Difference between revisions of "2007 TE Session Outline"
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===Drive Types=== | ===Drive Types=== | ||
Date: 10/02/2007 | Date: 10/02/2007 | ||
+ | #Methods of motion | ||
+ | ##Tank | ||
+ | ##Swerve / Ackerman | ||
+ | ##Swerve / Crab | ||
+ | ##Omni | ||
+ | ##Mecanum | ||
+ | #Advantages and Disadvantages of each | ||
+ | ##Tank | ||
+ | ###Advantages | ||
+ | ####mechanically simple | ||
+ | ####saves space | ||
+ | ####zero turning radius | ||
+ | ####high traction | ||
+ | ###Disadvantages | ||
+ | ####more turning effort/traction tradeoff | ||
+ | ####single axis of motion | ||
+ | ##Swerve / Ackerman | ||
+ | ###Advantages | ||
+ | ####mechanically simple | ||
+ | ####low turning effort | ||
+ | ####high traction | ||
+ | ###Disadvantages | ||
+ | ####large turning radius | ||
+ | ####difficult to power all wheels | ||
+ | ##Swerve / Crab | ||
+ | ###Advantages | ||
+ | ####Multi-axis motion | ||
+ | ####zero turning radius | ||
+ | ####high traction | ||
+ | ####low turning effort | ||
+ | ###Disadvantages | ||
+ | ####complex control | ||
+ | ####mechanically complex | ||
+ | ##Omni drive | ||
+ | ###Advantages | ||
+ | ####mechanically simple | ||
+ | ####zero turning radius | ||
+ | ####multi-axis motion | ||
+ | ###Disadvantages | ||
+ | ####low traction | ||
+ | ####complex controls | ||
+ | ####expensive parts | ||
+ | ##Mecanum | ||
+ | ###Advantages | ||
+ | ####mechanically simple (uses tank setup) | ||
+ | ####zero turning radius | ||
+ | ####multi-axis motion | ||
+ | ####higher traction than omni drive | ||
+ | ###Disadvantages | ||
+ | ####complex controls | ||
+ | ####expensive parts | ||
+ | #Demos (during presentation) | ||
+ | ##RC Cars | ||
+ | ##Robocup bases / video | ||
+ | ##Mecanum forklift video | ||
+ | #Activities | ||
+ | ##Drive demo vehicles through maze (time trials) | ||
===Manipulation=== | ===Manipulation=== |
Revision as of 14:01, 20 July 2007
This is the outline for both the 2007 basic and advanced Technology Enrichment sessions.
Contents
Basic Sessions
Introduction
Date: 09/11/2007
- Welcome to 2007 TE Sessions and to Tech
- Info about RoboJackets
- Key people and contacts during the sessions
- Info about sponsors
- Info about this year vs. last year
- Show them where to get power points and materials on our site
- On our website in TE sessions (there will be a page for materials and such)
- What is a robot
- Types
- Robots in real life
- Applications
- Commercial / Industrial
- Roomba
- Kuka
- Government / Military
- Samsungs Sentry in the DMZ
- UAV's border patrol, communication, traffic reports
- Bomb defusing
- Rescue
- Research
- DARPA
- NASA
- Telescopes
- Robotics at tech
- Borg Lab
- RIM
- GTRI
- UAV Lab
- others
- Our robots
- Candi
- 1 or 2 RoboCup
- Commercial / Industrial
- Applications
- End with our goals and aspirations
- Take questions
Intro to Mechanical Engineering
Date: 09/18/2007
Mechanical Power Transmission
Date: 09/25/2007
- What is power
- Physics
- Work x time = force x velocity
- Idea
- Make your motors useful
- Physics
- Mechanisms
- Gears
- How they work
- Teeth
- Pitch diameter
- How they work
- Ratio
- What it means
- How to calculate
- Teeth to teeth
- Belts
- Types
- V Belt
- Timing Belt
- How they work
- V Belt - Fits in a wheel that has groove
- Timing belt - Have notches
- Goal when using keep as much contact as possible between belt and wheel (sort of)
- How to calculate
- Diameter to diameter
- Types
- Chains and Sprockets
- How they work
- Links
- Master links
- Numbering (what it means)
- Standard sizes (lengths etc)
- Goal when using ...
- Big v. Small
- Big
- Stronger
- Less efficient
- Small
- Weaker
- More efficient
- Big
- How to calculate
- Diameter to diameter
- How they work
- Pulleys
- How they work
- Special
- Rack and Pinion
- How they work
- Worm Gears
- How they work
- Rack and Pinion
- Gears
- Advantages and Disadvantages of each
- Gears
- Weight
- You will be reducing them
- Location
- Motor is close to output
- Easier to work with
- Don't have to tension
- Weight
- Belts
- Tensioning
- Location
- Motor can be much farther away from output
- Weight
- Don't need to remove mass
- Skipping
- Chains
- Tensioning
- Location
- Motor can be much farther away from output
- Slack
- Less efficient than gears
- Weight
- Don’t need to remove mass
- Special
- Rack and Pinion
- Linear motion
- Worm Gears
- High torque
- Cant back drive (in theory but teeth can break...)
- High torque
- Rack and Pinion
- Gears
- Demos
- Gears
- C4's Gearbox and Lego Demo
- Belts
- C4’s Panning Turret (ghetto)
- Chains
- C4's drive module
- Pulleys
- ?
- Special
- Rack and Pinion
- Lego
- Worm
- Lego
- Rack and Pinion
- Gears
- Activities
- Build a gear box with a ratio of X (lego)
- Allow groups to come up and see C4’s various aspects.
- ??
- What to expect
- A combination of these on your bot (not just one)
- Be prepared to chop of some weight
Drive Types
Date: 10/02/2007
- Methods of motion
- Tank
- Swerve / Ackerman
- Swerve / Crab
- Omni
- Mecanum
- Advantages and Disadvantages of each
- Tank
- Advantages
- mechanically simple
- saves space
- zero turning radius
- high traction
- Disadvantages
- more turning effort/traction tradeoff
- single axis of motion
- Advantages
- Swerve / Ackerman
- Advantages
- mechanically simple
- low turning effort
- high traction
- Disadvantages
- large turning radius
- difficult to power all wheels
- Advantages
- Swerve / Crab
- Advantages
- Multi-axis motion
- zero turning radius
- high traction
- low turning effort
- Disadvantages
- complex control
- mechanically complex
- Advantages
- Omni drive
- Advantages
- mechanically simple
- zero turning radius
- multi-axis motion
- Disadvantages
- low traction
- complex controls
- expensive parts
- Advantages
- Mecanum
- Advantages
- mechanically simple (uses tank setup)
- zero turning radius
- multi-axis motion
- higher traction than omni drive
- Disadvantages
- complex controls
- expensive parts
- Advantages
- Tank
- Demos (during presentation)
- RC Cars
- Robocup bases / video
- Mecanum forklift video
- Activities
- Drive demo vehicles through maze (time trials)
Manipulation
Date: 10/09/2007
Manufacturing and Safety
Date: 10/16/2007
- Design Tools
- Brainstorming
- Strategy
- Idea cloud
- Function tree
- Organizes possible robot functions during competition
- Robot designs
- Morpgological chart
- Strategy
- Evaluation
- Objective weighting based on strategy
- Evaluation talbe
- considers importance of robot characteristics based on selected strategy
- Technical Drawing
- Last step before fabrication
- Can use anything from simensioned sketchees to 3D models
- Important to shot not only individual part dimensions but also how it fits into the overall design
- Brainstorming
- Fabrication
- Safety
Pneumatic / Fluid Power
Date: 10/23/2007
Electrical Power
Date: 10/30/2007
Programming
Date: 11/06/2007
Success in FIRST / Cookout
Date: 11/10/2007
Advanced Sessions
Technical Design
Date:
- CAD vs. Solid modeler
- Autodesk AutoCAD
- Eagle CAD
- Autodesk Inventor
- UGS Solid Edge
- Dassult Systems CATIA
- Reading technical drawings
- Multi views
- Isometrics
- Properly dimensioned vs. bad
- Basics of Autodesk Inventor
- How to make a part
- Constraining sketches
- Extrusions / Cuts
- Holes
- Importance of placing holes for bolts
- Assembly
- Mating / Constraining
- Projecting geometry
- Output a drawing
- 3 view
- Placing dimensions
- What a machine shop might want from you
- How to make a part
Motor Control
Date:
Adv. Mechanical Power Transmission
Date:
Topics in Autonomous Control
Date:
Machine Vision
Date:
Manipulation
Date: and (2 weeks)