Although conventional hemodialysis removes waste products and corrects fluid imbalance, it does not replace critical absorptive, metabolic, endocrine, and immunologic functions performed by healthy renal tubule cells. This trial involving patients with acute renal failure evaluates the efficacy and safety of an extracorporeal renal assist device (RAD) containing human renal tubule cells connected to a conventional hemodialysis circuit. It is hypothesized that short-term (72-h) use of this cell therapeutic device will improve survival of ARF patients compared to patients receiving only conventional continuous renal replacement therapy.
Acute Renal Failure (ARF) is a severe inflammatory disease state often accompanied by Multi-Organ Failure (MOF) and Systemic Inflammatory Response Syndrome (SIRS). ARF is precipitated by many factors and is most often linked to the loss of kidney tubule cell function. Patients with ARF are treated in the intensive care units of hospitals, and recovery of renal function is vitally important to their survival. Current therapy for ARF involves conventional kidney support with continuous renal replacement therapies (CRRT). Despite advances in treating patients with CRRT, ARF has an extremely high mortality rate (55-70%) and requires extensive hospital stays, predominantly in the ICU. The RAD is designed to both treat ARF with MOF and/or SIRs and facilitate the natural recovery of a patient's own kidney function. The RAD is intended for use for short periods of time in conventional extracorporeal therapeutic systems that are already available in the hospital. The RAD therapy operates outside the body and is designed to mimic the structure and function of the natural kidney. In this manner it is intended to replace the missing metabolic, endocrine, and immunologic functions of the kidney and allow time for the patient's own kidneys to resume normal functions.
Study Type
INTERVENTIONAL
Allocation
RANDOMIZED
Purpose
TREATMENT
Masking
NONE
Enrollment
58
Standard hemofiltration cartridge containing nonautologous human renal tubule cells, connected to conventional continuous venovenous hemodialysis circuit.
University of Alabama
Birmingham, Alabama, United States
Medical College of Georgia
Augusta, Georgia, United States
University of Chicago
Chicago, Illinois, United States
Indiana University
Indianapolis, Indiana, United States
University of Maryland
Baltimore, Maryland, United States
Massachusetts General Hospital
Boston, Massachusetts, United States
Western New England Renal and Transplant Associates
Springfield, Massachusetts, United States
University of Michigan
Ann Arbor, Michigan, United States
Southeast Renal Associates/Presbyterian Hospital
Charlotte, North Carolina, United States
Cleveland Clinic Foundation
Cleveland, Ohio, United States
...and 3 more locations
All-cause mortality
Time frame: 28, 90, and 180 d
Time to recovery of renal function
Time frame: 180 d
Time to ICU and hospital discharge
Time frame: 180 d
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