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CHAPTER 6. The chip breaker is not used in milling tools
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CHAPTER 6. In broaching, the feed motion is performed by the workpiece
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CHAPTER 6. In broaching, the workpiece performs the setup motion
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CHAPTER 6. Broaching is suitable for the production of variable section shafts
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CHAPTER 6. The milling tool does not have a chip breaker
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CHAPTER 6. The tap is used to create small threads
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CHAPTER 6. In tutning, the cutting speed is possessed by the workpiece
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CHAPTER 6. Saw cutting with costant feed force is better than costant speed
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CHAPTER 6. The number of broaches that can be performed depends on the number of calibrating teeth in the broach
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CHAPTER 6. The face of the cutting tool is also called the flank
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CHAPTER 6. The face corresponds to the sliding plane
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CHAPTER 6. For roughing operations, tools with a gamma angle close to zero are chosen
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CHAPTER 6. In broaching, the cutting motion is performed by the tool
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CHAPTER 6. In turning, the setup motion is performed by the workpiece
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CHAPTER 6. The problem of continuous chip is present in milling
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CHAPTER 6. In order to bring a hole into tolerance, it is necessary to carry out burining
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CHAPTER 6. In chip removal processes, the cutting pressure is calculated as tu product of the cutting force by the undeformed chip thickness
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CHAPTER 6. Roughness is measured orthogonally to direction of the grooves
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CHAPTER 6. In electrochemical milling, distilled water is used
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CHAPTER 6. In chip removal processes, cutting pressure is inversely proportional to the hardness of the material
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CHAPTER 6. The reciprocating saw has lower productivity compared to the band saw
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CHAPTER 6. Distilled water is used as ma electrolyte fluid in electrochemical processes
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CHAPTER 6. Countersinking is used to bring the hole within tolerance
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CHAPTER 6. In drilling, the tool performs the cutting motion
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CHAPTER 6. CNC machining times are longer than traditional machining times
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CHAPTER 6. The flank of the chip removal tool is called the front clearence
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CHAPTER 6. In transverse turning, it is not possible to maintain both cutting speed and feed rate costant
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CHAPTER 6. The productivity of broaching is generally higher compared to other chip removal processes
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CHAPTER 6. The tool change system of a modern machine tool reduces active machining times
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CHAPTER 6. In turning, the more radius of a roughing tool is about 0.2 mm
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CHAPTER 6. In chip removal processes, the adhesion zone is where the most heat is generated
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CHAPTER 6. Alpha angle is the front clearance angle
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CHAPTER 6. Theoretical roughness is greater than approximated roughness
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CHAPTER 6. The chip reduces in size after being removed
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CHAPTER 6. The cutting speeds in chip removal processes are lower than on grinding
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CHAPTER 6. In sawing, chip thickness increase with increasing tooth pitch
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CHAPTER 6. Centering is not always necessary
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CHAPTER 6. A round insert has 0 cutting edges
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CHAPTER 6. In drilling,the feed forces and cutting torques are very high even for small operations
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CHAPTER 6. In broaching, the tool performs both the cutting and fed motion
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CHAPTER 6. In milling, the cutting width is generally less than the diameter of the cutter
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CHAPTER 6. In reaming, it is advisable not to have any pay between the tool and the workpiece
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CHAPTER 6. Tool life increase with increasing cutting speed
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CHAPTER 6. Truncation force is proportional to the perimeter
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CHAPTER 6. Absolute roughness is inversely proportional to the tool’s nose radius
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CHAPTER 6. Shaving is applied in thin sheets
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CHAPTER 6. The side of the cutting tool is also called the face plate
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CHAPTER 6. Finishing turning is suitable for producing parts with good surface roughness without further working
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CHAPTER 6. If the cutting parameters and process conditions are fixed, the tool life has almost no dispersion
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CHAPTER 6. The front clearance angle has the function of reducing tool heeling
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CHAPTER 6. Both internal and external gear wheels can be generated using the hob milling process
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CHAPTER 6. Swaging can also be performed with manual tools
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CHAPTER 6. For roughing operations, tools with a rake angle gamma close to zero are chosen
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CHAPTER 6. The electrochemical milling process is very difficult to automate
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CHAPTER 6. Roughing milling is performed on a machine called drill
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CHAPTER 6. Gear hobbing is a suitable process for producing both internal and external gears, with straight or helical teeth
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CHAPTER 6. A traditional machine tool requires better tools than a CNC machine
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CHAPTER 6. The flank of the chip removal tool is also called the back clearance
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CHAPTER 6. Pluge grinding is applied to planes
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CHAPTER 6. The main function of the electrode coating in coated elctrode welding is to protect the electrode from oxidation
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CHAPTER 6. Perioheral concordance milling ensure a better surface finish
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CHAPTER 6. In turning, the setup motion is performed by the workpiece
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CHAPTER 6. Oxidation wear occurs mainly at low cutting speeds
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CHAPTER 6. Band saw preferred over circular saw
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CHAPTER 6. Electrochemical milling is normally performed on a machine called a rolling mill
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CHAPTER 6. A San is a Tool with undefined geometry
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CHAPTER 6. In turning the approach Motion is performed by the workpiece
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CHAPTER 6. Enlarging a hole requires that the material of the part hai good thermwl conductivity
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CHAPTER 6. Rough milling is suitable for producing parts with bitter mechanical properties comparse to other competiting processes
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CHAPTER 6. Drilling of solid material is normally performed on a machine calle bending machine
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CHAPTER 6. The flank of the tool is also called the front face
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