Observations are presented, obtained by in situ straining and conventional TEM, of a transformation mechanism by coordinated secondary twinning predicted by Mullner and King. The material studied is the martensitic phase of a non-modulated Ni–Mn–Ga alloy, which exhibits a microstructure comprising domains of lamellar matrix/twin composites. Straining these specimens induced lamellar domains to transform into their conjugate counterparts. In this process, secondary twinning generates a change of misorientation between the matrix and twin lamellae of the initial domain by nearly 23°. The orientation evolves over a region behind the transformation front about 100 nm in extent
Atomic-force microscopy (AFM), magnetic-force microscopy (MFM), and nanoindentation experiments were...
Ni–Mn–Ga ferromagnetic shape memory alloys appear to be very promising active materials because they...
We investigate the mechanically induced local deformation effects in single crystalline Ni–Mn–Ga str...
Observations are presented, obtained by in situ straining and conventional TEM, of a transformation ...
Stress-induced martensitic detwinning and martensitic transformation during step-wise compression in...
Magnetic shape-memory alloys tend to deform via magnetic-field-induced and stress-induced twin-boun...
Deformation twinning is investigated in the martensitic phase of a Ni46.75Mn34Ga19.25 (at.%) alloy. ...
The magnetomechanical properties of ferromagnetic shape memory alloy Ni–Mn–Ga single crystals depend...
Shape-memory alloys deform via the reorganization of a hierarchically twinned microstructure. Twin b...
The modulated martensitic variants in a Ni-Mn-Ga ferromagnetic shape memory alloy have been characte...
Three Ni-Mn-Ga alloys with different chemical compositions and nonmodulated tetragonal martensitic ...
The in-situ straining of tetragonal martensite of Ni-Mn-Ga alloy was studied in a transmission elec...
International audienceThe influences of uniaxial compressive stress on martensitic transformation we...
Ni2MnGa is a ferromagnetic shape memory alloy (FSMA). FSMAs exhibit a shape memory effect which is i...
The change in microstructure during training of a Ni50Mn29Ga21 bicrystal was investigated by electro...
Atomic-force microscopy (AFM), magnetic-force microscopy (MFM), and nanoindentation experiments were...
Ni–Mn–Ga ferromagnetic shape memory alloys appear to be very promising active materials because they...
We investigate the mechanically induced local deformation effects in single crystalline Ni–Mn–Ga str...
Observations are presented, obtained by in situ straining and conventional TEM, of a transformation ...
Stress-induced martensitic detwinning and martensitic transformation during step-wise compression in...
Magnetic shape-memory alloys tend to deform via magnetic-field-induced and stress-induced twin-boun...
Deformation twinning is investigated in the martensitic phase of a Ni46.75Mn34Ga19.25 (at.%) alloy. ...
The magnetomechanical properties of ferromagnetic shape memory alloy Ni–Mn–Ga single crystals depend...
Shape-memory alloys deform via the reorganization of a hierarchically twinned microstructure. Twin b...
The modulated martensitic variants in a Ni-Mn-Ga ferromagnetic shape memory alloy have been characte...
Three Ni-Mn-Ga alloys with different chemical compositions and nonmodulated tetragonal martensitic ...
The in-situ straining of tetragonal martensite of Ni-Mn-Ga alloy was studied in a transmission elec...
International audienceThe influences of uniaxial compressive stress on martensitic transformation we...
Ni2MnGa is a ferromagnetic shape memory alloy (FSMA). FSMAs exhibit a shape memory effect which is i...
The change in microstructure during training of a Ni50Mn29Ga21 bicrystal was investigated by electro...
Atomic-force microscopy (AFM), magnetic-force microscopy (MFM), and nanoindentation experiments were...
Ni–Mn–Ga ferromagnetic shape memory alloys appear to be very promising active materials because they...
We investigate the mechanically induced local deformation effects in single crystalline Ni–Mn–Ga str...