Answer these 600+ Robotics MCQs and assess your grip on the subject of Robotics.
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A. Spatial base
B. Environment
C. Exclusion zone
D. Work envelope
A. Signal
B. Feedback
C. Pressure
D. None of the Above
A. Computer Science
B. Civil Engineering
C. Mechanical Engineering
D. Electrical Engineering
A. Drive
B. Controller
C. End effectors
D. Peripheral tools
A. Factories
B. Hospitals
C. Private homes
D. None of the above
A. Vacation schedules
B. Visual presentations
C. Budget projections
D. Business decisions
A. Hills
B. Medicine
C. Military
D. Industries
A. SRI
B. MIT
C. CMU
D. None of the Above
A. Robot pose
B. Robat path
C. Robot action
D. Robot position
A. Robots must make business a greater profit
B. Robots must follow the directions given by humans
C. Robots must never take actions harmful to humans
D. None of the above
A. Computer Science
B. Electrical Engineering
C. Mechanical Engineering
D. Chemical Engineering
A. Playback Robot
B. Fixed Sequence Robot
C. Variable sequence robot
D. None of the above
A. Path related
B. Map related
C. Edge related
D. None of the above
A. Automated guided Vehical
B. Automated grid Van
C. Automatic guided Vehical
D. None of the above
A. True
B. False
A. Data Adjuster
B. Auto-Sensor
C. None of these choices are correct
D. A Robot
E. Absolute Data
A. Checks to see if the robot has exited its predetermined Home
B. Retrieves and records a random digit from a telephone keypad
C. Displays the signal strength of a particular frequency band
D. Establishes an indicated value of zero when the robot is at the predetermined Home
E. Generates and displays a map of the building
A. Money
B. Business
C. Home
D. Weight
E. Age
A. Accuracy
B. Mean time to failure
C. Defects
D. Efficiency
E. Effectiveness
A. The efficiency of the weapon
B. The accuracy of the weapon
C. The deviation between the command characteristic and the attained characteristic
D. The deviation between the predicted characteristic and the attained characteristic
A. A robot with an on-board sensor that monitors its environment and modifies its motion accordingly
B. One in which motion modification during the performance of a task is initiated by the control system
C. One in which motion is fixed during the performance of a task
D. One that responds to external stimuli
E. A robot that can be instructed to move in a particular way
A. The dimension
B. The position or location
C. The control point's orientation
D. The function
E. The position of the control point
A. Marginal cost
B. Marginal cost pricing
C. Unsensed errors
D. Marginal revenue
E. Firm's sunk costs
A. A command
B. A power supply
C. A signal
D. A pressure wave
A. Navigation system
B. ECS
C. Steering system
D. Motor
E. Control system
A. Battery
B. Wire
C. Actuator
D. Motor
A. Rotating joint
B. Focal point
C. Motor
D. End-effector
A. Cadaver Arm
B. Limbless Manipulator
C. Articulated Manipulator
D. Partial Arm
A. Rotation only
B. Translation and rotary motion
C. Rotation and translation
A. Muscle
B. Cartilage
C. Articulation
D. Bone
A. Jointed manipulator
B. Leg
C. Hopper
D. Arm
A. Jointed
B. Springloaded
C. Twisting
D. Vibrating
E. Articulated
A. Automobiles
B. Pharmaceuticals
C. Pharmaceutical manufacturing
D. Assembly line production
E. Car assembly
A. Automatic Measurement Function
B. Computer Aided Manufacturing
C. Computer Aided Design
D. Geometric Model
E. Wireframe
A. The tool's mass
B. A CAD model of the tool
C. The material properties of the tool
D. The geometry of the tool
E. The geometry of the workpiece
A. 8370
B. 8373
C. 8365
D. 8364
E. 8376
A. Axis A
B. Direction of travel
C. Axis B
D. Axis C
A. Linear or rotary with constant speed
B. Balanced or unbalanced
C. Linear or rotary
D. Single-ended or differential
E. Linear or circular
A. A signal that warns the operator when they are getting too close to an object
B. A signal that indicates the direction of travel
C. A signal based on whether the current position is within a predefined range
D. A signal that can be turned off
E. A warning signal for when the power to the station is about to expire
A. The arm
B. The robotic arm
C. The robot arm
D. The stable platform
E. The robot
A. Stable platform
B. Manufacturing line
C. Machine
D. Tool
A. NAD 83
B. UTM Zone 12
C. Polar Coordinate System
D. Cartesian Coordinate System
E. World Coordinate System
A. The origin of a coordinate system
B. The coordinate space
C. A common reference point
D. A cell's size
E. A coordinate space
A. Allows for easy navigation
B. Allows for easy comparison of maps
C. Assigns a coordinate to every point in the world
D. Defines the shape of Earth
E. Defines a common reference point
A. First joint
B. Second joint
C. Third joint
A. Base Link
B. Base
C. Controller
D. Battery Box
E. Control Link
A. The shaft that transfers power to the robot arm
B. The human body
C. The rotating base structure of a robot arm
D. The robotic arm
E. The stationary base structure of a robot arm
A. Burn-in
B. Shutdown
C. Calibration
D. Calibrate
E. Reprogramming
A. To test movement and movement programming
B. To verify the output quality of a display
C. To check for compatibility with the user's environment
D. To ensure proper function of the monitor
E. To test the readability of a text
A. Assembly language applications
B. CAD/CAM
C. Database applications
D. Computer graphic applications
E. Product design applications
A. Objects
B. Lines
C. Shapes
A. Design Software
B. Computer Aided Design
C. Computer aided engineering
D. CAD
E. Computer aided manufacturing
A. 3D modeling
B. Software design
C. Hardware design
D. Design software
E. Computer graphic applications
A. Wagon
B. Carousel
C. Loom
D. Cart
E. Printer
A. Fixed axes
B. X-axis
C. Origin
D. Y-axis
A. The location of an object in space
B. A mathematical model used to describe physical processes
C. A three dimensional Cartesian coordinate System
D. A two dimensional Cartesian coordinate System
A. Curves
B. Planes
C. Axes
D. Joints
E. Slices
A. Concentric
B. Angular
C. Concave
D. Convex
E. Prismatic
A. Isotropic topology
B. Bipartite Topology
C. Hyperbolic Topology
D. Graph Topology
E. Cartesian Topology
A. A philosophical concept
B. A mathematical structure
C. A topology
D. A type of graph theory
E. The geometry of circles
A. Leg
B. Wheel-base
C. Wheel
D. Head
E. Manipulator-arm
A. Newton's Second Law of Motion
B. Gravitational force
C. Centrifugal force
D. Newton's First Law of Motion
E. Torques
A. An inward radial force
B. Centrifugal force that causes a drop in altitude
C. Centrifugal force
D. Centrifugal force that keeps spinning an object
E. Outward radial force
A. Random Motion Type C
B. Linear Motion Type B
C. Angular Motion Type C
D. Circular Motion Type A
E. Straight Line Motion Type B
A. A motor
B. A torque arm
C. A computer
D. Tactile, and feed-back force sensors
E. A hydraulic actuator
A. Ultrasonic
B. Magnetic
C. Tactile
A. Keep track of the object's center of mass
B. Detect when the object has been clamped too tightly
C. Keep track of the beam width
D. Assist in the alignment of objects
E. Manage the applied force to the object by the clamp
A. Tugging
B. Pushing
C. Clamping
D. Dragging
A. Shear
B. Plastic
C. Bending
D. Volumetric
A. The process of restraining something
B. The action of reducing the size or thickness of something
C. The act of restraining or holding something in place
D. The maximum permissible force acting on a body region
E. The process of applying a clamp to a body region
A. Pressure
B. Vascularity
C. Tight clothing
D. Contact
A. Clamping Force
B. Torque
C. Resistance to Movement
D. Shear Force
A. Continuous
B. Error feedback
C. Closed-loop
D. Experienced feedback
E. Discrete
A. One
B. Two
C. None
D. Many
A. Autonomous Robot
B. Service Robot
C. Cooperative Robot
D. Collaborative Robot
E. Robotic Team Member
A. One or more of the four collaborative modes
B. A robot designed to operate in a factory
C. A robot with a pre-programmed task
D. A robotic arm
E. A robot designed to operate outdoors
A. Arguments
B. Filtered
C. Output
D. Redirected
E. Parsed
A. Poor customer service
B. Low productivity
C. A stiff system when stressed
D. Low employee morale
E. High turnover
A. A little bit
B. A good bit
C. None at all
A. Modifying its motions
B. Modifying its behavior
C. Modifying its environment
D. Modifying its cognitive process
A. Ultrasonic Sensor
B. Laser
C. Contact Sensor
D. Magnetometer
E. Radar
A. Path following
B. Preplanned Path
C. Traversal
D. Path Planning
E. Continuous Path
A. Running
B. Smooth movement
C. Quick movement
D. Jogging
E. Random movement
A. Amplitude
B. Torque applications
C. Acceleration
D. Frequency
A. Computer
B. Camera
C. Radar
D. Control Algorithm
A. Program
B. Go
C. Script
D. Command
A. Pendant
B. Mouse
C. Tablet
D. Keyboard
A. A toggle switch, a dial, or a knob
B. A knob, a switch, or a key
C. A touch screen, a keyboard, or a mouse
D. A lever, a pedal, or a switch
E. Emergency-stop button, a start button, or a selector switch
A. Brake
B. Fuel Tank
C. Control Device
D. Transmission
A. Command Mode
B. Teleoperation Mode
C. Program Mode
D. Wi-Fi Mode
E. Control Mode
A. The manner in which the robot moves
B. The mode in which the robot operates
C. The means by which instructions are communicated to the robot
D. The position of a control wheel that allows the robot to be moved
A. No feedback necessary
B. Stability
C. Controllability
D. Feedback
E. Periodicity
A. Device
B. Message
C. Instrument
D. Event
E. System
A. Motor rotation
B. Power supply signals
C. Drive signals
D. Motor signals
E. Power supply voltages
A. Motors and gears
B. Electromechanical or hydraulic actuators
C. Desired and measured position, velocity or other pertinent variables
D. Sensors to detect changes in position, velocity or other pertinent variables
E. Power supply, servo control and feedback circuits
A. Pictures
B. Data
C. Music
D. Text
A. The Robot
B. The Work Environment
C. The Controller System
D. The Work Area
A. All types
B. All type
C. None type
D. One type
E. Some type
A. Cartesian Robot
B. Roomba
C. Automatic Machine
D. Yaskawa
E. Da Vinci
A. The Power Supply
B. The Memory Card
C. The Main Circuit Board
D. The Central Processing Unit
E. The Memory