Lane A, thin stillage; lane B, NaCl solution; lane M, broad range molecular marker.
After magnetic separation, those proteins were removed from the solution (lane 2).
SDS-PAGE analysis of the separated protein: lane 0, marker; lane 1, original protein and particle mixture solution; lane 2, supernatant part after separation; lane 3, solid part after separation, which was redissolved in buffer.
Fig. 4 SDS-PAGE analysis of purified GST-tagged proteins separated by SnO2/SiO2-GSH NSs. a Lane 1, marker; lane 2, E. coli lysate; lanes 3 6 refer to the fractions washed off from the SnO2/SiO2-GSH NSs with different concentrations of GSH solution (lane 1, 10 mmol/L; lane 2, 20 mmol/L; lane 3, 50 mmol/L; lane 4, 100 mmol/L).
Direct comparison of the merged results from the in-gel and in-solution digestion, and subtraction of "background" proteins retained by the neutravidin/lysate solution (lane 3), provided excellent insights into potential targets (Table 1).
The resuspended pellet, Pellet, exhibited a broad absorbance around 307 nm. Figure 1c shows the resuspended pellet solution (Lane 2) with smear pattern and shifted toward higher molecular weight than native Ab, IgG (Lane 6), which confirmed the conjugation.
Recently, Parand et al.[17] proposed an approximation algorithm for the solution of Lane-Emden-type equations using Hermite collocation method.
In this paper, the differential transformation method (DTM) is successfully applied to find an exact and approximate solution of Lane-Emden type equations with exponential and logarithmic nonlinearities.
The amount of the loaded DNA was 20 µl of the solution per lane (about 10 µg DNA, equivalent to the DNA extracted from about 2 million cells).
A total of 20 μl (about 30 ug) protein solution per lane was separated by SDS-polyacrlyamide gel electrophoresis on a 7.5 % acrylamide gel and electrophoretically transferred to a polyvinylidene fluoride membrane (Merck Millipore, Billerica, MA, USA).
