Abstract:
Provided is a blood processing system having a stationary component separation chamber. Individual blood components as well as other particles and contaminates are separated from blood flowing through the separation chamber by optical traps configured to manipulate specific components are projected into the flow field of the chamber. Cells or particles of the selected components that are manipulated by the optical traps then may be directed from the flow field to individual reservoirs to collect quantities of the selected components.
Abstract:
A blood-donation system and methods of usage are disclosed. The system includes a blood-donating chair configured to interoperate with various blood-processing apparatuses. The system further combines into a self-contained system all devices, communications pathways and power supplies for various powered devices employed during a blood-collecting session. The system may further interoperate with other blood-donation systems allowing for continuous monitoring of multiple blood-collecting sessions at a single user interface. According to another embodiment, in addition to interoperability, the system is further configured for upgradability, in which, various donor-station devices may be mounted and remounted.
Abstract:
A whole blood collection system includes an automated pump/control unit and an accompanying disposable blood set. When combined and connected to a source of anticoagulant, these elements allow automatic priming of the blood set with anticoagulant and automatic collection of anticoagulated blood product according to three different collection modes. The unit's pump and the blood set are specially designed to cooperate during the collection process to assure that the collected product has a precise blood to anticoagulant ratio. During the collection procedure, the pump/control unit automatically collects data relating to the procedure. Additional data specifically identifying components of the blood set, such as the blood collection bag, along with identification data on the donor's registration form may be scanned into the pump/controller unit by a scanner associated with the unit; this facilitates positive sample identification and tracking. At the end of the procedure, a printer in the pump/controller unit automatically prints out this information so that a detailed record is immediately available about the collected blood product, the procedure for collecting it and the source of the product.
Abstract:
Provided is a blood processing system having a stationary component separation chamber. Individual blood components as well as other particles and contaminates are separated from blood flowing through the separation chamber by optical traps configured to manipulate specific components are projected into the flow field of the chamber. Cells or particles of the selected components that are manipulated by the optical traps then may be directed from the flow field to individual reservoirs to collect quantities of the selected components.
Abstract:
A blood-donation system and methods of usage are disclosed. The system includes a blood-donating chair configured to interoperate with various blood-processing apparatuses. The system further combines into a self-contained system all devices, communications pathways and power supplies for various powered devices employed during a blood-collecting session. The system may further interoperate with other blood-donation systems allowing for continuous monitoring of multiple blood-collecting sessions at a single user interface. According to another embodiment, in addition to interoperability, the system is further configured for upgradability, in which, various donor-station devices may be mounted and remounted.