CZE
capillary zone electrophoresis °C
d
diameter of the solute or droplet sphere (m)
dB/dz
magnetic field gradient in the direction of motion
dy/dt
velocity of the bioparticle in electric field (m s –1 )
dz/dt
one-dimensional particle motion
D
diameter of the chamber or distance (perpendicular to g) from the
high temperature to the closest lateral boundary (m)
DX
dextran
e
electrical charge (C)
E
electric field strength (V m –1 )
E p
parameter in Eq. 27 (E p = KR)
ECCD
electrophoretic counter current distribution
ELECSEP electrophoretic separator
F
total force on a particle (N)
F b
buoyancy force (N)
F d
drag force (N)
F g
gravitational force (N)
F m
magnetic force (N)
g
acceleration due to gravity (m s –2 )
Gr
Grasshof number
G-6-PDH glucose-6-phosphate dehydrogenase
h
total depth of chamber (m)
h T
heat transfer coefficient (kW m –2 °C –1 )
H
magnetic field strength (A m –1 )
H c
chamber height (m)
H P
volume of the heavy phase (m –3 )
HGMSs high gradient magnetic separations
i
unit vector in the z direction
I
current (A)
J
flux of cells in magnetic field (cell m –2 s –1 )
k E
electrical conductivity of the medium (S m –1 )
k T
thermal conductivity of the medium (kW m –1 °C –1 )
K
solute partition coefficient (K = x s /y s )
l
length of element (in Eq. 1)
L P
volumes of the light phase (m –3 )
LDH
lactate dehydrogenase
m
number of bioparticles that would migrate during a single step
m p
mass of the particle (kg)
(m 1 ) n, r
number of type-1 particles with mobility m 1E
M
induced polarization (Eq. 3)
M c
flow rate of the coolant that is to be circulated to remove the required heat (kg s –1 )
MAGSEP magnetic separator
MDX
maltodextrin
n
stage or chamber number
N
total number of bioparticles initially (t = 0) present in the first
bottom chamber (N = N 1 + N 2 )
Multistage Magnetic and Electrophoretic Extraction of Cells, Particles and Macromolecules
141
capillary zone electrophoresis °C
d
diameter of the solute or droplet sphere (m)
dB/dz
magnetic field gradient in the direction of motion
dy/dt
velocity of the bioparticle in electric field (m s –1 )
dz/dt
one-dimensional particle motion
D
diameter of the chamber or distance (perpendicular to g) from the
high temperature to the closest lateral boundary (m)
DX
dextran
e
electrical charge (C)
E
electric field strength (V m –1 )
E p
parameter in Eq. 27 (E p = KR)
ECCD
electrophoretic counter current distribution
ELECSEP electrophoretic separator
F
total force on a particle (N)
F b
buoyancy force (N)
F d
drag force (N)
F g
gravitational force (N)
F m
magnetic force (N)
g
acceleration due to gravity (m s –2 )
Gr
Grasshof number
G-6-PDH glucose-6-phosphate dehydrogenase
h
total depth of chamber (m)
h T
heat transfer coefficient (kW m –2 °C –1 )
H
magnetic field strength (A m –1 )
H c
chamber height (m)
H P
volume of the heavy phase (m –3 )
HGMSs high gradient magnetic separations
i
unit vector in the z direction
I
current (A)
J
flux of cells in magnetic field (cell m –2 s –1 )
k E
electrical conductivity of the medium (S m –1 )
k T
thermal conductivity of the medium (kW m –1 °C –1 )
K
solute partition coefficient (K = x s /y s )
l
length of element (in Eq. 1)
L P
volumes of the light phase (m –3 )
LDH
lactate dehydrogenase
m
number of bioparticles that would migrate during a single step
m p
mass of the particle (kg)
(m 1 ) n, r
number of type-1 particles with mobility m 1E
M
induced polarization (Eq. 3)
M c
flow rate of the coolant that is to be circulated to remove the required heat (kg s –1 )
MAGSEP magnetic separator
MDX
maltodextrin
n
stage or chamber number
N
total number of bioparticles initially (t = 0) present in the first
bottom chamber (N = N 1 + N 2 )
Multistage Magnetic and Electrophoretic Extraction of Cells, Particles and Macromolecules
141