Explanation:
The end effector is task-specific and may be a gripper, welding torch, spray gun, screwdriver or other process tool.
Q2. Which option correctly identifies the function or significance of compliance in robotics?
Correct Answer: B | Marks: 1
Explanation:
Compliance can help with insertion and contact tasks by reducing sensitivity to small misalignments.
Q3. A robotics student is asked to distinguish gripping force from unrelated system features. Which answer is correct?
Correct Answer: C | Marks: 1
Explanation:
Gripping force must account for part mass, acceleration, friction, orientation and allowable surface pressure.
Q4. Which statement would be the soundest basis for explaining vacuum gripper to a new robotics engineer?
Correct Answer: D | Marks: 1
Explanation:
Vacuum gripping works well for suitable smooth, nonporous surfaces and depends on seal quality, pressure difference and cup area.
Q5. In a technical review of a robot, which statement about part retention should be accepted?
Correct Answer: A | Marks: 1
Explanation:
A grasp must resist gravity and inertial loads through the full planned motion, not just hold the part while stationary.
Q6. Which statement best describes tool changer?
Correct Answer: B | Marks: 1
Explanation:
Automatic tool changers improve flexibility by letting one robot perform different operations with different tools.
Q7. Which option correctly identifies the function or significance of gripping force in robotics?
Correct Answer: C | Marks: 1
Explanation:
Gripping force must account for part mass, acceleration, friction, orientation and allowable surface pressure.
Q8. A robotics student is asked to distinguish mechanical gripper from unrelated system features. Which answer is correct?
Correct Answer: D | Marks: 1
Explanation:
Mechanical grippers use fingers/jaws and may be driven electrically, pneumatically or hydraulically.
Q9. Which statement would be the soundest basis for explaining gripper selection to a new robotics engineer?
Correct Answer: A | Marks: 1
Explanation:
The part's mass, shape, surface, fragility and environment determine whether mechanical, vacuum, magnetic or another gripper is suitable.
Q10. In a technical review of a robot, which statement about tool changer should be accepted?
Correct Answer: B | Marks: 1
Explanation:
Automatic tool changers improve flexibility by letting one robot perform different operations with different tools.
Q11. Which statement best describes magnetic gripper?
Correct Answer: C | Marks: 1
Explanation:
Magnetic grippers are useful for suitable ferrous materials but are not universal for nonmagnetic objects.
Q12. Which option correctly identifies the function or significance of end effector in robotics?
Correct Answer: D | Marks: 1
Explanation:
The end effector is task-specific and may be a gripper, welding torch, spray gun, screwdriver or other process tool.
Q13. A robotics student is asked to distinguish gripper selection from unrelated system features. Which answer is correct?
Correct Answer: A | Marks: 1
Explanation:
The part's mass, shape, surface, fragility and environment determine whether mechanical, vacuum, magnetic or another gripper is suitable.
Q14. Which statement would be the soundest basis for explaining tool centre point to a new robotics engineer?
Correct Answer: B | Marks: 1
Explanation:
TCP definition lets programmed positions refer to the functional tool point, even when the tool geometry changes.
Q15. In a technical review of a robot, which statement about vacuum gripper should be accepted?
Correct Answer: C | Marks: 1
Explanation:
Vacuum gripping works well for suitable smooth, nonporous surfaces and depends on seal quality, pressure difference and cup area.
Q16. Which statement best describes end effector? (select the best answer)
Correct Answer: D | Marks: 1
Explanation:
The end effector is task-specific and may be a gripper, welding torch, spray gun, screwdriver or other process tool.
Q17. Which option correctly identifies the function or significance of compliance in robotics? (select the best answer)
Correct Answer: A | Marks: 1
Explanation:
Compliance can help with insertion and contact tasks by reducing sensitivity to small misalignments.
Q18. A robotics student is asked to distinguish gripping force from unrelated system features. Which answer is correct? (select the best answer)
Correct Answer: B | Marks: 1
Explanation:
Gripping force must account for part mass, acceleration, friction, orientation and allowable surface pressure.
Q19. Which statement would be the soundest basis for explaining vacuum gripper to a new robotics engineer? (select the best answer)
Correct Answer: C | Marks: 1
Explanation:
Vacuum gripping works well for suitable smooth, nonporous surfaces and depends on seal quality, pressure difference and cup area.
Q20. In a technical review of a robot, which statement about part retention should be accepted? (select the best answer)
Correct Answer: D | Marks: 1
Explanation:
A grasp must resist gravity and inertial loads through the full planned motion, not just hold the part while stationary.
Q21. Which statement best describes tool changer? (select the best answer)
Correct Answer: A | Marks: 1
Explanation:
Automatic tool changers improve flexibility by letting one robot perform different operations with different tools.
Q22. Which option correctly identifies the function or significance of gripping force in robotics? (select the best answer)
Correct Answer: B | Marks: 1
Explanation:
Gripping force must account for part mass, acceleration, friction, orientation and allowable surface pressure.
Q23. A robotics student is asked to distinguish mechanical gripper from unrelated system features. Which answer is correct? (select the best answer)
Correct Answer: C | Marks: 1
Explanation:
Mechanical grippers use fingers/jaws and may be driven electrically, pneumatically or hydraulically.
Q24. Which statement would be the soundest basis for explaining gripper selection to a new robotics engineer? (select the best answer)
Correct Answer: D | Marks: 1
Explanation:
The part's mass, shape, surface, fragility and environment determine whether mechanical, vacuum, magnetic or another gripper is suitable.
Q25. In a technical review of a robot, which statement about tool changer should be accepted? (select the best answer)
Correct Answer: A | Marks: 1
Explanation:
Automatic tool changers improve flexibility by letting one robot perform different operations with different tools.
Q26. Which statement best describes magnetic gripper? (select the best answer)
Correct Answer: B | Marks: 1
Explanation:
Magnetic grippers are useful for suitable ferrous materials but are not universal for nonmagnetic objects.
Q27. Which option correctly identifies the function or significance of end effector in robotics? (select the best answer)
Correct Answer: C | Marks: 1
Explanation:
The end effector is task-specific and may be a gripper, welding torch, spray gun, screwdriver or other process tool.
Q28. A robotics student is asked to distinguish gripper selection from unrelated system features. Which answer is correct? (select the best answer)
Correct Answer: D | Marks: 1
Explanation:
The part's mass, shape, surface, fragility and environment determine whether mechanical, vacuum, magnetic or another gripper is suitable.
Q29. Which statement would be the soundest basis for explaining tool centre point to a new robotics engineer? (select the best answer)
Correct Answer: A | Marks: 1
Explanation:
TCP definition lets programmed positions refer to the functional tool point, even when the tool geometry changes.
Q30. In a technical review of a robot, which statement about vacuum gripper should be accepted? (select the best answer)
Correct Answer: B | Marks: 1
Explanation:
Vacuum gripping works well for suitable smooth, nonporous surfaces and depends on seal quality, pressure difference and cup area.
Q31. Which statement best describes end effector? (select the best answer)
Correct Answer: C | Marks: 1
Explanation:
The end effector is task-specific and may be a gripper, welding torch, spray gun, screwdriver or other process tool.
Q32. Which option correctly identifies the function or significance of compliance in robotics? (select the best answer)
Correct Answer: D | Marks: 1
Explanation:
Compliance can help with insertion and contact tasks by reducing sensitivity to small misalignments.
Q33. A robotics student is asked to distinguish gripping force from unrelated system features. Which answer is correct? (select the best answer)
Correct Answer: A | Marks: 1
Explanation:
Gripping force must account for part mass, acceleration, friction, orientation and allowable surface pressure.
Q34. Which statement would be the soundest basis for explaining vacuum gripper to a new robotics engineer? (select the best answer)
Correct Answer: B | Marks: 1
Explanation:
Vacuum gripping works well for suitable smooth, nonporous surfaces and depends on seal quality, pressure difference and cup area.
Q35. In a technical review of a robot, which statement about part retention should be accepted? (select the best answer)
Correct Answer: C | Marks: 1
Explanation:
A grasp must resist gravity and inertial loads through the full planned motion, not just hold the part while stationary.
Q36. Which statement best describes tool changer? (select the best answer)
Correct Answer: D | Marks: 1
Explanation:
Automatic tool changers improve flexibility by letting one robot perform different operations with different tools.
Q37. Which option correctly identifies the function or significance of gripping force in robotics? (select the best answer)
Correct Answer: A | Marks: 1
Explanation:
Gripping force must account for part mass, acceleration, friction, orientation and allowable surface pressure.
Q38. A robotics student is asked to distinguish mechanical gripper from unrelated system features. Which answer is correct? (select the best answer)
Correct Answer: B | Marks: 1
Explanation:
Mechanical grippers use fingers/jaws and may be driven electrically, pneumatically or hydraulically.
Q39. Which statement would be the soundest basis for explaining gripper selection to a new robotics engineer? (select the best answer)
Correct Answer: C | Marks: 1
Explanation:
The part's mass, shape, surface, fragility and environment determine whether mechanical, vacuum, magnetic or another gripper is suitable.
Q40. In a technical review of a robot, which statement about tool changer should be accepted? (select the best answer)
Correct Answer: D | Marks: 1
Explanation:
Automatic tool changers improve flexibility by letting one robot perform different operations with different tools.
Q41. Which statement best describes magnetic gripper? (select the best answer)
Correct Answer: A | Marks: 1
Explanation:
Magnetic grippers are useful for suitable ferrous materials but are not universal for nonmagnetic objects.
Q42. Which option correctly identifies the function or significance of end effector in robotics? (select the best answer)
Correct Answer: B | Marks: 1
Explanation:
The end effector is task-specific and may be a gripper, welding torch, spray gun, screwdriver or other process tool.
Q43. A robotics student is asked to distinguish gripper selection from unrelated system features. Which answer is correct? (select the best answer)
Correct Answer: C | Marks: 1
Explanation:
The part's mass, shape, surface, fragility and environment determine whether mechanical, vacuum, magnetic or another gripper is suitable.
Q44. Which statement would be the soundest basis for explaining tool centre point to a new robotics engineer? (select the best answer)
Correct Answer: D | Marks: 1
Explanation:
TCP definition lets programmed positions refer to the functional tool point, even when the tool geometry changes.
Q45. In a technical review of a robot, which statement about vacuum gripper should be accepted? (select the best answer)
Correct Answer: A | Marks: 1
Explanation:
Vacuum gripping works well for suitable smooth, nonporous surfaces and depends on seal quality, pressure difference and cup area.
Q46. Which statement best describes end effector? (select the best answer)
Correct Answer: B | Marks: 1
Explanation:
The end effector is task-specific and may be a gripper, welding torch, spray gun, screwdriver or other process tool.
Q47. Which option correctly identifies the function or significance of compliance in robotics? (select the best answer)
Correct Answer: C | Marks: 1
Explanation:
Compliance can help with insertion and contact tasks by reducing sensitivity to small misalignments.
Q48. A robotics student is asked to distinguish gripping force from unrelated system features. Which answer is correct? (select the best answer)
Correct Answer: D | Marks: 1
Explanation:
Gripping force must account for part mass, acceleration, friction, orientation and allowable surface pressure.
Q49. Which statement would be the soundest basis for explaining vacuum gripper to a new robotics engineer? (select the best answer)
Correct Answer: A | Marks: 1
Explanation:
Vacuum gripping works well for suitable smooth, nonporous surfaces and depends on seal quality, pressure difference and cup area.
Q50. In a technical review of a robot, which statement about part retention should be accepted? (select the best answer)
Correct Answer: B | Marks: 1
Explanation:
A grasp must resist gravity and inertial loads through the full planned motion, not just hold the part while stationary.
Q51. A technician must explain tool changer while commissioning a robot. Which interpretation is most technically sound?
Correct Answer: C | Marks: 1
Explanation:
Automatic tool changers improve flexibility by letting one robot perform different operations with different tools. In practice, this concept should be checked against the robot's operating envelope, task requirements and manufacturer specifications rather than treated as an isolated label.
Q52. Which option correctly identifies the function or significance of gripping force in robotics? (select the best answer)
Correct Answer: D | Marks: 1
Explanation:
Gripping force must account for part mass, acceleration, friction, orientation and allowable surface pressure. In practice, this concept should be checked against the robot's operating envelope, task requirements and manufacturer specifications rather than treated as an isolated label.
Q53. A robotics student is asked to distinguish mechanical gripper from unrelated system features. Which answer is correct? (select the best answer)
Correct Answer: A | Marks: 1
Explanation:
Mechanical grippers use fingers/jaws and may be driven electrically, pneumatically or hydraulically. In practice, this concept should be checked against the robot's operating envelope, task requirements and manufacturer specifications rather than treated as an isolated label.
Q54. Which statement would be the soundest basis for explaining gripper selection to a new robotics engineer? (select the best answer)
Correct Answer: B | Marks: 1
Explanation:
The part's mass, shape, surface, fragility and environment determine whether mechanical, vacuum, magnetic or another gripper is suitable. In practice, this concept should be checked against the robot's operating envelope, task requirements and manufacturer specifications rather than treated as an isolated label.
Q55. In a technical review of a robot, which statement about tool changer should be accepted? (select the best answer)
Correct Answer: C | Marks: 1
Explanation:
Automatic tool changers improve flexibility by letting one robot perform different operations with different tools. In practice, this concept should be checked against the robot's operating envelope, task requirements and manufacturer specifications rather than treated as an isolated label.
Q56. A technician must explain magnetic gripper while commissioning a robot. Which interpretation is most technically sound?
Correct Answer: D | Marks: 1
Explanation:
Magnetic grippers are useful for suitable ferrous materials but are not universal for nonmagnetic objects. In practice, this concept should be checked against the robot's operating envelope, task requirements and manufacturer specifications rather than treated as an isolated label.
Q57. Which option correctly identifies the function or significance of end effector in robotics? (select the best answer)
Correct Answer: A | Marks: 1
Explanation:
The end effector is task-specific and may be a gripper, welding torch, spray gun, screwdriver or other process tool. In practice, this concept should be checked against the robot's operating envelope, task requirements and manufacturer specifications rather than treated as an isolated label.
Q58. A robotics student is asked to distinguish gripper selection from unrelated system features. Which answer is correct? (select the best answer)
Correct Answer: B | Marks: 1
Explanation:
The part's mass, shape, surface, fragility and environment determine whether mechanical, vacuum, magnetic or another gripper is suitable. In practice, this concept should be checked against the robot's operating envelope, task requirements and manufacturer specifications rather than treated as an isolated label.
Q59. Which statement would be the soundest basis for explaining tool centre point to a new robotics engineer? (select the best answer)
Correct Answer: C | Marks: 1
Explanation:
TCP definition lets programmed positions refer to the functional tool point, even when the tool geometry changes. In practice, this concept should be checked against the robot's operating envelope, task requirements and manufacturer specifications rather than treated as an isolated label.
Q60. In a technical review of a robot, which statement about vacuum gripper should be accepted? (select the best answer)
Correct Answer: D | Marks: 1
Explanation:
Vacuum gripping works well for suitable smooth, nonporous surfaces and depends on seal quality, pressure difference and cup area. In practice, this concept should be checked against the robot's operating envelope, task requirements and manufacturer specifications rather than treated as an isolated label.
Q61. A technician must explain end effector while commissioning a robot. Which interpretation is most technically sound?
Correct Answer: A | Marks: 1
Explanation:
The end effector is task-specific and may be a gripper, welding torch, spray gun, screwdriver or other process tool. In practice, this concept should be checked against the robot's operating envelope, task requirements and manufacturer specifications rather than treated as an isolated label.
Q62. Which option correctly identifies the function or significance of compliance in robotics? (select the best answer)
Correct Answer: B | Marks: 1
Explanation:
Compliance can help with insertion and contact tasks by reducing sensitivity to small misalignments. In practice, this concept should be checked against the robot's operating envelope, task requirements and manufacturer specifications rather than treated as an isolated label.
Q63. A robotics student is asked to distinguish gripping force from unrelated system features. Which answer is correct? (select the best answer)
Correct Answer: C | Marks: 1
Explanation:
Gripping force must account for part mass, acceleration, friction, orientation and allowable surface pressure. In practice, this concept should be checked against the robot's operating envelope, task requirements and manufacturer specifications rather than treated as an isolated label.
Q64. Which statement would be the soundest basis for explaining vacuum gripper to a new robotics engineer? (select the best answer)
Correct Answer: D | Marks: 1
Explanation:
Vacuum gripping works well for suitable smooth, nonporous surfaces and depends on seal quality, pressure difference and cup area. In practice, this concept should be checked against the robot's operating envelope, task requirements and manufacturer specifications rather than treated as an isolated label.
Q65. In a technical review of a robot, which statement about part retention should be accepted? (select the best answer)
Correct Answer: A | Marks: 1
Explanation:
A grasp must resist gravity and inertial loads through the full planned motion, not just hold the part while stationary. In practice, this concept should be checked against the robot's operating envelope, task requirements and manufacturer specifications rather than treated as an isolated label.
Q66. A gripper must support a 3 kg part vertically. Using g = 10 m/s² and a safety factor of 2, what minimum holding-force estimate follows from F = mg × safety factor?
Correct Answer: B | Marks: 1
Explanation:
The estimated requirement is F = m g × safety factor = 3 × 10 × 2 = 60.00 N. This simplified estimate excludes friction geometry and dynamic loads, which must be considered in a real gripper design.
Q67. A gripper must support a 2 kg part vertically. Using g = 9.81 m/s² and a safety factor of 2, what minimum holding-force estimate follows from F = mg × safety factor?
Correct Answer: C | Marks: 1
Explanation:
The estimated requirement is F = m g × safety factor = 2 × 9.81 × 2 = 39.24 N. This simplified estimate excludes friction geometry and dynamic loads, which must be considered in a real gripper design.
Q68. A gripper must support a 4 kg part vertically. Using g = 10 m/s² and a safety factor of 1.5, what minimum holding-force estimate follows from F = mg × safety factor?
Correct Answer: D | Marks: 1
Explanation:
The estimated requirement is F = m g × safety factor = 4 × 10 × 1.5 = 60.00 N. This simplified estimate excludes friction geometry and dynamic loads, which must be considered in a real gripper design.
Q69. A gripper must support a 1.5 kg part vertically. Using g = 9.81 m/s² and a safety factor of 3, what minimum holding-force estimate follows from F = mg × safety factor?
Correct Answer: A | Marks: 1
Explanation:
The estimated requirement is F = m g × safety factor = 1.5 × 9.81 × 3 = 44.14 N. This simplified estimate excludes friction geometry and dynamic loads, which must be considered in a real gripper design.
Q70. A gripper must support a 4 kg part vertically. Using g = 10 m/s² and a safety factor of 1.5, what minimum holding-force estimate follows from F = mg × safety factor? (select the best answer)
Correct Answer: B | Marks: 1
Explanation:
The estimated requirement is F = m g × safety factor = 4 × 10 × 1.5 = 60.00 N. This simplified estimate excludes friction geometry and dynamic loads, which must be considered in a real gripper design.
Q71. A gripper must support a 4 kg part vertically. Using g = 10 m/s² and a safety factor of 1.5, what minimum holding-force estimate follows from F = mg × safety factor? (select the best answer)
Correct Answer: C | Marks: 1
Explanation:
The estimated requirement is F = m g × safety factor = 4 × 10 × 1.5 = 60.00 N. This simplified estimate excludes friction geometry and dynamic loads, which must be considered in a real gripper design.
Q72. A gripper must support a 1.5 kg part vertically. Using g = 9.81 m/s² and a safety factor of 3, what minimum holding-force estimate follows from F = mg × safety factor? (select the best answer)
Correct Answer: D | Marks: 1
Explanation:
The estimated requirement is F = m g × safety factor = 1.5 × 9.81 × 3 = 44.14 N. This simplified estimate excludes friction geometry and dynamic loads, which must be considered in a real gripper design.
Q73. A gripper must support a 5 kg part vertically. Using g = 9.81 m/s² and a safety factor of 2, what minimum holding-force estimate follows from F = mg × safety factor?
Correct Answer: A | Marks: 1
Explanation:
The estimated requirement is F = m g × safety factor = 5 × 9.81 × 2 = 98.10 N. This simplified estimate excludes friction geometry and dynamic loads, which must be considered in a real gripper design.
Q74. A gripper must support a 1.5 kg part vertically. Using g = 9.81 m/s² and a safety factor of 3, what minimum holding-force estimate follows from F = mg × safety factor? (select the best answer)
Correct Answer: B | Marks: 1
Explanation:
The estimated requirement is F = m g × safety factor = 1.5 × 9.81 × 3 = 44.14 N. This simplified estimate excludes friction geometry and dynamic loads, which must be considered in a real gripper design.
Q75. A gripper must support a 5 kg part vertically. Using g = 9.81 m/s² and a safety factor of 2, what minimum holding-force estimate follows from F = mg × safety factor? (select the best answer)
Correct Answer: C | Marks: 1
Explanation:
The estimated requirement is F = m g × safety factor = 5 × 9.81 × 2 = 98.10 N. This simplified estimate excludes friction geometry and dynamic loads, which must be considered in a real gripper design.
Q76. During a design review, an engineer must reason about end effector rather than rely on a memorized label. Which statement is defensible?
Correct Answer: D | Marks: 1
Explanation:
The end effector is task-specific and may be a gripper, welding torch, spray gun, screwdriver or other process tool. A rigorous engineering decision also considers modelling assumptions, coordinate conventions, uncertainty and safety constraints; a definition alone is not sufficient to validate an implementation.
Q77. Which option correctly identifies the function or significance of compliance in robotics? (select the best answer)
Correct Answer: A | Marks: 1
Explanation:
Compliance can help with insertion and contact tasks by reducing sensitivity to small misalignments. A rigorous engineering decision also considers modelling assumptions, coordinate conventions, uncertainty and safety constraints; a definition alone is not sufficient to validate an implementation.
Q78. A robotics student is asked to distinguish gripping force from unrelated system features. Which answer is correct? (select the best answer)
Correct Answer: B | Marks: 1
Explanation:
Gripping force must account for part mass, acceleration, friction, orientation and allowable surface pressure. A rigorous engineering decision also considers modelling assumptions, coordinate conventions, uncertainty and safety constraints; a definition alone is not sufficient to validate an implementation.
Q79. Which statement would be the soundest basis for explaining vacuum gripper to a new robotics engineer? (select the best answer)
Correct Answer: C | Marks: 1
Explanation:
Vacuum gripping works well for suitable smooth, nonporous surfaces and depends on seal quality, pressure difference and cup area. A rigorous engineering decision also considers modelling assumptions, coordinate conventions, uncertainty and safety constraints; a definition alone is not sufficient to validate an implementation.
Q80. In a technical review of a robot, which statement about part retention should be accepted? (select the best answer)
Correct Answer: D | Marks: 1
Explanation:
A grasp must resist gravity and inertial loads through the full planned motion, not just hold the part while stationary. A rigorous engineering decision also considers modelling assumptions, coordinate conventions, uncertainty and safety constraints; a definition alone is not sufficient to validate an implementation.
Q81. During a design review, an engineer must reason about tool changer rather than rely on a memorized label. Which statement is defensible?
Correct Answer: A | Marks: 1
Explanation:
Automatic tool changers improve flexibility by letting one robot perform different operations with different tools. A rigorous engineering decision also considers modelling assumptions, coordinate conventions, uncertainty and safety constraints; a definition alone is not sufficient to validate an implementation.
Q82. Which option correctly identifies the function or significance of gripping force in robotics? (select the best answer)
Correct Answer: B | Marks: 1
Explanation:
Gripping force must account for part mass, acceleration, friction, orientation and allowable surface pressure. A rigorous engineering decision also considers modelling assumptions, coordinate conventions, uncertainty and safety constraints; a definition alone is not sufficient to validate an implementation.
Q83. A robotics student is asked to distinguish mechanical gripper from unrelated system features. Which answer is correct? (select the best answer)
Correct Answer: C | Marks: 1
Explanation:
Mechanical grippers use fingers/jaws and may be driven electrically, pneumatically or hydraulically. A rigorous engineering decision also considers modelling assumptions, coordinate conventions, uncertainty and safety constraints; a definition alone is not sufficient to validate an implementation.
Q84. Which statement would be the soundest basis for explaining gripper selection to a new robotics engineer? (select the best answer)
Correct Answer: D | Marks: 1
Explanation:
The part's mass, shape, surface, fragility and environment determine whether mechanical, vacuum, magnetic or another gripper is suitable. A rigorous engineering decision also considers modelling assumptions, coordinate conventions, uncertainty and safety constraints; a definition alone is not sufficient to validate an implementation.
Q85. In a technical review of a robot, which statement about tool changer should be accepted? (select the best answer)
Correct Answer: A | Marks: 1
Explanation:
Automatic tool changers improve flexibility by letting one robot perform different operations with different tools. A rigorous engineering decision also considers modelling assumptions, coordinate conventions, uncertainty and safety constraints; a definition alone is not sufficient to validate an implementation.
Q86. A gripper must support a 4 kg part vertically. Using g = 10 m/s² and a safety factor of 1.5, what minimum holding-force estimate follows from F = mg × safety factor? (select the best answer)
Correct Answer: B | Marks: 1
Explanation:
The estimated requirement is F = m g × safety factor = 4 × 10 × 1.5 = 60.00 N. This simplified estimate excludes friction geometry and dynamic loads, which must be considered in a real gripper design.
Q87. A gripper must support a 5 kg part vertically. Using g = 9.81 m/s² and a safety factor of 2, what minimum holding-force estimate follows from F = mg × safety factor? (select the best answer)
Correct Answer: C | Marks: 1
Explanation:
The estimated requirement is F = m g × safety factor = 5 × 9.81 × 2 = 98.10 N. This simplified estimate excludes friction geometry and dynamic loads, which must be considered in a real gripper design.
Q88. A gripper must support a 4 kg part vertically. Using g = 10 m/s² and a safety factor of 1.5, what minimum holding-force estimate follows from F = mg × safety factor? (select the best answer)
Correct Answer: D | Marks: 1
Explanation:
The estimated requirement is F = m g × safety factor = 4 × 10 × 1.5 = 60.00 N. This simplified estimate excludes friction geometry and dynamic loads, which must be considered in a real gripper design.
Q89. A gripper must support a 1.5 kg part vertically. Using g = 9.81 m/s² and a safety factor of 3, what minimum holding-force estimate follows from F = mg × safety factor? (select the best answer)
Correct Answer: A | Marks: 1
Explanation:
The estimated requirement is F = m g × safety factor = 1.5 × 9.81 × 3 = 44.14 N. This simplified estimate excludes friction geometry and dynamic loads, which must be considered in a real gripper design.
Q90. A gripper must support a 4 kg part vertically. Using g = 10 m/s² and a safety factor of 1.5, what minimum holding-force estimate follows from F = mg × safety factor? (select the best answer)
Correct Answer: B | Marks: 1
Explanation:
The estimated requirement is F = m g × safety factor = 4 × 10 × 1.5 = 60.00 N. This simplified estimate excludes friction geometry and dynamic loads, which must be considered in a real gripper design.
Q91. A gripper must support a 1.5 kg part vertically. Using g = 9.81 m/s² and a safety factor of 3, what minimum holding-force estimate follows from F = mg × safety factor? (select the best answer)
Correct Answer: C | Marks: 1
Explanation:
The estimated requirement is F = m g × safety factor = 1.5 × 9.81 × 3 = 44.14 N. This simplified estimate excludes friction geometry and dynamic loads, which must be considered in a real gripper design.
Q92. A gripper must support a 3 kg part vertically. Using g = 10 m/s² and a safety factor of 2, what minimum holding-force estimate follows from F = mg × safety factor? (select the best answer)
Correct Answer: D | Marks: 1
Explanation:
The estimated requirement is F = m g × safety factor = 3 × 10 × 2 = 60.00 N. This simplified estimate excludes friction geometry and dynamic loads, which must be considered in a real gripper design.
Q93. A gripper must support a 5 kg part vertically. Using g = 9.81 m/s² and a safety factor of 2, what minimum holding-force estimate follows from F = mg × safety factor? (select the best answer)
Correct Answer: A | Marks: 1
Explanation:
The estimated requirement is F = m g × safety factor = 5 × 9.81 × 2 = 98.10 N. This simplified estimate excludes friction geometry and dynamic loads, which must be considered in a real gripper design.
Q94. A gripper must support a 1.5 kg part vertically. Using g = 9.81 m/s² and a safety factor of 3, what minimum holding-force estimate follows from F = mg × safety factor? (select the best answer)
Correct Answer: B | Marks: 1
Explanation:
The estimated requirement is F = m g × safety factor = 1.5 × 9.81 × 3 = 44.14 N. This simplified estimate excludes friction geometry and dynamic loads, which must be considered in a real gripper design.
Q95. A gripper must support a 5 kg part vertically. Using g = 9.81 m/s² and a safety factor of 2, what minimum holding-force estimate follows from F = mg × safety factor? (select the best answer)
Correct Answer: C | Marks: 1
Explanation:
The estimated requirement is F = m g × safety factor = 5 × 9.81 × 2 = 98.10 N. This simplified estimate excludes friction geometry and dynamic loads, which must be considered in a real gripper design.
Q96. A gripper must support a 2 kg part vertically. Using g = 9.81 m/s² and a safety factor of 2, what minimum holding-force estimate follows from F = mg × safety factor? (select the best answer)
Correct Answer: D | Marks: 1
Explanation:
The estimated requirement is F = m g × safety factor = 2 × 9.81 × 2 = 39.24 N. This simplified estimate excludes friction geometry and dynamic loads, which must be considered in a real gripper design.
Q97. A gripper must support a 2 kg part vertically. Using g = 9.81 m/s² and a safety factor of 2, what minimum holding-force estimate follows from F = mg × safety factor? (select the best answer)
Correct Answer: A | Marks: 1
Explanation:
The estimated requirement is F = m g × safety factor = 2 × 9.81 × 2 = 39.24 N. This simplified estimate excludes friction geometry and dynamic loads, which must be considered in a real gripper design.
Q98. A gripper must support a 4 kg part vertically. Using g = 10 m/s² and a safety factor of 1.5, what minimum holding-force estimate follows from F = mg × safety factor? (select the best answer)
Correct Answer: B | Marks: 1
Explanation:
The estimated requirement is F = m g × safety factor = 4 × 10 × 1.5 = 60.00 N. This simplified estimate excludes friction geometry and dynamic loads, which must be considered in a real gripper design.
Q99. A gripper must support a 4 kg part vertically. Using g = 10 m/s² and a safety factor of 1.5, what minimum holding-force estimate follows from F = mg × safety factor? (select the best answer)
Correct Answer: C | Marks: 1
Explanation:
The estimated requirement is F = m g × safety factor = 4 × 10 × 1.5 = 60.00 N. This simplified estimate excludes friction geometry and dynamic loads, which must be considered in a real gripper design.
Q100. A gripper must support a 3 kg part vertically. Using g = 10 m/s² and a safety factor of 2, what minimum holding-force estimate follows from F = mg × safety factor? (select the best answer)
Correct Answer: D | Marks: 1
Explanation:
The estimated requirement is F = m g × safety factor = 3 × 10 × 2 = 60.00 N. This simplified estimate excludes friction geometry and dynamic loads, which must be considered in a real gripper design.