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Genetika+: precision medicine solutions for mental health

    Claudia Albeldas

    GenetikaPlus Ltd, 126 Yigal Alon, Tel Aviv, 6744332, Israel

    ,
    Niv Cohen

    GenetikaPlus Ltd, 126 Yigal Alon, Tel Aviv, 6744332, Israel

    ,
    Sari Natan

    GenetikaPlus Ltd, 126 Yigal Alon, Tel Aviv, 6744332, Israel

    ,
    Nadav Askari

    GenetikaPlus Ltd, 126 Yigal Alon, Tel Aviv, 6744332, Israel

    ,
    Daphna Laifenfeld

    GenetikaPlus Ltd, 126 Yigal Alon, Tel Aviv, 6744332, Israel

    &
    Talia Cohen Solal

    *Author for correspondence:

    E-mail Address: talia@genetikaplus.com

    GenetikaPlus Ltd, 126 Yigal Alon, Tel Aviv, 6744332, Israel

    Published Online:https://doi.org/10.2217/pgs-2022-0053

    Abstract

    Genetika+ is developing a precision medicine tool to optimize the treatment of depression by helping physicians find the best drug therapy for their patients. The tool builds on traditional pharmacogenetics, introducing a ‘brain-in-a-dish’ screening platform for each patient that will overcome the challenge of limited pharmacodynamic knowledge of pharmacogenetics (PGx). In addition to PGx, our platform integrates patient data with innovative blood-derived patient neurons to test all categories of antidepressants and predict the best drug for each patient. This offers patients optimal drug treatment, allowing a faster response, fewer side effects and lower dosing.

    Genetika+ is a fast-growing women-led company founded in 2018 in Israel with the mission of improving patient outcomes in mental health, with the first indication being major depression. Realizing that each patient is unique, Genetika+ has developed a truly personalized medical tool, a simple blood test that predicts which medication an individual will respond to and thus better treat depression and help physicians find the shortest route to healing for their patients. Dr Talia Cohen Solal, the CEO and founder of Genetika+, is an alumnus of Oxford University, University College London and Columbia University, and is bringing her expertise from the bench to this technology, together with her cofounder Dr Daphna Laifenfeld, previously the head of personalized medicine at Teva Pharmaceuticals. Together they lead a team of 17 scientists and professionals dedicated to providing a cutting-edge approach for solving one of the most widespread diseases.

    The challenge

    Major depressive disorder (MDD) is the largest contributor to the reduced of health-related quality of life [1], with up to 14 life years lost per patient. It is an extremely heterogeneous disease with varied clinical manifestations and treatment responsiveness stemming from complex genetic and environmental factors unique to each individual’s phenotypes [2]. Depression affects 300 million people globally and was the second leading cause of disability by 2020 [3], contributing to 917 accumulated years lost per 100,000 people [4]. Nevertheless, three out of four people suffering from depression do not receive adequate treatment [5]. The lack of information about the unique neuronal properties underlying each patient’s depressive disease has historically resulted in a prescription by the physician from a very broad drug selection, based only on patient clinical observation and a brief interview. As a result, 63% of patients try multiple medications, and a third of patients will not respond even after two rounds of drug testing [6]. With more than 70 antidepressants to choose from and with each antidepressant requiring weeks before response levels can be determined, the patient loses months to testing until the right treatment is found for them and, in the process, suffers the devastating effects of depression and potential side effects of disease comorbidities, job loss and social impacts.

    The need: a truly personalized treatment

    Clinical studies are typically conducted on broad populations, focusing on general patterns for common physiological mechanisms. However, individuals can exhibit different responses to the same medication. In extreme cases, an efficient drug for one patient causes life-threatening toxicity in another [7,8], or simply has no effect. Individual response to any medication depends partly on patient-specific drug metabolism, whereas antidepressant efficacy depends primarily on its effect on the patient’s brain. Therefore, although genetic variation of the enzymes responsible for drug metabolism influences drug response, the unique neuronal network of each patient will ultimately determine whether an antidepressant treatment will result in a clinical response. Consequently, a combination of both the genetic and the neurological background of the patient needs to be considered for an individualized and effective treatment. There is a significant need for an evidence-based personalized treatment approach that takes the target organ into to account and is able to reduce trial-and-error drug prescription.

    The NeuroKaire solution

    To address the needs of patients, physicians, and health care systems, Genetika+ provides a personalized treatment solution. NeuroKaire combines, on top of traditional pharmacogenetics, innovative stem cell technology, neurobiology, high-throughput screening and machine learning to test a broad spectrum of antidepressants, simulating drug effects in a patient-specific, ‘brain-in-a-dish’ model. A personalized drug recommendation is then delivered to the physician in a tailored report, supporting a doctor’s decision to prescribe the optimal treatment for the patient.

    How does NeuroKaire work?

    In a three-step procedure, NeuroKaire creates a personalized treatment recommendation using simple blood collection (Figure 1).

    Figure 1. NeuroKaire process flow.

    1.

    Data and blood collection: in an initial meeting with the patient, the physician collects a comprehensive history, recording key parameters such as symptoms, psychiatric history, family history, behavior and drug record. The patient can also do this independently. Then, a simple blood test is ordered, and the blood sample is sent to NeuroKaire’s labs to carry out our predictive assay.

    2.

     NeuroKaire assay: our predictive assay is built on three main pillars:

    a).

    Neurobiological platform: we mimic the patient’s brain functions using a brain-in-a-dish platform, with patient-specific neurons developed from their blood sample. To do this, we generate frontal cortical neurons from each patient sample and run screens of all relevant antidepressants on these samples, taking imaging and RNA readouts of drug responsiveness, capturing features such as synaptic connectivity and relevant gene expression, as is demonstrated in our publication [9]. These changes are used to capture the pharmacodynamic impact of each drug. This simulation allows us to compare the impact of several antidepressant candidates to understand and predict how they will act in the patient’s brain based on quantification of our unique patented biomarkers.

    b).

    Pharmacogenetics: the genetics component incorporates current state of the art pharmacogenomics, focussing on the impact of CYP1A2, CYP2C19, CYP2C9, CYP2D6, HTR2A and SLC6A4, among others.

    c).

    Patient history: we categorize and process all the patient information in a growing database. We compare the patient's data record against thousands of other patient histories and drug responses, cross-referencing the information using a proprietary algorithm that is automatically updated with the latest information on current antidepressant treatments. We use machine-learning models to match each person to the right antidepressant candidates.

    3)

    The personalized treatment recommendation: finally, we analyze the personalized results of each patient and prepare a tailored report that forecasts to which medication the patient is most likely to respond. This report is available for the doctor in an easy-to-use application or via website to help support the final decision.

    Our first product, NeuroKaire, focuses specifically on major depressive disorder treatment prediction, but our brain-in-a-dish model and predictive platform is applicable to treatment prediction for multiple psychiatric disorders, including bipolar disorder, attention-deficit/hyperactivity disorder and schizophrenia, in the future, in addition to current use for drug discovery, screening and validation.

    Uniqueness of NeuroKaire: neuronal simulation

    NeuroKaire innovates by using scaled simulation of neuronal responses

    For the first time in antidepressant response prediction assays, we are using stem cell technology to convert patient blood cells into neurons to test the drug response on the patient’s target organ. NeuroKaire assesses a dynamic neuronal response to the drug at a functional level, underlying the patient clinical response to the drug. In vitro neuronal readouts have never been used as decision-support tools for depression personalized treatment.

    NeuroKaire innovates using a novel proprietary algorithm for treatment prediction in depression

    NeuroKaire uses artificial intelligence and machine learning to combine patient history, genetic background and neurobiology, side effect profiling and comorbidity analysis. The algorithms generated based on these data boost the power of our predictive platform. This allows for an accurate response prediction leading to technological advances in the field.

    Summary points
    • Genetika+ has developed a novel and proprietary platform to develop a tool that expands on stand-alone pharmacogenetics, adding neurobiology and patient history data to support a personalized treatment plan for patients suffering with major depressive disorder.

    • This platform can be used clinically for major depressive disorder treatment choice, with the potential to be adapted to other neurological disorders and drug discovery.

    Open access

    This work is licensed under the Attribution-NonCommercial-NoDerivatives 4.0 Unported License. To view a copy of this license, visit http://creativecommons.org/licenses/by-nc-nd/4.0/.

    Financial & competing interests disclosure

    This paper was funded by GenetikaPlus Ltd, Jerusalem, Israel. All authors are employees of GenetikaPlus Ltd and received salary and/or stock options for the submitted work. The authors have no other relevant affiliations or financial involvement with any organization or entity with a financial interest in or financial conflict with the subject matter or materials discussed in the manuscript apart from those disclosed.

    No writing assistance was utilized in the production of this manuscript.

    References

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