The collected distance-variation ranges, in fact, for the left and right sides, were equal to (0.4 1.7) and (0.8 2.2)%, respectively.
We also collected distances of other target sites of this module.
Flow rate, applied electric field, collecting distance and composition of the starting solutions determined the morphology of the obtained fibres.
Furthermore, the effect of electrospinning parameters, such as solution concentration, applied voltage, collecting distance, and rate of spinning, on the fiber dimensions and morphology are studied.
Smallest size was found to be obtained at minimum value for both flow rate and concentration of polymer, regardless of collecting distance value in the ranges studied.
Specifically, relative humidity (RH), temperature, collecting distance, feeding rate, and applied voltage were kept at 60%%, 22 °C, 15 cm, 1.5 ml/h, and 12 kV, respectively.
In total, a sample with minimum size and polydispersity was predicted to have flow rate, polymer concentration and collecting distance values of 0.06 (ml/h), 0.5 (%w/w) and 9.28 (cm), respectively.
Apart from that, 10% (w/v) PS solution (THF/DMF ratio, 1 1 v/v) was used as a model to check the effect of other parameters (e.g., relative humidity, applied voltage, collecting distance, feeding rate).
Overall, applied voltage, collecting distance, and feeding rate had little effect on the secondary morphology and fiber diameter, but relative humidity exerted great influence on diameter of grooved PS nanofibers.
We used nuclear magnetic resonance (NMR) to study the effects of titrating the isolated Josephin domain with K48- or K63-linked diUb chains and to collect distance restraints which could be translated into structural models.
