New CRISPR process: Will it revolutionize genetic research in Stuttgart?

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With CRISPRgenee, the University of Stuttgart presents an innovative gene editing process that could revolutionize basic research and medical applications.

Die Universität Stuttgart präsentiert mit CRISPRgenee ein innovatives Verfahren zur Genbearbeitung, das die Grundlagenforschung und medizinische Anwendungen revolutionieren könnte.
With CRISPRgenee, the University of Stuttgart presents an innovative gene editing process that could revolutionize basic research and medical applications.

New CRISPR process: Will it revolutionize genetic research in Stuttgart?

Researchers at the University of Stuttgart have developed an innovative CRISPR process that could significantly improve the efficiency and reproducibility of genetic analyses. The method, known as CRISPRgenee, is published in the journal Cell Reports Methods presented. The aim of this new technique is to better understand cell functions and support basic research, particularly in relation to diseases such as cancer.

CRISPR/Cas9 is often referred to as a precise method for specifically modifying genes. Last year, this technology was awarded the Nobel Prize in Chemistry, underlining its importance in biomedical research. The method works like scissors, cutting DNA at specific locations to switch off or change genes. However, these innovative possibilities also bring with them ethical questions such as those of genetic correction, which are repeatedly raised in public discussion.

CRISPRgenee: A breakthrough in cell research

The team around PD Dr. Philipp Rathert at the Institute of Biochemistry at the University of Stuttgart has developed a groundbreaking approach with CRISPRgenee. This method combines switching off and cutting a target gene in the same cell and is particularly effective for genes that are difficult to switch off. CRISPRgenee thus opens up new avenues for combinatorial analyzes that enable the investigation of complex cellular processes.

The potential of the new method is particularly impressive in genetic loss-of-function (LOF) analyses, which are used to research the effects of loss of function of genes or proteins. Loud uni-stuttgart.de Combinations of two genes can be analyzed simultaneously using CRISPRgenee, leading to a more precise and robust elucidation of cellular connections.

Ethics and social implications of genome editing

Although CRISPRgenee promises promising advances, CRISPR technology also raises significant ethical and societal questions. Experts point out that the possibility of gene therapies and genome modifications in plants and animals presents both opportunities and significant risks. The use of CRISPR could potentially revolutionize precision medicine in tumor diseases and even find application in transplant medicine to overcome organ shortages.

The fact that different regulatory approaches exist in Europe and the USA can in turn have a significant economic impact on the agricultural industry. The discussion about the social implications of such procedures therefore remains explosive. How forschung-und-lehre.de emphasizes, a differentiated assessment of gene editing based on various criteria is necessary in order to deal with the risks responsibly.

In summary, CRISPRgenee represents a remarkable advance in cell research that could deepen the understanding of cell functions. At the same time, the ethics of precision genome editing remains a central issue in scientific and political debate.