Faster movements
created unwanted dynamical forces. The detachment speed of the
leg from the wall was initially set to 0.1 m/s, creating dynamical
forces dropping the robot. To deal with this matter, an empirical
optimization method was used to find an optimal actuator speed
for the climbing, decreasing it to 0.06 m/s. The second problem,
slow communication, has still not been overcome and long delays
between moving actions gives the CLIBO a progress velocity of
12 cm/min along the path. Despite these two difficulties, the
construction of the gripping device has been well-demonstrated
and proved its effectiveness in providing the robot with good
attachment reliability.
Faster movementscreated unwanted dynamical forces. The detachment speed of theleg from the wall was initially set to 0.1 m/s, creating dynamicalforces dropping the robot. To deal with this matter, an empiricaloptimization method was used to find an optimal actuator speedfor the climbing, decreasing it to 0.06 m/s. The second problem,slow communication, has still not been overcome and long delaysbetween moving actions gives the CLIBO a progress velocity of12 cm/min along the path. Despite these two difficulties, theconstruction of the gripping device has been well-demonstratedand proved its effectiveness in providing the robot with goodattachment reliability.
正在翻譯中..
Faster movements
created unwanted dynamical forces. The detachment speed of the
leg from the wall was initially set to 0.1 m/s, creating dynamical
forces dropping the robot. To deal with this matter, an empirical
optimization method was used to find an optimal actuator speed
for the climbing, decreasing it to 0.06 m/s. The second problem,
slow communication, has still not been overcome and long delays
between moving actions gives the CLIBO a progress velocity of
12 cm/min along the path. Despite these two difficulties, the
construction of the gripping device has been well-demonstrated
and proved its effectiveness in providing the robot with good
attachment reliability.
正在翻譯中..