
Learn to set up a motion simulation in NX, defining joints, drives, and connectors like gear pairs, rack and pinion, and springs to analyze kinematics or dynamics.
Create a single cylinder engine motion study in Siemens NX Motion Simulation by building links, setting revolute and cylindrical joints, applying a drive, solving dynamics, and animating with gravity.
Simulate a 4bar assembly in Siemens NX motion simulation by creating four links and four joints, fixing the base, and applying a harmonic driver on joint one.
Build a scissors jack motion in NX motion by creating links and joints and screw with pitch. Use a fixed base, a driver, and z-force; analyze displacement with x-ray view.
Create a Newton's cradle motion in NX motion simulation by defining five links, setting joints, and applying 3D contact with downward gravity for realistic collisions.
Create and analyze ball motion using a gravity-driven simulation, establishing 3D contact between a slide and a ball, enabling friction control and parameter adjustments.
Explore vector force and scalar force in a Siemens NX motion simulation, applying vector forces with respect to absolute coordinates and origins, plus scalar forces at a base point.
Create a fan assembly motion in Siemens NX Motion Simulation by defining base, motor, and blade links, joints, drivers, gravity, and then analyze torque and displacements with plots.
Learn to build a cam wall assembly in Siemens NX motion simulation, using a spring connector with revolute and slider joints, a velocity driver, and 3D contact, plus displacement plotting.
Define three links (slider, Clovis, probe) and joints with a point-on-curve constraint to drive the probe assembly, using a polynomial velocity of 1 inch per second and generating displacement graphs.
Create a gravity-driven motion of a bar assembly in Siemens NX Motion Simulation by defining links, joints, and a spring connector, then visualize displacement and length-versus-time graph.
Explore dynamic and static equilibrium in a bar and weight assembly using gravity, friction, and mass variation, and compare their final positions from kinematic and dynamic simulations.
Create a motion simulation for a housing assembly by defining links and joints, applying dampers, bushings, springs, and a line constraint, and driving with a velocity function.
Create and connect an excavator assembly in motion simulation by defining links, establishing cylindrical and spherical joints, configuring a drive function from a table, and validating results.
Create and configure a winch assembly in NX motion simulation by defining links, sliders, rack and pinion, gear coupler, and spring-damper connections, then solve and animate the motion.
STEP(Time,0,0,.5,5)+STEP(Time,.5,0,1,-5)+STEP(Time,1,0,1.5,12)+STEP(Time,1.5,0,3,-12)
Build and animate a swing arm assembly in Siemens NX motion simulation by creating links and joints, configuring revolute and cylindrical joints, and applying polynomial and harmonic motions.
Build a motion simulation of a screening machine in Siemens NX by defining links, joints, and bushings, then drive with a polynomial acceleration and animate the result.
Description
In this course you will learn everything you need in order to create simulations of machines and mechanisms. You will apply joints, gravity, physical contact between parts, springs and much more in motion. You will also learn how to extract all sorts of engineering data and results from your simulations. Besides that, you will be able to create amazing animations to present your ideas and concepts in assembly or in multibodies.
The course covers a number of different mechanisms and the list will grow bigger in time as I add new videos time to time. We will simulate the motion of the following mechanisms
Single Cylinder Engine Assembly Motion
Scissors Jack Motion
Disk Cam Application
newtons cradle motion
Vector Force & Scalar Force
FAN Assembly motion
CAM Valve Assembly (Spring connector)
Probe follower assembly motion
You will learn everything you need in order to create powerful, precise and compelling motion studies in motion. Through mechanism simulation you will be able to make sure your designs will work in the way you want them to work before building expensive prototypes assemblies. Besides that, motion simulation enables you to explain concepts with ease, determine engineering results and so much more with NX motion.
Today, you can start your journey to becoming a NX motion professional !