Baxter International Inc.

Baxter Healthcare Sa

Baxter Healthcare Inc.

Bacter Healthcare S.a.

Baxter S.a.

Peter A Hopping

Robert W Childers

Alex Anping Yu

Rick Kienman

Ian Richardson

Ying-Cheng Lo

Don Busby

Kurt Holmquist

Donald D Busby

Li Yue

Debra Toczko

Randall Sharo

William Reese

Eric Callahan

Seyed Khorashahi

Andrea (Krensky) Britton

Shahid Din

Sherwin S Shang

Brian Lauman

Joseph H Bowman

David B Howard

Jose Alvaro

Loren M Lundtveit

Meir Dahan

Bruce Ming-Da Eu

Steve Joseph Lindo

Patrick Lee

Richard E Kienman

Bijan Elahi

Merrick F Kossack

Bruce E Huitt

Annie Chiou

Joachim Prutsch

Loren M Lundtveil

Bruce Mind-Da Eu

Loran M Lundtveit

A renal failure therapy system for performing a peritoneal dialysis therapy is disclosed. The renal failure therapy system performs a plurality of peritoneal dialysis cycles for a patient and tracks an amount of dialysis fluid provided by a dialysis fluid pump during the plurality of peritoneal dialysis cycles. The renal failure therapy system also determines, as an initial drain volume, how much dialysis fluid resides in the patient's peritoneal cavity at a start of a next dialysis treatment and determines an initial drain flow for the next dialysis treatment. The renal failure therapy system generates an alert when it is determined from the initial drain flow that a low drain flow or a drain flow stoppage could occur before the initial drain volume is recovered for the start of the next dialysis treatment.

Apparatus for trending automated peritoneal dialysis treatments

A system is disclosed for the automated collection of dialysis and physiological data. An example system includes a dialysis machine configured to generate dialysis data and a wireless peripheral device configured to generate physiological data. The system also includes a personal digital device including an application configured to communicatively couple to the dialysis machine. The application is further configured to detect being within a wireless range of the wireless peripheral device, pair with the wireless peripheral device, receive the physiological data from the wireless peripheral device, and transmit the received physiological data to the dialysis machine. The dialysis machine is configured to store the received physiological data in conjunction with the dialysis data.

System for automated collection of dialysis data

A method for performing a peritoneal dialysis therapy includes performing a plurality of peritoneal dialysis cycles for a patient and tracking an amount of dialysis fluid provided by at least one dialysis fluid pump during the plurality of peritoneal dialysis cycles. The method also includes determining an amount of ultrafiltrate ('UF') removed from the patient based on the amount of dialysis fluid provided by the at least one dialysis fluid pump. The method further includes updating a UF trend using previous amounts of UF removed from the patient and the amount of UF removed from the patient during the most recent dialysis treatment and generating an alert if the UF trend changes by more than a preset percentage.

Method for trending automated peritoneal dialysis treatments

A peritoneal dialysis system includes first and second concentrate sources in selective fluid communication with a medical fluid pumping cassette, the first and second concentrate sources holding first and second peritoneal dialysis concentrates, respectively; a pump actuator configured to cause the medical fluid pumping cassette to pump the first and second concentrates; and a processor and memory configured to (i) determine a cumulative volume of at least one of the first or second peritoneal dialysis concentrates pumped from the medical fluid pumping cassette by the pump actuator, (ii) compare the cumulative volume to a threshold, and (iii) if the cumulative volume is outside of the threshold, modify a subsequent stroke volume of at least one of the first or second pump chambers actuated by the pump actuator in an attempt to cause an updated cumulative volume for the at least one peritoneal dialysis concentrate to be within the threshold.

System and method for preparing peritoneal dialysis fluid at the time of use

A system and method are disclosed for the automated collection of dialysis data. An example method includes receiving and aggregating dialysis data comprising a fill volume amount and a drain volume amount for at least one continuous ambulatory peritoneal dialysis ('CAPD') cycle. The method also includes calculating an amount of ultrafiltration removed for each CAPD cycle by subtracting the fill volume amount from the drain volume amount for the respective CAPD cycle, and storing ultrafiltration data that is indicative of the amount of ultrafiltration removed as part of the aggregated dialysis data. The method further includes determining or receiving an indication that a dialysis machine is connected. After the dialysis machine is connected, the method includes transmitting the aggregated dialysis data to the dialysis machine to enable the aggregated dialysis data to be combined with additional dialysis data generated by the dialysis machine for determining total dialysis data.

System and method for automated collection of dialysis data

Dialysis system for mixing treatment fluid at time of use

A system for performing a peritoneal dialysis therapy includes at least one dialysis fluid pump, and a logic implementer operable with the at least one dialysis fluid pump to perform a plurality of peritoneal dialysis cycles for a patient. The logic implementer transmits an amount of dialysis fluid provided during the plurality of peritoneal dialysis cycles. A server receives the amount of dialysis fluid provided during the plurality of peritoneal dialysis cycles and determines an amount of ultrafiltration ('UF') removed from the patient based on the amount of dialysis fluid provided by the at least one dialysis fluid pump. The server also updates a UF trend using previous amounts of UF removed from the patient and the amount of UF removed from the patient during the most recent dialysis treatment and generates an alert if the UF trend changes by more than a preset percentage.

Method and apparatus for trending automated peritoneal dialysis treatments

A method for pairing a dialysis machine with peripheral devices is disclosed. An example method includes receiving, in an intermediate data transfer unit, data related to a patient from at least one of a weight sensor, a blood pressure sensor, or a remote exchange device. The method also includes causing the intermediate data transfer unit to detect a connection of a memory device to a port of the intermediate data transfer unit, and causing the intermediate data transfer unit to store the data to the memory device so that the memory device can be transported to a dialysis machine for transfer of the data from the memory device to the dialysis machine.

Method for pairing a dialysis machine with peripheral devices

A system for performing a peritoneal dialysis therapy includes at least one dialysis fluid pump, and a logic implementer operable with the at least one dialysis fluid pump to perform a plurality of peritoneal dialysis cycles, the cycles including a fill phase, a dwell phase and a drain phase, the logic implementer configured to: (i) store a first peritoneal dialysis treatment having a total prescribed fresh dialysis fluid fill volume delivered over a number of cycles; and (ii) convert the first peritoneal dialysis treatment into a second peritoneal dialysis treatment having a different number of cycles and using the same total prescribed fresh dialysis fluid fill volume.

Drain and fill logic for automated peritoneal dialysis

A dialysis system is disclosed including an autoconnection mechanism. The autoconnection mechanism in an embodiment is configured such that (i) a tip protector remover is translated in a first direction towards a plurality of supply line connectors, (ii) the tip protector remover is locked to each of a plurality of supply line tip protectors connected to the plurality of supply line connectors, (iii) the tip protector remover is translated in a second direction away from the plurality of supply line connectors to remove the plurality of supply line tip protectors from the supply line connectors, the tip protector remover is translated in a third direction different from the first and second directions, and (v) solution line connectors are translated towards the supply line connectors to connect each of the solution line connectors to one of the supply line connectors.

Dialysis system having autoidentification mechanism

A system and method for pairing a dialysis machine with peripheral devices are disclosed. An example system includes first and second memory devices, a first dialysis machine including a first memory device port configured to be connectable to the first memory device, and a second dialysis machine including a second memory device port configured to be connectable to the second memory device. The system also includes an intermediate data transfer unit including a port configured to connect to the first and the second memory devices to enable data transfer with the respective dialysis machines. The intermediate data transfer unit is configured to receive data from a weight sensor, a blood pressure sensor, or a remote exchange device for a patient and store the data to the first or second memory device to communicate the data to the respective first or second dialysis machine.

System and method for pairing a dialysis machine with peripheral devices

An embodiment of a peritoneal dialysis system includes an enclosure, a door hingedly attached to the enclosure, a stepper motor housed by the enclosure, a solid pump piston in operable communication with the stepper motor and including a solid pump shaft attached to or integrally formed with a solid pump head, and a disposable unit contacting the enclosure and the door. The disposable unit includes a moveable membrane operable with the solid pump head. The stepper motor is configured to move the solid pump head towards and away from the disposable unit. The system further includes a position detection apparatus operable with the stepper motor and located to provide an output indicative of a position of the solid pump head relative to a reference position.

Automated peritoneal dialysis system using stepper motor

A system for performing a peritoneal dialysis therapy includes at least one dialysis fluid pump, and a control unit operable with the at least one dialysis fluid pump to perform a plurality of peritoneal dialysis cycles, the cycles including a fill phase, a dwell phase and a drain phase. The control unit configured to (i) store a previously entered continuous cycling peritoneal dialysis ('CCPD') therapy having a total prescribed fresh dialysate fill volume delivered over n cycles, the cycles performed over a total therapy duration, and (ii) automatically convert the CCPD therapy into a tidal peritoneal dialysis therapy having n+1 cycles, less a number of cycles already completed during the CCPD therapy, using the total prescribed fresh dialysis fill volume, and maintaining the total therapy duration.

A peritoneal dialysis machine including a membrane pump and a touch screen display that includes a mode-indicating portion and an operation-descriptive portion, the mode-indicating portion having a plurality of touch sensitive indicia each indicating one of a plurality of modes in which the machine can operate, the display being used to keep a patient continually informed of which one mode of at least three operating modes the machine is operating in, as the operation-descriptive portion changes to display details of a specific operation being carried out within the one mode, the indicia for each of the three operating modes always being visible to the patient while the machine is operating, the operating mode being selected by the patient touching one of the indicia on the screen.

Peritoneal dialysis systems and methods having graphical user interface

A peritoneal dialysis system is provided that includes a hardware unit, a disposable unit received by the hardware unit, and a controller. The hardware unit includes a recessed area, a piston having a contact surface, a pneumatic source for supplying a negative pressure, and an actuator configured to move the contact surface of the piston into and out of at least a portion of the recessed area. The disposable unit includes an outer member fitted at least partially within the recessed area of the hardware unit and a moveable membrane positioned between the contact surface of the piston and the outer member when the disposable unit is received by the hardware unit. The controller is configured to cause the pneumatic source to apply the negative pressure to the moveable membrane so as to conform the moveable membrane to a shape of the contact surface of the piston and follow the contact surface when the piston is moved towards and away from the outer member fitted at least partially within the recessed area.

Growing community of inventors

Lutz, FL, United States of America

Peter A Hopping