In this paper, a study was carried out to investigate the surface roughness and material removal rate of low carbon NiTi shape memory alloy (SMA) machined by Wire Electro Spark Erosion (WESE) technique. Experiments are designed considering three parameters viz, spark ON time (SON), spark OFF time (SOFF), and voltage (V) at three levels each. The surface roughness increased from 2.1686 μm to 2.6869 μm with an increase in both SON time, SOFF time and a decrease in voltage. The material removal rate increased from 1.272 mm3/min to 1.616 mm3/min with an increase in SON time but a varying effect was observed the SOFF time and voltage were varied. The analysis revealed that the intensity and duration of the spark had an unswerving relation with t...
When nitinol is machined, quantitative details regarding the surfaces such as the surface crack dens...
Shape memory alloys are a kind of active materials, which have significant characteristics in compar...
The development of new, advanced engineering materials and the need for precise and flexible prototy...
In this paper, a study was carried out to investigate the surface roughness and material removal rat...
Abstract: Ni55.8Ti shape memory alloys (SMAs) find applications in different fields of medical and e...
Shape Memory Alloys (SMAs) are unique class of modern material with various functional properties su...
With the development of the modern manufacturing industry, the demands for hard and difficult-to-cut...
Abstract : The application of NiTi shape memory alloys are growing day by day in biomedical industry...
NiTi is an alloy of nickel and titanium with important characteristics such as shape memory, superel...
Abstract: Nickel Titanium (NiTi) shape memory alloy is a prominent material for biomedical implants....
Abstract: Wire spark discharge machining of TiNiCo alloys for bone staple applications is presented....
Nickel-titanium shape memory alloys (SMAs) have started becoming popular owing to their unique abili...
Nickel–titanium shape memory alloys (SMAs) have started becoming popular owing to their unique abili...
Abstract: Shape memory alloys (SMAs) are most usable material in the field of biomedical, aerospace ...
AbstractThis paper presents the investigation on surface integrity, material removal rate and wire w...
When nitinol is machined, quantitative details regarding the surfaces such as the surface crack dens...
Shape memory alloys are a kind of active materials, which have significant characteristics in compar...
The development of new, advanced engineering materials and the need for precise and flexible prototy...
In this paper, a study was carried out to investigate the surface roughness and material removal rat...
Abstract: Ni55.8Ti shape memory alloys (SMAs) find applications in different fields of medical and e...
Shape Memory Alloys (SMAs) are unique class of modern material with various functional properties su...
With the development of the modern manufacturing industry, the demands for hard and difficult-to-cut...
Abstract : The application of NiTi shape memory alloys are growing day by day in biomedical industry...
NiTi is an alloy of nickel and titanium with important characteristics such as shape memory, superel...
Abstract: Nickel Titanium (NiTi) shape memory alloy is a prominent material for biomedical implants....
Abstract: Wire spark discharge machining of TiNiCo alloys for bone staple applications is presented....
Nickel-titanium shape memory alloys (SMAs) have started becoming popular owing to their unique abili...
Nickel–titanium shape memory alloys (SMAs) have started becoming popular owing to their unique abili...
Abstract: Shape memory alloys (SMAs) are most usable material in the field of biomedical, aerospace ...
AbstractThis paper presents the investigation on surface integrity, material removal rate and wire w...
When nitinol is machined, quantitative details regarding the surfaces such as the surface crack dens...
Shape memory alloys are a kind of active materials, which have significant characteristics in compar...
The development of new, advanced engineering materials and the need for precise and flexible prototy...