New Procedure to Obtain Induced Pluripotent Stem Cells
“The procedure that we have developed simplifies the process that enables these cells to be obtained… Our protocol…does not require the use of reagents.” --Drs. Viviana Meraviglia and Alessandra Zanon.
A new protocol that simplifies the process that allows induced pluripotent stem cells was developed at the Center for Biomedicine of the European Academy of Bolzano (EURAC). While the traditional methodology requires fresh blood, the new procedure allows cells from frozen blood samples to regress to a similar state to that of embryonic stem cells. The reprogrammed cells can be used to understand how some diseases develop and to test new therapies. The new protocol reduces costs and work time in the laboratory.
For their ability to differentiate into other cell types, the embryonic stem cells hold a large potential in the medical industry. Their use, however, poses ethical questions due to the fact that in order to obtain them, it is necessary to destroy the embryo. For this reason, medical researches use the so-called induced pluripotent stem cells (iPSC). In fact, it is possible to reprogram adult cells that can be obtained by simply drawing blood and making them “regress” to a similar state to that of embryonic stem cells. The reprogrammed cells (iPSC) are capable of creating all the cell types of an adult organism, such as brain or heart cells.
The iPSC technology is revolutionizing medical science, allowing for the exploration of molecular mechanisms that regulate diseases, providing new therapeutic targets, and providing opportunities for the discovery of new drugs. Thanks to the iPSC, the possibility to develop a truly personalized medicine will become more realistic, enabling the testing of specific drugs on cells, such as neurons and cardiomyocytes, otherwise impossible to isolate from patients with specific diseases.
“The procedure that we have developed simplifies the process that enables these cells to be obtained. With the traditional method, the blood is centrifuged with different reagents, capable of separating the blood cells according to their size. Our protocol, on the other hand, does not require the use of reagents. This allows for the reduction of costs, time, and the complexity of procedures to be performed in the laboratory,” explain Viviana Meraviglia and Alessandra Zanon, researchers at EURAC Center for Biomedicine and main authors of the study.
“The big advantage of our method is that it can also be applied to blood samples previously collected and preserved in a biobank. We will be able to access samples collected in other studies that we have performed or from biobanks in other research centers,” continues Alessandra Rossini, study coordinator.
The research performed by the EURAC Center for Biomedicine focuses especially on cardiovascular and neurological diseases, such as Parkinson´s. Currently, researchers are engaged in the differentiation of the cardiomyocyte induced pluripotent cells to study a genetic disease associated with a right ventricular arrhythmia (arrhythmogenic right ventricular dysplasia, ARVD) and in dopaminergic neurons, meaning specific brain cells, to study the development of Parkinson´s.
Illustration: European Academy of Bozen/Bolzano (EURAC).
Read more…
European Academy of Bozen/Bolzano (EURAC) News Release (06/10/15)
PhysOrg (06/10/15)
Science Daily (06/10/15)
Abstract (Journal of Visualized Experiments, published 06/05/2015.)
For their ability to differentiate into other cell types, the embryonic stem cells hold a large potential in the medical industry. Their use, however, poses ethical questions due to the fact that in order to obtain them, it is necessary to destroy the embryo. For this reason, medical researches use the so-called induced pluripotent stem cells (iPSC). In fact, it is possible to reprogram adult cells that can be obtained by simply drawing blood and making them “regress” to a similar state to that of embryonic stem cells. The reprogrammed cells (iPSC) are capable of creating all the cell types of an adult organism, such as brain or heart cells.
The iPSC technology is revolutionizing medical science, allowing for the exploration of molecular mechanisms that regulate diseases, providing new therapeutic targets, and providing opportunities for the discovery of new drugs. Thanks to the iPSC, the possibility to develop a truly personalized medicine will become more realistic, enabling the testing of specific drugs on cells, such as neurons and cardiomyocytes, otherwise impossible to isolate from patients with specific diseases.
“The procedure that we have developed simplifies the process that enables these cells to be obtained. With the traditional method, the blood is centrifuged with different reagents, capable of separating the blood cells according to their size. Our protocol, on the other hand, does not require the use of reagents. This allows for the reduction of costs, time, and the complexity of procedures to be performed in the laboratory,” explain Viviana Meraviglia and Alessandra Zanon, researchers at EURAC Center for Biomedicine and main authors of the study.
“The big advantage of our method is that it can also be applied to blood samples previously collected and preserved in a biobank. We will be able to access samples collected in other studies that we have performed or from biobanks in other research centers,” continues Alessandra Rossini, study coordinator.
The research performed by the EURAC Center for Biomedicine focuses especially on cardiovascular and neurological diseases, such as Parkinson´s. Currently, researchers are engaged in the differentiation of the cardiomyocyte induced pluripotent cells to study a genetic disease associated with a right ventricular arrhythmia (arrhythmogenic right ventricular dysplasia, ARVD) and in dopaminergic neurons, meaning specific brain cells, to study the development of Parkinson´s.
Illustration: European Academy of Bozen/Bolzano (EURAC).
Read more…
European Academy of Bozen/Bolzano (EURAC) News Release (06/10/15)
PhysOrg (06/10/15)
Science Daily (06/10/15)
Abstract (Journal of Visualized Experiments, published 06/05/2015.)