Nitinol is a shape memory alloy used for actuator applications. However, the connection between Nitinol wire and mechanical system via adhesive bonding or crimping could be weakened due to the exposure of joint in aggressive environments and temperature changes. Therefore, a process chain called laser rod end melting with immediate flange processing has been put forward and proven to fabricate all-in-one Nitinol flanges. According to previous work, there is a partially solidified preform connecting to the wire as the shaft, where the connection factures under tensile tests. In the present study, the effect of size of partially solidified preform on the tensile behavior was investigated on the cylindrical flanges with different flange height...
Shape setting is a crucial step of the production route of shape memory alloys (SMAs) elements for f...
Nitinol is well known for its unique shape-memory property and super-elastic effect along with its e...
Additive Manufacturing allows to design and realize 3D parts, integrating additional functionalities...
The shape-memory Nitinol as a nickel-titanium alloy is widely used in actuator and medical applicati...
Nitinol (nickel-titanium or Ni-Ti) is the most utilized shape memory alloy due to its good superelas...
Additive manufacturing (AM) of Nitinol could enable realizing smart 3D metallic structures that comb...
Shape setting is one of the most important steps in the production route of Nitinol Shape Memory All...
The unique characteristic, Shape Memory Effect (SME), of Shape Memory Alloys (SMAs), is primarily in...
Shape setting is a fundamental step in the production route of Nitinol Shape Memory Alloys (SMAs) fo...
Uniaxial tensile testing is done on Nitinol specimens of three different geometries namely tube, pla...
Nitinol, a nickel titanium alloy, is widely used as a biocompatible metal with applications in high ...
The excellent pseudoelasticity, shape memory and biocompatibility of Nitinol has made it a leading c...
To characterize the decrease in ductility caused by an induced stress concentration as a function of...
Shape memory alloys (SMAs) have enormous potential for a wide variety of applications. A large body ...
Nickel-Titanium, commonly referred to as Nitinol, is a shape-memory alloy with numerous application...
Shape setting is a crucial step of the production route of shape memory alloys (SMAs) elements for f...
Nitinol is well known for its unique shape-memory property and super-elastic effect along with its e...
Additive Manufacturing allows to design and realize 3D parts, integrating additional functionalities...
The shape-memory Nitinol as a nickel-titanium alloy is widely used in actuator and medical applicati...
Nitinol (nickel-titanium or Ni-Ti) is the most utilized shape memory alloy due to its good superelas...
Additive manufacturing (AM) of Nitinol could enable realizing smart 3D metallic structures that comb...
Shape setting is one of the most important steps in the production route of Nitinol Shape Memory All...
The unique characteristic, Shape Memory Effect (SME), of Shape Memory Alloys (SMAs), is primarily in...
Shape setting is a fundamental step in the production route of Nitinol Shape Memory Alloys (SMAs) fo...
Uniaxial tensile testing is done on Nitinol specimens of three different geometries namely tube, pla...
Nitinol, a nickel titanium alloy, is widely used as a biocompatible metal with applications in high ...
The excellent pseudoelasticity, shape memory and biocompatibility of Nitinol has made it a leading c...
To characterize the decrease in ductility caused by an induced stress concentration as a function of...
Shape memory alloys (SMAs) have enormous potential for a wide variety of applications. A large body ...
Nickel-Titanium, commonly referred to as Nitinol, is a shape-memory alloy with numerous application...
Shape setting is a crucial step of the production route of shape memory alloys (SMAs) elements for f...
Nitinol is well known for its unique shape-memory property and super-elastic effect along with its e...
Additive Manufacturing allows to design and realize 3D parts, integrating additional functionalities...