On Integral Forms of the Balance Laws for Deformable Semiconductors.

Abstract

The general nonlinear differential equations describing the interaction of finitely deformable, polarizable, heat conducting intrinsic n-type semiconductors with the quasi-static electric field are transformed from the unknown present coordinate description to the known reference coordinate description, which is the form needed in the treatment of problems. From the differential form of each balance equation in the reference coordinate description, the associated integral form is obtained. The resulting integral forms turn out as expected with the exception of the one due to the balance of linear momentum for the semiconducting fluid, in which an important change in and simplification from the form used heretofore is introduced. The previous existing integral form of the equation of the balance of energy in the present coordinate description is transformed to a different form, which is equivalent to the original form only when the field variables are differentiable. The revised integral form in the present coordinate description is then transformed to the reference coordinate description, from which an energetic jump condition across a moving non-material surface of discontinuity is obtained which is consistent with all the other jump conditions obtained from the other integral forms.

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Document Details

Document Type
Technical Report
Publication Date
Feb 01, 1978
Accession Number
ADA052050

Entities

People

  • Harry F. Tiersten
  • M. F. Mccarthy

Organizations

  • Rensselaer Polytechnic Institute

Tags

Communities of Interest

  • Advanced Electronics

DTIC Thesaurus Topics

  • Charge Density
  • Constitutive Equations
  • Differential Equations
  • Discontinuities
  • Electric Charge
  • Electric Fields
  • Electromagnetic Fields
  • Engineering
  • Equations
  • Linear Momentum
  • Materials
  • Momentum
  • N Type Semiconductors
  • New York
  • Nonlinear Differential Equations
  • Physics
  • Semiconductors

Readers

  • Approximation Theory.
  • Geodesy
  • Plasma Physics / Magnetohydrodynamics

Technology Areas

  • Microelectronics