Baxter International Inc.

Baxter Healthcare Sa

Bazter Healthcare Sa

Marc Steven Minkus

Matthew R Muller

Joshua James Miller

Derek Wiebenson

Neil Tiwari

Justin Belanger Rohde

Anders John Wellings

Steve Joseph Lindo

Borut Cizman

Douglas L Wilkerson

Robin D Cooper

Timothy L Kudelka

Shafali Hill

Jostein Baustad

Angelo A Sarto

Brian S Kunzeman

Kathryn Louise Hansbro

Timothy G Robinson

Duston Mounts

Robert W Childers

Thomas D Kelly

Michael E Hogard

Shincy J Maliekkal

William Patrick Burns

Angelito A Bernardo

Ying-Cheng Lo

Yuanpang Samuel Ding

Thomas Edward Dudar

Joseph V Ranalletta

Bernd Krause

Mark Joseph Doty

Mark Edward Pasmore

Grant Anthony Bomgaars

Michael Joseph Sadowski

Anastasios Hristakos

Anders J Wellings

Joseph Vincent Ranalletta

A renal therapy system is disclosed. In an example, the renal therapy system includes a home renal therapy machine that stores, to a log file, dates of when renal therapies were performed and a type of each renal therapy that was performed. The system also includes a server that receives the log file from the home renal therapy machine. The server compares the dates and types of performed renal therapies stored in the log file to a device program that specifies dates for performing renal therapies and the types of renal therapies to be performed. The server displays a flag in a user interface of a clinician computer when there is a deviation from the comparison.

Home renal therapy system and machine

A blood treatment air purging system and method includes a level detector positioned and arranged to detect a low fluid level in a blood circuit indicating a high amount of air in the blood circuit; a blood pump operable with the blood circuit; a venous patient line of the blood circuit; and at least one blood circuit air vent valve, wherein the system and method are configured or programmed to (i) stop the blood pump, (ii) close the venous patient line, and (iii) open the at least one blood circuit air vent valve to atmosphere or a container when the low fluid level is detected, and (iv) run the blood pump to meter air through the at least one blood circuit air vent valve to atmosphere or the container.

Blood treatment air purging system and method

A system is provided for operation with a facility providing peritoneal dialysis exchanges for multiple peritoneal dialysis patients. The system can include a peritoneal dialysis solution supply, peritoneal dialysis sets to deliver peritoneal dialysis solution to the peritoneal dialysis patients at the facility, a computer, and a treatment station. The computer can electronically read a prescription for a patient, electronically identify a quantity of the peritoneal dialysis solution from the prescription, and electronically identify a peritoneal dialysis set from the peritoneal dialysis sets for use with the identified quantity of the peritoneal dialysis solution. The treatment station can allow an identified peritoneal dialysis set to be fluidly connected to the peritoneal dialysis solution supply so that the identified quantity of the peritoneal dialysis solution may be metered from the dialysis solution supply to the patient to perform a peritoneal dialysis treatment at the facility and according to the prescription.

System and method for electronic identification of remote peritoneal dialysis exchanges

A renal therapy system is disclosed. In an example, the renal therapy system includes a user interface device, such as a tablet computer. The renal therapy system also includes a renal therapy machine configured to perform a renal therapy. The renal therapy machine includes a data transfer interface configured to communicatively couple to the user interface device, a dialysis fluid pump, and a processor that operates a connectivity agent having an activated mode and a deactivated mode. When in the activated mode, the connectivity agent enables the processor to send data related to a performance of the renal therapy to a system hub. In the deactivated mode, the processor is prevented from sending the data to or receiving any data from the system hub. The user interface device is configured to receive data from and send data to the processor regardless of a status of the connectivity agent.

A syringe system includes a syringe and a filtration device connected to the syringe for sterilizing and introducing fluid into the syringe. The syringe includes a syringe barrel having a proximal end defining a barrel opening, a distal end defining a delivery opening, a bore extending between the proximal end and the distal end, and a stopper disposed in the bore of the syringe barrel. The filtration device has an inlet and an outlet coupled in fluid communication with the delivery opening at the distal end of the syringe barrel. The filtration device includes a stem and a filter membrane disposed in line with the stem. The filter membrane optionally has a plurality of pores each with a nominal pore size in a range of approximately 0.1 &#x3bc;m to approximately 0.5 &#x3bc;m such that a pharmaceutical fluid can be introduced as a sterilized pharmaceutical fluid into the bore of the syringe barrel by passing through the filtration device.

Medical syringe system with filtered filling port

A renal therapy system is disclosed. In an example, a renal therapy system includes a dialysis fluid pump, a control processor for controlling a treatment performed by the dialysis fluid pump, and a user interface device in operable communication with the control processor.

Home renal therapy machine

A peritoneal dialysis system includes (i) a fill container, and (ii) an energizing unit that removably accepts the fill container, the energizing unit including a sterilization source so configured and arranged relative to the fill container when accepted by the energizing unit to place fluid within the fill container in a physiologically safe condition for delivery to the peritoneal cavity of a patient.

System and method for peritoneal dialysis exchanges having reusable energizing unit

Dialysis systems that remove air from a blood circuit are disclosed herein. In an embodiment, a dialysis system includes a dialysis fluid circuit, a blood circuit including an arterial line, a venous line, and an enclosure in fluid communication with the venous line, the enclosure configured to release air through a hydrophobic vent for priming the blood circuit, a blood pump configured to pump fluid through at least the arterial line, a first valve operable with the arterial line and a second valve operable with the venous line, and a pumping and valving algorithm operated after priming to remove air from the blood circuit to control the first and second valves and the blood pump to replace priming fluid with blood from a patient.

Blood treatment air purging systems

A dialysis system includes at least one source of fluid for dialysis, a fluid line in fluid communication with the at least one source of fluid, at least one pump positioned and arranged to pump fluid from the at least one source of fluid through the fluid line, a first patient connector configured to be removably placed in fluid communication with the fluid line to allow a blood treatment to be performed using the at least one source of fluid, and a second patient connector configured to be removably placed in fluid communication with the fluid line to allow a peritoneal dialysis treatment to be performed using the at least one source of fluid.

System and method for performing alternative and sequential blood and peritoneal dialysis modalities

A hemodialysis system configured to purge air from a blood circuit comprises a dialyzer; a dialysis fluid circuit operable with the dialyzer via dialysis fluid inlet and outlet lines, the dialysis fluid circuit including a fresh dialysis fluid pump, and a used dialysis fluid pump; the blood circuit operable with the dialyzer and including an arterial line, a venous line, a blood pump operable with the arterial line upstream of the dialyzer, a physiologically acceptable fluid source in fluid communication with the arterial line upstream of the blood pump, a drip chamber located along the venous line, and a container for accepting air purged from the blood circuit; and an air purging scheme wherein, with the dialysis fluid inlet and outlet lines connected to the dialyzer, the blood pump pumps a fluid through the dialyzer and into the drip chamber, forcing air from the drip chamber into the container.

Air purging systems for blood treatments

A system and method is provided to allow multiple patients to receive peritoneal dialysis treatment at a walk-in facility without having to keep fresh dialysis solution on hand themselves. The walk-in facility is enabled to receive a peritoneal dialysis prescription from a patient, verify the prescription, determine the appropriate treatment for the patient, provide the patient with the appropriate dialysis solution in the appropriate amount, and enable the patient to undergo a dialysis treatment at the facility. The walk-in facility can also be enabled to monitor the patient's home dialysis treatment and to adjust the patient's treatment at the facility accordingly. The facility can be enabled to produce dialysis solution on demand by manufacturing the solution from solution components according to a patient's prescription. Moreover, the facility can use a sorbent system to regenerate effluent dialysis solution into fresh dialysis solution.

System and method for remote peritoneal dialysis exchanges

A renal therapy machine with a blood pressure monitor is disclosed. In an example, a renal therapy machine includes a dialysis fluid pump a control processor for controlling a treatment performed by the dialysis fluid pump, and a user interface in operable communication with the control processor. The renal therapy machine also includes a blood pressure monitor in operable communication with the control processor. The blood pressure monitor includes a blood pressure cuff positioned and arranged to receive air pressurized from within the renal therapy machine for the purpose of taking a patient's blood pressure.

Renal therapy machine and system with blood pressure monitor

A computer readable medium stores instructions configured to cause a home therapy machine to allow an at home patient selection of a device program from a plurality of device programs stored on the home therapy machine and perform an at home treatment using fluid flow equipment provided by the home therapy machine according to the selected device program. The instructions are further configured to receive data generated during the at home treatment and generate at least one log file based upon the received data.

Home therapy machine allowing patient device program selection

A method for performing renal therapy at a home or dwelling of a patient using a renal therapy machine includes electronically retrieving a doctor's prescription for renal therapy and based on the doctor's prescription, enabling electronic selection of supplies, including a dialyzer, at a first location other than the patient's home or dwelling by a person other than the patient. The method further includes electronically initiating a sending of the supplies and the renal therapy machine to the patient's home or dwelling.

Growing community of inventors

Bannockburn, IL, United States of America

Marc Steven Minkus