TABLE V.
Companies and start-ups actively working in the area of OOC.
Company (founding year), website | Technology | Product(s) | Structure and characteristics | Applications (examples) | Reference |
---|---|---|---|---|---|
Hμrel Corp. (2006) www.hurelcorp.com |
|
8 species and 10 models, e.g., HμRELhuman™ HμRELhumanPool™ HμRELrat™ HμRELratWH™ HμRELprimate™ HμRELminipig™ HμRELdog™ HμRELmouse™ HμRELrabbit™ HμRELcat™ |
|
Studying the cellular response, metabolic competency, and pharmacokinetic interactions among multiple tissues and organs Viral chronicity in liver disease models |
169 and 170 |
Mimetas (2013), www.mimetas.com |
|
OrganoPlate® PhaseGuide™ OrganoPlate® 2-lane, OrganoPlate® 3-lane, OrganoPlate® Graft, OrganoPlate® Caco-2, OrganoTEER®, OrganoFlow® L |
|
Pancreatic cancer, blood vessel, kidney proximal tube, CNS toxicology, blood–brain barrier, gut, angiogenesis, liver, breast cancer | 171–177 |
TissUse (2010) www.tissuse.com |
|
HUMIMIC Chip HUMIMIC Starter HUMIMIC AutoLab HUMIMIC AutoPlant |
Organ compartments of varying size On-chip pump |
Combination of multi-organs, e.g., intestine, liver, kidney, and neuronal tissue Human skin |
178–180 |
Emulate (2013) www.emulatebio.com | Human Emulation System for multi-organ culture Chip-lab equipment interfacing |
Organ-Chips Pod™ Portable Module Zoë™ Culture Module Orb™ Hub Module Bio-kit for Kidney, liver and intestine |
Stretchable plastic chip with porous membrane Allow organ chips to be transported and placed on standard microscopes for imaging Up to 12 Organ Chip combinations |
lung, liver, intestine, and kidney | 181–184 |
AIM Biotech (2012) www.aimbiotech.com |
|
Microscope slide format chips | Compatible with all polymerizable gels Enables the control of interstitial flow across the 3D gel region Rapid media exchange through vacuum aspiration |
Immunotherapy, neurobiology, and vascular biology | 185–186 |
4DBio (2014) www.4designbiosciences.com |
|
Vascularized 96-well microfluidic plate | Channels are lined with endothelial cells and act as arteriole and venule, connected by a network of living capillaries within a physiologic extracellular matrix | Tumor, metastasis, and vascular pathology | |
AxoSim (2014) www.axosim.com |
|
NERVESIM™ BrainSim™ |
iPSC derived spheroids in a 3D culture environment | Neurotoxicity neurodegenerative diseases |
|
CNBio (2009) www.cn-bio.com |
|
PhysioMimix: Multi-organ interactions, ADME, and toxicity | Benchtop fluidic control Up to six MPS plates can be run for multiple independent experiments |
Toxicology, drug metabolism, and disease modeling | |
AlveoliX AG (2015), www.alveolix.com | Lung-on-chip model | AXLung-on-Chip System | Ultrathin membrane breathing motion | Toxicity | |
Hesperos Inc. (2015) www.hesperosinc.com | Multi-organ fluidic chip | Organ models: heart–liver, heart–liver–skeletal muscle–neuron, neuromuscular junction, heart–liver–cancer | Serum-free cell medium Gravity flow system |
Customized human-on-a-chip systems | |
Kirkstall (2006) www.kirkstall.com |
Interconnected cell culture flow system | QV500 QV600 QV900 |
Produced from medical-grade silicone Compatible with commercially available transwells and inserts |
Liver, brain, cardio, respiratory, kidney, and gut | |
Nortisbio (2015) https://www.nortisbio.com |
|
ParVivo™ perfusion system | Plug and play Chips with pre-established tissues | Toxicity and efficacy testing | |
Synvivo https://www.synvivobio.com/ |
|
SynBBB (blood–brain barrier model) SynTumor (various cancer models) SynRAM (inflammation model for rolling adhesion and migration assays) SynTox (Toxicology) |
Air liquid interface (ALI) In vivo-like airway structure Real-time visualization |
Toxicity assays Biomarker analysis Therapeutic screening |