Artificial Placenta (ArtPlac)
Miniaturized Integrated Lung and Kidney Support for Critically Ill Newborns
It aims to develop a less invasive approach to neonatal parameter monitoring by designing a combined lung and kidney assist device, and ultimately, to reduce risk and medical burden to the newborn.
Our mission is to bring innovative and cutting-edge technologies to our community. We are dedicated to achieving the Sustainable Global Development Goal 3, ensuring healthy lives, promoting well-being and reducing life-long morbidity for people of all ages, and particularly to the reduction of the preventable deaths of newborns (Sustainable Global Development 3.2).
Fig. 1A: Invasive state-of-the-art setup with respirator, four surgically placed lines, attached extracorporeal lung assist plus dialyzer with paralyzed newborn. © Copyright by Ela Derek / property of the University of Twente
Fig. 1B: ArtPlac – one device attached to the umbilical cord combining lung and kidney support, inline monitoring and control. © Copyright by Ela Derek / property of the University of Twente
Our project is developing a novel artificial placenta (ArtPlac), which will increase the use of extracorporeal life support by a factor of 20 to 60 in the neonatal population and thus save 400,000 to 1.2 million lives per year.
The two million neonatal deaths that occur worldwide yearly despite technological advancements in the last fifty years in this field (World Health Organization)¹. In many of these cases, the disturbed takeover of placental function manifests as fatal lung failure, in some cases combined with kidney failure²-⁵. Many of these deaths are due to limitations in the application of invasive mechanical ventilation, artificial lung and kidney devices. The latter were originally developed for adults and downscaled for neonatal care; however they do not meet the needs of newborns as they are highly invasive. In fact, mechanical ventilation damages the immature lung tissue, and artificial lung and kidney devices, in addition to nutrition and blood monitoring, require several surgically placed lines (Fig. 1A). In addition, these stressful treatments separate families and babies for a long time and are often not able to prevent death. Moreover, about 15% (worldwide 3,000 out of 20,000) infants receiving organ replacement suffer from serious side effects and are not able to live independently afterwards, requiring multiple hospital admissions throughout their lifetime. Finally, not all newborns have access to these therapies, since organ replacement such as artificial lung therapy have strict eligibility criteria (e.g., weight > 2.2 kg) and their implementation requires highly skilled personnel in a well-equipped environment. Therefore, its application is currently limited to only 20,000 newborns worldwide per year.
Funded by the European Union. Views and opinions expressed are however those of the author(s) only and do not necessarily reflect those of the European Union. Neither the European Union nor the granting authority can be held responsible for them.