Robot Kinematics and Dynamics
18 resources created by 14 users
This Robot Kinematics and Dynamics page on GoConqr gathers user-made mind maps, quizzes, flowcharts and flashcards on robot models, inverse kinematics and velocity. It is for university students studying these methods and teachers looking for material to use in teaching. The page offers a small set of resources at university level, from coordinate systems to kinematic and dynamic models. Start with a mind map, then try a quiz.
Top Robot Kinematics and Dynamics resources
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29 nodesSCARA STEP 1 · Step 2 · Step 3 · Step 4 · Step 5
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50 questionsDONE BY HOFFA PART 2 51. The output of the inverse kinematics are
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23 cardsLecture 1, euler lagrange modelling What is the euler lagrange equation?
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25 nodesClosed-form Kinematic and Dynamic Models of an Industrial-like RRR Robot In the article the cl... · Kinematic Model · Dinamic Model · RRR-robot · EXPERIMENTAL SET -UP · Robot kinematics in c...
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14 nodesDenavit-Hartenberg allows to establish t...
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12 nodesClosed-form Kinematic and Dynamic Models of an Industial-like RRR Robot Kinematics and dynami... · kinematic model enabl... · A dynamic model provi... · closed-form solutions... · motion control is pos... · Unfortunately, the de...
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28 nodesPlanning and Inverse Kinematics of Biped Walking Robots WALKING POSE PLANNING... · . SOLVING EQUATIONS O... · CONCLUSION · INVERSE KINEMATICS SO...
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25 nodesAnalytical Inverse Kinematics BACKGROUND · SOLVING THE INVERSE K... · RESULTS · INVERSE KINEMATICS SO...
Quizzes
Mind maps
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29 nodesSCARA STEP 1 · Step 2 · Step 3 · Step 4 · Step 5
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25 nodesClosed-form Kinematic and Dynamic Models of an Industrial-like RRR Robot In the article the cl... · Kinematic Model · Dinamic Model · RRR-robot · EXPERIMENTAL SET -UP · Robot kinematics in c...
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14 nodesDenavit-Hartenberg allows to establish t...
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12 nodesClosed-form Kinematic and Dynamic Models of an Industial-like RRR Robot Kinematics and dynami... · kinematic model enabl... · A dynamic model provi... · closed-form solutions... · motion control is pos... · Unfortunately, the de...
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28 nodesPlanning and Inverse Kinematics of Biped Walking Robots WALKING POSE PLANNING... · . SOLVING EQUATIONS O... · CONCLUSION · INVERSE KINEMATICS SO...
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25 nodesAnalytical Inverse Kinematics BACKGROUND · SOLVING THE INVERSE K... · RESULTS · INVERSE KINEMATICS SO...
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21 nodesDH Model 1. Identify robot par... · 2. Assign the Z axes ... · 3. Set the origins S ... · 4. Assign the directi... · 5. Parameter table · 6. Homogeneous transf...
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30 nodesClosed-form Kinematic and Dynamic Models of an Industrial-like RRR Robot Experimental Set-up · Robot Kinematics in C... · Robot Dynamics in Clo... · Model Verification
Flashcards
Flowcharts
More Robotics topics
About Robot Kinematics and Dynamics
GoConqr OriginalStart with coordinate systems
Begin with SCARA, a mind map that sets out a robot representation, coordinate systems and a Denavit-Hartenberg table. It gives you a way to follow how joints and axes are represented before moving on to other models.
The Denavit-Hartenberg mind map describes how reference systems are located on links in articulated robotic systems. DH Model sets out rotations and translations along the axes. Read these alongside SCARA to compare the representations and the steps used in each map.
Explore inverse kinematics and models
Analytical Inverse Kinematics covers transformation formalism, the Denavit-Hartenberg convention and a method for solving inverse kinematics. Another mind map covers walking pose planning and inverse kinematics for biped robots. Together, they offer examples to study after the coordinate-system resources.
The page also lists mind maps on closed-form kinematic and dynamic models of an industrial-like RRR robot. Their excerpts cover rotational degrees of freedom, kinematic parameters and an experimental setup. Compare them to see how each resource presents the model.
Connect velocity and practice
The Velocity Kinematics and Statics flowchart introduces the relationship between joint velocities and the end effector, including the Jacobian matrix. The similarly named mind map covers the analytical Jacobian, position and orientation. Use the flowchart to follow the relationship, then consult the map for related terms.
After studying a map, use a listed quiz for practice and return to the map when you want to check a concept. The quiz titled quiz has no excerpt, so open it to see what it covers.
Use the page within Robotics
This topic is one section of the Robotics unit in Mechanical engineering. Its resources bring coordinate systems, inverse kinematics, velocity and models together within that section. Pick a resource that matches what you are studying and explore it at your own pace.
Frequently asked questions
Which resource is a useful starting point?
SCARA is a useful starting point if you want to follow a robot representation through coordinate systems and a Denavit-Hartenberg table. You can then use Denavit-Hartenberg and DH Model to look more closely at reference systems, rotations and translations. Each presents related material in a mind map.
What do the mind maps cover?
The mind maps cover coordinate systems, inverse kinematics, velocity and closed-form robot models. Analytical Inverse Kinematics includes transformation formalism and a method for solving inverse kinematics. Other maps look at a SCARA representation, biped walking and the kinematics and dynamics of an industrial-like RRR robot.
Are the resources free to use?
Yes. Every resource listed on this page is free to open, study and take without an account. A free account can also save your quiz scores and let you make your own quizzes, mind maps, flashcards and notes. The listed resources were made by GoConqr users.
Who are these resources for?
The resources are at university level. University students can use them to study robot representations, inverse kinematics and velocity relationships. Teachers can also use the listed mind maps, flowcharts, quizzes and flashcards as material for teaching these topics within the Robotics unit in Mechanical engineering.