Table of Contents
- 1 What is a space robots work envelope?
- 2 What is the name for space inside which a robot unit operates?
- 3 Are robots really going to take our jobs from us?
- 4 Why do the robot need sensor?
- 5 Can robots go in space?
- 6 How do robots work in factories?
- 7 What is the C-space in robotics?
- 8 What are the different spaces of interest in robotics?
What is a space robots work envelope?
A robot’s work envelope is its range of movement. It is the shape created when a manipulator reaches forward, backward, up and down. These distances are determined by the length of a robot’s arm and the design of its axes. A robot can only perform within the confines of this work envelope.
What is the name for space inside which a robot unit operates?
Discussion Forum
Que. | What is the name for the space inside which a robot unit operates? |
---|---|
b. | spatial base |
c. | danger zone |
d. | work envelop |
Answer:work envelop |
Are robots really going to take our jobs from us?
Economists predict that by 2030, robots will have assumed 20 million jobs from human workers. Considering that the United States is operating right now at record unemployment levels, those are a lot of jobs lost. This is where we need to adjust our thinking. Robots can have those jobs.
Why work envelope is important in robot safety?
A robot’s work envelope is important because it defines the area in which a robot will be able to operate in. Industrial robots are unable to operate outside of their work envelope. It is especially important when selecting an industrial robot to have a clear definition of the workspace needed for your application.
What is a work envelope of a robot draw work envelope for Cartesian coordinate cylindrical coordinate and spherical coordinate robots?
Cartesian Robot – Work Envelope • Cylindrical (R2P): Cylindrical coordinate Robots have 2 prismatic joints and one revolute joint. 34. Cylindrical Robot – Work Envelope • Spherical joint (2RP): They follow a spherical coordinate system, which has one Prismatic and two revolute joints.
Why do the robot need sensor?
Robots need to use sensors to create a picture of whatever environment they are in. An example of a sensor used in some robots is called LIDAR (Light Detection And Ranging). Lasers illuminate objects in an environment and reflect the light back. The robot analyzes these reflections to create a map of its environment.
Can robots go in space?
According to CNET, some robots currently exploring space include Dextre, Voyager 1 and 2, Hubble Space Telescope, Cassini, Robonaut 2, Rosetta, Dawn, Mars Express, Curiosity, Opportunity, 2001 Mars Odyssey, Advanced Composition Explorer, Hayabusa 2, Juno, Mars Orbiter Mission, New Horizons and more to come.
How do robots work in factories?
Manufacturing robots automate repetitive tasks, reduce margins of error to negligible rates, and enable human workers to focus on more productive areas of the operation. Robots used in manufacturing fill numerous roles. The robot executes components of the process such as lifting, holding and moving heavy pieces.
What is a workspace envelope?
A ‘workspace envelope’ is a 3-dimensional space within which you carry out physical work activities when you are at a fixed location. The limits of the envelope are determined by your functional arm reach which, in turn, is influenced by the direction of reach and the nature of the task being performed.
What is the workspace of a robot?
The workspace is a specification of the configurations that the end-effector of the robot can reach, and has nothing to do with a particular task. For example, a planar robot with 2 revolute joints, limited to ranges of motion of 180 and 150 degrees, has the workspace shown here.
What is the C-space in robotics?
The C-space is the space of all possible configurations of a robot. Two somewhat different spaces of interest are the task space and the workspace. The task space is a space in which the robot’s task can be naturally expressed.
What are the different spaces of interest in robotics?
Two somewhat different spaces of interest are the task space and the workspace. The task space is a space in which the robot’s task can be naturally expressed. For example, if the task is to control the position of the tip of a marker on a board, then task space is the Euclidean plane.