Effect of Compression Storage on Adsorption Property of Silicone Rubber in Silicone Interfacial Systems

Qiang Yang; Xiao Ping Wen; Chao Ming Sun; Guang Ping Tang

doi:10.4028/www.scientific.net/AMR.908.119

Paper Titles

A Constitutive Model of Rocks under Uniaxial Tension
p.103

Research on Package Materials with Properties of Packaging Materials for the Tianjin Port Throughput Prediction and Analysis
p.107

Effect of Temperature on CO₂/H₂S Corrosion of Oil Tube Steels
p.111

Study on Mechanical Properties of Rebar HRB400 after Corrosion
p.115

Effect of Compression Storage on Adsorption Property of Silicone Rubber in Silicone Interfacial Systems
p.119

Study on Structural Properties of Gallium and Titanium Doped Zinc Oxide Films Deposited by Magnetron Sputtering
p.124

Research on the Construction Materials with the Construction Planning of Modern Industry Region in the Historic Cities: Taking the Luoyang in Henan Province as Example
p.129

Study on Biological Materials with Flavonoid Active Compounds of Apocynum venetum L.
p.133

Influences of Molding Pressure on Products Morphology and Carbonated Efficiency of Calcium Hydroxide
p.137

HomeAdvanced Materials ResearchAdvanced Materials Research Vol. 908Effect of Compression Storage on Adsorption...

Effect of Compression Storage on Adsorption Property of Silicone Rubber in Silicone Interfacial Systems

Abstract:

The effect of compression storage on adsorption property of silicone rubber in silicone rubber-stainless steel interfacial system and silicone rubber-simulated X material interfacial system was studied in the paper by means of adsorption force testing and SEM statistical calculation method. The results of adsorption force testing indicated that surface roughness, sample type and compression ratio had important influence on adsorption, i.e. smooth surface tend to absorb, which implied that vacuum adsorption might be the main adsorption mechanism for silicone rubber interfacial systems. Plane-type, spherical type and inclinded plane type of samples had different degree of adsorption. Stainless steel interface tended to have larger adsorption than simulated X material interface. Higher compression ratio might lead to higher adsorption force. A SEM statistical calculation method was proposed to estimate the maximum vacuum adsorption force, and the maximum measurement result of adsorption force was approaching to the calculated maximum vacuum adsorption force by the proposed SEM method.