Abstract:
A system for sterilizing a fluid includes a sterilization container bounding a fluid flow path that can be coupled with a fluid source. The sterilization container is comprised of one or more polymeric walls. A beam generator is configured to direct a beam of electromagnetic radiation through at least a portion of the fluid flow path of the sterilization container, the beam of electromagnetic radiation being sufficient to sterilize a fluid within the fluid flow path.
Abstract:
A heat exchanger system includes a heat exchanger having a body with a first side face and an opposing second side face, the body bounding a fluid channel disposed between the opposing side faces and extending between an inlet port and an outlet port. A flexible first bag has of one or more sheet of polymeric material and bounds a fluid pathway that extends between a fluid inlet and a fluid outlet. The first bag is removably retained against the first side face of the body of the heat exchanger, the fluid channel of the body of the heat exchanger being sealed from fluid communication with the fluid pathway of the first bag.
Abstract:
A system for performing a gas-liquid mass transfer includes a container bounding a compartment and having a top wall, a bottom wall, and an encircling sidewall extending therebetween. A first opening is formed on the container so as to communicate with the compartment. A liquid is disposed within the compartment and having a top surface disposed below the first opening. A gas is blown through the first opening so that the gas passes over at least a portion of the top surface of the liquid, the gas producing turbulence on the top surface of the liquid that is sufficient to produce a mass transfer between the gas and the liquid. A mixing element is disposed within the compartment.
Abstract:
A container assembly includes a container at least partially bounding a chamber and having a wall with an opening extending therethrough. A tubular stem bounds a passageway and outwardly projects from the wall of the container so that the passageway communicates with the opening. A sparger includes a tubular member having a first end and an opposing second end and an interior surface bounding a passage extending therebetween. A gas permeable sparging member is secured to the first end of the tubular member so that gas passing through the tubular member from the second end passes out through the sparging sheet. A second flange encircles and radially outwardly projects from the tubular member, the second flange being secured to the stem so that at least a portion of the tubular member is disposed within the passageway of the tubular stem.
Abstract:
A method for filtering a gas includes sparging a gas through a liquid within a compartment of a container. In one embodiment the container can comprise a flexible bag. The sparged gas is passed from the container through a gas filter of a filter assembly. A partial vacuum is applied to the gas filter so that the partial vacuum assists in drawing the gas through the gas filter.
Abstract:
A container system includes a bag having of one or more sheets of flexible polymeric material, the bag having an interior surface at least partially bounding a chamber that is adapted to hold a fluid. A sparger is secured to the interior surface of the bag so that a compartment is formed between the interior surface of the bag and the sparger. At least a portion of the sparger includes a sparging sheet formed from a flexible sheet of a gas permeable material. A tubular port or tube is coupled with the bag so that a passage bounded by the tubular port or tube communicates with the compartment.
Abstract:
A magnetic particle separation system includes a magnetic field generating device having an upper surface with a receiving area formed thereon; and a magnetic field generating element disposed beneath the upper surface, the magnetic field generating element being configured to produce a magnetic field above the upper surface. A container assembly is disposed on the upper surface and includes: a flexible container having an outer wall with an interior surface that at least partially bounds an internal compartment, the outer wall having a front side and an opposing back side with the internal compartment disposed therebetween; a fluid inlet extending through the outer wall at the front side; a fluid outlet extending through the outer wall at the front side; and a first partition projecting into the internal compartment from the front side between the fluid inlet and the fluid outlet.
Abstract:
A method for filtering a gas includes delivering a gas into a compartment of a gas filter assembly; applying a partial vacuum to the gas filter assembly so that the partial vacuum assists in drawing the gas through a porous filter body of the gas filter assembly that is at least partially disposed within the compartment of the gas filter assembly; and regulating the application of the partial vacuum based on a pressure reading of the gas upstream or downstream of the gas filter assembly.
Abstract:
A fluid mixing system includes a collapsible container bounding a compartment and extending between a first end and an opposing second end. An elongated continuous drive line is at least partially disposed within the compartment of the container. A first portion of the drive line is laterally spaced apart from a second portion of the drive line, and the first portion of the drive line and the second portion of the drive line are rotatable within the compartment of the container.
Abstract:
A method for mixing a biological suspension includes disposing a biological suspension within a compartment of a container, the biological suspension comprising cells or microorganisms suspended within a nutrient growth medium; and rotating a first drive line and laterally spaced apart second drive line within the compartment of the container so as to cause the drive lines to twist into a helical configuration and mix the biological suspension.