Manufacturing Processes interview questions

1. A.reservoir of molten metal that feeds a casting during solidification shrinkage and is designed to freeze last
2. B.the ratio of undeformed to deformed chip thickness, always less than one, from which the shear plane angle is obtained
3. C.the parent metal adjacent to a weld that was not melted but whose microstructure and properties were altered by the thermal cycle
4. D.VTⁿ = C, where the exponent n is about 0.1 for HSS, 0.2–0.3 for carbide and 0.5–0.7 for ceramic tools

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1. A.Limiting drawing ratio
2. B.Electrical discharge machining
3. C.Riser
4. D.Hot working

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1. A.Riser — plastic deformation above the recrystallisation temperature, giving no strain hardening, refined grains and lower forming force
2. B.Riser — reservoir of molten metal that feeds a casting during solidification shrinkage and is designed to freeze last
3. C.Riser — removal of material by repeated sparks across a dielectric gap between tool and workpiece, requiring only that the work be electrically conductive
4. D.Riser — extra dimensions added to a pattern for shrinkage, machining, draft, distortion and rapping (shake)

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1. A.extra dimensions added to a pattern for shrinkage, machining, draft, distortion and rapping (shake)
2. B.work material welded onto the tool tip at low cutting speed on ductile metals, spoiling surface finish as it periodically breaks away
3. C.force diagram for orthogonal cutting relating cutting, thrust, shear and friction forces to the shear angle and rake angle
4. D.elastic recovery after sheet bending that opens the bend angle, compensated by overbending or bottoming

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1. A.Heat affected zone
2. B.Pattern allowances
3. C.Electrical discharge machining
4. D.Hot working

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1. A.Pattern allowances — the parent metal adjacent to a weld that was not melted but whose microstructure and properties were altered by the thermal cycle
2. B.Pattern allowances — extra dimensions added to a pattern for shrinkage, machining, draft, distortion and rapping (shake)
3. C.Pattern allowances — elastic recovery after sheet bending that opens the bend angle, compensated by overbending or bottoming
4. D.Pattern allowances — plastic deformation above the recrystallisation temperature, giving no strain hardening, refined grains and lower forming force

Answer + AI explanation with Pro

1. A.the ratio of undeformed to deformed chip thickness, always less than one, from which the shear plane angle is obtained
2. B.elastic recovery after sheet bending that opens the bend angle, compensated by overbending or bottoming
3. C.solidification time is proportional to the square of the volume-to-surface-area ratio, the basis for sizing risers
4. D.anodic dissolution that removes metal with no tool wear, no burrs and no residual stress, used for hard alloys and turbine blades

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1. A.Chvorinov's rule
2. B.Riser
3. C.Limiting drawing ratio
4. D.Electrical discharge machining

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1. A.Chvorinov's rule — the largest ratio of blank diameter to punch diameter that can be deep drawn in one pass without tearing the cup wall
2. B.Chvorinov's rule — reservoir of molten metal that feeds a casting during solidification shrinkage and is designed to freeze last
3. C.Chvorinov's rule — solidification time is proportional to the square of the volume-to-surface-area ratio, the basis for sizing risers
4. D.Chvorinov's rule — the ratio of undeformed to deformed chip thickness, always less than one, from which the shear plane angle is obtained

Answer + AI explanation with Pro

1. A.work material welded onto the tool tip at low cutting speed on ductile metals, spoiling surface finish as it periodically breaks away
2. B.the ratio of undeformed to deformed chip thickness, always less than one, from which the shear plane angle is obtained
3. C.the parent metal adjacent to a weld that was not melted but whose microstructure and properties were altered by the thermal cycle
4. D.plastic deformation above the recrystallisation temperature, giving no strain hardening, refined grains and lower forming force

Answer + AI explanation with Pro

1. A.Electrical discharge machining
2. B.Pattern allowances
3. C.Built-up edge
4. D.Hot working

Answer + AI explanation with Pro

1. A.Hot working — plastic deformation above the recrystallisation temperature, giving no strain hardening, refined grains and lower forming force
2. B.Hot working — anodic dissolution that removes metal with no tool wear, no burrs and no residual stress, used for hard alloys and turbine blades
3. C.Hot working — force diagram for orthogonal cutting relating cutting, thrust, shear and friction forces to the shear angle and rake angle
4. D.Hot working — VTⁿ = C, where the exponent n is about 0.1 for HSS, 0.2–0.3 for carbide and 0.5–0.7 for ceramic tools

Answer + AI explanation with Pro

1. A.force diagram for orthogonal cutting relating cutting, thrust, shear and friction forces to the shear angle and rake angle
2. B.elastic recovery after sheet bending that opens the bend angle, compensated by overbending or bottoming
3. C.solidification time is proportional to the square of the volume-to-surface-area ratio, the basis for sizing risers
4. D.the parent metal adjacent to a weld that was not melted but whose microstructure and properties were altered by the thermal cycle

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1. A.Springback
2. B.Hot working
3. C.Taylor's tool life equation
4. D.Chvorinov's rule

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1. A.Springback — the largest ratio of blank diameter to punch diameter that can be deep drawn in one pass without tearing the cup wall
2. B.Springback — reservoir of molten metal that feeds a casting during solidification shrinkage and is designed to freeze last
3. C.Springback — elastic recovery after sheet bending that opens the bend angle, compensated by overbending or bottoming
4. D.Springback — the parent metal adjacent to a weld that was not melted but whose microstructure and properties were altered by the thermal cycle

Answer + AI explanation with Pro

1. A.extra dimensions added to a pattern for shrinkage, machining, draft, distortion and rapping (shake)
2. B.work material welded onto the tool tip at low cutting speed on ductile metals, spoiling surface finish as it periodically breaks away
3. C.the parent metal adjacent to a weld that was not melted but whose microstructure and properties were altered by the thermal cycle
4. D.force diagram for orthogonal cutting relating cutting, thrust, shear and friction forces to the shear angle and rake angle

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1. A.Limiting drawing ratio
2. B.Electrical discharge machining
3. C.Built-up edge
4. D.Merchant's circle

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1. A.Merchant's circle — the ratio of undeformed to deformed chip thickness, always less than one, from which the shear plane angle is obtained
2. B.Merchant's circle — the parent metal adjacent to a weld that was not melted but whose microstructure and properties were altered by the thermal cycle
3. C.Merchant's circle — elastic recovery after sheet bending that opens the bend angle, compensated by overbending or bottoming
4. D.Merchant's circle — force diagram for orthogonal cutting relating cutting, thrust, shear and friction forces to the shear angle and rake angle

Answer + AI explanation with Pro

1. A.work material welded onto the tool tip at low cutting speed on ductile metals, spoiling surface finish as it periodically breaks away
2. B.the largest ratio of blank diameter to punch diameter that can be deep drawn in one pass without tearing the cup wall
3. C.plastic deformation above the recrystallisation temperature, giving no strain hardening, refined grains and lower forming force
4. D.elastic recovery after sheet bending that opens the bend angle, compensated by overbending or bottoming

Answer + AI explanation with Pro

1. A.Chvorinov's rule
2. B.Merchant's circle
3. C.Built-up edge
4. D.Springback

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1. A.Built-up edge — plastic deformation above the recrystallisation temperature, giving no strain hardening, refined grains and lower forming force
2. B.Built-up edge — reservoir of molten metal that feeds a casting during solidification shrinkage and is designed to freeze last
3. C.Built-up edge — force diagram for orthogonal cutting relating cutting, thrust, shear and friction forces to the shear angle and rake angle
4. D.Built-up edge — work material welded onto the tool tip at low cutting speed on ductile metals, spoiling surface finish as it periodically breaks away

Answer + AI explanation with Pro

1. A.work material welded onto the tool tip at low cutting speed on ductile metals, spoiling surface finish as it periodically breaks away
2. B.VTⁿ = C, where the exponent n is about 0.1 for HSS, 0.2–0.3 for carbide and 0.5–0.7 for ceramic tools
3. C.plastic deformation above the recrystallisation temperature, giving no strain hardening, refined grains and lower forming force
4. D.the largest ratio of blank diameter to punch diameter that can be deep drawn in one pass without tearing the cup wall

Answer + AI explanation with Pro

1. A.Taylor's tool life equation
2. B.Riser
3. C.Heat affected zone
4. D.Merchant's circle

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1. A.Taylor's tool life equation — removal of material by repeated sparks across a dielectric gap between tool and workpiece, requiring only that the work be electrically conductive
2. B.Taylor's tool life equation — work material welded onto the tool tip at low cutting speed on ductile metals, spoiling surface finish as it periodically breaks away
3. C.Taylor's tool life equation — VTⁿ = C, where the exponent n is about 0.1 for HSS, 0.2–0.3 for carbide and 0.5–0.7 for ceramic tools
4. D.Taylor's tool life equation — plastic deformation above the recrystallisation temperature, giving no strain hardening, refined grains and lower forming force

Answer + AI explanation with Pro

1. A.anodic dissolution that removes metal with no tool wear, no burrs and no residual stress, used for hard alloys and turbine blades
2. B.VTⁿ = C, where the exponent n is about 0.1 for HSS, 0.2–0.3 for carbide and 0.5–0.7 for ceramic tools
3. C.elastic recovery after sheet bending that opens the bend angle, compensated by overbending or bottoming
4. D.removal of material by repeated sparks across a dielectric gap between tool and workpiece, requiring only that the work be electrically conductive

Answer + AI explanation with Pro

1. A.Chvorinov's rule
2. B.Built-up edge
3. C.Chip thickness ratio
4. D.Electrochemical machining

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1. A.Electrochemical machining — solidification time is proportional to the square of the volume-to-surface-area ratio, the basis for sizing risers
2. B.Electrochemical machining — anodic dissolution that removes metal with no tool wear, no burrs and no residual stress, used for hard alloys and turbine blades
3. C.Electrochemical machining — extra dimensions added to a pattern for shrinkage, machining, draft, distortion and rapping (shake)
4. D.Electrochemical machining — VTⁿ = C, where the exponent n is about 0.1 for HSS, 0.2–0.3 for carbide and 0.5–0.7 for ceramic tools

Answer + AI explanation with Pro

1. A.solidification time is proportional to the square of the volume-to-surface-area ratio, the basis for sizing risers
2. B.removal of material by repeated sparks across a dielectric gap between tool and workpiece, requiring only that the work be electrically conductive
3. C.anodic dissolution that removes metal with no tool wear, no burrs and no residual stress, used for hard alloys and turbine blades
4. D.the ratio of undeformed to deformed chip thickness, always less than one, from which the shear plane angle is obtained

Answer + AI explanation with Pro

1. A.Riser
2. B.Built-up edge
3. C.Pattern allowances
4. D.Chip thickness ratio

Answer + AI explanation with Pro

1. A.Chip thickness ratio — removal of material by repeated sparks across a dielectric gap between tool and workpiece, requiring only that the work be electrically conductive
2. B.Chip thickness ratio — VTⁿ = C, where the exponent n is about 0.1 for HSS, 0.2–0.3 for carbide and 0.5–0.7 for ceramic tools
3. C.Chip thickness ratio — anodic dissolution that removes metal with no tool wear, no burrs and no residual stress, used for hard alloys and turbine blades
4. D.Chip thickness ratio — the ratio of undeformed to deformed chip thickness, always less than one, from which the shear plane angle is obtained

Answer + AI explanation with Pro