Wednesday, September 23, 2020

Insilico releases Pandomics, AI-powered platform for Novel Therapeutic Target Discovery

 A novel end-to-end AI-hypothesis generation engine that seamlessly interprets OMICS and text-based data for the discovery and analysis of novel therapeutic targets


HONG KONG, Sept. 23, 2020 /PRNewswire/ -- Insilico Medicine announces the official release of Pandomics - a part of the Pharma.ai AI platform designed to empower pharmaceutical target and drug discovery pipelines. Research biologists and clinicians can use Pandomics to perform OMICS data analytics and interpretation without requiring any prior knowledge of computational biology or bioinformatics. Additionally, drug target identification and biomarker development specialists can generate powerful hypotheses and assess repositioning strategies by harnessing the power of Artificial Intelligence (AI).

Insilico Medicine started working on an engine for target identification back in 2014. Since then, the technology has been validated through several successful partnering initiatives with pharmaceutical companies and research organisations as well as through Insilico Medicine's own internal drug development programs.

Pandomics aims to be the go-to platform for all biologists and clinicians, working with various OMICS datasets, and to quickly analyse, interpret and visualise data effectively in order to classify patient cohorts more accurately. 


"At Insilico, we have developed a platform that hands the power of bioinformatics over to the researcher's hands. Biologists, clinicians and therapeutic target specialists, will gain a wide range of novel visual ways to interpret biological data. When designing the tool, we focused on storytelling in data analysis and providing guidance for each step," said Alexey Dubovenko, Product Director for Pandomics at Insilico Medicine.

"We recently used parts of the Pandomics platform in combination with Chemistry42, our generative chemistry platform and inClinico, our clinical trials prediction platform, to demonstrate that we can go from the nomination of disease of interest to novel disease targets, to compounds that are ready to enter IND-enabling studies in record time. We also collaborated with dozens of key opinion leaders in different disease areas to complete experimental validation of Pandomics. We are very happy to put this system into the hands of research scientists, drug discovery and development experts, and medical doctors interested in research and academic publishing," said Alex Zhavoronkov, PhD, Founder and CEO of Insilico Medicine.

For further information, images or interviews, please contact: polly.firs@insilico.com.
About Insilico Medicine
Since 2014 Insilico Medicine is focusing on generative models, reinforcement learning (RL), and other modern machine learning techniques for the generation of new molecular structures with the specified parameters, generation of synthetic biological data, target identification, and prediction of clinical trials outcomes. Recently, Insilico Medicine secured $37 million in series B funding. Since its inception, Insilico Medicine raised over $52 million, published over 100 peer-reviewed papers, applied for over 25 patents, and received multiple industry awards. Website http://insilico.com/


Friday, August 21, 2020

International team identifies a new regulatory pathway in bladder cancer

 GULP1 regulates the NRF2-KEAP1 signaling axis in urothelial carcinoma. 

August 20th, 2020, Hong Kong - Researchers from Johns Hopkins University in collaboration with Insilico Medicine announce the publication of a new research paper titled "GULP1 regulates the NRF2-KEAP1 signaling axis in urothelial carcinoma" in Science Signaling. 

The KEAP1-NRF2 pathway plays a key role in cancer prevention and protective cellular responses to oxidative and electrophilic stress. In normal and premalignant tissues the signaling pathways activated by NRF2 prevent cancer initiation and progression, but in fully malignant cells disruption of the KEAP1-NRF2 pathway results in the transactivation of NRF2 target genes, consequently inducing cell proliferation and other phenotypic changes in cancer cells.

In this study, the researchers from John Hopkins University in collaboration with Insilico Medicine analyzed the protein GULP1 and its influence on the KEAP1-NRF2 pathway. The results demonstrated that GULP1 knockdown leads to tumor cell proliferation in vitro and enhanced tumor growth in vivo, as well as the resistance to cisplatin treatment. In parallel with decreased GULP1 expression, an increased expression of antioxidant genes in cisplatin-resistant cells was observed. Furthermore, low or no expression of GULP1 was observed in most cisplatin nonresponder cases. 

Together, the findings demonstrate that GULP1 is a KEAP1 binding protein that regulates KEAP1-NRF2 signaling in UCB, and that promoter hypermethylation of GULP1 is a potential mechanism of GULP1 silencing.

"I am extremely happy to see authors from Insilico Medicine on this important paper by one of the world's top research groups. While KEAP1-NRF2 pathway is a major signaling axis in bladder cancer and other solid malignancies, targeting of this complex pathway remains challenging. Building on the knowledge generated in this study, we will use novel computational platforms developed at Insilico Medicine, such as Pandomics, and its integral component called Target ID, to focus on identifying and validating novel compounds that could inhibit this signaling network with high specificity, efficacy and safety", said Alex Zhavoronkov, PhD, CEO of Insilico Medicine.

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For further information, images or interviews, please contact: ai@insilico.com

About Insilico Medicine

Since 2014 Insilico Medicine is focusing on generative models, reinforcement learning (RL), and other modern machine learning techniques for the generation of new molecular structures with the specified parameters, generation of synthetic biological data, target identification, and prediction of clinical trials outcomes. Since its inception, Insilico Medicine raised over $52 million, published over 70 peer-reviewed papers, applied for over 20 patents, and received multiple industry awards. Website http://insilico.com/

Tuesday, July 14, 2020

Deep Longevity Inc to collaborate with and launch aging clocks with Human Longevity Inc



Deep Longevity Inc to collaborate with and provide an extensive range of deep biomarkers of aging to Human Longevity Inc

Tuesday, 14th of July, 2020, San Diego, CA (9:00AM) -- Today, Deep Longevity Inc, a developer of deep biomarkers of human aging, and Human Longevity Inc announce a collaboration to deploy an extensive range of AI-powered aging clocks. Deep Longevity is to develop and provide the customized predictors of human biological age to the network of Human Longevity Inc concierge longevity clinicians. 
Deep Longevity is a longevity-focused artificial intelligence spin-off from Insilico Medicine, Inc, one of the global leaders in deep learning for drug discovery and biomarker development. Deep Longevity exclusively licensed a portfolio of granted and pending patents on aging clocks developed using the latest advances in artificial intelligence. 
Deep Longevity aging clocks are supported by a number of academic publications covering summarized in a recent review titled "Biohorology and biomarkers of aging: Current state-of-the-art, challenges and opportunities."
Human Longevity Inc recently published a research paper on a large cohort of healthy patients in the journal Proceedings of the National Academy of Sciences (PNAS) titled "Precision medicine integrating whole-genome sequencing, comprehensive metabolomics, and advanced imaging." Deep Longevity and Human Longevity will engage in research to validate the deep aging clocks on this cohort. 
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About Deep Longevity, Inc
Deep Longevity is a global leader in deep learning for aging research specializing in the development of deep biomarkers of aging using clinical blood tests, transcriptomic, proteomic, epigenetic, microbiome, behavioral, wearable, imaging, and multiple other data types. The company holds exclusive licenses to a comprehensive IP portfolio including both granted and pending patents. The company provides a broad range of deep aging clocks to some of the world's most advanced longevity clinics and physicians and is developing a range of simple consumer applications to track the rate of aging at the individual level. The company is developing a comprehensive decision support system for physicians to enable the development of personalized longevity protocols utilizing the latest advances in longevity biotechnology. Website: http://www.DeepLongevity.com
About Human Longevity, Inc.
Human Longevity, Inc. is a genomics-based, health intelligence company empowering proactive healthcare and enabling a life better lived. HLI's business focus includes the Health Nucleus, a genomic-powered, precision medicine center which uses whole-genome sequencing analysis, advanced imaging, and blood analytics, to deliver the most complete picture of individual health. For more information, visit http://www.humanlongevity.com.
About Health Nucleus
Health Nucleus clinics combine leading edge science with physicians who are experts in large data sets to interpret patients' data and guide them toward longer, healthier lives. Headquartered in San Diego, CA, Health Nucleus is revolutionizing precision health care with proprietary programs like 100+, a suite of annual tests, services and care that help preempt disease before symptoms arise. Health Nucleus uses whole genome sequencing analysis and advanced digital imaging along with personal biomarkers to deliver a complete picture of individual health. By harnessing 150 gigabytes of health data on each patient, Health Nucleus are able to pinpoint pre-symptomatic risks of cardiovascular disease, cancer, neurological disease and degradation, metabolic health status, and more. Health Nucleus is a subsidiary of Human Longevity, LLC

Thursday, July 9, 2020

Insilico Medicine and Arctoris to collaborate on COVID-19 by combining robotics and AI

Insilico Medicine and Arctoris announced a technology partnership to jointly discover and profile new therapeutics against COVID-19 by combining robotics and AI


Thursday, 9th of July - Insilico Medicine, a biotechnology company developing an end-to-end drug discovery pipeline utilizing next-generation artificial intelligence, today announced a technology partnership with Arctoris, the world's first fully automated drug discovery platform, offering remotely accessible, pre-optimised and fully validated R&D processes for its partners and clients globally. The partnership enables the two companies to combine their unique strengths in AI-guided drug discovery for target identification and generative chemistry on the one hand, and robotics for rapid generation of high-quality cell-based, molecular and biochemical data on the other. The partnership propels the two companies' abilities to discover and validate novel molecules faster.
Contributing their strengths to the fight against COVID-19, the two companies utilized their unique state-of-the-art techniques to discover, synthesize, and profile a set of inhibitors for COVID-19 treatment. Insilico identified novel small molecules using its AI capabilities, with Arctoris rapidly evaluating the intended biological actions on its robotic platform. In a develop-test-refine loop, the partners iterated new molecules several times faster than the industry standard, providing unprecedented prospects for new drug discovery successes. The JAK inhibitor study profiled a set of potent inhibitors that can help patients by modulating the life-threatening cytokine storm caused by COVID-19.
"We are excited to announce our technology partnership with Insilico Medicine, a world-leader in AI-based drug discovery. We see tremendous value in combining our next-generation robotic platform with Insilico's unique capabilities in drug design. During the COVID-19 pandemic, time is of the essence, and this project demonstrates that together, we are able to accelerate the drug discovery process, and create and progress new drug candidates faster and cheaper," said Martin-Immanuel Bittner MD DPhil, Co-Founder & CEO of Arctoris.
"Arctoris developed an advanced robotics platform that can be used for a very broad spectrum of applications in drug discovery and biological data generation. We are very happy to partner with this Oxford-based company on our COVID-19 program. We discussed the collaboration for quite some time but this pandemic really highlighted the benefits of a close AI- and robotics- powered discovery integration," said Alex Zhavoronkov, PhD, founder, and CEO of Insilico Medicine.
Insilico and Arctoris have already been working together on BioTarget, a collaborative effort supported by Cancer Research UK to find new molecules for cancer treatment from partners globally, crowdsourcing the drug discovery process and making leading experimental tools accessible to researchers worldwide, thereby democratising the drug discovery ecosystem.
Further collaboration will focus on joint drug discovery projects in oncology, a field of particular interest to both Arctoris and Insilico, with their mission to eliminate age-related disease and promote healthy longevity.
For further information, images or interviews, please contact: ai@insilico.com.
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About Insilico Medicine
Since 2014 Insilico Medicine is focusing on generative models, reinforcement learning (RL), and other modern machine learning techniques for the generation of new molecular structures with the specified parameters, generation of synthetic biological data, target identification, and prediction of clinical trials outcomes. Recently, Insilico Medicine secured $37 million in series B funding. Since its inception, Insilico Medicine raised over $52 million, published over 80 peer-reviewed papers, applied for over 25 patents, and received multiple industry awards. Website http://insilico.com/.
For further information, images or interviews, please contact: Sian Marshall, Head of Office, media@arctoris.com
About Arctoris

Arctoris Ltd is an Oxford-based research company that is revolutionising drug discovery for biotechnology companies, pharmaceutical corporations and academia. Arctoris has established the world's first fully automated drug discovery platform, offering pre-optimised and fully validated R&D processes for its partners and customers globally. Accessible remotely, the platform provides on-demand access to a wide range of biochemical, cell biology and molecular biology assays conducted by robotics, enabling rapid, informed decision-making in basic biology, target validation, toxicology and phenotypic screening. These assay capabilities are accessed using a powerful online portal that streamlines experiment planning, ordering, tracking and data analysis. Thanks to the Arctoris platform, partners and clients can rapidly, accurately and cost-effectively perform their research and advance their drug discovery programmes.

Thursday, June 11, 2020

Can your gut microbes tell you how old you really are?


Highlights:
    In 2018 scientists from Gladyshev lab specializing in aging research started a collaboration with Insilico Medicine resulting in a widely-publicized proof of concept microbiomic aging clock ; The clock has been validated on multiple independent data sets;
    The clock was shown to be biologically-relevant and used to demonstrate that diabetic patients look older than their chronological age;
    The study was published in iScience and is expected to be used in new data analysis tools for COVID-19 and longevity research;
June 11th, 2020 - Recent advances in deep learning have allowed AI algorithms to outperform humans in image, text, and voice recognition. One particular use for AI in biology is deep aging clocks. Deep aging clocks are trained on large samples to predict human biological age using different data types, such as: pictures, videos, voice, blood biochemistry, gene and protein expression, and MRI. In a study recently published in iScience, Harvard and Insilico Medicine scientists used thousands of whole genome sequencing samples from gut bacteria to develop and validate a new deep microbiomic aging clock. This new tool indicates that the age of the host is a significant contributor to the gut community dynamics.

Over the last decade human gut microbiome studies have produced multiple surprising results. The bacteria in our gut are now known to be major contributors to the immune function, brain development and activity, central metabolism, obesity pathogenesis and many other processes. The growing realization of the role microbiota plays in human health makes it essential to understand what factors shape gut communities and how to manipulate them.
Such factors include the mode of birth, diet, physical activity and age. The effect age elicits on microflora dynamics is much better understood for the early stages of life. During the first year of life all people are much more similar in terms of diet and behaviour, compared to adults. Consequently, their gut flora goes through clearly defined stages. But upon transitioning to adulthood, multiple confounders such as diet, tobacco and alcohol consumption, and level of physical activity make individual microfloras extremely diverse. The NIH Human Microbiome Project has shown that there is no core community in adult guts, although the various combinations of microbial species tend to have similar functions and metabolic capabilities.

Multiple studies have identified some age-related trends in gut microflora. However, the findings usually have unclear general applicability due to localized sampling. In a joint project between Insilico Medicine and the laboratory of Vadim Gladyshev at Brigham and Women's Hospital and Harvard Medical School, the data from 13 public studies on human gut microbiome were aggregated to explore the possibility of developing an aging clock based on the microflora relative abundance profiles.

The initial attempt to predict chronological age based on gut community species composition was published in BioRxiv in December 2018. Since then the team further improved their approach and recently published their results in the iScience journal. More than 1100 species-level microflora compositions were used to train a Deep Neural Network in a cross-validated manner. The resulting ensemble predicts hosts' age in an independent data set collection with a mean error of 5.9-6.8 years.

The published intestinal age predictor proves that there are microflora succession patterns associated with age progression in the adult. The described workflow can be used to recreate similar models with data from other platforms and explore the effect of specific bacterial taxa on the course of human aging in a more controlled setting. The authors also suggest the ways to identify the microbes with potential to accelerate or slow down aging.
"We are happy to collaborate with the Gladyshev lab on this new microbiomic aging clock, which is the first of its kind. The development of this clock was a long and tedious journey as we originally thought that it would be impossible to build and after the demonstration of the first proof of concept, it took two years to refine and validate. We hope that the demonstrated approach will be used for COVID-19 research and later for longevity research for tracking the effects of different interventions and foods on the predicted intestinal age", said Alex Zhavoronkov, PhD, CEO of Insilico Medicine.
The reported aging clock can be accessed at aging.AI. Insilico Medicine aims to continue developing microbiomic tools and is planning to release COVIDOMIC -- a tool for exploring variables with an effect on the COVID-19 infection outcome, including those derived from patients' respiratory microbiome.

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Read the original research paper here: https://www.sciencedirect.com/science/article/pii/S2589004220303849

About Insilico Medicine Since 2014 Insilico Medicine is focusing on generative models, reinforcement learning (RL), and other modern machine learning techniques for the generation of new molecular structures with the specified parameters, generation of synthetic biological data, target identification, and prediction of clinical trials outcomes. Recently, Insilico Medicine secured $37 million in series B funding. Since its inception, Insilico Medicine raised over $52 million, published over 80 peer-reviewed papers, applied for over 25 patents, and received multiple industry awards. Website http://insilico.com/.
For further information, images or interviews, please contact: ai@insilico.com.

Tuesday, June 9, 2020

Scientists use machine learning to predict major clinical forms of drug cardiotoxicity

June 9, 2020 - We announce the publication of a new research paper titled 'Dual transcriptomic and molecular machine learning predicts all major clinical forms of drug cardiotoxicity' in Frontiers in Pharmacology. The study was conducted in a collaboration between the Computational Cardiovascular Science Group of the University of Oxford and Insilico Medicine.

'Drug-induced adverse effects on the heart are a very important problem, as highlighted recently in the news regarding COVID-19 treatments. In this study, we are very excited to show how our machine learning algorithm can identify drugs that can cause 6 potential forms of cardiac adverse outcomes from gene expression data', said Professor Blanca Rodriguez.

'Thanks to the increasing power of computers and algorithms to learn, this work represents an exemplar of how AI will revolutionise the future of drug development and safety evaluation in the pharma industry. It extends previous efforts in the field to predict not only the likelihood of a drug to induce lethal arrhythmias, but all the main cardiac adverse events associated with drug action. It also establishes the need for stringent testing criteria for the effective application of AI to this critical domain of the life sciences', said Professor Alfonso Bueno-Orovio.

Computational methods can increase the productivity of drug discovery pipelines, through overcoming challenges such as cardiotoxicity identification. In this paper, researchers demonstrated the simultaneous prediction of cardiotoxic relationships for six drug-induced cardiotoxicity types using a machine learning approach on a large collected and curated dataset of transcriptional and molecular profiles. The algorithm generality is demonstrated through validation in an independent drug dataset, in addition to cross-validation.

Alex Zhavoronkov, founder and CEO of Insilico Medicine comments, 'Drug-induced cardiotoxicity is one of the reasons for late-stage clinical trial failures. We see the Rodriguez group at Oxford as the world's main source of accurate cardiotoxicity predictors. The results of their work are adopted by the FDA, and many pharmaceutical companies. We are very happy to collaborate on AI-powered multi-omics cardiotoxicity prediction engines, and have one of our top AI scientists, Polina Mamoshina, defend her doctorate under one of the biggest names in computational biomedicine'.

Polina Mamoshina, is now Senior Research Scientist at Insilico Medicine. She comments, 'In silico or computational models have made great progress in past years. And one of their great features is that they can be humanized and so have increased chances for translation into drug discovery and development pipelines. The scope of this work was to predict drug adverse reactions that were shown in humans. We believe that this work can be extended to side effects manifested in other organs and tissues and that pipeline that we proposed provides a valuable benchmark for future studies'.

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Read the original research paper here: https://ora.ox.ac.uk/objects/uuid:2b143ed7-9630-4802-b707-9fb226203384?fbclid=IwAR2bzf3SdQVSzGge3PeB4DBkzSqU55wK4tDRcaTNmvMoNjg5izuNd_dkiFU
 
Media Contact
 
For further information, images or interviews, please contact: ai@insilico.com

About Insilico Medicine
 
Since 2014 Insilico Medicine is focusing on generative models, reinforcement learning (RL), and other modern machine learning techniques for the generation of new molecular structures with the specified parameters, generation of synthetic biological data, target identification, and prediction of clinical trials outcomes. Since its inception, Insilico Medicine raised over $52 million, published over 70 peer-reviewed papers, applied for over 20 patents, and received multiple industry awards. Website http://insilico.com/

Wednesday, May 20, 2020

New artificial intelligence model to bridge biology and chemistry

Generative biology meets generative chemistry: Bidirectional conditional autoencoder to generate novel molecular structures for the desired transcriptional response


May 19th, 2020, Hong Kong - Insilico Medicine announces the publication of a new research paper titled "Molecular Generation for Desired Transcriptome Changes With Adversarial Autoencoders" in Frontiers in Pharmacology. This is the first study of this kind where novel molecular structures are created for a desired transcriptional response.

In this study, Insilico Medicine researchers developed a new model, the Bidirectional Adversarial Autoencoder, that learns a joint distribution of molecular structures and induced transcriptional response. The model can generate molecular structures for a given transcriptional response and vise versa. As a result, Insilico Medicine provided a model that combines both generative biology and generative chemistry. Using this model, researchers can run virtual screening, discover novel molecular structures, and predict transcriptional responses--one model to solve many problems.
"This paper shows that it is possible to generate novel molecular structures that induce the desired transcriptional response. At Insilico, we have been working on this project since 2016 and have created critical intellectual property covering the original ideas in generative biology proposed and patented by Alex Zhavoronkov and Alex Aliper. I hope that the generative chemistry and biology developed at Insilico will become household tools for big pharmaceutical companies. Many of these tools are available in our upcoming AI platform soon to be available for deployment at customer premises", said Daniil Polykovskiy, group leader at Insilico Medicine and senior author of the study.
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About Insilico Medicine
Since 2014 Insilico Medicine is focusing on generative models, reinforcement learning (RL), and other modern machine learning techniques for the generation of new molecular structures with the specified parameters, generation of synthetic biological data, target identification, and prediction of clinical trials outcomes. Since its inception, Insilico Medicine raised over $52 million, published over 70 peer-reviewed papers, applied for over 20 patents, and received multiple industry awards.
Website http://insilico.com/
Media Contact
For further information, images or interviews, please contact:
ai@insilico.com
About Frontiers Research Topics
Frontiers' Research Topics are peer-reviewed article collections around themes of cutting-edge research. Defined, managed, and led by renowned researchers, they unite the world's leading experts around the hottest topics in research, stimulating collaboration and accelerating science.
About Frontiers in Pharmacology
Frontiers in Pharmacology is a leading journal in its field, publishing rigorously peer-reviewed research across disciplines, including basic and clinical pharmacology, medicinal chemistry, pharmacy and toxicology.