Swift heavy ion (SHI) irradiation of amorphous Si (a-Si) at non-perpendicular incidence leads to non-saturable plastic flow. The positive direction of flow suggests that a liquid phase of similar density to that of the amorphous solid must exist and accordingly a-Si behaves like a conventional glass under SHI irradiation. For room-temperature irradiation of a-Si, plastic flow is accompanied by swelling due to the formation of voids and a porous structure. For this paper, we have investigated the influence of SHI irradiation at room temperature on amorphous Ge (a-Ge), the latter produced by ion implantation of crystalline Ge substrates. Like a-Si, positive plastic flow is apparent, demonstrating that liquid polymorphism is common to these tw...
Electronic excitation (dE/dx)e due to swift-heavy-ion irradiation induces giant plastic deformation ...
Changes in the elastic properties of Ge induced by room-temperature irradiation with 3.5-MeV Kr ions...
One of the key reasons why nanoscale materials behave differently from their bulk counterparts is th...
Swift heavy ion (SHI) irradiation of amorphous Si (a-Si) at non-perpendicular incidence leads to non...
Swift heavy-ion (SHI) irradiation of amorphous germanium (a-Ge) layers leads to a strong volume expa...
Ion tracks formed in amorphous Ge by swift heavy-ion irradiation have been identified with experimen...
The formation of amorphous silicon in crystalline silicon by bombardment with light (Si) and heavy (...
We present experimental evidence for the formation of ion tracks in amorphous Si induced by swift he...
Heavy-ion irradiation of crystalline germanium (c-Ge) results in the formation of a homogeneous amor...
[[abstract]]The structural evolution in Ge+ implantation amorphous Si has been investigated by high-...
Ge nanocrystals (NCs) grown by ion implantation in amorphous silica matrices were irradiated with 5 ...
Amorphization has been studied in electron- (e/sup -/) and ion-irradiated Si. Si irradiated at <10 K...
Silica-embedded Ge nanoparticles (NPs) of different sizes irradiated with swift heavy ions (SHIs) at...
We investigate the structure and mechanical properties of pressure-induced (PI) amorphous silicon (a...
Swift heavy ion (SHI) irradiation of damaged germanium (d-Ge) layer results in porous structure with...
Electronic excitation (dE/dx)e due to swift-heavy-ion irradiation induces giant plastic deformation ...
Changes in the elastic properties of Ge induced by room-temperature irradiation with 3.5-MeV Kr ions...
One of the key reasons why nanoscale materials behave differently from their bulk counterparts is th...
Swift heavy ion (SHI) irradiation of amorphous Si (a-Si) at non-perpendicular incidence leads to non...
Swift heavy-ion (SHI) irradiation of amorphous germanium (a-Ge) layers leads to a strong volume expa...
Ion tracks formed in amorphous Ge by swift heavy-ion irradiation have been identified with experimen...
The formation of amorphous silicon in crystalline silicon by bombardment with light (Si) and heavy (...
We present experimental evidence for the formation of ion tracks in amorphous Si induced by swift he...
Heavy-ion irradiation of crystalline germanium (c-Ge) results in the formation of a homogeneous amor...
[[abstract]]The structural evolution in Ge+ implantation amorphous Si has been investigated by high-...
Ge nanocrystals (NCs) grown by ion implantation in amorphous silica matrices were irradiated with 5 ...
Amorphization has been studied in electron- (e/sup -/) and ion-irradiated Si. Si irradiated at <10 K...
Silica-embedded Ge nanoparticles (NPs) of different sizes irradiated with swift heavy ions (SHIs) at...
We investigate the structure and mechanical properties of pressure-induced (PI) amorphous silicon (a...
Swift heavy ion (SHI) irradiation of damaged germanium (d-Ge) layer results in porous structure with...
Electronic excitation (dE/dx)e due to swift-heavy-ion irradiation induces giant plastic deformation ...
Changes in the elastic properties of Ge induced by room-temperature irradiation with 3.5-MeV Kr ions...
One of the key reasons why nanoscale materials behave differently from their bulk counterparts is th...