Methods and systems for chromatography are disclosed that employ a flexible container configured to fit within a support structure and adapted to receive a filtration or absorptive medium. The flexible container can include at least one inlet, at least one outlet, and a separation barrier peripherally sealed within the container to separate the container into a resin containing portion and a drainage portion. The barrier can be configured to exclude the resin material from the drainage portion while allowing fluids to pass therethrough. The disposable chromatography system can further include one or more agitators disposed within the flexible container and adjustably configured to be raised or lowered in the flexible container. When the agitator is in the raised position, the resin packing material can operate in a settled, packed-bed configuration. Alternatively, the agitator in the lowered position permits the chromatography resin packing material to operate in a mixed, slurry configuration.

A column packing apparatus includes a tubular structure, a packing material supplier disposed on one end of the tubular structure for permitting a packing material slurry formed by a packing material dispersed in a solvent to be packed into the tubular structure, and a packing controller disposed on the other end of the tubular structure for determining the flow rate and pressure of the packing material slurry formed by the packing material being packed so that they can be maintained at predetermined flow rate and pressure level. A column packing method includes the steps of providing a packing controller disposed on the other end of the tubular structure, and permitting the packing controller to variably adjust the flow rate and pressure of the packing material slurry so that they can be maintained at the predetermined flow rate and pressure level.

Herein is reported the use of a chromatography column support comprising at least one plane of symmetry, one axis of symmetry, at least three legs, at least three straight connectors, whereby the connectors define a plane that is perpendicular to the axis of symmetry of the support, whereby the connectors are connected to each other at the axis of symmetry, whereby each leg is connected to a connector, whereby each leg is perpendicular to the plane defined by the connectors, whereby all legs are on the same side of the plane defined by the connectors for stabilizing the packing of a chromatography column.

A method for packing a media bed in a column (3). According to the invention the method comprises the steps of: providing data to a control unit (15) connected to the column (3), said data comprising at least a measured slurry concentration, a target bed height, a target packing factor or compression factor and minimum and maximum acceptable values for at least one of target bed height and target packing or compression factor; forcing a movable adapter (9) along a longitudinal axis of the column (3) in order to pack the media; detecting when the media bed is consolidated; the control unit (15) processing the provided data and the information about the consolidated bed height in order to present to the user acceptable bed heights, if there are any, giving acceptable packing or compression factors.

The present invention discloses methods for packing chromatography columns using dual-purpose valve assemblies. The key components of the dual-purpose valve comprise of the following; the inlet port (224) which sits on the first adaptor (212), the hollow nozzle (320) which passes through the first adaptor (212) cavity and is closed on the bottom end, and the internal movable plug (322). Different components of our de-vice work in way that the mobile phase and analyte(s) distribution is not blocked in the centre of the column, allowing for a uniform and homogeneous fluid distribution. This simple yet novel design offers uniform fluid distribution, stable packed bed, eliminates any void volume, and prevents bacterial contamination/growth. Ease of use, scalability, ease of cleaning, cost-efficiency and fine-tuning packing conditions such as pressure are key features of this invention.

A column packing material for supercritical fluid chromatography which allows good peak shape to be obtained in the analysis of free fatty acids, etc. and in the analysis of agricultural chemicals, etc., and has excellent durability for repeated analysis. The column packing material for supercritical fluid chromatography includes polymer particles containing cross-linked polymer, the degree of swelling of which after absorbing tetrahydrofuran and the degree of swelling of which after absorbing methanol are both 1.4 or less.

Provided is a guard column including a filling part having a length of 2.0 cm to 3.5 cm formed of a filler, in which the filler is made of porous silica gel having a hydrophilized surface and an average particle size of 1.5 μm to 2.5 μm, and a pressure difference when an aqueous solution is fed at a linear flow rate of 2.1 cm/min is 4.0 MPa or more.

A method and a system and a container system for transferring separation resin from at least one first container (3; 3′; 3a, 3b; 3a′, 3b′, 3c′, 3d′) to a second container (5; 5′), wherein said first container is a deformable, single-use separation resin storage container, said method comprising the steps of:

preparing (S1) the at least one first container by providing a deformable, single-use container comprising an outlet port (4′) with a predefined volume of separation resin in a storage solution;

fluidizing (S3) the separation resin in the at least one first container to provide a resin slurry, said fluidizing being performed by mechanical interaction to the first container from an outside of the first container to provide a deformation of said first container;

fluidically connecting (S5) the outlet port (4′) of the at least one first container to an inlet port (103) of the second container;

transferring (S7) separation resin from the at least one first container to the second container by generating a pressure difference between an interior of the second container and an interior of the first container where the pressure is lower in the second container.

A method and a system and a container system for transferring separation resin from at least one first container (3; 3; 3a, 3b; 3a′, 3b′, 3c′, 3d′) to a second container (5; 5′), wherein said first container is a deformable, single-use separation resin storage container, said method comprising the steps of:—preparing (S1) the at least one first container by providing a deformable, single-use container comprising an outlet port (4′) with a predefined volume of separation resin in a storage solution;—fluidizing (S3) the separation resin in the at least one first container to provide a resin slurry, said fluidizing being performed by mechanical interaction to the first container from an outside of the first container to provide a deformation of said first container;—fluidically connecting (S5) the outlet port (4′) of the at least one first container to an inlet port (103) of the second container;—transferring (S7) separation resin from the at least one first container to the second container by generating a pressure difference between an interior of the second container and an interior of the first container where the pressure is lower in the second container.

The invention relates to a method for providing an aseptic chromatography column, said method comprising the steps of: pre-sterilize an empty chromatography column; pre-sterilize a chromatography medium; introducing the pre-sterilized chromatography medium into the pre-sterilized chromatography column using aseptic equipment, thereby providing an aseptic chromatography column comprising chromatography medium.