graphite epoxy 3. G L. C. M. de Abreu, J. F. Ribeiro and V. Steffen, Jr. Universidade Federal de Uberlândia FEMEC C.P. 593 38400-902 Uberlândia, MG. Brazil. 4. Bathe, K-J., 1982, Finite Element Procedures in Engineering Analysis, Prentice-Hall. 5. Dynamic Effects of Piezoelectric Actuators on the Vibrational Response of a Plate, Journal of Intelligent Material Systems and Structures, Vol. 8, pp. 513-524. 6. Finite Element Approach of Vibration Control Using Self-Sensing Piezoelectric Actuators, Computers & Structures, Vol. 60, No. 3, pp. 505-512. Fig 17 deformed under voltage action for graphite epoxy plate 3. CONCLUSION 7. Active Robust Vibration Control of Flexible Composite Beams with Parameter Perturbations, International Journal of Mechanical Science, Vol. 39, No. 7, pp. 751-760. 8. Crawley, E. F. and de Luis, J., 1987, Use of Piezoelectric Actuators as Elements of Intelligent Structures, AIAA Journal, Vol. 25, No. 10, pp. 1373-1385. In this work, All important steps were presented for clear understanding purpose. Because to understand the modeling easily and clearly. Here, various computational tests were performed demonstrating the efficiency for that used by this methodology. Results were show and clarifies for a rectangular slim plate energized by different rectangular actuators reinforced on the sides of the plate. The present FE procedure demonstrate the static and element examination for obliged results. With those from the definite arrangements and programming ANSYS. The present arrangements are most valuable for comprehension the electromechanical coupling in astute and brilliant structures under element conditions. The present strategy is helpful for the configuration of vibration investigation and also control structures. 2015, IRJET.NET- All Rights Reserved Page 1213