Besides the usual membrane stresses and stress couples the equation also contains additional terms reflecting the influences of transverse shear deformation, rotatory inertia and transverse extrusion.
该方程除了包含通常的薄膜内力项和内矩项外，还反映了横向剪切影响、转动惯性效应和横向挤压影响。
Using the finite difference method, the state equation of the transverse vibration of an axially moving rectangular membrane is derived.
利用有限差分法，导出了轴向运动矩形薄膜横向振动控制系统的状态方程。
On the basis of non linear finite element method, fundamental equation and solution of pneumatic membrane structure finite element analysis are put forward.
以非线性有限元法为基础，提出充气薄膜结构有限元分析的基本方程及解法。
The deducted equation of Liquid membrane mass transfer dynamics is verified by experimental results.
并由实验数据验证了推导出的液膜传质动力学方程式。
The equation for the membrane thickness controlling in hot dipping process is deduced using abridged kinetic model process. The equation is demonstrated by experiment.
利用简化的动态模型过程，推导热浸镀条件下的膜层厚度控制方程，并通过实验手段对此方程作了验证。
According to the mechanical characteristic of membrane structures, coupling kinetic equation of the air-structures interaction is established.
根据薄膜结构的受力特点，建立了薄膜结构与空气耦合系统的运动方程。
The equation for the membrane thickness controlling in hot-dipping process was expressed using abridged kinetic model process. The equation was demonstrated by experiment.
利用简化的动态模型过程，推导了热浸镀条件下的膜层控制方程，并通过实验手段对此方程作了验证。
The shape equation of the membrane vesicles and the steric force caused by the undulations are described.
介绍了基于这一理论所导出的细胞膜的形状方程序和膜间的热涨落排斥力。
The equation for the membrane thickness controlling in hot dipping process is deduced using abridged kinetic model process.
利用简化的动态模型过程，推导热浸镀条件下的膜层厚度控制方程，并通过实验手段对此方程作了验证。
D′Alembert′s principle is used to derive an ordinary differential equation set for free vibration of a discretized square tensioned membrane with geometric nonlinearity.
应用达朗贝尔原理建立了考虑几何非线性的方形张拉膜结构的离散非线性振动方程组；
The model couples continuity equation, momentum equation and species conservation equations. Net water transport flux in the membrane is considered as a boundary condition.
模型耦合了连续方程、动量方程和组分守恒方程，并将质子膜中的净水迁移通量作为边界条件之一来处理。
In this paper, an equation for the local blood-side Sherwood number is derived from the advancing front theory (AFT) for mass transfer of oxygen in a parallel plate membrane oxygenator.
以下用于计算平板膜式氧合器中氧传质系数的简单分析表达式。
In this paper, an equation for the local blood-side Sherwood number is derived from the advancing front theory (AFT) for mass transfer of oxygen in a parallel plate membrane oxygenator.
以下用于计算平板膜式氧合器中氧传质系数的简单分析表达式。
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