A mobile platform with body frame named Fame1 is located initially in the positon [X0= 2000; y0=2000; z0=1000] of the global reference frame Frame0, and the orientation of Frame1 is intially identical to the Frame0. Then the platform starts to move along a trajectory that is defined by the profile [x0+200*t; y0+100*t; z0+300*sin(pi/2*t)] w.r.t global Frame in time t, and at the same time the Frame1 is also rotating aroud its own Z axis with constant velocity pi/2/second in rad. An industrial robot is installed on the platform and the robot reference frame coincides with the Frame1. At the time zero, the robot end-effector with a reference frame named Frame2 is locted at [500; 300; 400] w.r.t robot reference frame. After 45 seconds, the end-effector has travelled a distance of [500*sin(pi/4*t); 500*sin(pi/4*t); 500*sin(pi/2*t)] w.r.t its own robot reference frame, and at the same time the end-effector rotates around its x axis 60 degrees. . Compute the location and roll-pitch-yaw of the robot end-effector after 45 seconds with respect to (w.r.t) global frame. % write you codes here to compute t_1 = 45; % unit: second % inital location Ро = [2000; 2000; 1000]; % unit: mm
A mobile platform with body frame named Fame1 is located initially in the positon [X0= 2000; y0=2000; z0=1000] of the global reference frame Frame0, and the orientation of Frame1 is intially identical to the Frame0. Then the platform starts to move along a trajectory that is defined by the profile [x0+200*t; y0+100*t; z0+300*sin(pi/2*t)] w.r.t global Frame in time t, and at the same time the Frame1 is also rotating aroud its own Z axis with constant velocity pi/2/second in rad. An industrial robot is installed on the platform and the robot reference frame coincides with the Frame1. At the time zero, the robot end-effector with a reference frame named Frame2 is locted at [500; 300; 400] w.r.t robot reference frame. After 45 seconds, the end-effector has travelled a distance of [500*sin(pi/4*t); 500*sin(pi/4*t); 500*sin(pi/2*t)] w.r.t its own robot reference frame, and at the same time the end-effector rotates around its x axis 60 degrees. . Compute the location and roll-pitch-yaw of the robot end-effector after 45 seconds with respect to (w.r.t) global frame. % write you codes here to compute t_1 = 45; % unit: second % inital location Ро = [2000; 2000; 1000]; % unit: mm
Elements Of Electromagnetics
7th Edition
ISBN:9780190698614
Author:Sadiku, Matthew N. O.
Publisher:Sadiku, Matthew N. O.
ChapterMA: Math Assessment
Section: Chapter Questions
Problem 1.1MA
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also compute all the three angles
![A mobile platform with body frame named Fame1 is located initially in the positon [X0= 2000;
y0=2000; z0=1000] of the global reference frame Frame0, and the orientation of Frame1 is intially
identical to the Frame0. Then the platform starts to move along a trajectory that is defined by the
profile [x0+200*t; y0+100*t; z0+300*sin(pi/2*t)] w.r.t global Frame in time t, and at the same time
the Frame1 is also rotating aroud its own Z axis with constant velocity pi/2/second in rad. An
industrial robot is installed on the platform and the robot reference frame coincides with the
Frame1. At the time zero, the robot end-effector with a reference frame named Frame2 is locted at
[500; 300; 400] w.r.t robot reference frame. After 45 seconds, the end-effector has travelled a
distance of [500*sin(pi/4*t); 500*sin(pi/4*t); 500*sin(pi/2*t)] w.r.t its own robot reference frame, and
at the same time the end-effector rotates around its x axis 60 degrees.
. Compute the location and roll-pitch-yaw of the robot end-effector after 45 seconds with
respect to (w.r.t) global frame.
% write you codes here to compute
t_1 = 45; % unit: second
% inital location
Ро
=
[2000; 2000; 1000]; % unit: mm](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2Fe23ae763-28c2-4106-8a99-c21e032becaf%2F4573e328-3cb7-43a6-856d-47ad5e93c62c%2F34aw9ku_processed.png&w=3840&q=75)
Transcribed Image Text:A mobile platform with body frame named Fame1 is located initially in the positon [X0= 2000;
y0=2000; z0=1000] of the global reference frame Frame0, and the orientation of Frame1 is intially
identical to the Frame0. Then the platform starts to move along a trajectory that is defined by the
profile [x0+200*t; y0+100*t; z0+300*sin(pi/2*t)] w.r.t global Frame in time t, and at the same time
the Frame1 is also rotating aroud its own Z axis with constant velocity pi/2/second in rad. An
industrial robot is installed on the platform and the robot reference frame coincides with the
Frame1. At the time zero, the robot end-effector with a reference frame named Frame2 is locted at
[500; 300; 400] w.r.t robot reference frame. After 45 seconds, the end-effector has travelled a
distance of [500*sin(pi/4*t); 500*sin(pi/4*t); 500*sin(pi/2*t)] w.r.t its own robot reference frame, and
at the same time the end-effector rotates around its x axis 60 degrees.
. Compute the location and roll-pitch-yaw of the robot end-effector after 45 seconds with
respect to (w.r.t) global frame.
% write you codes here to compute
t_1 = 45; % unit: second
% inital location
Ро
=
[2000; 2000; 1000]; % unit: mm
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