Bio-Rad Q Media User Manual

................................................................................................................................
Nuvia™ S Ion Exchange
Instruction
Catalog
and Q High-Capacity
Manual
numbers 156-0311 156-0411 156-0313 156-0413 156-0315 156-0415 156-0317 156-0417
Please read these instructions before you use Nuvia S and Q High-capacity ion exchange media. If you have any questions or comments regarding these instructions, please contact your Bio-Rad Laboratories representative.
Table of Contents
Section
Section
Section
Section
Section
Section
Section
Section
Section
Section
Section
.
1:
Introduction 1
2 :
Technical Description 1
3 :
Preparation 2
4 :
Column
5 :
Column Packing Evaluation 3
6 :
Operation
7 :
Regeneration
8 :
Cleaning-in-Place
9 :
Storage 8
10:
Regulatory Support
11: Ordering
Packing
and
Maintenance
and
Sanitation 7
(CIP) and
Information 8
5
Sanitation 8
2
8
Section
Nuvia™ S and Q
Introduction
1:
high-capacity
ion
exchange binding capacity chromatography media purification process from capture to properties, biomolecule process scale. nucleic acids,
high productivity, and
purification
Nuvia
at both
media are
viruses, plasmids, offer high binding capacity at fast backpressure. The unique properties highly effective
If you
have questions
media for biomolecule purification.
about
Nuvia media, Rad process chromatography chromatography
Technical
Support department for
final polish. Their
exceptional selectivity
laboratory scale
designed
and other
linear
flow
of
sales representative
1-510-741-6563.
:
Section
Technical
2
Description
media are new
designed
for any stage in the
robust
meet the needs for
and
for the
biopharmaceutical
separation
macromolecules. Nuvia
rates
while
Nuvia
media position them as
contact
maintaining
either
your local Bio-
or the Bio-Rad
further assistance
ultra high
physical
of
proteins,
media
low
at
Table 1.
Nuvia S Nuvia Q
Type of ion exchanger Strong cation Strong anion Functional
Total ionic capacity 90–150 µeq/ml 100-170 µeq/ml Dynamic binding capacity* 300
Shipping counterion Na Median Recommended linear Chemical
1.0 N
0.1 N
0.01 N Gel bed
pH stability** 2–14 short term 2–14 short term
Shipping solution 20% Regeneration 1–2 M NaCl 1–2 M NaCl Sanitation 0.5–1.0 N NaOH 0.5–1.0 N NaOH Storage conditions 20%
* 10% NaCl, **Data
NOTE: Recommended elution flow rates are <150 cm/hr to minimize viscosity induced backpressure.
Characteristics
group –SO
particle
size 85 ± 15 µm 85 ± 15 µm
stability NaOH NaOH
NaOH
compression
breakthrough
pH 5.0 for Nuvia S and 5 mg/ml BSA in 20 mM Tris-HCI pH 8.5 for Nuvia Q.
derived
flow rate range 50–600 cm/hr 50–600 cm/hr
(20°C) up to 1 week up to 1 week
(20°C)** up to 5
(20°C)** — up to 5 yr
ratio 1.15–1.18
capacity
under
accelerated
of Nuvia™ media.
-
3
cm/hr
+ Cl-
volume/packed
4–13 long term 4–12 long term
ethanol
ethanol
determined
with 4.5 mg/ml
conditions at 60°C.
–N(CH3)
>110 mg/ml
yr —
(settled
bed 1.10–1.15
bed volume)
+ 0.1 M NaCl 20%
or 0.1 N NaOH 20%
human
300 cm/hr >170 mg/ml
IgG in 40 mM
+
3
ethanol
ethanol
NaOAc
+ 1 M NaCl
or 0.01 N NaOH
+ 30 mM
1
Section
Nuvia™ media are a 50% (v/v) is r
ecommended. Small volumes
Büchner funnel cycling
through 3–4
in the
shipping container
Removal particle size range. resuspend sedimentation
of
Section
Nuvia™ media can be packed using pressure, volumetric flow, or vacuum packing methods. To pack operation,
Packing This
slurry
media
in a All buffers slurry
is
required,
1.
Prepare degassed
referred
2.
Nuvia suspended to settle. Decant the shipping
3. Add 50 ml
4.
Seal
the mix with a of
slurry
moderate
5. Add 10 ml packing buffer to the column. Pour in 75 ml
6.
Insert
the column flow adaptor and flow pack at a 300–600 cm/hr with packing buffer for at compressed bed compress the bed 0.1–1.0
7. Attach the column to your chromatography system, and purge the column with starting buffer at bed
compresses,
: Preparation
3
supplied fully hydrated
slurry.
For column packing,
with 4–5
fines
the
sediment
is complete.
4
it is
recommended
Small packing method was
conventional
should be
to
herein
media are shipped as a 50%
slurry
degassed
cylinder
magnetic
may be mixed with a
speed.
volumes
settling
is recommended.
from
Nuvia
If
fines have
and
:
Column
Columns
column with an
degassed. Because a relatively large volume
it is
recommended
1.0 M
as the packing buffer.
into a 100 ml
and rotate it to
stir bar as damage may occur.
height,
repeat steps 6
of
Nuvia
of packing buffer. For
and
decanting
media is not
been
generated
remove
Repeat several
the opaque supernatant before
Packing
that a 20–50%
designed
that a packing reservoir be used.
NaCl,
20–50 mM buffer salt
graduated cylinder.
solution
packing buffer to the resin.
suspend
low-shear marine impeller
stop the flow, and adjust the flow adaptor to
cm.
linear velocities
and
in 20%
removal
required
columns
internal diameter
slurry. Measure
7.
ethanol + 1 M NaCI
of the
media are
steps using the packing buffer
times.
slurry volume
to pack 25 ml of
away from the
the resin.
least
shipping
easily
large
due to the narrow
during handling,
for highly
50 ml of Allow the
Caution: Larger
linear velocity
10 min. Note the
up to 600 cm/hr. If
buffer
washed in a
volumes,
efficient
be used.
Nuvia
of 5–15 mm.
(see Table
resin
bed.
amounts
at low to
resin
as
of
2)
resin
Do not
slurry.
of
the
bed
2
Packing After
(v/v) with packing buffer recommendations slurry mixing of
1.20 and 1.10 –1.15 respectively height. flow condition the column with fresh packing or 3 column process flow rate. After flow column procedure described in Section 5.
Section
When column packing is complete, 5 CV inject a example, acetone or 1 M a UV have a a conductivity should be 100–200 mM. column velocity used to load and/or
To obtain values theoretical velocities
HETP = L/N N =
L = Bed height (cm) N = Number of Ve =
W Ve and W
Peaks should be possible
Peak asymmetry factor calculation:
Process-Scale
removing
through the packing pump. Use a low-shear
Nuvia
equilibration
absorbance
among columns, the same conditions must be applied. Minimum
5.54(Ve/W½h)
Peak elution volume
=
½h
the storage buffer
or a plastic paddle for
S and Nuvia Q will be obtained with a compression ratio of 1.15–
After the
efficiency
sample
salt concentration
volume.
Peak
desired compression
volumes
using your standard
:
5
of a low
monitor),
Column testing should be operated using the same
comparable
plate
values
of 50–500
theoretical
width at peak
should
½h
to 1.
symmetrical
Values
Columns
(see Table
with one major
(CV) in upflow followed by 3 CV in downflow at the
(Section
manual mixing.
defined
conditioning,
Column Packing
buffer. To test the
molecular
NaCl).
monitor set at 280
then the
height
should be 1,000–3,000 plates/m for linear
cm/hr
2
always
of 0.8–1.8 are acceptable.
If acetone is used as the test
<100 mM. If 1 M
equilibration
The sample volume
elute
equivalent
.
plates
or time
half
height in
be in the same units
and the
3), prepare a 20–50%
2). Follow the column
exception:
do not
The best
as settled bed height /packed bed
is
achieved,
equilibration
it is
recommended
operating procedures
manufacturer’s
recirculate
impeller
overall performance
it is
recommended
Evaluation
equilibrate
effectiveness
weight, unretained compound
nm),
the sample.
asymmetry
the column with up to
of column packing,
the
equilibration
NaCl
is the test
buffer salt
should be 1–3% of the total
to a
theoretical
volume
or time
factor as close as
buffer must
concentration
plate
slurry
the
for automatic
marker (use
Nuvia
buffer for
to
or the
marker (use
(HETP)
to
evaluate
(for
linear
As =
b/a a = Front section of peak width at 10% of peak b = Latter section of peak width at 10% of peak height bisected by line denoting As = 0.8–1.8 is acceptable.
3
height
bisected by line denoting
V
e
V
e
:
Pressure-Flow Characteristics
0
0.5
1
1.5
2
2.5
3
0.0 100.0 200.0 300.0 400.0 500.0 600.0 700.0
Linear flow, cm/hr
Pressure Bar
Water 10% glycerol 30% glycerol
Section
Nuvia™ media are drug per be run at the
operational
Operation and
6
designed
hour per
to
achieve
liter
of
highest linear velocities
the
media) possible. Nuvia
and the column and the chromatography system. A hr and a 20 cm bed is a optimized by buffer,
changing
modifying
recommended
the pH, flow rate,
the
gradient profile,
or
experimenting
Maintenance
highest productivity (grams
loading capacities allowed
linear
starting point.
or
ionic strength of the elution
media should
flow rate of 300 cm/
Purification
with
different
salts.
Note: Due to the high binding capacity of Nuvia media, it
is recommended to elute the biomolecule at flow rates <150 cm/hr to minimize
Figure
viscosity
induced backpressure.
1 shows the effect of flow rate on backpressure.
of
by
may be
buffer
Fig. 1. Nuvia S media
bed
height column packed
4
pressure/flow performance
to
compr
ession factor of 1.17
for a 20 cm
.
diameter
x 20 cm
Figure
Effect of Conductivity on Nuvia S Binding Capacity
0
20
40
60
80
100
120
140
160
0 2 4 6 8 10
Conductivity, ms/cm
Binding capacity @ 10% BT, mg/ml
human IgG BC @ 10% BT
Conalbumin BC @ 10% BT
Effect of Conductivity on Nuvia Q Binding Capacity
0
20
40
60
80
100
120
140
160
180
200
0 5 10 15 20 25
Conduct ivity, ms/cm
Binding capacity @ 10% BT, mg/ml
2 shows the effect of conductivity on
Fig 2.
Effect
of
Column: human
Figure
conductivity
1.1 x 9.3 cm; flow rate: 9.75
IgG or 5
mg/ml
3 shows how the effect of conductivity on Nuvia Q media
on Nuvia S media
conalbumin
ml/min
.
Nuvia
S media binding capacity.
binding capacity at pH 5.0.
(600
cm/hr); sample: 5 mg/ml
binding capacity.
5
Effect of Conductivity on human IgG Binding Capacity
0
20
40
60
80
100
120
0 2 4 6 8 10 12 14 16
Conductivity, ms/cm
Binding capacity @ 10% BT, mg/ml
Figure
4 shows how binding capacity for
at higher
Fig. 4. at pH 4.5.
4.5
conductivity and lower load buffer pH.
Effect
of
Column:
mg/ml human
conductivity
IgG in 20 mM
on
0.7 x 5.5 cm; flow rate:
polyclonal
sodium acetate,
human
h.IgG
2.0 ml/min
binding
pH
IgG can be
capacity of
(300
cm/hr); sample:
4.5
.
achieved
Nuvia S media
6
All
buffers used with the same
commonly used for ion Nuvia
media
as the
(see Table
functional
charge
exchange
2). group on the ion
produce the best results.
Table 2.
Buffer
Nuvia S
Acetic acid 4.8–5.2 Citric acid 4.2–5.2 HEPES 6.8–8.2 Lactic acid 3.6–4.3 MES 5.5–6.7 MOPS 6.5–7.9 Phosphate 6.7–7.6 PIPES 6.1–7.5 TES 6.8–8.2 Tricine 7.8–8.9
Nuvia Q
Bicine 7.6–9.0 Bis-Tris 5.8–7.2 Diethanolamine 8.4–8.8 Diethylamine 9.5–11.5 L-histidine 5.5–6.0 Imidazole 6.6–7.1 Pyridine 4.9–5.6 Tricine 7.4–8.8 Triethanolamine 7.3–8.3 Tris 7.5–8.0
Common
buffers for
Buffering Range
ion exchange
The
chromatography can be
use of
buffering
ions
exchanger
chr
omatography
that have
will
.
Section
Regeneration and
7
Sanitation
:
After each run, the packed bed should be washed with 2–6 bed of 1–2 M bound 100 cm/hr; a
NaCl
or until
material.
minimum
7
absorbance
The
column can then be
contact time of 40 min is recommended.
returns to
sanitized
baseline
in 1.0 N
to
remove
NaOH
volumes reversibly
at 50–
Section
8
Sanitation
If a column no thorough contaminants. 1%
Triton
alcohol,
longer yields
CIP
and
Acceptable
X-100, 6 M
1 N
NaOH,
:
Cleaning-in-Place (CIP) and
reproducible
sanitation
and 6 M
after
CIP agents include
potassium thiocyanate,
guanidine
results,
regeneration
hydrochloride.
the media may require
to
remove 25% acetic acid, 8 M urea, 70%
strongly bound
ethanol, 30%
isopr
opyl
Section
For long-term storage, Nuvia™ media should be or
20% ethanol (see Table 1).
Section
Regulatory assistance validating contact your local Bio-Rad representative.
Section
Catalog # Description
156-0311 Nuvia™ S 156-0313 156-0315 156-0317 156-0411 Nuvia Q 156-0413 156-0415 156-0417
Larger volumes available
upon request.
: Storage
9
:
10
support
files
the use of
: Ordering
11
Nuvia S Media, Nuvia S Media, Nuvia S Media,
Nuvia Q Media, Nuvia Q Media, Nuvia Q Media,
and
special packaging
Regulatory
are
available
for Nuvia™ media.
Nuvia
media in a production process,
Information
Media,
25 ml 100 ml 500 ml 10 L
Media,
25 ml 100 ml 500 ml 10 L
for
Support
industrial applications
equilibrated
If you need
with 0.01– 0.1 N
are
NaOH
Triton is a
trademark
8
of
Union Carbide
Corporation.
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