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![NiTi is also superelastic, in that it possesses incredible amounts of flexibility and kink resistance. It has a strain recovery of about 8%, which makes it more re-silient than stainless steel. Work on the corrosion resistance of NiTi in the case of biomedical implants [26] has shown it to be very resistant to corrosio n in the harshest environments due to the formation of a passive Ti0 layer on the surface.](https://images.tandf.co.uk/common/jackets/crclarge/978906764/9789067643764.jpg "NiTi is also superelastic, in that it possesses incredible amounts of flexibility and kink resistance. It has a strain recovery of about 8%, which makes it more re-silient than stainless steel. Work on the corrosion resistance of NiTi in the case of biomedical implants [26] has shown it to be very resistant to corrosio n in the harshest environments due to the formation of a passive Ti0 layer on the surface.")
Chapter
NiTi is also superelastic, in that it possesses incredible amounts of flexibility and kink resistance. It has a strain recovery of about 8%, which makes it more re-silient than stainless steel. Work on the corrosion resistance of NiTi in the case of biomedical implants [26] has shown it to be very resistant to corrosio n in the harshest environments due to the formation of a passive Ti0 layer on the surface.
DOI link for NiTi is also superelastic, in that it possesses incredible amounts of flexibility and kink resistance. It has a strain recovery of about 8%, which makes it more re-silient than stainless steel. Work on the corrosion resistance of NiTi in the case of biomedical implants [26] has shown it to be very resistant to corrosio n in the harshest environments due to the formation of a passive Ti0 layer on the surface.
NiTi is also superelastic, in that it possesses incredible amounts of flexibility and kink resistance. It has a strain recovery of about 8%, which makes it more re-silient than stainless steel. Work on the corrosion resistance of NiTi in the case of biomedical implants [26] has shown it to be very resistant to corrosio n in the harshest environments due to the formation of a passive Ti0 layer on the surface.
ABSTRACT
A compact E-SPART analyzer that is robust enough for space flight is also being developed, as well as the development of the electrodynamic screen is being continued.
REFERENCES
