VitaTech
We’re developing unprecedented abilities to read, write, and edit biochemical code, opening new molecular frontiers in drug discovery, personalized medicine, and food production.
Constructing complex genetic architectures with single-molecule precision
Innovations in VitaTech center on a fundamental shift in our ability to understand and manipulate living systems. At the frontier of biological innovation, we're unlocking the secrets of life itself. From revolutionary gene-editing techniques to AI-driven drug discovery, from precision agriculture to personalized medicine, we're rewriting the rules of health and sustenance.
As we decipher and harness the intricate language of biology, we're doing more than simply treating diseases — we're engineering resilience, optimizing nutrition, and extending the boundaries of human potential.
Sectors in VitaTech
Click on a sector to learn more:
Agritech
Cultivating adaptive crops and cultured proteins to fortify food systems.
A future in which our food systems are defined by their durability, ability to nourish, and environmental stewardship is attainable through the development of crops that withstand pathogens, thrive with fewer resources, and pack a greater nutritional punch.
Agritech leverages advanced technologies such as genomics, bioinformatics, and AI to address challenges such as crop yield improvement, disease resistance, and sustainable farming, with solutions spanning from genetic trait discovery to precision breeding and environmental optimization.
Foodtech encompasses the application of technology to improve food production, distribution, storage, and consumption. It aims to make the food supply chain more efficient, sustainable, and safe, addressing global challenges such as food security, nutrition, and environmental sustainability. Foodtech includes advancements in alternative proteins (such as plant-based and lab-grown meats), and novel food preservation and delivery models.
AI-driven evolutionary tools for plant breeding that develop predictive breeding tools using AI and evolutionary algorithms, enabling plant breeders to select and cross plants with specific traits, improving crop adaptation, yield, nutrition, and flavor
Plant-microbe interaction optimization tools that use AI-driven approaches to study and optimize plant-microbe interactions that can improve plant health, nutrient uptake, and resilience
Engineered plants for industrial processes that are genetically altered to serve as feedstocks for industrial processes, providing sustainable and renewable resources for various industrial applications and reduce the environmental impact of industrial processes
Trait discovery platforms that utilize genetic data and ML to identify high-value genetic traits that improve crop yields to increase global food security
Computational biology tools for agricultural and life sciences products that use ML to design and optimize life science products such as microbe-based products, small molecules, and genetic components
Gene-edited plant traits for seed companies that enhance crop productivity, sustainability, resistance to pests and diseases, efficient fertilizer use, and adaptability to changing climates
AI platforms for genetics and phenotype analysis of plants to identify genetic markers associated with desired traits, allowing for precision breeding for traits such as drought tolerance or disease resistance
Metagenomics analytical tools for plant protection that leverage ML to study plant microbiomes and identify microorganisms that protect plants from diseases and pests
Micro-organism engineering to produce fertilizer, reducing reliance on synthetic nitrogen fertilizers
Protein ingredients that change the texture of alternative meats to mimic the texture and sensation of real meat
Cultured meat and poultry such as beef, steak, chicken, and other meats that are grown via tissue engineering and cell cultures
Dairy alternatives made from microbiota using fungi in bioreactors in place of proteins from bovine milk
Precision fermentation technology used to create animal-free dairy and meat products
Silk protein-based food coatings for the preservation of meats and produce
Aquaponics for vertical farming with fish manure serving as fertilizer for crops, creating a combined fish farm
AI-enhanced indoor farming that optimize inputs and improve yields in the indoor cultivation of leafy greens
Advanced indoor farming solutions such as vertical farms that integrate ML and plant biology to grow traceable, safe food that is free from pesticides and uses less water and land than traditional agricultural process, while maintaining close proximity to consumers
Livestock feed production using indoor farming in automated, hydroponic-controlled environments that reduce adverse environmental impacts
Year-round vegetable production in greenhouses situated on rooftops for uninterrupted vegetable cultivation
Microbe-based protein derived from fungi using fermentation technology, to reduce the water, land, and energy required to make edible protein
Optimization, Graph Theory, Partial Differential Equations, Stochastic Processes, Nonlinear Dynamics, Chaos Theory, Time Series Analysis, Discrete Mathematics.
Plant Biology, Environmental Science, Agricultural Sciences, Genetics, IoT, Bioinformatics, Molecular Biology, Computational Biology, Computational Genomics, Edge Computing, AI & ML, Statistics & Mathematics.
GIS Analysis, Data Science; Biostatistics; Bioinformatics; Computational Biology; Systems Biology; Software Engineering; Data Analysis.
Biotech
Decoding and reengineering biological mechanisms to steer vitality and well-being.
Genetic engineering and cellular therapies converge to rewrite the code of existence, transforming the prevention, treatment, and comprehension of diseases, paving the way for a future in which longevity is matched by vitality.
The ‘omics’ fields, comprising genomics, proteomics, and metabolomics, utilize data-driven approaches to unravel the molecular intricacies of living systems. These disciplines empower researchers to understand genetic, protein-related, and metabolic processes, enabling breakthroughs in personalized medicine, disease diagnosis, and the understanding of biological processes.
Bioelectronics is an interdisciplinary field that merges biology with electronics, focusing on the development and application of electronic devices and technologies to study, enhance, or mimic biological systems. Key areas within bioelectronics include the creation of biocompatible sensors and implants, development of biosensors for detecting molecular and cellular changes, and the design of electronic systems that interface with biological tissues.
In drug discovery, the integration of technologies such as AI, genomics, and computational biology accelerates the identification and development of new pharmaceuticals. Drug discovery encompasses diverse approaches, from precision medicine to large-scale drug screening and molecular modeling.
Longevity research explores strategies to extend both lifespans and healthspans, including technologies such as immune modulation, mitochondrial repair, biomarker-based aging assessments, and cellular rejuvenation.
Techbio, the intersection of digital technology and biology, encompasses a wide range of solutions that enhance data analysis, research collaboration, and experimentation capabilities, with applications spanning research & development (R&D), therapeutics, and product development.
Proteomics-driven drug discovery tools that use mass spectrometry and large protein-oriented datasets to build ML models that identify a wide range of proteoforms and predict which targets are most valuable for drug discovery
Metabolomics tools for drug discovery and diagnosis that focus on metabolite identification and biomarker discovery, aiding in the understanding of complex diseases
AI-driven genetic disease therapeutic development tools that analyze genetic and medical data to identify RNA therapeutics for genetic diseases using deep learning to predict the most effective treatments for individual patients
Genomic and radiomic diagnostic software that combines genomics, radiomics, and AI to to detect genomic variants which clinicians can use to improve diagnosis and treatment planning for patients
AI diagnostics for early disease detection that utilize advanced computational techniques and ML to detect disease biomarkers and identify complex cancer patterns through mulitomics analysis
Metabolomics tools for biomarker identification that decipher chemical signals from genetic and non-genetic factors to reveal biological pathways and identify biomarkers for monitoring changings in those pathways
AI platforms for RNA and DNA therapies that leverage graph knowledge technology and ML to discover and design genomic therapies by optimizing payload and vector design, assessing genotoxicity risks, and identifying optimal experimental protocols for RNA and DNA therapies
Generative biology platforms that generalize rules for protein function in order to generate new therapeutics
Genome-engineering technologies that build therapeutics which can be written into the genome via insertion, deletion, or replacement
Immunomodularity therapeutics developed by the combination of multi-omic single cell analysis, functional genomics, and machine learning
Engineered cell libraries that offer advanced, customized genomic engineering capabilities to make the CRISPR-editing process more effective
Continuous metabolomic monitoring for diseases such as diabetes, with nano-sensing technology and electromechanical systems that monitor metabolomic markers, providing real-time data to help patients manage their conditions
Microrobots for central nervous system disorders that are controlled using remote magnetic forces and can deliver biologics and small molecule therapeutics with precision to specific areas of the brain or nervous system
Bionauts for surgical and therapeutic applications that can potentially transform minimally invasive procedures such as surgeries and ongoing monitoring to deliver treatments with high precision
Soft brain implants for neurological disorders that treat neurodegenerative disorders by tracking brain signals and communicating with the nervous system to provide tailored therapy
AI-powered personalized hearing aids that adapt to individual preferences and environments
Quantum-driven drug discovery tools that combine AI with quantum-based physics to scale drug discovery, predict pharmaceutical success, and generate biological data with quantum algorithms to expand the space of therapeutic candidates
AI-driven small molecule discovery tools that utilize convolutional neural networks and chemical libraries to discover new small molecule medicines
Neurodegenerative disease drug discovery tools that leverage AI to predict high-confidence targets and drugs, with a focus on precision drug discovery for neurological conditions
AI tools for medicinal chemistry including generative modeling solutions that use AI to design small molecules for specific protein targets
Computational biology services such a molecular dynamics simulation, virtual screening, quantum chemical calculations, and protein structure modeling to support drug discovery
Tools for spatial biology and biomarker discovery that analyze images utilizing deep learning models, combining spatial and clinical data to discover biomarkers
Federated learning tools for biomarker discovery that unlock insights from siloed patient datasets, identifying novel biomarkers to accelerate drug discovery
Quantum physics-enhanced drug discovery tools that employ both quantum and semi-classical physics modeling of protein drug interactions with AI-based optimization to explore a larger portion of the chemical space of novel drug leads
Integrative multiomics drug discovery tools that combine genetics, single cell profiling, and functional genomics data with ML to understand the complex relationships between genes, proteins, and drugs
Immune-modulatory therapies for age-related diseases that clear senescent cells through temporary activation of immune cells
Mitochondrial mutation reprogramming technologies that reprogram mitochondrial DNA damage to treat diseases
Tools for determining biological age using measurements of chronic inflammation markers
Cellular rejuvenation tools that aim to halt or reverse the aging process by focusing on cellular rejuvenation programming to restore cell health
Stem cell activity regulation therapies that screen small molecules to regulate stem cell activity, with applications in treating degenerative diseases such as osteoarthritis, tumors, Alzheimer’s disease, and pulmonary fibrosis
Tools for discovering the molecular basis of cellular immortality and regeneration with potential applications in treating cardiac conditions, scars, and age-related metabolic disorders
Placenta-derived cells for use in regenerative health to target cancer, infectious diseases, and degenerative conditions
Cellular reprogramming, autophagy, and plasma-inspired therapeutics that leverage autophagy modulation and cellular reprogramming to address various aspects of longevity and health
Longevity therapeutics for dogs that aim to extend the lifespan of dogs by quantifying and addressing the aging process in canines
Biological cloud solutions for multiomics data that offer users code-free biocomputing capabilities, enabling the storage, processing, analysis, and visualization of multiomics data to aid in gene editing bioinformatics
AI-driven drug discovery platforms for large biological datasets that utilize AI, experimental biology, and automation to discover novel therapies at scale
Collaborative life sciences cloud software that facilitates DNA sequence editing, experiment design and execution, data analysis, and research sharing, utilized to accelerate research in CRISPR gene engineering, cell therapies, and discovery of biomaterials
Low-code cloud infrastructure for life sciences research that connects applications, ingests data, builds pipelines, and enables scientists and bioinformaticians to write real-time integrations with whole-lab automation
Digital benches for multiomics analysis that provide cloud-based platforms scientists can use to unify their workspaces and design, execute, and iterate through multiomics analyses, particularly for therapeutic discovery
Biologics discovery platforms that enable wet-lab scientists to analyze antibody and peptide sequences alongside functional assay data on which bioinformaticians can deploy their own code and workflows
AI algorithms for protein design on platforms that assist biologists in designing improved proteins using prediction algorithms and AI suggestions that predict the 3D structure of proteins, and can generate new sequences
Product design and development platforms for biological products that integrate experimental protocols, proprietary datasets, and algorithms to accelerate the design and development of biological products
Cloud-connected bioreactors that allow researchers to perform cell culture experiments with fewer constraints and more flexibility
Computational Biology, Bioinformatics, Systems Biology, Network Analysis, Statistical Genetics & Genomics, Quantitative Pharmacology, Pharmacokinetics, Biostatistics, Principal Component Analysis, Quantum Mechanics, Population Dynamics, Experimental Design, Hypothesis Testing, Survival Analysis, Linear and Nonlinear Optimization, Stochastic Optimization, Multi-Objective Optimization, Differential Equations, Agent-Based Modeling, Network Analysis.
Molecular Biology, Biochemistry, Biophysics, Chromatography, AI & ML, Systems Biology, Analytical Chemistry, Pharmacology, Pharmacometrics, Bioinformatics, Genomics, Medicinal Chemistry.
Biostatistics; Bioinformatics; Computational Biology; Systems Biology; Pharmacometrics; Data Science; Data Analysis; Software Engineering; Quality, Analysis, & Testing; Data Engineering.
Health & Medtech
Personalizing prevention and treatment with adaptive therapeutics.
Innovations in health & medtech are constructing a continuum of care, altering the patient experience from diagnosis to recovery, with pioneering solutions that restore, augment, and protect human health.
Digital health encompasses the use of digital technologies to improve health, healthcare services, and wellness. This field includes telehealth, mobile health apps, and electronic health records. Digital health aims to make healthcare more accessible, efficient, and personalized, enabling remote monitoring, better patient data management, and improved decision-making by healthcare professionals.
Diagnostics involves the techniques and devices used to identify diseases and conditions. Advances in diagnostics have led to the development of sophisticated tools like molecular diagnostics, point-of-care testing, and genomic sequencing. These technologies enable earlier, more accurate detection of diseases, allowing for timely intervention and personalized treatment plans.
Nanomedicine applies nanotechnology to the prevention, diagnosis, and treatment of diseases, offering revolutionary approaches in healthcare. It includes the design and use of nanoscale materials, such as nanoparticles for targeted drug delivery, nanorobots for surgery, and nanostructured surfaces for improved medical implants.
Wearable technology in the health and fitness sector includes devices like smartwatches, fitness trackers, and health monitors that users can wear on their bodies. These devices collect data on physical activity, heart rate, sleep patterns, and more, providing users with insights into their health and well-being. Wearables are becoming increasingly sophisticated, with some offering medical-grade monitoring and diagnostics, such as ECG and blood oxygen saturation. They play a crucial role in preventive healthcare, enabling early detection of potential health issues.
Neurotechnology encompasses a range of technologies designed to understand, repair, enhance, or exploit the properties of the nervous system. This includes brain-computer interfaces (BCIs) that allow for direct communication between the brain and external devices, deep brain stimulation for treating neurological conditions, and neural implants that can restore senses or movement.
Telemedicine and remote care platforms that connect patients with healthcare providers via web and mobile apps, offering primary care, behavioral care, and chronic pain management remotely
Remote rehabilitation and physical therapy platforms that allow physical therapists to provide personalized therapy through sensor technology and machine learning predictions
Health tracking and symptom management platforms that allow individuals to manage their health and track symptoms over time, using AI to provide insights and recommendations for improved self-care
Patient engagement and communication platforms that employ AI to personalize and automate communication with patients through multichannel messaging
Clinician workflow optimization solutions that streamline and automate clinicians’ non-patient-facing tasks
Medical imaging data management and analysis tools powered by AI that help standardize, protect, integrate, and analyze medical image data to improve diagnostic accuracy and efficiency
Operational efficiency solutions for healthcare organizations that help healthcare organizations improve operations in revenue collection and patient experience
Cardiovascular disease diagnosis and treatment software that aids doctors in the interpretation of ECGs and the diagnosis of cardiovascular disease using AI, enabling early intervention
Ophthalmology and eye disease detection platforms that use AI to analyze retinal images, using deep learning to screen for eye diseases, providing early detection and intervention
Neurological disease prediction and diagnosis solutions used for digital cognitive assessments to predict the occurrence of and diagnose neurological diseases such as Alzheimer’s
Radiological pathology tools that use AI to assist radiologists by identifying abnormalities in scans
Cancer screening and treatment solutions that improve immunotherapy efficacy by predicting treatment responses and detecting early-stage cancer by analyzing MRI scans
Central nervous system disease diagnosis tools that use AI to analyze CT, MRI, and PET scans in the diagnosis of central nervous system diseases
Dental assessment and diagnosis tools that use imaging and ML to investigate dental issues such as impacted teeth, bone loss levels, cavities, and tooth decay
Nanotechnology-enhanced surgical imaging solutions that utilize fluorescent probes to help surgeons visualize tumors during surgery, aiding in the precise excision of cancerous tissue while sparing healthy tissue
Proteomic analysis tools that utilize nanotechnology, spectral multiplexing, and automation to quantify proteins with the aim of understanding, detecting, and treating disease and providing personalized medicine
Biomimetic nanoparticle cancer therapeutics that use biomimetic cell membrane-coated nanoparticles for cancer treatment by delivering drugs such as chemotherapy or immunotherapy agents, potentially enhancing the effectiveness of cancer therapies while minimizing side effects
Non-invasive cancer diagnostics that combine ML with extracellular vesicle detection to create non-invasive tests for cancer, with early detection and monitoring capabilities
Mucosal vaccines that employ nano-sized emulsion drops to treat respiratory infections
Nanoparticles for infection control that possess anti-inflammatory, tissue regenerative, and antimicrobial properties, used to slow the spread of infections and accelerate wound healing by mimicking human enzymes to stimulate tissue formation
Nanoparticle-based targeted therapeutics that use nanoparticles to target specific diseases and conditions, improving drug delivery precision and reducing side effects
Monitoring devices for clinical trials that decentralize the clinical trial process, allowing patient participation regardless of geographic area
Behavior and health monitoring devices that use gesture detection to monitor behaviors such as medicine intake, hydration, fall detection, heart rate, sleep patterns, walking patterns, and activity levels, enabling remote patient monitoring and early intervention
Blood glucose tracking devices that provide users feedback on food choices, displaying their blood sugar response to foods eaten, exercise, and sleep habits
Arrhythmia detection devices that record and analyze EKGs to provide real-time detection of cardiac issues
Neurological wearable devices that monitor EEGs and detects seizures or other neurological events
Digital therapeutics for neurological rehabilitation that provide at-home rehabilitation exercises personalized to patients, aiding in recovery from stroke, traumatic brain injury, and spinal cord injury
Precision neurology platforms that aggregate brain data to enable new approaches in treating neurodegenerative and psychiatric diseases
AI-powered EEG analysis and diagnosis platforms that apply algorithms to identify neurobiomarkers
Portable brain injury diagnosis tools that rapidly scan for, diagnose, and monitor traumatic brain injuries in any location
Mind-controlled neuromodulation tools that interpret signals from the brain, allowing users to operate technologies such as smartphones using their thoughts
Prosthetic limbs controlled by muscle signals from residual limbs, offering improved dexterity and functionality for amputees
Brain-computer interfaces for communication that allow users to control software and devices with their brain activity, enabling individuals with speech impediments and mobility limitations to interact with the digital world
Neural interfaces coupled with AI platforms that can analyze neural data in real-time, as it travels from the brain to the body, paving the way for software-based neural therapeutics
Non-invasive treatments for the cognitive and functional symptoms of Alzheimer’s and other neurodegenerative diseases using visual and auditory stimulation
Precision brain stimulation therapies for the treatment of memory loss, using AI to identify brain activity patterns that predict memory performance
Quantitative Systems Pharmacology, Computational Neuroscience, Neural Networks, Dynamical Systems, Biomedical Signal Processing, Fourier Transforms, Wavelet Analysis, Time-Frequency Analysis, Statistical Genomics, Epigenomics, Operations Research, Optimization, Simulation, Scheduling, Logistics, Time Series Analysis, Anomaly Detection, Epidemiology, Differential Equations, Network Analysis, Survival Analysis.
Cellular Biology, Genomics, Gerontology, Health Informatics, Computer Science, Behavioral Science, Pathology, Biochemistry, Biomedical Engineering, Nanotechnology, Pharmacology, Materials Science, Kinesiology, Neuroscience, Neuroengineering.
Statistical Quality Control; Automation Engineering; Quality, Analysis, & Testing; Systems Engineering; Software Engineering; Cybersecurity Engineering; Data Science.
Additional Deep Tech Sectors
Explore other sectors in the Deep Tech Ecosystem