What has been done:
Purchased timing belts and gear bundle (3:1 ratio) instead of using 3D printed components
Status:
Finger actuator and finger tip modelled and assembled (for one finger)
Waiting for frames to arrive for base assembly
Inverse Kinematics software completed in Matlab
Redesigning the base actuator with the new gears and timing belts
Base has been completed in CAD
Sponsor Feedback:
N/A - we were unable to meet with the sponsor over the winter break
Instructor Feedback (12/17/2020):
Present more calculations and show more in depth decision making for component selection
Slides were in Prezi format, which was not as effective as a traditional presentation
Include step-by-step documentation for assembly of the system
We talked too much about affordability and cost effectiveness rather than actual specifications of our components and their functionality
Student Feedback (12/17/2020):
Work on presentation timing
Presentation format was difficult to follow with too much small text
Did not touch on broader impacts
More data should be included in the presentation (results of testing, how components fit together)
Current Concerns:
How can we improve presentation-wise?
Implementing the MATLAB code to the Arduino
Pushing the due date for a single finger assembly with autonomous movement up a week or two
Next Steps:
Redesign shell components to fit the new gears and timing belts purchased
Design the diagonal arm actuator
Minimize size and weight as much as possible
Once t-frame components arrive, assembly the base
Test one finger and if successful, build the other 2 exactly the same way
Fully assemble the system
Develop software for autonomous control