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UpskillingforDeeptech&FutureskillsProgramme
IndustrialRoboticsArmTraining
(SCARARobot)
Programme Outline
Introduction to
Industrial Robots
Introduction to
SCARA Robot (KSS-
1500)
Robot Controller of
the KSS1500 Robot
Control of an
Integrated Robot
System
Introduction to
Industrial Robots
Introduction to
SCARA Robot (KSS-
1500)
Robot Controller of
the KSS1500 Robot
Control of an
Integrated Robot
System
Programme Outline
Introduction to
Industrial Robots
Introduction to
SCARA Robot (KSS-
1500)
Robot Controller of
the KSS1500 Robot
Control of an
Integrated Robot
System
Programme Outline
Fundamentalsof
Robot
What is a Robot ?
Definition by IFR (International Federation of
Robotics)
• A robot is an actuated mechanism
programmable in two or more axes with a
degree of autonomy, moving within its
environment, to perform intended tasks.
actuated mechanism
programmable two or more axes
degree of autonomy
intended tasks
Autonomy in this context means the
ability to perform intended tasks based
on current state and sensing, without
human intervention.
autonomy
Classification of Robot
• by IFR (International Federation of Robotics)
Classification Examples
Industrial Robot
Manufacturing (Welding, Handling, Painting,
Assembly,etc.)
Service
Robot
Personal
ServiceRobot
used for anon-commercial task
- Home (servant robot)
- Entertainment
- Health Care(personal mobility assistrobot,
…),etc.
Professional
ServiceRobot
used for acommercial task, usually operated by
aproperly trained operator
- Surgery robot
- Fire-fighting robot
- Military robot, etc.
Definition of Industrial Robot
Industrial robot (as defined by ISO 8373) :
• An automatically controlled, reprogrammable, multipurpose manipulator
programmable in three or more axes, which may be either fixed in place or
mobile for use in industrial automation applications.
• Reprogrammable: whose programmed motions or auxiliary functions may be
changed without physical alterations;
• Multipurpose: capable of being adapted to a different application with physical
alterations;
• Physical alterations: alteration of the mechanical structure or control system
except for changes of programming cassettes, ROMs, etc.
• Axes/Axis: direction used to specify the robot motion in a linear or rotary mode
Definition of Industrial
Robot
• Industrial robots (as defined by Groover) :
• A general-purpose, programmable machine
possessing certain anthropomorphic
characteristics
• Hazardous work environments
• Repetitive work cycle
• Consistency and accuracy
• Difficult handling task for humans
• Multishift operations
• Reprogrammable, flexible
• Interfaced to other computer systems
Definition of ServiceRobots
Aservicerobot(asdefinedbyIFR) :
• A robot that performs useful tasks for humans or equipment excluding industrial
automation application. Note: The classification of a robot into industrial robot or
service robot is done according to its intended application.
• A personal service robot or a service robot for personal use is a service robot used for a
non-commercial task, usually by lay persons. Examples are domestic servant robot,
automated wheelchair, personal mobility assist robot, and pet exercising robot.
• A professional service robot or a service robot for professional use is a service robot
used for a commercial task, usually operated by a properly trained operator. Examples are
cleaning robot for public places, delivery robot in offices or hospitals, fire-fighting robot,
rehabilitation robot and surgery robot in hospitals. In this context an operator is a person
designated to start, monitor and stop the intended operation of a robot or a robot
system.
Examplesof ServiceRobot
Cleaning robot, Roomba (iRobot)
Humanoid Robot,
Hubo (KAIST)
Mars Exploring, Spirit and Opportunity (NASA)
Hazardous Working Robot, Robhaz (Yujin)
RoboticsTimeline
1922
Czech author Karel
Capek wrote a story
called Rossum’s
Universal Robots and
introduced the word
“Rabota”(meaning
worker)
1954
George Devol developed
the first programmable
Robot.
1955
Denavit and Hartenberg
developed the
homogenous
transformation matrices
1962
Unimation was formed,
first industrial Robots
appeared.
1973
Cincinnati Milacron
introduced the T3 model
robot, which became
very popular in industry.
1980s
Industrial robots are
widely used in US,
Europe, Japan
1990s
Industrial robots are
widely used in Korea
1990~2000s
Service robots are
actively studied (but, not
used widely)
2010s
Industrial robots are
used in other countries
such as China, …
Industrial
Robot :
Overall Market
Size
Industrial
Robot :
Market Size
by Countries
Industrial
Robot :
Market Size
by Region
Industrial
Robots
Industrial
Robots Industrial Robot Anatomy
• Manipulator consists of joints and
links
• Joints provide relative motion
• Links are rigid members between
joints
• Various joint types: linear and
rotary
• Each joint provides a “degree-of-
freedom”
• Most robots possess five or six
degrees-of-freedom
Base
Joint
1
Link
0
Link
2
Link
3
Joint
3
End of
Arm
Link
1
Joint
2
Industrial
Robots Industrial Robot Anatomy
• Robot manipulator consistsof twosections:
• Body-and-arm– for positioning of objects in the robot's work
volume
• Wrist assembly– for orientation ofobjects
Industrial
Robots Industrial Robot Anatomy
• Translational motion
• Linear joint (type L)
• Orthogonal joint (type O)
• Rotary motion
• Rotational joint (typeR)
• Twisting joint (typeT)
• Revolving joint (type V)
Typesof Manipulator Joints
Industrial
Robots Industrial Robot Anatomy
Typesof Manipulator Joints
• Translational motion
• Linear joint (type L)
• Orthogonal joint (type O)
Input Link
Output Link
Input Link
Output Link
Motion
Motion
Industrial
Robots Industrial Robot Anatomy
Typesof Manipulator Joints
• Rotary motion
• Rotational joint (typeR)
• Twisting joint (typeT)
• Revolving joint (type V)
Input Link
Output Link
Input Link
Output Link
Input Link
Output Link
Industrial
Robots Industrial Robot Anatomy
• Uses the joint symbols (L, O, R, T, V) to designate
joint types used to construct robot manipulator
• Separates body-and-arm assembly from wrist
assembly using a colon (:)
• Example: TLR : TR
• Common body-and-arm configurations …
Joint Notation Scheme
Industrial
Robots Industrial Robot Anatomy
Lets try to identify the types of joints used in the following picture
and their joint notation.
1
2
3
4
1
2
3
4
5
1
2
3
Industrial
Robots Industrial Robot Anatomy
Wrist Configurations
• Wrist assembly is attached to end-of-arm
• End effector is attached to wrist assembly
• Function of wrist assembly is to orient end
effector
• Body-and-arm determines global
position of end effector
• Two or three degrees of freedom:
• Roll
• Pitch
• Yaw
• Notation: RRT
Industrial
Robots
Industrial
Robot
Anatomy
End Effectors
• The special tooling for a robot that enables it to
perform a specific task
• Two types:
• Grippers – to grasp and manipulate objects
(e.g., parts) during work cycle
• Tools – to perform a process, e.g., spot
welding, spray painting
Industrial
Robots Industrial Robot Anatomy
Grippers
and Tools
Industrial
Robots
Working Envelope
Industrial
Robots Industrial Robot Anatomy
Joint Drive Systems
• Electric
• Uses electric motors to actuate individual joints
• Preferred drive system in today's robots
• Hydraulic
• Uses hydraulic pistons and rotary vane actuators
• Noted for their high power and lift capacity
• Pneumatic
• Typically limited to smaller robots and simple material transfer applications
SCARA robot
Polar Coordinate robot
Other
robot Cylindrical robot
Cartesian robot Vertical Articulated robot
Industrial
Robots
Types Of
Industrial Robots
Cartesian robot
Cartesian Coordinate
Body-and-Arm Assembly
Notation LOO:
Consists of three sliding joints, two of which are
orthogonal
Other names include rectilinear robot and x-y-z
robot
Cartesian Robots (including gantry robots)
• Also called rectangular, rectilinear, gantry
• Robot that has the ability to move its gripper to any position within the
cube or rectangle defined asits work envelope
• Three linear (3L) movements
Applications
• Materials handling
• Parts handling related to machine loading/unloading supplybins
• Assembly of smallsystems
• Example: Electronic printed circuit board assembly
Cartesian Robots (including gantry robots)
Vertical Articulated robot
Jointed-Arm Robot
Notation TRR:
Vertically Articulated Robots
• Three rotational movements(3R)
• VerticallyArticulated Robots - additional rotary axis or linear axis for theforearm
link - Also called Jointed-Arm, Revolute, orAnthropomorphic
Vertically Articulated Robots - Automotive
Vertically Articulated Robots - Automotive
Cylindrical robot
Cylindrical Body-and-Arm
Assembly
Notation TLO:
Consists of a vertical column, relative to which an
arm assembly is moved up or down
The arm can be moved in or out relative to the
column
Cylindrical Robots
• Robot canmove its gripper within avolume that is described by acylinder
• Twolinear movements, one rotational (2L1R)
Cylindrical Robots
Polar Coordinate robot
Polar Coordinate
Body-and-Arm Assembly
Notation TRL:
Consists of a sliding arm (L joint) actuated
relative to the body, which can rotate about both
a vertical axis (T joint) and horizontal axis (R
joint)

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Day 1 Part I T-Robot Industrial Robotic Arm Training.pptx

  • 2. Programme Outline Introduction to Industrial Robots Introduction to SCARA Robot (KSS- 1500) Robot Controller of the KSS1500 Robot Control of an Integrated Robot System
  • 3. Introduction to Industrial Robots Introduction to SCARA Robot (KSS- 1500) Robot Controller of the KSS1500 Robot Control of an Integrated Robot System Programme Outline
  • 4. Introduction to Industrial Robots Introduction to SCARA Robot (KSS- 1500) Robot Controller of the KSS1500 Robot Control of an Integrated Robot System Programme Outline
  • 5.
  • 6.
  • 8. What is a Robot ? Definition by IFR (International Federation of Robotics) • A robot is an actuated mechanism programmable in two or more axes with a degree of autonomy, moving within its environment, to perform intended tasks. actuated mechanism programmable two or more axes degree of autonomy intended tasks Autonomy in this context means the ability to perform intended tasks based on current state and sensing, without human intervention. autonomy
  • 9. Classification of Robot • by IFR (International Federation of Robotics) Classification Examples Industrial Robot Manufacturing (Welding, Handling, Painting, Assembly,etc.) Service Robot Personal ServiceRobot used for anon-commercial task - Home (servant robot) - Entertainment - Health Care(personal mobility assistrobot, …),etc. Professional ServiceRobot used for acommercial task, usually operated by aproperly trained operator - Surgery robot - Fire-fighting robot - Military robot, etc.
  • 10. Definition of Industrial Robot Industrial robot (as defined by ISO 8373) : • An automatically controlled, reprogrammable, multipurpose manipulator programmable in three or more axes, which may be either fixed in place or mobile for use in industrial automation applications. • Reprogrammable: whose programmed motions or auxiliary functions may be changed without physical alterations; • Multipurpose: capable of being adapted to a different application with physical alterations; • Physical alterations: alteration of the mechanical structure or control system except for changes of programming cassettes, ROMs, etc. • Axes/Axis: direction used to specify the robot motion in a linear or rotary mode
  • 11. Definition of Industrial Robot • Industrial robots (as defined by Groover) : • A general-purpose, programmable machine possessing certain anthropomorphic characteristics • Hazardous work environments • Repetitive work cycle • Consistency and accuracy • Difficult handling task for humans • Multishift operations • Reprogrammable, flexible • Interfaced to other computer systems
  • 12. Definition of ServiceRobots Aservicerobot(asdefinedbyIFR) : • A robot that performs useful tasks for humans or equipment excluding industrial automation application. Note: The classification of a robot into industrial robot or service robot is done according to its intended application. • A personal service robot or a service robot for personal use is a service robot used for a non-commercial task, usually by lay persons. Examples are domestic servant robot, automated wheelchair, personal mobility assist robot, and pet exercising robot. • A professional service robot or a service robot for professional use is a service robot used for a commercial task, usually operated by a properly trained operator. Examples are cleaning robot for public places, delivery robot in offices or hospitals, fire-fighting robot, rehabilitation robot and surgery robot in hospitals. In this context an operator is a person designated to start, monitor and stop the intended operation of a robot or a robot system.
  • 13. Examplesof ServiceRobot Cleaning robot, Roomba (iRobot) Humanoid Robot, Hubo (KAIST) Mars Exploring, Spirit and Opportunity (NASA) Hazardous Working Robot, Robhaz (Yujin)
  • 14. RoboticsTimeline 1922 Czech author Karel Capek wrote a story called Rossum’s Universal Robots and introduced the word “Rabota”(meaning worker) 1954 George Devol developed the first programmable Robot. 1955 Denavit and Hartenberg developed the homogenous transformation matrices 1962 Unimation was formed, first industrial Robots appeared. 1973 Cincinnati Milacron introduced the T3 model robot, which became very popular in industry. 1980s Industrial robots are widely used in US, Europe, Japan 1990s Industrial robots are widely used in Korea 1990~2000s Service robots are actively studied (but, not used widely) 2010s Industrial robots are used in other countries such as China, …
  • 19. Industrial Robots Industrial Robot Anatomy • Manipulator consists of joints and links • Joints provide relative motion • Links are rigid members between joints • Various joint types: linear and rotary • Each joint provides a “degree-of- freedom” • Most robots possess five or six degrees-of-freedom Base Joint 1 Link 0 Link 2 Link 3 Joint 3 End of Arm Link 1 Joint 2
  • 20. Industrial Robots Industrial Robot Anatomy • Robot manipulator consistsof twosections: • Body-and-arm– for positioning of objects in the robot's work volume • Wrist assembly– for orientation ofobjects
  • 21. Industrial Robots Industrial Robot Anatomy • Translational motion • Linear joint (type L) • Orthogonal joint (type O) • Rotary motion • Rotational joint (typeR) • Twisting joint (typeT) • Revolving joint (type V) Typesof Manipulator Joints
  • 22. Industrial Robots Industrial Robot Anatomy Typesof Manipulator Joints • Translational motion • Linear joint (type L) • Orthogonal joint (type O) Input Link Output Link Input Link Output Link Motion Motion
  • 23. Industrial Robots Industrial Robot Anatomy Typesof Manipulator Joints • Rotary motion • Rotational joint (typeR) • Twisting joint (typeT) • Revolving joint (type V) Input Link Output Link Input Link Output Link Input Link Output Link
  • 24. Industrial Robots Industrial Robot Anatomy • Uses the joint symbols (L, O, R, T, V) to designate joint types used to construct robot manipulator • Separates body-and-arm assembly from wrist assembly using a colon (:) • Example: TLR : TR • Common body-and-arm configurations … Joint Notation Scheme
  • 25. Industrial Robots Industrial Robot Anatomy Lets try to identify the types of joints used in the following picture and their joint notation. 1 2 3 4 1 2 3 4 5 1 2 3
  • 26. Industrial Robots Industrial Robot Anatomy Wrist Configurations • Wrist assembly is attached to end-of-arm • End effector is attached to wrist assembly • Function of wrist assembly is to orient end effector • Body-and-arm determines global position of end effector • Two or three degrees of freedom: • Roll • Pitch • Yaw • Notation: RRT
  • 27. Industrial Robots Industrial Robot Anatomy End Effectors • The special tooling for a robot that enables it to perform a specific task • Two types: • Grippers – to grasp and manipulate objects (e.g., parts) during work cycle • Tools – to perform a process, e.g., spot welding, spray painting
  • 28. Industrial Robots Industrial Robot Anatomy Grippers and Tools
  • 30. Industrial Robots Industrial Robot Anatomy Joint Drive Systems • Electric • Uses electric motors to actuate individual joints • Preferred drive system in today's robots • Hydraulic • Uses hydraulic pistons and rotary vane actuators • Noted for their high power and lift capacity • Pneumatic • Typically limited to smaller robots and simple material transfer applications
  • 31. SCARA robot Polar Coordinate robot Other robot Cylindrical robot Cartesian robot Vertical Articulated robot Industrial Robots Types Of Industrial Robots
  • 33. Cartesian Coordinate Body-and-Arm Assembly Notation LOO: Consists of three sliding joints, two of which are orthogonal Other names include rectilinear robot and x-y-z robot
  • 34. Cartesian Robots (including gantry robots) • Also called rectangular, rectilinear, gantry • Robot that has the ability to move its gripper to any position within the cube or rectangle defined asits work envelope • Three linear (3L) movements
  • 35. Applications • Materials handling • Parts handling related to machine loading/unloading supplybins • Assembly of smallsystems • Example: Electronic printed circuit board assembly Cartesian Robots (including gantry robots)
  • 38. Vertically Articulated Robots • Three rotational movements(3R) • VerticallyArticulated Robots - additional rotary axis or linear axis for theforearm link - Also called Jointed-Arm, Revolute, orAnthropomorphic
  • 42. Cylindrical Body-and-Arm Assembly Notation TLO: Consists of a vertical column, relative to which an arm assembly is moved up or down The arm can be moved in or out relative to the column
  • 43. Cylindrical Robots • Robot canmove its gripper within avolume that is described by acylinder • Twolinear movements, one rotational (2L1R)
  • 46. Polar Coordinate Body-and-Arm Assembly Notation TRL: Consists of a sliding arm (L joint) actuated relative to the body, which can rotate about both a vertical axis (T joint) and horizontal axis (R joint)

Editor's Notes

  1. Mikell P. Groover