Based on geometrically exact beam theory, a hybrid interpolation is proposed for geometric nonlinear spatial Euler-Bernoulli beam elements. First, the Hermitian interpolation of the beam centerline was used for calculating nodal curvatures for two ends. Then, internal curvatures of the beam were interpolated with a second interpolation. At this point, C1 continuity was satisfied and nodal strain measures could be consistently derived from nodal displacement and rotation parameters. The explicit expression of nodal force without integration, as a function of global parameters, was founded by using the hybrid interpolation. Furthermore, the proposed beam element can be degenerated into linear beam element under the condition of small deformat...
A displacement-based, novel curved beam element is proposed for efficient and reliable analysis of f...
Using Hamilton’s principle, exact equations of motion for non-linear planar and spatial Euler–Bernou...
The article is focused on a two-dimensional geometrically nonlinear formulation of a Bernoulli beam ...
The geometrically nonlinear formulation of three-dimensional (3D) curved beam elements with large ro...
A two-node spatial beam element with the Euler-Bernoulli assumption is developed for the nonlinear d...
International audienceThis article presents a new co-rotational finite element for the large displac...
The intrinsic beam theory, as one of the exact beam formulas, is quite suitable to describe large de...
The present research is focused on the linear analysis of a spatial Bernoulli-Euler beam. Metrics of...
An efficient shear-flexible three-noded curved beam element is proposed herein. The shear flexibilit...
Abstract — In this paper, analysis of non-prismatic Euler-Bernoulli beam elements with nonlinear mat...
The article extends the formulation of a 2D geometrically exact beam element proposed by Jirasek et ...
The formulation of a family of advanced one-dimensional finite elements for the geometrically nonlin...
This paper focuses on the interpolation of the kinematic fields describing the configuration of geom...
Abstract-A co-rotational finite element formulation for the dynamic analysis of a planar curved Eule...
AbstractBased on exact Green strain of spatial curved beam, the nonlinear strain-displacement relati...
A displacement-based, novel curved beam element is proposed for efficient and reliable analysis of f...
Using Hamilton’s principle, exact equations of motion for non-linear planar and spatial Euler–Bernou...
The article is focused on a two-dimensional geometrically nonlinear formulation of a Bernoulli beam ...
The geometrically nonlinear formulation of three-dimensional (3D) curved beam elements with large ro...
A two-node spatial beam element with the Euler-Bernoulli assumption is developed for the nonlinear d...
International audienceThis article presents a new co-rotational finite element for the large displac...
The intrinsic beam theory, as one of the exact beam formulas, is quite suitable to describe large de...
The present research is focused on the linear analysis of a spatial Bernoulli-Euler beam. Metrics of...
An efficient shear-flexible three-noded curved beam element is proposed herein. The shear flexibilit...
Abstract — In this paper, analysis of non-prismatic Euler-Bernoulli beam elements with nonlinear mat...
The article extends the formulation of a 2D geometrically exact beam element proposed by Jirasek et ...
The formulation of a family of advanced one-dimensional finite elements for the geometrically nonlin...
This paper focuses on the interpolation of the kinematic fields describing the configuration of geom...
Abstract-A co-rotational finite element formulation for the dynamic analysis of a planar curved Eule...
AbstractBased on exact Green strain of spatial curved beam, the nonlinear strain-displacement relati...
A displacement-based, novel curved beam element is proposed for efficient and reliable analysis of f...
Using Hamilton’s principle, exact equations of motion for non-linear planar and spatial Euler–Bernou...
The article is focused on a two-dimensional geometrically nonlinear formulation of a Bernoulli beam ...