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In a discontinuous buffer system...
Velocity of Migration = ( Effective Mobility, Size ) x ( Voltage, Mass )
- Proportion of charged molecules determines effective mobility
Voltage = ( Current, Charge ) x ( Resistance, Reactability )
- V = I x R
Proteins accumulate in a ( narrow, wide ) band (i.e. ( Stack, Resolution )) before entering the ( resolving, stacking ) gel
Stacking gels have ( large, small ) pores (( low, high ) %T, ( no molecular sieving, molecular sieving )) and a pH of ( 6.8, 8.8, 8.6, 6.6 ).
Glycine is ( protonated, deprotonated, differentially deprotonated ), so it has a ( slow, fast, intermediate ) migration and is the ( trailing, leading ) ion. Proteins are ( differentially deprotonated, protonated, deprotonated ), so they have an ( intermediate, slow, fast ) migration. Chloride (Cl-) has ( high, low ) mobility and is the ( leading, trailing ) ion.
Cl- moves ( away from, towards ) the glycine, creating a ( low, high ) conductivity zone. The ( low, high ) conductivity zone attains a ( higher, lower ) voltage gradient. At its steady-state, glycine and Cl- are moving at ( the same rate, different rates ) with a ( sharp, undefined ) boundary between them. As the glycine moves through the stacking gel, the ( Cl-, proteins )overtakes the ( proteins, Cl- ) ( in front of, behind ) the boundary. Proteins have ( higher, lower ) mobility than glycine in the trailing ( high-voltage, low-voltage ) gradient, so they move ( at, behind, in front of ) the boundary.
Resolving gels have ( smaller, larger ) pores (( higher, lower ) %T, ( molecular sieving, no molecular sieving )) and a pH of ( 8.8, 6.8, 6.6, 8.6 ). At the resolving gel, glycine ( deprotonates, protonates ) and ( increases, decreases ) mobility. The ( glycine, proteins ) overtakes the ( proteins, glycine ) and moves just behind the Cl-. Then the Proteins separate based on their ( charge:mass ratio, mass ) and molecular sieving due to gel composition (%T, %C).