During T1 cartesian jogging, the correct speed pair is cartesian speed 250 mm/s and joint speed 10% of max.

Prepare for the NTA Robotics Safety and Systems Review Quiz. Engage with interactive flashcards and multiple choice questions, each explained thoroughly. Gear up for success and ace your exam!

Multiple Choice

During T1 cartesian jogging, the correct speed pair is cartesian speed 250 mm/s and joint speed 10% of max.

Explanation:
In cartesian jogging, you control two things: how fast the end-effector moves in Cartesian space (the linear speed of the tool) and how fast the joints are allowed to move relative to their maximum (a percentage). The end-effector speed sets the actual forward motion, while the joint-speed limit keeps the motors from pushing too hard or moving too quickly for the controller to track precisely. Choosing 250 mm/s for the end-effector gives a solid, practical pace—fast enough to be productive but not so fast that precision and stability are compromised. Setting the joint speed to 10% of max keeps the joints from rushing and helps maintain smooth tracking, reducing the risk of overshoot, excessive torque, or hitting mechanical limits. This pairing strikes a balance between responsive motion and safe, controllable operation. The other options would either be too slow or exceed what the joints can safely deliver: for example, a much higher Cartesian speed paired with a large joint-percent could demand joint performance beyond what the hardware can sustain; a very low cartesian speed with an unrealistically high percentage isn’t feasible, and a combination like 10 mm/s with 250% is not physically possible since joint speeds cannot exceed their maximum.

In cartesian jogging, you control two things: how fast the end-effector moves in Cartesian space (the linear speed of the tool) and how fast the joints are allowed to move relative to their maximum (a percentage). The end-effector speed sets the actual forward motion, while the joint-speed limit keeps the motors from pushing too hard or moving too quickly for the controller to track precisely.

Choosing 250 mm/s for the end-effector gives a solid, practical pace—fast enough to be productive but not so fast that precision and stability are compromised. Setting the joint speed to 10% of max keeps the joints from rushing and helps maintain smooth tracking, reducing the risk of overshoot, excessive torque, or hitting mechanical limits. This pairing strikes a balance between responsive motion and safe, controllable operation.

The other options would either be too slow or exceed what the joints can safely deliver: for example, a much higher Cartesian speed paired with a large joint-percent could demand joint performance beyond what the hardware can sustain; a very low cartesian speed with an unrealistically high percentage isn’t feasible, and a combination like 10 mm/s with 250% is not physically possible since joint speeds cannot exceed their maximum.

Subscribe

Get the latest from Passetra

You can unsubscribe at any time. Read our privacy policy