The propagation of stress waves in long polymer rods forms the basis of two major experimental techniques. The first is a modified Split-Hopkinson pressure bar (SHPB) arrangement that employs polymer Hopkinson bars (as opposed to metallic bars) in order to determine the high strain-rate mechanical properties of soft materials. The second experimental technique consists of a group of methods for determining the viscoelastic properties of polymer rods within a frequency range of 20 Hz to 30 kHz. An experimental, analytical and finite element study of stress waves propagating in viscoelastic rods is reported. A propagation coefficient is used to account for the attenuation and dispersion of stress waves propagating in polymer rods. Through exp...
We have developed a new method for separating dispersive waves in elastic and viscoelastic rods from...
To test weak materials such as foams at high strain rates, the use of a Split Hopkinson Pressure Bar...
The Hopkinson split pressure bar (HSPB) was used for the testing of three polymers at strain rates b...
AbstractA key stage in both the use of polymer rods in Split Hopkinson Pressure Bar (SHPB) testing a...
To study the high strain-rate mechanical behaviour of polymers, it is suggested to generalize the sp...
In this paper, the viscoelastic behaviour of PET is assessed in order to study the wave propagation ...
The propagation characteristics of viscoelastic waves have been investigated with a 6 mm diameter sp...
The importance of understanding non-metallic material behaviour at high strain rates is becoming eve...
This paper is focused on the study of wave propagation in long Split-Hopkinson Pressure Bar (SHPB) s...
Knowledge of the properties of soft, viscoelastic materials at high strain rates are important in fu...
A polymeric split Hopkinson pressure bar technique (SHPB) is preferred for testing materials with lo...
A viscoelastic split Hopkinson pressure bar intended for testing soft materials with low acoustic im...
A split Hopkinson pressure bar (SHPB) technique has been developed to study dynamic behaviour of mat...
We have developed a new method for separating dispersive waves in elastic and viscoelastic rods from...
To test weak materials such as foams at high strain rates, the use of a Split Hopkinson Pressure Bar...
The Hopkinson split pressure bar (HSPB) was used for the testing of three polymers at strain rates b...
AbstractA key stage in both the use of polymer rods in Split Hopkinson Pressure Bar (SHPB) testing a...
To study the high strain-rate mechanical behaviour of polymers, it is suggested to generalize the sp...
In this paper, the viscoelastic behaviour of PET is assessed in order to study the wave propagation ...
The propagation characteristics of viscoelastic waves have been investigated with a 6 mm diameter sp...
The importance of understanding non-metallic material behaviour at high strain rates is becoming eve...
This paper is focused on the study of wave propagation in long Split-Hopkinson Pressure Bar (SHPB) s...
Knowledge of the properties of soft, viscoelastic materials at high strain rates are important in fu...
A polymeric split Hopkinson pressure bar technique (SHPB) is preferred for testing materials with lo...
A viscoelastic split Hopkinson pressure bar intended for testing soft materials with low acoustic im...
A split Hopkinson pressure bar (SHPB) technique has been developed to study dynamic behaviour of mat...
We have developed a new method for separating dispersive waves in elastic and viscoelastic rods from...
To test weak materials such as foams at high strain rates, the use of a Split Hopkinson Pressure Bar...
The Hopkinson split pressure bar (HSPB) was used for the testing of three polymers at strain rates b...