Vijaya B. Chalivendra

Vijaya Chalivendra, PhD

Professor / Graduate Program Director

Mechanical Engineering

Curriculum Vitae
Research website

508-910-6572

508-999-8881

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Textiles 209


Education

2003University of Rhode IslandPhD in Mechanical Engineering & Applied Mechanics
1997Sri Venkateswara University, IndiaMS in Mechanical Engineering
1993Sri Venkateswara University, IndiaBS in Mechanical Engineering

Teaching

  • Mechanics of Materials
  • Advanced Mechanics of Materials
  • Continuum Mechanics
  • Fracture Mechanics

Teaching

Programs

Teaching

Courses

The first course in engineering mechanics, with two major objectives: first, to introduce the student to the science of engineering mechanics and second to introduce the student to the art of applying science to the solution of engineering problems. The specific vehicle or curriculum to accomplish these objectives will be a study of the statics of rigid bodies.

Material behavior and the concepts of equilibrium and compatibility of deformation. Torsion of bars is discussed with application of problems of shaft design. Stress in beams of simple and composite shapes is considered as well as shear in beams and combined twisting and bending. Deflection of beams, shafts and structures are discussed using several calculation procedures. Stress and strain are considered in 3-dimensions with attention to principal directions. Buckling is considered and some attention is paid to plastic action in the various course topics. Both experimental and numerical laboratories will be conducted on various topics covered in the course.

Material behavior and the concepts of equilibrium and compatibility of deformation. Torsion of bars is discussed with application of problems of shaft design. Stress in beams of simple and composite shapes is considered as well as shear in beams and combined twisting and bending. Deflection of beams, shafts and structures are discussed using several calculation procedures. Stress and strain are considered in 3-dimensions with attention to principal directions. Buckling is considered and some attention is paid to plastic action in the various course topics. Both experimental and numerical laboratories will be conducted on various topics covered in the course.

Material behavior and the concepts of equilibrium and compatibility of deformation. Torsion of bars is discussed with application of problems of shaft design. Stress in beams of simple and composite shapes is considered as well as shear in beams and combined twisting and bending. Deflection of beams, shafts and structures are discussed using several calculation procedures. Stress and strain are considered in 3-dimensions with attention to principal directions. Buckling is considered and some attention is paid to plastic action in the various course topics. Both experimental and numerical laboratories will be conducted on various topics covered in the course.

Material behavior and the concepts of equilibrium and compatibility of deformation. Torsion of bars is discussed with application of problems of shaft design. Stress in beams of simple and composite shapes is considered as well as shear in beams and combined twisting and bending. Deflection of beams, shafts and structures are discussed using several calculation procedures. Stress and strain are considered in 3-dimensions with attention to principal directions. Buckling is considered and some attention is paid to plastic action in the various course topics. Both experimental and numerical laboratories will be conducted on various topics covered in the course.

Honors enrichment course supplementing a required sophomore level course in the Mechanical Engineering curriculum. This course is open to honors students who are enrolled in the affiliated required course in the mechanical engineering curriculum. The course provides coverage of more advanced topics and more in-depth analysis of concepts than are covered in the basic class. The course may include lecture and laboratory components at the instructor's discretion.

Honors enrichment course supplementing a required sophomore level course in the Mechanical Engineering curriculum. This course is open to honors students who are enrolled in the affiliated required course in the mechanical engineering curriculum. The course provides coverage of more advanced topics and more in-depth analysis of concepts than are covered in the basic class. The course may include lecture and laboratory components at the instructor's discretion.

After reviewing the development of the flexure formula, the stress equation is derived for unsymmetrical bending. Curved beams loaded in the plane of curvature are analyzed as are beams with combined axial and lateral loadings. The general equation for beams on elastic foundations and its applications are studied. Stresses and deflections due to dynamic loads are examined. The basic equations of elasticity are developed and two-dimensional problems analyzed using Airy's stress function. Solutions are compared to strength of materials results. Energy methods are discussed. The Lagrange plate equation is derived and plates fabricated from modern composite materials are discussed.

Introduction to fracture mechanics, elements of solid mechanics, linear elastic fracture mechanics, elastic-plastic fracture mechanics, numerical and experimental determination of stress intensity factor, fracture toughness testing, introduction to dynamic fracture mechanics, fatigue crack propagation and inter-facial fracture mechanics in main engineering fields: mechanical, civil, and materials and textile sciences. Emphasis is mainly placed on real-time applications, case studies, and student presentations of case studies.

Research

Research Activities

  • In-situ Damage Sensing of composites for Structural Health Monitoring
  • Fracture and Mechanical Behavior of Additive Manufacturing Materials
  • Impact Response of Enegry Absorbing Materials for Sports and Military Applications
  • Fracture Behavior of Diabetic Simulated Bone

Research

Research Awards

  • $15000.00 Creating the Ultimate Ballistic Body Armor (UBBA) Material Structure

Select publications

Liu, J., Chalivendra, V., C. L., Huang, W (2017).
"Finite element based contact analysis of radio frequency MEMs switch membrane surfaces"
Journal of Micromechanics and Microengineering

Shkolnik K. and Chalivendra V.B. (2017).
“Numerical Studies of Electrical Contacts of Carbon Nanotubes Embedded Epoxy under Tensile Loading”
Acta Mechanica

Abdulrahman A. Kehail, Vijay Boominathan, Karoly Fodor, Vijaya Chalivendra, Tracie Ferreira, Christopher J. Brigham (2016).
"In Vivo and In Vitro Degradation Studies for Poly(3-hydroxybutyrate-co-3-hydroxyhexanoate) Biopolymer"
Journal of Polymers and the Environment, 25(2), 296-307.

Dr. Chalivendra obtained his undergraduate degree and masters degree from Sri Venkateswara University College of Engineering, Tirupati, India in 1993 and 1997 respectively. He worked for two different industries: Bharat Electronics Ltd., and Tata Refractories Ltd., for two and half years in India before pursuing his doctoral degree at University of Rhode Island during 2000-2003. His doctoral dissertation is focused on analytical and experimental treatment of fracture studies in functionally graded materials. He developed analytical crack tip field equations for an arbitrarily oriented crack in functionally graded materials under both stationary and transient dynamic loading conditions. As a postdoctoral fellow at California Institute of Technology during 2003-2005, he conducted experimental investigation of well-controlled dynamic fragmentation studies for validation of large-scale simulations. He joined UMASS Dartmouth in 2005 and now serving as Professor in Mechanical Engineering Department. He is also currently serving as Graduate Program Director for the department. He published about 70 peer-reviewed journal articles and currently serving as a Technical Associate Editor for Experimental Mechanics journal. He was awarded about $2M external grant funding for conducting research for understanding materials behavior under various loading conditions at different length scales. He graduated sixteen masters students and one doctoral student from his research lab. He also trained 33 undergraduate students in his research lab and published 12 peer-reviewed articles with them as co-authors. His research interests include, Smart composite material, biological materials, nano-mechanical characterization of MEMs and polymers, high strain rate behavior, and impact characterization of sports helmets.

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