ICT-enabled, cellular artificial liver system incorporating personalized patient management and support
D-LIVER addresses the need for bio-artificial liver support using scenario-driven development, providing continuous detoxification as remote therapy at the Point-of-Need.
|2011 - 2015
|D-LIVER applies scenario-driven development methodologies to address an unmet need for bio-artificial liver support via continuous detoxification as remote transient therapy at the Point-of-Need.
The liver is a complex organ with various vital functions in synthesis, detoxification, and regulation; its failure is life-threatening, and the only curative treatment is transplantation. While awaiting transplantation or after liver resection, patients need to be supported with detoxification systems which are currently mainly based on filtration and do not support metabolic liver function. This can only be provided by living cells.
Thus, the development of ICT-enabled bio-artificial liver support systems with associated remote monitoring to assist in the treatment and management of liver patients in care settings extending from the hospital to the home is essential. D-LIVER targets sensor-based monitoring of patient health status at home, focusing on continuous monitoring of physiological parameters and discrete measurement of a defined set of biochemical species.
D-LIVER also targets remote monitoring and control of the bio-artificial liver and communication with patient sensor networks and hospital information systems. Systems will be capable of remote, secure communication of the status of both the patient and the bio-artificial liver to central clinical services so that they can schedule swift and beneficial treatment and remedial actions.
In this way, D-LIVER will provide fundamental advances in liver support by reducing hospitalization costs while enhancing the quality of care and, at the same time, reinforcing European leadership in Personal Health systems. In a parallel, high-risk activity, the production of human hepatocytes from pancreatic progenitor cells will be investigated. These would be ideal for use in D-LIVER systems since they may provide an unlimited supply of hepatocytes, which would overcome drawbacks associated with both primary hepatocytes and stem cells.
|Newcastle University (coordinador), Commissariat Energie Atomique, Charité – Universitätsmedizin Berlin, Centre Suisse d’Electronique et de Microtechnique, Fraunhofer Institut für Biomedizinische Technik, Institut für Mikrotechnik Mainz, iXscient Ltd, Olivetti i-Jet, Stiftelsen SINTEF, Universitat Rovira i Virgili, DEKRA, Stem Cell Systems, 4M2C Patric Salomon GMBH, STAR Healthcare Management GmbH.
VII Framework Programme
Budget: 544.600 €