The postdrawing process is poorly understood for polymer nanofibers due to the difficulty of manipulating nanofiber structures. Here, an angled track system facilitates postdrawing of individual nanofibers with control of parameters including molecular weight, draw rate, draw ratio, and solvent evaporation time. In this study, the effects of molecular weight, draw rate, and relative residual solvent content on final nanofiber properties are investigated. Molecular weight is first investigated to clarify any influence polymer chain length can have on drawing in facilitating or hindering chain extensibility. Polyacrylonitrile nanofibers with 50 and 150 kDa molecular weights behave similarly with postdrawing resulting in reduced diameters and ...
The solid-state drawing behavior and properties of solution-spun polyvinylalcohol fibers were invest...
This study examines the effects of electrospun polycaprolactone (PCL) fiber density and strain rate ...
Electrospinning is a process that generates nanofibres. Temperature and humidity affect this process...
The postdrawing process is poorly understood for polymer nanofibers due to the difficulty of manipul...
The current study examines several variable effects of a unique automated track electrospinning coll...
Raw data for the publication: Role of Draw Rate and Molecular Weight when Electrospun Nanofibers are...
Electrospinning is an alternative manufacturing method, capable of producing fibers with nanoscale d...
For application of polymer nanofibers (e.g., sensors, and scaffolds to study cell behavior) it is im...
We propose to expand nanomanufacturing capabilities and develop processing methods to produce advanc...
© 2018 by the authors. Polymer nanofibres are created from many different techniques, with varying r...
The effects of processing parameters, including solution concentration, viscosity, nozzle diameter, ...
To obtain uniform and reproducible nanofibres, it is important to understand the effect of the diffe...
A newly developed method of producing nanofibers, called forcespinning, has proven to be a viable al...
Nylon 6, Nylon 6.6, PEO/water, PEO/water/Ethanol, PVA/FeCl3 and PEO/wood pulp have been successfully...
The selection of an appropriate non-hazardous solvent or solvent system is essential to determine th...
The solid-state drawing behavior and properties of solution-spun polyvinylalcohol fibers were invest...
This study examines the effects of electrospun polycaprolactone (PCL) fiber density and strain rate ...
Electrospinning is a process that generates nanofibres. Temperature and humidity affect this process...
The postdrawing process is poorly understood for polymer nanofibers due to the difficulty of manipul...
The current study examines several variable effects of a unique automated track electrospinning coll...
Raw data for the publication: Role of Draw Rate and Molecular Weight when Electrospun Nanofibers are...
Electrospinning is an alternative manufacturing method, capable of producing fibers with nanoscale d...
For application of polymer nanofibers (e.g., sensors, and scaffolds to study cell behavior) it is im...
We propose to expand nanomanufacturing capabilities and develop processing methods to produce advanc...
© 2018 by the authors. Polymer nanofibres are created from many different techniques, with varying r...
The effects of processing parameters, including solution concentration, viscosity, nozzle diameter, ...
To obtain uniform and reproducible nanofibres, it is important to understand the effect of the diffe...
A newly developed method of producing nanofibers, called forcespinning, has proven to be a viable al...
Nylon 6, Nylon 6.6, PEO/water, PEO/water/Ethanol, PVA/FeCl3 and PEO/wood pulp have been successfully...
The selection of an appropriate non-hazardous solvent or solvent system is essential to determine th...
The solid-state drawing behavior and properties of solution-spun polyvinylalcohol fibers were invest...
This study examines the effects of electrospun polycaprolactone (PCL) fiber density and strain rate ...
Electrospinning is a process that generates nanofibres. Temperature and humidity affect this process...