Cobe Laboratories, Inc.

Gambro, Inc.

Gambro Bct, Inc.

Caridianbct, Inc.

Timothy M Gordon

Marlene Adele Bainbridge

Scott Butzke

Muriel Keller

Roger J Elgas

Michael J McAteer

Gary Allen Carson

Edward V Cruz

Steven Gage Urdahl

Denise C Garrison

Rodger L Stewart

Chad C Steele

Terry R Wahl

Thomas J Minyard

David W Hoard

Scott Martin

Emery Joseph Stephans

Peter Fletcher-Haynes

Stephen K Scovill

Daniel J Wellington

Scott Butze

Methods and apparatus particularly involving the separation of blood into blood components and the collection of such components are disclosed. In one aspect, an extra-corporeal method for the collection of plasma and red blood cells is provided, wherein the collection of plasma and red blood cells may occur simultaneously or subsequently utilizing the same dual stage blood processing vessel. The flow of blood to the blood processing vessel and return of uncollected blood components may be provided via a single needle, wherein blood is removed from and returned to a donor/patient during alternating blood removal and blood return submodes. Platelet separation and collection options are also described. In either case, prior to red blood cell collection, a set-up phase may be carried out to set a predetermined hematocrit and AC ratio. Replacement fluid delivery may optionally also be provided either substantially continuously during any collection phase(s) and/or in a bolus mode.

Extra-corporeal blood processing method and apparatus based on donor characteristics

Extra-corporeal dual stage blood processing method and apparatus

Methods and apparatus particularly involving the separation of blood into blood components and the collection of such components are disclosed. In one aspect, an extracorporeal method for the collection of plasma and red blood cells is provided, wherein the collection of plasma and red blood cells may occur simultaneously or subsequently utilizing the same dual stage blood processing vessel. The flow of blood to the blood processing vessel and return of uncollected blood components may be provided via a single needle, wherein blood is removed from and returned to a donor/patient during alternating blood removal and blood return submodes. Platelet separation and collection options are also described. In either case, prior to red blood cell collection, a set-up phase may be carried out to set a predetermined hematocrit and AC ratio. Replacement fluid delivery may optionally also be provided either substantially continuously during any collection phase(s) and/or in a bolus mode.

Extracorporeal blood processing methods and apparatus

A method and apparatus for occlusion monitoring in a flow circuit using pressure waveform analysis. The flow circuit includes a first conduit and a second conduit which fluidly interconnects a fluid supply with the first conduit. A pump is disposed in an intermediate portion of the second conduit. Monitoring of the pressure in the first conduit is used to identify any occlusions in that portion of the second conduit which is disposed between the pump and the fluid supply.

Method and apparatus for occlusion monitoring using pressure waveform

A blood component collection system with optimization capabilities. In one embodiment, the blood component collection system includes a central input station (e.g., computer) and a plurality of blood component collection assemblies. These blood component collection assemblies include a blood component collection device and an operator interface module (e.g., computer). Various types of data are maintained on the collection procedures performed in the blood component collection system and are utilized to generate various types of reports for optimizing system operations.

Blood component collection system with optimizer

An extracorporeal blood processing system is disclosed which includes a variety of novel components and which may be operated in accordance with a variety of novel methodologies. For instance, the system includes a graphical operator interface which directs the operator through various aspects of the apheresis procedure. Moreover, the system also includes a variety of features relating to loading a blood processing vessel into a blood processing channel and removing the same after completion of the procedure. Furthermore, the system also includes a variety of features relating to utilizing a blood priming of at least portions of the apheresis system in preparation for the procedure. In addition, the system includes a variety of features enhancing the performance of the apheresis system, including the interrelationship between the blood processing vessel and the blood processing vessel and the utilization of high packing factors for the procedure.

Apheresis blood processing method using pictorial displays

A membrane type blood oxygenating system with the membrane device, blood heater and blood reservoir constructed as an integral unit with the membrane device located lower than the blood reservoir.

Integral blood oxygenator

A perfusion device, such as an oxygenator including a parallel plate membrane consisting of an accordian-folded elongated sheet, is provided with a plurality of perfusion compartments, each with its own inlet and outlet, so that a greater or lesser perfusion membrane area may be used, as desired.

Membrane medical device

A fitting for connecting a helically corrugated heat exchanging tube to a source of heated fluid, the fitting having a plastic tubular member with an end adapted for connection to the source and an end with external helical threads formed on it, the threads being sized to provide a close clearance with the interior surface of the corrugated tube.

Fitting for corrugated tube

A membrane type blood oxygenator with a microporous membrane separating blood and air channels, the blood in the blood channels flowing downward to cause any accidentally introduced air bubbles to have an increased residence time in the membrane device owing to buoyancy, the blood being at a pressure sufficiently greater than the air pressure to cause passage of air bubbles through the pores of the microporous membrane to the air side prior to being carried out of the device by flowing blood.

Growing community of inventors

Littleton, CO, United States of America

Timothy M Gordon