This chapter describes the how the vector of coordinates are defined in the formulation of spatial multibody systems. For this purpose, the translational motion is described in terms of Cartesian coordinates, while rotational motion is specified using the technique of Euler parameters. This approach avoids the computational difficulties associated with the singularities in the case of using Euler angles or Bryant angles. Moreover, the formulation of the velocities vector and accelerations vector is presented and analyzed here. These two sets of vectors are defined in terms of translational and rotational coordinates.(undefined
This paper explains the relationship between two existing representations of rigid-body acceleration...
Dual numbers and dual vectors are widely used in spatial kinematics [3,5-15,18]. Plücker line coordi...
This paper presents a vector parameterization of motion that generalizes the vector parameterization...
This chapter deals with the different approaches for describing the rotational coordinates in spatia...
The paper is concerned with coordinate representations for rigid parts in multibody dynamics. The di...
One of the most elegant mathematical tools in the motion analysis of multibody systems is the dual v...
We present a new method for describing the kinematics of the rotational motion of a rigid body. The ...
This paper introduces a new coordinate formulation for the kinematic and dynamic analysis of planar ...
This paper introduces a new coordinate formulation for the kinematic and dynamic analysis of planar ...
This paper introduces a new coordinate formulation for the kinematic and dynamic analysis of planar ...
This paper introduces a new coordinate formulation for the kinematic and dynamic analysis of planar ...
This paper presents a vectorial parameterization of motion that generalizes the vectorial parameteri...
This chapter presents a general methodology for the formulation of the kinematic constraint equation...
Dual numbers and dual vectors are widely used in spatial kinematics [3,5- 15,18]. Plücker line coord...
In this chapter, the fundamental ingredients related to formulation of the equations of motion for m...
This paper explains the relationship between two existing representations of rigid-body acceleration...
Dual numbers and dual vectors are widely used in spatial kinematics [3,5-15,18]. Plücker line coordi...
This paper presents a vector parameterization of motion that generalizes the vector parameterization...
This chapter deals with the different approaches for describing the rotational coordinates in spatia...
The paper is concerned with coordinate representations for rigid parts in multibody dynamics. The di...
One of the most elegant mathematical tools in the motion analysis of multibody systems is the dual v...
We present a new method for describing the kinematics of the rotational motion of a rigid body. The ...
This paper introduces a new coordinate formulation for the kinematic and dynamic analysis of planar ...
This paper introduces a new coordinate formulation for the kinematic and dynamic analysis of planar ...
This paper introduces a new coordinate formulation for the kinematic and dynamic analysis of planar ...
This paper introduces a new coordinate formulation for the kinematic and dynamic analysis of planar ...
This paper presents a vectorial parameterization of motion that generalizes the vectorial parameteri...
This chapter presents a general methodology for the formulation of the kinematic constraint equation...
Dual numbers and dual vectors are widely used in spatial kinematics [3,5- 15,18]. Plücker line coord...
In this chapter, the fundamental ingredients related to formulation of the equations of motion for m...
This paper explains the relationship between two existing representations of rigid-body acceleration...
Dual numbers and dual vectors are widely used in spatial kinematics [3,5-15,18]. Plücker line coordi...
This paper presents a vector parameterization of motion that generalizes the vector parameterization...