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Statements

Subject Item
dbr:Rule_based_DFM_analysis_for_forging
rdfs:label
Rule based DFM analysis for forging
rdfs:comment
Rule based DFM analysis for forging is the controlled deformation of metal into a specific shape by compressive forces. The forging process goes back to 8000 B.C. and evolved from the manual art of simple blacksmithing. Then as now, a series of blows performs the shaping or forging of the part. Modern forging uses machine driven impact hammers or presses that deforms the work-piece by controlled pressure.
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dbc:Forming_processes
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47813593
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1068435681
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dbr:Platen dbr:Alloys dbr:Titanium_alloy dbr:Aluminum dbr:Blacksmithing dbr:Recrystallization_(metallurgy) dbr:Hot_working dbr:Tolerances_on_draft_angle_surfaces dbr:Buckling dbr:Eccentricity_tolerances dbr:Porosity dbr:Surface_tolerances n9:disc dbr:Swaging dbr:Cold_working dbr:Deformation_(engineering) dbr:Upsetting dbr:Nickel dbr:Square_cast_ingots dbr:Refractory_metals dbr:Compressive_forces dbr:Crystal_structure dbr:Magnesium dbr:Operating_temperature dbr:Compressive_hammer dbr:Forgeability_rating dbr:Metals dbr:Steel dbr:Copper dbr:Shafts n9:ring dbc:Forming_processes dbr:Mechanical_properties dbr:Chemical_composition dbr:Forging dbr:Burr_tolerances
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dbo:abstract
Rule based DFM analysis for forging is the controlled deformation of metal into a specific shape by compressive forces. The forging process goes back to 8000 B.C. and evolved from the manual art of simple blacksmithing. Then as now, a series of blows performs the shaping or forging of the part. Modern forging uses machine driven impact hammers or presses that deforms the work-piece by controlled pressure. The forging process is superior to casting in that the parts formed have denser microstructures, more defined grain patterns, and less porosity, making such parts much stronger than a casting. All metals and alloys are forgeable, but each will have a from high to low or poor. The factors involved are the material's composition, crystal structure and mechanical properties all considered within a temperature range. The wider the temperature range, the higher the . Most forging is done on heated work-pieces. Cold forging can occur at room temperatures. The most forgeable materials are aluminum, copper, and magnesium. Lower ratings are applied to the various steels, nickel, and titanium alloys. Hot forging temperatures range from 93°C (200°F) to 1650°C (3000°F) for refractory metals.
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wikipedia-en:Rule_based_DFM_analysis_for_forging?oldid=1068435681&ns=0
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wikipedia-en:Rule_based_DFM_analysis_for_forging