Rumi’s technology is a powerful high-throughput organoid-like platform which mimics the development of the human brain, at high-speed. We have unprecedented ability to identify and quantify differences between diseased and healthy cells; and with our machine-learning algorithms, we are able to see which compounds have reversed diseased cells back to health, thus predicting the therapeutic effect a drug could have on a human’s diseased brain tissues. Our platform does not require a priori hypotheses of disease pathways, instead utilizing phenotypes.
We can mimic the development of the human nervous system and the complex biology behind this process.
By combining the work of Dr. Ali Brivanlou and Dr. Eric Siggia, Rumi Scientific has fused stem cell biology and physics to create a transformative method of human embryonic stem cells which self-organize to generate a signature defined by geometry and size. Using cell lines with disease-causing mutations, Rumi can test compounds directly on disease models.
We can mimic the development of the nervous system of a person that has a disease-causing mutation.
Rumi has utilized isogenic cell lines with the Huntington’s Disease mutation and identified a signature on Rumi’s neuroloids. We have also identified compounds capable of reversing the Huntington’s signature back to normal.
We can apply Breakthrough 1 and 2 in thousands of identical replicates.
Rumi Scientific’s proprietary technology has created a unique and transformative screening platform for genetic diseases to identify potential treatments. No other existing platform can achieve the qualitative and quantitative level of resolution obtained with our technology.
We can achieve unbiased analysis using deep neural networks to extract toxicity and efficacy.
The Rumi technology is the result of cooperation by the heads of the Physics and Stem Cell Biology Laboratories at Rockefeller University, who have worked together for over a decade, combining inputs from the disciplines of biology and physics. The result is a revolution in the landscape of drug discovery using a micropattern technology as a new path to grow human embryonic stem cells. In the Rumi technology, human embryonic stem cells (hESCs) self-organize, replicating the processes which occur in vivo during a cell’s early embryonic development. By recapitulating the ongoing cell-to-cell signaling and studying the relationship between cells as they differentiate to give rise to different human cell types, our Rumi technology can be applied to solve myriad problems in the drug discovery process.
Rumi Scientific’s platform outperforms existing drug discovery technologies
Rumi | 2D Cell Models | 3D Organoids | In Silico | |
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Throughput | ||||
In Vivo Relevance | ? | |||
Analytical Tools | ||||
Standardization | n.a. | |||
Broad Applicability |