Surface Roughness and Morphology of Titanium Plate Ground with Fixed and Loose Brown Alumina Abrasives

Quan Li Han; Wen Ming Zhang

doi:10.4028/www.scientific.net/AMR.126-128.1019

Paper Titles

Experimental Study on Friction Characteristics of Hot-Pressing Matrix and Granite under Dry Sliding Conditions
p.981

Analysis of Surface Roughness Transformation of Oxide Scale during Hot Steel Manufacturing
p.987

Dressing of Monolayer Brazed Diamond Wheel for Grinding Li-Ti Ferrite
p.995

Generation Process of Cutting-Edge Distribution on Grinding Wheel with Single-Point Diamond Dressing
p.1001

Nozzle-Type ELID Grinding Characteristics of Cemented Carbides
p.1007

The CMP by Polishing with GiP Dressed by BODD
p.1013

Surface Roughness and Morphology of Titanium Plate Ground with Fixed and Loose Brown Alumina Abrasives
p.1019

Study on Plane Magnetic Abrasive Finishing Process - Experimental and Theoretical Analysis on Polishing Trajectory -
p.1023

Investigation of Semi-Fixed Abrasive Plate Wear Characteristics
p.1029

HomeAdvanced Materials ResearchAdvanced Materials Research Vols. 126-128Surface Roughness and Morphology of Titanium Plate...

Surface Roughness and Morphology of Titanium Plate Ground with Fixed and Loose Brown Alumina Abrasives

Abstract:

Titanium is a metal material which has many excellent properties; it has been widely used in many fields. In this paper, plane abrasive machining is carried out for Titanium plate. The surface roughness and morphology of Ti-plate is compared after fixed and loose abrasive machining. The experiment proved that the drop magnitude of Ra in loose abrasives machining is great larger than that in fixed abrasive when grit size is nearly equal, and the improvement of surface defect such as some directional marks, deep scratch and bits in loose abrasives machining is rapider and quicker than that in fixed abrasives during same machining time. The results of experiments indicts that loose abrasive machining is better than fixed abrasive in reducing surface roughness and improving surface morphology, since the higher density of active abrasives and machining force uniformity.