2005•Journal of the Society of Materials Science JapanOpen access

Development of Glass Fabric Reinforced SDR Damping Material and its Mechanical Behavior

Fei Cheng, Qing‐Qing Ni, Masaharu Iwamoto

Open full text 5 citations

Abstract

Materials with both of high modulus and high damping properties are necessary in many industrial fields. Super damping rubber (SDR) has high damping properties, but it has some disadvantages in mechanical properties. In this paper, a series of glass fabric reinforced polyurethane super damping rubber materials (GFRR) were developed with high strength and high damping properties for the wide use of vibration reduction. The mechanical properties, such as tension, peeling and shearing of bonding interface, were investigated, which are much superior than SDR. For the application in vibration reduction, the composite loss factor was measured by the mechanical impedance method with a free-layer damping system, while the damping properties of viscoelastic layers were conducted by the dynamic mechanical analysis (DMA). Using the RKU model, the dependences of temperature and thickness ratio of composite loss factor were analyzed. The agreement between the experiment and the analysis suggests that the composite loss factor can be predicted with a good accuracy by RKU model.

Open-access reader

About this research paper

What this paper is about

Materials with both of high modulus and high damping properties are necessary in many industrial fields. Super damping rubber (SDR) has high damping properties, but it has some disadvantages in mechanical properties. In this paper, a series of glass fabric reinforced polyurethane super damping rubber materials (GFRR) were developed with high strength and high damping properties for the wide use of vibration reduction. The mechanical properties, such as tension, peeling and shearing of bonding interface, were investigated, which are much superior than SDR. For the application in vibration reduction, the composite loss factor was measured by the mechanical impedance method with a free-layer damping system, while the damping properties of viscoelastic layers were conducted by the dynamic mechanical analysis (DMA). Using the RKU model, the dependences of temperature and thickness ratio of composite loss factor were analyzed. The agreement between the experiment and the analysis suggests that the composite loss factor can be predicted with a good accuracy by RKU model.

Why it matters

OpenAlex reports 5 citations for this work. Citation counts describe recorded attention and do not establish research quality.

Key contribution

A contribution statement is not available in the OpenAlex record.

Method / approach

Method details are not available in the OpenAlex metadata.

Main findings

Findings are not separately available in the OpenAlex metadata.

Limitations

Limitations are not available in the OpenAlex metadata.

Applications

Application details are not available in the OpenAlex metadata.

Available abstract

Materials with both of high modulus and high damping properties are necessary in many industrial fields. Super damping rubber (SDR) has high damping properties, but it has some disadvantages in mechanical properties. In this paper, a series of glass fabric reinforced polyurethane super damping rubber materials (GFRR) were developed with high strength and high damping properties for the wide use of vibration reduction. The mechanical properties, such as tension, peeling and shearing of bonding interface, were investigated, which are much superior than SDR. For the application in vibration reduction, the composite loss factor was measured by the mechanical impedance method with a free-layer damping system, while the damping properties of viscoelastic layers were conducted by the dynamic mechanical analysis (DMA). Using the RKU model, the dependences of temperature and thickness ratio of composite loss factor were analyzed. The agreement between the experiment and the analysis suggests that the composite loss factor can be predicted with a good accuracy by RKU model.

Key concepts: Loss factor, Materials science, Composite material, Viscoelasticity, Damping capacity, Vibration, Shearing (physics), Composite number

Related papers

Back to paper searchBrowse research topicsOriginal source
Development of Glass Fabric Reinforced SDR Damping Material and its Mechanical Behavior — Research Paper | ScholarLens