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What is the matter of the kirchhoff plate theory? 


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The Kirchhoff plate theory is a mathematical model used to describe the behavior of thin plates. It provides a framework for analyzing the bending and deformation of these plates. The theory takes into account various factors such as strain, strain gradient, rotation gradient, and couple stress. It also considers the size effect of thin plates, which is determined by geometric dimensions and length-scale parameters. The theory can be modified to suit different conditions and can be reduced to other plate models such as the classical Kirchhoff-Love plate model and the couple stress thin plate model. The governing equations and boundary conditions for the Kirchhoff plate theory can be obtained using principles such as the principle of minimum potential energy and Hamilton's extended principle.

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The paper does not explicitly mention the matter of the Kirchhoff plate theory.
The paper discusses a modified gradient elastic Kirchhoff-Love plate model, which describes the bending deformation of thin plates more flexibly by introducing couple stress and modifying the classical bending stiffness. The specific modified classical boundary conditions and non-classical higher-order boundary conditions for the bending boundary value problems are derived. However, the paper does not explicitly mention the matter of the Kirchhoff plate theory.
The paper discusses the derivation of a linearized Kirchhoff model for plates with incompatible prestrain as their thickness tends to zero.

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