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Wyss Institute

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Namestring
Wyss Institute
Legal namestring
Hansjörg Wyss Institute for Biologically Inspired Engineering at Harvard University
Company typeenum
Private
Founded yearint
2009
Descriptiontext

The Wyss Institute for Biologically Inspired Engineering is a Harvard University research institute founded in 2009 with a $125 million donation from Hansjörg Wyss, headquartered at 201 Brookline Avenue in Boston. It develops biologically inspired materials and devices — including Human Organs-on-Chips (microfluidic devices lined with living human cells that mimic lung, intestine, kidney, and bone marrow function), the dSHERLOCK CRISPR-based diagnostic platform, Implantable Living Materials for on-demand drug delivery, RNA immunotherapeutics, and the AI DataHub for ML-driven drug discovery and biomarker development. Its work spans drug development, disease modeling, personalized medicine, infectious disease diagnostics, and environmental sustainability challenges.

The institute operates a hybrid translational model rather than a conventional product business. It is funded primarily through federal research grants (ARPA-H, DARPA, NIH, NASA — including $27M from ARPA-H in 2024 for RNA therapeutics and $25M in 2025 from the ARPA-H PRINT program for 3D bioprinting) and philanthropy, supplemented by direct pharmaceutical collaborations with AstraZeneca and Johnson & Johnson. It commercializes IP through startup spin-outs — Emulate (Organ Chips, launched 2014, $200M+ raised), Prapela (infant health vibrating mattress, 2018), Manifold Bio (protein barcoding, 2020, $40M Series A), Unravel Biosciences (AI drug discovery for rare diseases, 2021), Dyno Therapeutics (AAV engineering), and Cerulean Scientific (medical device coatings, ~$20M in NIH/CDMRP grants) — typically retaining minority stakes. Its 2022 contribution to the FDA Modernization Act 2.0 and integration with 12+ academic and hospital partners (including MIT, Brigham and Women's, MGH, Boston Children's, Charité Berlin, and University of Zurich) position it as a structurally embedded translation engine rather than a standalone commercial enterprise.

Short descriptiontext

The Wyss Institute for Biologically Inspired Engineering at Harvard University develops bioinspired materials, organ-on-chip technology, diagnostics, and AI platforms to address healthcare and sustainability challenges, commercializing discoveries through licensing, spin-out startups, and pharmaceutical partnerships.

Operating statusenum
Operating
Ownership categoryenum
Headcount rangeband
251–500
akta.pro rankint
HeadquartersBoston, United States
HQ citystring
Boston
HQ countrystring
United States
HQ regionstring
North America
Markets served

Serves global market

Offices1 record

Each record includes

City, Country, Type, Description, Source

Keyword5 values
biologically inspired engineering, organs-on-chips technology, biomedical research institute, drug discovery platforms, biotechnology technology licensing
Industry5 codes
1Organoids & Organ-on-Chip (regenerative models)
CodeHLAAAGADPrimaryYes
2AI/ML-Enabled Biologic Discovery Platforms (computational design, in silico screening)
CodeHLAAAIAEPrimaryNo
3High-Throughput Screening & Assay Platforms (HTS/HCS, phenotypic screening)
CodeHLAAAIAAPrimaryNo
4Biosensors & Lab-on-Chip (BioMEMS)
CodeHDAHALAKPrimaryNo
5Synthetic Biology & Genetic Circuit Design Platforms (pathway engineering, chassis development)
CodeHLAAAIADPrimaryNo
NAICS code4 codes
  • Research and Development in Biotechnology (except Nanobiotechnology)541714
  • Scientific Research and Development Services5417
  • Research and Development in the Physical, Engineering, and Life Sciences54171
  • In-Vitro Diagnostic Substance Manufacturing325413
SIC code4 codes
  • Services-Commercial Physical & Biological Research8731
  • In Vitro & In Vivo Diagnostic Substances2835
  • Surgical & Medical Instruments & Apparatus3841
  • Laboratory Analytical Instruments3826
Product category
Biomedical Research and Technology Licensing
GTM motion3 records

Each record includes

Type, Description, Source

Revenue model4 records
1Technology Licensing
TypeLicensing Royalties
Description

Licensing of patented technologies and IP to established companies for commercialization. Examples include licensing to Emulate, Prapela, Manifold Bio, and others.

wyss.harvard.edu
2Startup Formation
TypeLicensing Royalties
Description

Spin-out companies formed from Wyss research to commercialize specific technologies, such as Emulate (Organ Chips), Prapela (infant health devices), Manifold Bio (protein therapeutics), and others.

wyss.harvard.edu
3Government Research Grants
TypeSubscription Recurring
Description

Major funding from federal agencies including ARPA-H ($27M for RNA therapeutics), DARPA, NIH for various research programs and validation projects.

wyss.harvard.edu
4Collaborative Research Agreements
TypeProfessional Services
Description

Direct partnerships with pharmaceutical companies like AstraZeneca and Johnson & Johnson for drug development using Organ Chips and other technologies.

wyss.harvard.edu
Marketing channels7 records

Each record includes

Title, Type, Stage, Description, Source

Distribution channels4 records

Each record includes

Title, Type, Scope, Target buyer, Description, Source

Cost components5 values
Personnel, Technology or R&D, Infrastructure, Operations, Others
GTM typeB2B
B2B
Offering typeServices
Services
Brand1 of 8 records shown
1Human Organs-on-Chips
Description

Microfluidic devices lined with living human cells for drug development, disease modeling, and personalized medicine

wyss.harvard.edu
+7 more records
Core offering1 text field

The Wyss Institute develops biologically inspired materials, devices, and platform technologies for healthcare and sustainability. Core offerings include Human Organs-on-Chips (microfluidic devices mimicking human organ function), the AI DataHub (AI-integrated biological data platform for drug discovery), the Diagnostics for Human and Planetary Health Platform, CRISPR-based diagnostics (dSHERLOCK), protein barcoding platforms, and RNA immunotherapeutics. Technologies are commercialized through licensing agreements, startup formation, and collaborative research with pharmaceutical companies and government agencies.

Differentiator
Functional benefit
Problem solved
Quantifiable outcome1 of 5 values shown
  • Reduces drug development timelines from 10+ years to months
+4 more records
Product overview1 text field

The Wyss Institute develops a portfolio of biologically inspired technologies primarily focused on healthcare applications. The core offerings include Human Organs-on-Chips (microfluidic devices for drug testing), the AI DataHub (for AI-accelerated drug discovery), and the Diagnostics for Human and Planetary Health Platform. These are complemented by spun-out startups including Emulate, Inc. (commercializing Organ Chips), Manifold Bio (protein therapeutic development), and Prapela (infant health devices). The institute also operates Translational AI Catalyst for cross-functional AI initiatives. The portfolio spans from early-stage research technologies like the Multiplexed Protein Binding and Barcoding Platform to validated products like the Active Mattress for Infant Health.

Product and service3 records
1Human Organs-on-Chips
CategoryDrug Development Platform
Description

Microfluidic devices lined with living human cells that recreate organ-level functions (lung, intestine, kidney, bone marrow, liver, brain) for drug testing, disease modeling, and personalized medicine. Licensed to Emulate, Inc. and installed in over 150 labs including 17 of the top 25 global biopharmaceutical companies.

2AI DataHub
CategoryAI Drug Discovery Platform
Description

AI platform that integrates biological data and tissue models including Organ Chips, organoid cultures, and animal model datasets combined with machine learning and multi-omics capabilities to accelerate drug discovery and biomarker development.

3Diagnostics for Human and Planetary Health Platform
Scale indicator10 records

Each record includes

Type, Value, Description, Source

Partnership19 partners
Strategic tierCoreTypeStrategic or Co-development Partner
Description

Wyss Institute is part of Harvard University's ecosystem, working closely with Harvard Medical School faculty and researchers on biological engineering innovations.

2MIT
Strategic tierCoreTypeStrategic or Co-development Partner
Description

Collaboration with MIT on various research projects including Brain Targeting Program, AI-enabled drug discovery, and machine learning for antibiotic discovery.

wyss.harvard.edu
Strategic tierCoreTypeStrategic or Co-development Partner
Description

Clinical partner providing access to patient samples, clinical expertise, and collaboration on diagnostic and therapeutic development through the Brigham-Wyss DxA.

Strategic tierCoreTypeStrategic or Co-development Partner
Description

Clinical collaboration on various research projects including infectious disease therapeutics and diagnostics development.

5NASA
Strategic tierCoreTypeStrategic or Co-development Partner
Description

NASA AVATAR program using Organ Chips on Artemis II mission to study effects of deep space radiation on human health for astronaut safety.

wyss.harvard.edu
Strategic tierCoreTypeStrategic or Co-development Partner
Description

Strategic collaboration using Organ Chips to better predict human response in drug development process.

Strategic tierCoreTypeStrategic or Co-development Partner
Description

Strategic collaboration using Organ Chips platform to better predict human response in drug development process.

Strategic tierCoreTypeStrategic or Co-development Partner
Description

Collaboration on machine learning-driven antibiotic discovery research for drug-resistant gonorrhea.

Strategic tierCoreTypeStrategic or Co-development Partner
Description

Academic partner collaborating on neurobot research and biological machines development.

Strategic tierCoreTypeStrategic or Co-development Partner
Description

Collaboration on ESCAPE technique for 3D biofabrication of human tissue structures using gallium.

Strategic tierCoreTypeStrategic or Co-development Partner
Description

International academic partner in the Wyss consortium for biological engineering research.

Strategic tierCoreTypeStrategic or Co-development Partner
Description

International academic partner collaborating on various research initiatives including Wyss Zurich.

Strategic tierFlagshipTypeOEM/ Whitelabel/ Licensing Partner
Description

Spin-off company commercializing Human Organs-on-Chips technology. Launched in 2014, installed in 150+ labs including top pharma companies.

Strategic tierCoreTypeOEM/ Whitelabel/ Licensing Partner
Description

Startup commercializing vibrating mattress technology for infant health conditions including apnea and neonatal opioid withdrawal syndrome.

Strategic tierCoreTypeOEM/ Whitelabel/ Licensing Partner
Description

Startup commercializing multiplexed protein binding and barcoding platform for drug development, raised $5.4M seed and $40M Series A.

Strategic tierCoreTypeOEM/ Whitelabel/ Licensing Partner
Description

Medical device startup developing implants and catheters using tethered liquid perfluorocarbon coating technology licensed from Wyss Institute.

Strategic tierCoreTypeOEM/ Whitelabel/ Licensing Partner
Description

Cerulean Scientific has raised nearly $20 million in grants from NIH and Congressionally Directed Medical Research Programs to develop coated medical devices.

Strategic tierCoreTypeOEM/ Whitelabel/ Licensing Partner
Description

Spun out from Wyss Institute in 2021 to commercialize nemoCAD/BioNAV AI platform for drug discovery; received FDA Orphan Drug Designation for Rett syndrome treatment.

Strategic tierCoreTypeOEM/ Whitelabel/ Licensing Partner
Description

Startup commercializing AI-powered AAV capsid engineering technology for gene therapy delivery.

Recent move7 records

Each record includes

Date, Type, Title, Description, Source

Expansion highlight6 records

Each record includes

Type, Description

Peers10 records
TypeEmerging player
Description

Berlin-based organ-on-chip and multi-organ-chip developer with HUMIMIC platform. Comparable to Wyss/Emulate on Organ Chip product category and pharma customer base, with strength in European markets and toxicology applications.

TypeBroad incumbent
Description

San Francisco-based nonprofit biomedical research institute affiliated with UCSF. Comparable academic-research-translation model to Wyss, focused on cardiovascular, neurological, and infectious disease research with spinout activity.

TypeDirect peer
Description

Direct spinout commercializing Wyss's Human Organs-on-Chips technology. Installed in 150+ labs including 17 of top 25 biopharma and used by the FDA — the most direct commercial manifestation of the Wyss platform.

TypeDirect peer
Description

Wyss spinout commercializing multiplexed protein binding and barcoding platform for protein therapeutic discovery. Raised $40M Series A; direct peer demonstrating the institute's protein-engineering capabilities and AI-augmented discovery thesis.

TypeBroad incumbent
Description

MIT cancer research institute with similar model of translating bioengineering breakthroughs into commercial applications. Comparable in academic-industry translation framework and Boston/Cambridge location, though focused specifically on oncology.

TypeDirect peer
Description

Wyss spinout commercializing AI-powered AAV capsid engineering for gene therapy delivery. Direct peer within the Wyss spinout portfolio and comparable AI-meets-biotech model; provides additional validation of the Wyss translation engine.

TypeDirect peer
Description

Commercial competitor offering organ-on-chip and microphysiological systems for drug development. Closely comparable to Emulate in product category (Organ Chips) and target customer (top biopharma), providing a direct head-to-head benchmark.

TypeDirect peer
Description

Cambridge-based biomedical and genomic research institute co-affiliated with Harvard and MIT. Closely comparable academic translational research engine; Wyss collaborated with Broad on ML-driven antibiotic discovery for drug-resistant gonorrhea.

TypeDirect peer
Description

Dutch organ-on-chip company providing microfluidic 3D tissue models for drug discovery. Comparable to Wyss/Emulate on Organ Chip product category and pharma/biotech customer base, with strong presence in European pharma.

TypeBroad incumbent
Description

Largest US biomedical research organization funding Investigator-led science with commercialization pathways. Comparable to Wyss as a large, well-funded biomedical research engine that supports faculty-driven discovery and translation.

Market position
Strengths5 records

Each record includes

Headline, Details, Source

Weaknesses5 records

Each record includes

Headline, Details, Source

Competitive moat6 records

Each record includes

Type, Details

Key risks5 records

Each record includes

Headline, Details, Source

Key highlights7 records

Each record includes

Headline, Details, Source

Customer concentration

Classification, Details

Named customers5 records

Each record includes

Name, Industry, Type, Use case, Source, UUID

Segment1 record

Each record includes

Title, Type, Primary, Description, Pain point addressed, Use case, Source

Ideal customer profile3 records

Each record includes

Profile, Firmographic size, Sales motion, Sales cycle length, Buying structure, Purchase trigger, Buyer persona, Geography, Industry vertical, Primary use case, Description, Pain points, Evidence proof points, Target buyer

Technology focused
Yes
API detail
Has APIbool
No

Docs URL, Description

AI capability9 records

Each record includes

Type, Description, Source

AI maturity
App detail

Has app

Feature8 records

Each record includes

Title, Differentiator, Description, Source

Core technology
Revenue estimate
Valuation estimate
Number of profiles
Profiles8 records

Each record includes

Name, Designation, Designation category, Overview, Profile commentary, Source

Subsidiaries7 records

Each record includes

Name, Acquired on, Relationship type, Type, Business focus

No data
Funding overview

Funding stage, Last funding date, Total funding USD

Funding rounds2 records

Each record includes

Round, Amount USD, Date, Pre money valuation, Total investors, Investors, News

Investors2 records

Each record includes

Name, Type, Date of entry, Rounds participated, Website

Funding detail is available on the Subscription and Enterprise plan.Contact sales →

M&A

Each record includes

Name, Acquisition type, Announced date, Completed date, Status, Website, News

Investment

Each record includes

Name, Round, Announced date, Lead investor, Website, News

M&A and investment is available on the Subscription and Enterprise plan.Contact sales →

Wyss Institute

Biomedical Research and Technology Licensingwyss.harvard.edu

The Wyss Institute for Biologically Inspired Engineering at Harvard University develops bioinspired materials, organ-on-chip technology, diagnostics, and AI platforms to address healthcare and sustainability challenges, commercializing discoveries through licensing, spin-out startups, and pharmaceutical partnerships.

What Wyss Institute does

The Wyss Institute for Biologically Inspired Engineering is a Harvard University research institute founded in 2009 with a $125 million donation from Hansjörg Wyss, headquartered at 201 Brookline Avenue in Boston. It develops biologically inspired materials and devices — including Human Organs-on-Chips (microfluidic devices lined with living human cells that mimic lung, intestine, kidney, and bone marrow function), the dSHERLOCK CRISPR-based diagnostic platform, Implantable Living Materials for on-demand drug delivery, RNA immunotherapeutics, and the AI DataHub for ML-driven drug discovery and biomarker development. Its work spans drug development, disease modeling, personalized medicine, infectious disease diagnostics, and environmental sustainability challenges.

The institute operates a hybrid translational model rather than a conventional product business. It is funded primarily through federal research grants (ARPA-H, DARPA, NIH, NASA — including $27M from ARPA-H in 2024 for RNA therapeutics and $25M in 2025 from the ARPA-H PRINT program for 3D bioprinting) and philanthropy, supplemented by direct pharmaceutical collaborations with AstraZeneca and Johnson & Johnson. It commercializes IP through startup spin-outs — Emulate (Organ Chips, launched 2014, $200M+ raised), Prapela (infant health vibrating mattress, 2018), Manifold Bio (protein barcoding, 2020, $40M Series A), Unravel Biosciences (AI drug discovery for rare diseases, 2021), Dyno Therapeutics (AAV engineering), and Cerulean Scientific (medical device coatings, ~$20M in NIH/CDMRP grants) — typically retaining minority stakes. Its 2022 contribution to the FDA Modernization Act 2.0 and integration with 12+ academic and hospital partners (including MIT, Brigham and Women's, MGH, Boston Children's, Charité Berlin, and University of Zurich) position it as a structurally embedded translation engine rather than a standalone commercial enterprise.

Wyss Institute firmographics

Firmographics
Name
Wyss Institute
Legal name
Hansjörg Wyss Institute for Biologically Inspired Engineering at Harvard University
Website
https://wyss.harvard.edu
Company type
Private
Founded year
2009
Operating status
Operating
Headcount range
251–500 employees
Short description
The Wyss Institute for Biologically Inspired Engineering at Harvard University develops bioinspired materials, organ-on-chip technology, diagnostics, and AI platforms to address healthcare and sustainability challenges, commercializing discoveries through licensing, spin-out startups, and pharmaceutical partnerships.
Ownership category
akta.pro rank

Wyss Institute industry classification

Industry
Product category
Biomedical Research and Technology Licensing
NAICS
Research and Development in Biotechnology (except Nanobiotechnology) (541714), Scientific Research and Development Services (5417), Research and Development in the Physical, Engineering, and Life Sciences (54171), In-Vitro Diagnostic Substance Manufacturing (325413)
SIC
Services-Commercial Physical & Biological Research (8731), In Vitro & In Vivo Diagnostic Substances (2835), Surgical & Medical Instruments & Apparatus (3841), Laboratory Analytical Instruments (3826)
akta.pro primary industry
Organoids & Organ-on-Chip (regenerative models) (HLAAAGAD)
akta.pro secondary industries
AI/ML-Enabled Biologic Discovery Platforms (computational design, in silico screening) (HLAAAIAE), High-Throughput Screening & Assay Platforms (HTS/HCS, phenotypic screening) (HLAAAIAA), Biosensors & Lab-on-Chip (BioMEMS) (HDAHALAK), Synthetic Biology & Genetic Circuit Design Platforms (pathway engineering, chassis development) (HLAAAIAD)

Keywords

  • Biologically inspired engineering
  • Organs-on-chips technology
  • Biomedical research institute
  • Drug discovery platforms
  • Biotechnology technology licensing

Where Wyss Institute is headquartered

Location

Headquarters

HQ city
Boston
HQ country
United States
HQ region
North America

Offices1 record

Markets served

Wyss Institute business model

Business model
GTM type
B2B
Offering type
Services
Cost components
Personnel, Technology or R&D, Infrastructure, Operations, Others

Revenue model

  1. Technology Licensing: Licensing of patented technologies and IP to established companies for commercialization. Examples include licensing to Emulate, Prapela, Manifold Bio, and others.
  2. Startup Formation: Spin-out companies formed from Wyss research to commercialize specific technologies, such as Emulate (Organ Chips), Prapela (infant health devices), Manifold Bio (protein therapeutics), and others.
  3. Government Research Grants: Major funding from federal agencies including ARPA-H ($27M for RNA therapeutics), DARPA, NIH for various research programs and validation projects.
  4. Collaborative Research Agreements: Direct partnerships with pharmaceutical companies like AstraZeneca and Johnson & Johnson for drug development using Organ Chips and other technologies.

Go-to-market motion3 records

Distribution channels4 records

Marketing channels7 records

Wyss Institute product offering

Product offering

Core offering

The Wyss Institute develops biologically inspired materials, devices, and platform technologies for healthcare and sustainability. Core offerings include Human Organs-on-Chips (microfluidic devices mimicking human organ function), the AI DataHub (AI-integrated biological data platform for drug discovery), the Diagnostics for Human and Planetary Health Platform, CRISPR-based diagnostics (dSHERLOCK), protein barcoding platforms, and RNA immunotherapeutics. Technologies are commercialized through licensing agreements, startup formation, and collaborative research with pharmaceutical companies and government agencies.

Product overview

The Wyss Institute develops a portfolio of biologically inspired technologies primarily focused on healthcare applications. The core offerings include Human Organs-on-Chips (microfluidic devices for drug testing), the AI DataHub (for AI-accelerated drug discovery), and the Diagnostics for Human and Planetary Health Platform. These are complemented by spun-out startups including Emulate, Inc. (commercializing Organ Chips), Manifold Bio (protein therapeutic development), and Prapela (infant health devices). The institute also operates Translational AI Catalyst for cross-functional AI initiatives. The portfolio spans from early-stage research technologies like the Multiplexed Protein Binding and Barcoding Platform to validated products like the Active Mattress for Infant Health.

Differentiator

Problem solved

Functional benefit

Brands

  • Human Organs-on-Chips: Microfluidic devices lined with living human cells for drug development, disease modeling, and personalized medicine
  • Lumineers
  • Translational AI Catalyst
  • AI DataHub
  • Diagnostics for Human and Planetary Health
  • Wyss DxA
  • Brain Targeting Program
  • Reimagine the World

Products and services

  • Human Organs-on-Chips Microfluidic devices lined with living human cells that recreate organ-level functions (lung, intestine, kidney, bone marrow, liver, brain) for drug testing, disease modeling, and personalized medicine. Licensed to Emulate, Inc. and installed in over 150 labs including 17 of the top 25 global biopharmaceutical companies.
  • AI DataHub AI platform that integrates biological data and tissue models including Organ Chips, organoid cultures, and animal model datasets combined with machine learning and multi-omics capabilities to accelerate drug discovery and biomarker development.
  • Diagnostics for Human and Planetary Health Platform

Quantifiable outcome

  • Reduces drug development timelines from 10+ years to months
  • +4 more outcomes

Companies that use Wyss Institute

Customer profile

Named customers5 records

Segments1 record

Ideal customer profiles3 records

Wyss Institute technology and API

Technology

Technology focussed Yes

API detail

Has API
No
API docs
API detail

Core technology

AI maturity

App detail

AI capability9 records

Feature8 records

Wyss Institute partnerships and signals

Strategic signal

Partnerships

19 partnerships are on record, tiered core and flagship.

  • Harvard Medical SchoolcoreStrategic or Co-development PartnerWyss Institute is part of Harvard University's ecosystem, working closely with Harvard Medical School faculty and researchers on biological engineering innovations.
  • MITcoreStrategic or Co-development PartnerCollaboration with MIT on various research projects including Brain Targeting Program, AI-enabled drug discovery, and machine learning for antibiotic discovery.
  • Brigham and Women's HospitalcoreStrategic or Co-development PartnerClinical partner providing access to patient samples, clinical expertise, and collaboration on diagnostic and therapeutic development through the Brigham-Wyss DxA.
  • Massachusetts General HospitalcoreStrategic or Co-development PartnerClinical collaboration on various research projects including infectious disease therapeutics and diagnostics development.
  • NASAcoreStrategic or Co-development PartnerNASA AVATAR program using Organ Chips on Artemis II mission to study effects of deep space radiation on human health for astronaut safety.
  • AstraZenecacoreStrategic or Co-development PartnerStrategic collaboration using Organ Chips to better predict human response in drug development process.
  • Johnson & JohnsoncoreStrategic or Co-development PartnerStrategic collaboration using Organ Chips platform to better predict human response in drug development process.
  • Broad InstitutecoreStrategic or Co-development PartnerCollaboration on machine learning-driven antibiotic discovery research for drug-resistant gonorrhea.
  • Tufts UniversitycoreStrategic or Co-development PartnerAcademic partner collaborating on neurobot research and biological machines development.
  • Boston UniversitycoreStrategic or Co-development PartnerCollaboration on ESCAPE technique for 3D biofabrication of human tissue structures using gallium.
  • Charité BerlincoreStrategic or Co-development PartnerInternational academic partner in the Wyss consortium for biological engineering research.
  • University of ZurichcoreStrategic or Co-development PartnerInternational academic partner collaborating on various research initiatives including Wyss Zurich.
  • Emulate, Inc.flagshipOEM/ Whitelabel/ Licensing PartnerSpin-off company commercializing Human Organs-on-Chips technology. Launched in 2014, installed in 150+ labs including top pharma companies.
  • PrapelacoreOEM/ Whitelabel/ Licensing PartnerStartup commercializing vibrating mattress technology for infant health conditions including apnea and neonatal opioid withdrawal syndrome.
  • Manifold BiocoreOEM/ Whitelabel/ Licensing PartnerStartup commercializing multiplexed protein binding and barcoding platform for drug development, raised $5.4M seed and $40M Series A.
  • Cerulean ScientificcoreOEM/ Whitelabel/ Licensing PartnerMedical device startup developing implants and catheters using tethered liquid perfluorocarbon coating technology licensed from Wyss Institute.
  • Cerulean ScientificcoreOEM/ Whitelabel/ Licensing PartnerCerulean Scientific has raised nearly $20 million in grants from NIH and Congressionally Directed Medical Research Programs to develop coated medical devices.
  • Unravel BiosciencescoreOEM/ Whitelabel/ Licensing PartnerSpun out from Wyss Institute in 2021 to commercialize nemoCAD/BioNAV AI platform for drug discovery; received FDA Orphan Drug Designation for Rett syndrome treatment.
  • Dyno TherapeuticscoreOEM/ Whitelabel/ Licensing PartnerStartup commercializing AI-powered AAV capsid engineering technology for gene therapy delivery.

Scale indicators10 records

Recent moves7 records

Expansion highlights6 records

Wyss Institute competitors and assessment

Company assessment

Emerging players

  • TissUse GmbH: Berlin-based organ-on-chip and multi-organ-chip developer with HUMIMIC platform. Comparable to Wyss/Emulate on Organ Chip product category and pharma customer base, with strength in European markets and toxicology applications.

Broad incumbents

  • Gladstone Institutes: San Francisco-based nonprofit biomedical research institute affiliated with UCSF. Comparable academic-research-translation model to Wyss, focused on cardiovascular, neurological, and infectious disease research with spinout activity.
  • Koch Institute for Integrative Cancer Research (MIT): MIT cancer research institute with similar model of translating bioengineering breakthroughs into commercial applications. Comparable in academic-industry translation framework and Boston/Cambridge location, though focused specifically on oncology.
  • Howard Hughes Medical Institute (HHMI): Largest US biomedical research organization funding Investigator-led science with commercialization pathways. Comparable to Wyss as a large, well-funded biomedical research engine that supports faculty-driven discovery and translation.

Direct peers

  • Emulate, Inc. Direct spinout commercializing Wyss's Human Organs-on-Chips technology. Installed in 150+ labs including 17 of top 25 biopharma and used by the FDA — the most direct commercial manifestation of the Wyss platform.
  • Manifold Bio: Wyss spinout commercializing multiplexed protein binding and barcoding platform for protein therapeutic discovery. Raised $40M Series A; direct peer demonstrating the institute's protein-engineering capabilities and AI-augmented discovery thesis.
  • Dyno Therapeutics: Wyss spinout commercializing AI-powered AAV capsid engineering for gene therapy delivery. Direct peer within the Wyss spinout portfolio and comparable AI-meets-biotech model; provides additional validation of the Wyss translation engine.
  • CN Bio: Commercial competitor offering organ-on-chip and microphysiological systems for drug development. Closely comparable to Emulate in product category (Organ Chips) and target customer (top biopharma), providing a direct head-to-head benchmark.
  • Broad Institute of MIT and Harvard: Cambridge-based biomedical and genomic research institute co-affiliated with Harvard and MIT. Closely comparable academic translational research engine; Wyss collaborated with Broad on ML-driven antibiotic discovery for drug-resistant gonorrhea.
  • Mimetas: Dutch organ-on-chip company providing microfluidic 3D tissue models for drug discovery. Comparable to Wyss/Emulate on Organ Chip product category and pharma/biotech customer base, with strong presence in European pharma.

Market position

Strengths5 records

Weaknesses5 records

Competitive moat6 records

Key risks5 records

Key highlights7 records

Customer concentration

Wyss Institute social profiles

Digital presence

Wyss Institute financial estimates

Financial estimate

Revenue estimate

Valuation estimate

Wyss Institute leadership team

Management profile

Number of profiles

Profiles8 records

Wyss Institute subsidiaries and ownership

Company hierarchy

Subsidiaries7 records

Wyss Institute funding detail

Funding detail

Funding overview

Funding rounds2 records

Investors2 records

Funding detail is available on the Subscription and Enterprise plan.Contact sales →

Wyss Institute M&A and investment

M&A and investment

M&A

Investments

M&A and investment is available on the Subscription and Enterprise plan.Contact sales →

Frequently asked questions about Wyss Institute

What does Wyss Institute do?

The Wyss Institute develops biologically inspired materials, devices, and platform technologies for healthcare and sustainability. Core offerings include Human Organs-on-Chips (microfluidic devices mimicking human organ function), the AI DataHub (AI-integrated biological data platform for drug discovery), the Diagnostics for Human and Planetary Health Platform, CRISPR-based diagnostics (dSHERLOCK), protein barcoding platforms, and RNA immunotherapeutics. Technologies are commercialized through licensing agreements, startup formation, and collaborative research with pharmaceutical companies and government agencies.

Is Wyss Institute a public or private company?

Wyss Institute is a private company. It is currently operating.

When was Wyss Institute founded?

Wyss Institute was founded in 2009. It employs 251 to 500 people.

Where is Wyss Institute based?

Wyss Institute is headquartered in Boston, United States, in the North America region.

How does Wyss Institute make money?

Four revenue lines are on record. Technology Licensing is the primary driver. The others are startup Formation, government Research Grants and collaborative Research Agreements.

Who are Wyss Institute's main competitors?

TissUse GmbH is listed as an emerging player. Broad incumbents are Gladstone Institutes, Koch Institute for Integrative Cancer Research (MIT) and Howard Hughes Medical Institute (HHMI). Direct peers are Emulate, Inc., Manifold Bio, Dyno Therapeutics, CN Bio, Broad Institute of MIT and Harvard and Mimetas.

Does Wyss Institute have an API?

No public API is recorded for Wyss Institute.

What industry is Wyss Institute in?

Wyss Institute's product category is Biomedical Research and Technology Licensing. Its primary akta.pro industry code is HLAAAGAD, Organoids & Organ-on-Chip (regenerative models), with a secondary code of HLAAAIAE, AI/ML-Enabled Biologic Discovery Platforms (computational design, in silico screening). Its NAICS code is 541714 and its SIC code is 8731.

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Live signals
Silicon RepublicGalway experts lead project behind implant therapy for ovarian cancerResearchers at the University of Galway have developed a new implant designed to better deliver therapies for ovarian cancer, which has been tested to remain functional for up to 70 days without complications. The project, led by Cúram in collaboration with the University of Minnesota, Massachusetts Institute of Technology, and the Wyss Institute, aims to provide a more effective localized treatment method for the disease. The new implant allows for real-time monitoring and repeated delivery of therapies, potentially improving patient outcomes significantly.Harvard GazetteAccelerating biomedical innovation with AI through collaborative iterationThe Wyss Institute is utilizing AI-driven approaches to enhance biomedical innovation by integrating computational insights with experimental practices. During their recent symposium, the Institute highlighted the need for collaboration between AI predictions and laboratory validation to achieve meaningful advancements in patient care. This shift emphasizes the importance of high-quality biological data in driving successful AI-enabled biomedical research and development.Harvard GazetteThe Wyss Institute’s 2026-2027 Validation ProjectsThe Wyss Institute announced the selection of 23 projects for its 2026-2027 Validation Projects, aimed at advancing technologies from initial discovery to real-world applications. The selected projects were chosen from 56 submissions and include innovative approaches across various health challenges, with a significant focus on collaboration and the use of AI. This initiative is designed to strengthen partnerships among researchers and clinicians to expedite the development of impactful solutions.BioWorldGoing after gonorrhea with artificial intelligenceResearchers at the Wyss Institute of Harvard University have combined machine learning with classical screening techniques to identify small molecules effective against Neisseria gonorrhoeae, the bacteria causing gonorrhea. The study tested these candidates in both vagina-on-a-chip and mouse models of infection, with findings published in Science Translational Medicine on June 17, 2026. The approach demonstrates how artificial intelligence can accelerate antimicrobial drug discovery at a time when antibiotic resistance is a growing public health concern.BioengineeringHarnessing Machine Learning to Combat Antibiotic-Resistant GonorrheaResearchers at the Wyss Institute for Biologically Inspired Engineering at Harvard University, in collaboration with MIT and the Broad Institute, published a study in Science Translational Medicine demonstrating a machine learning-driven approach to discover new antibiotics effective against Neisseria gonorrhoeae. The team screened approximately 38,650 small molecules experimentally, then used deep learning to virtually screen roughly 6 million compounds, ultimately identifying two promising candidates—including compound A1, which targets alanine racemase with a novel mechanism—and validated their efficacy in microfluidic Organ Chip models and murine vaginal infection models. The researchers emphasize that further medicinal chemistry optimization and safety studies are required before clinical translation, while highlighting this approach as a paradigm shift that could accelerate antibiotic discovery against drug-resistant pathogens.NASAWhat’s Next for Artemis II AVATARsOrgan chips from Artemis II's AVATAR investigation arrived at Emulate, Inc. in Boston for analysis. Scientists will compare cellular changes to ground controls and blood samples, expecting radiation damage. Preliminary findings may be shared at conferences to inform future missions.Harvard GazetteMaterializing safe, on-demand living therapeutics — Harvard GazetteA research team at Harvard's Wyss Institute and the John A. Paulson School of Engineering and Applied Sciences has developed an "Implantable Living Materials" (ILM) platform that encapsulates genetically engineered therapeutic bacteria within a biomaterial to deliver drugs on-demand at specific sites in the body. The platform, led by David Mooney, uses engineered E. coli bacteria equipped with a synthetic gene circuit that autonomously senses pathogenic bacteria and responds by releasing therapeutic molecules, successfully treating periprosthetic infections in mice over a three-day treatment course. A patent application describing the use of ILMs for drug delivery has been filed, with researchers suggesting the approach could enable therapeutic efficacies surpassing conventional drug delivery strategies.GenengnewsImplantable Living Materials Contain Infection-Sensing Bacteria That Release TherapeuticsResearchers at Harvard's Wyss Institute developed implantable living materials that encapsulate engineered E. coli bacteria to release therapeutics on demand. The bacteria detect Pseudomonas aeruginosa signals and self-destruct to release an antibacterial protein, reducing bacterial burden in a mouse joint infection model. The system could enable durable, programmable microbial medicines for diverse diseases.American City Business JournalsNorthpond Labs expands Harvard funding beyond Wyss InstituteNorthpond Labs expanded its Harvard funding beyond the Wyss Institute, starting with $12 million in 2020. The partnership now spans Harvard Medical School and other labs.ForbesHuman Organ Chip Systems Reshape Drug DevelopmentHarvard's Wyss Institute for Biologically Inspired Engineering, led by Dr. Donald Ingber, has developed Human Organ Chips—microscopic devices lined with living human cells that recreate organ-level functions for drug testing, potentially reducing preclinical drug development timelines from over a decade to months. The FDA published a roadmap in April 2025 supporting organ-on-a-chip systems as alternatives to animal testing, followed by the NIH announcing it would no longer fund proposals relying exclusively on animal data, signaling major regulatory tailwind for the technology. Ingber estimates that validated organ chips could save the pharmaceutical industry $3 billion by replacing single toxicity tests and approximately $27 billion by preventing late-stage clinical trial failures, while his team is also developing biostasis drugs funded by DARPA and ARPA-H, and has sent Bone Marrow Chips on the Artemis II mission to study spaceflight radiation effects.