PPT-1 Girder Kinematics Modeling

By Arsalan Jamialahmadi Aim of the Study To provide a model to study Static deformation of the MicroControl girder for the Main Beam of the CLIC twobeam prototype module Maximum possible displacement of the beam axis on the maximum master movements. http://. www.aplusphysics.com. /courses/honors/kinematics/. honors_kinematics.html. Unit #2 Kinematics. Objectives and Learning Targets. Understand the difference between distance and displacement and between speed and velocity.. 1. 3D . Analysis . with AASHTOWare Bridge Design and Rating. Here’s what you’ll learn in this presentation:. Review of . f. inite . e. lement modeling basics. Review of . generated . model. Review of the user-interface for steel multi-girder superstructure. http://. www.aplusphysics.com. /courses/honors/kinematics/. honors_kinematics.html. Unit #2 Kinematics. Objectives and Learning Targets. Use kinematic equations to solve problems for objects moving at a constant acceleration in a straight line and in free fall.. Kinematics. is the branch of physics that describes the motion of points, bodies (objects) and systems of bodies (groups of objects) without consideration of the causes of motion.. Kinematics. One-dimensional kinematics involves movement along one axis.. Kinematics. is the branch of physics that describes the motion of points, bodies (objects) and systems of bodies (groups of objects) without consideration of the causes of motion.. Kinematics. One-dimensional kinematics involves movement along one axis.. Kinematic Equations. http://. www.aplusphysics.com. /courses/honors/kinematics/. honors_kinematics.html. Unit #2 Kinematics. Objectives and Learning Targets. Use kinematic equations to solve problems for objects moving at a constant acceleration in a straight line and in free fall.. Chapter 2. Kinematics. .  . motion.. Dynamics .  . forces impacting motion.. Mechanics . .  . kinematics & dynamics. 1. 2.1 Displacement. 2. 2.1 Displacement. 3. instantaneous . velocity . Bridge Rating – Curved Girder Module. Vanessa . Storlie. , E.I.T.. Chad . Clancy, P.E.. Presentation Organization. Background Info. Modeling . Analysis. Results. Conclusions. Background Info. Performed Beta Testing of Curved Girder Module in . u. sing slides from D. . Lu. Goals of this class. Introduce Forward . K. inematics of. mobile . robots. How Inverse . K. inematics . for . static . and mobile robots can be . derived. Concept of . Girder simulation and Module . S. howroom upgrade. For CLIC meeting 2015. Petri Tikka. ,. . Helsinki . Institute of Physics. focusing on exploring the possibilities of Epument Girder and making the CLIC showroom presentation more diverse. Chapter 2. Kinematics. deals with the concepts that . are needed to describe motion.. Dynamics . deals with the effect that forces. have on motion.. Together, kinematics and dynamics form. the branch of physics known as . AP Physics. Chapter 2. Describing Motion: Kinematics in One Dimension. AP Physics. Section 2-1 Reference Frames and Displacement. Describing Motion: Kinematics in One Dimension. IA1a - . . Students should understand the general relationships among position, velocity, and acceleration for the motion of a particle along a straight line . Kinematics. The branch of mechanics that . describes. the motion of objects without discussing what causes the motion. 1-Dimensional Kinematics refers to motion in a straight line. 1D Kinematics. 2. Kinematics: . constraints on getting around the environment. The effect of a robot’s geometry on its motion.. kinematics. from sort of simple to sort of difficult. manipulator modeling. wheeled platforms.