A robotic platform for fluidically-linked human body-on-chips experimentation
Author:
Novak RichardORCID, Ingram Miles, Clauson Susan, Das Debarun, Delahanty Aaron, Herland Anna, Maoz Ben M., Jeanty Sauveur S. F., Somayaji Mahadevabharath R., Burt Morgan, Calamari Elizabeth, Chalkiadaki Angeliki, Cho Alexander, Choe Youngjae, Chou David Benson, Cronce Michael, Dauth Stephanie, Divic Toni, Fernandez-Alcon Jose, Ferrante Thomas, Ferrier John, FitzGerald Edward A., Fleming Rachel, Jalili-Firoozinezhad Sasan, Grevesse Thomas, Goss Josue A., Hamkins-Indik Tiama, Henry Olivier, Hinojosa Chris, Huffstater Tessa, Jang Kyung-Jin, Kujala Ville, Leng Lian, Mannix Robert, Milton Yuka, Nawroth Janna, Nestor Bret A., Ng Carlos F., O’Connor Blakely, Park Tae-Eun, Sanchez Henry, Sliz Josiah, Sontheimer-Phelps Alexandra, Swenor Ben, Thompson Guy, Touloumes George J., Tranchemontagne Zachary, Wen Norman, Yadid Moran, Bahinski Anthony, Hamilton Geraldine A., Levner Daniel, Levy Oren, Przekwas Andrzej, Prantil-Baun Rachelle, Parker Kevin K., Ingber Donald E.
Abstract
Here we describe of an ‘Interrogator’ instrument that uses liquid-handling robotics, a custom software package, and an integrated mobile microscope to enable automated culture, perfusion, medium addition, fluidic linking, sample collection, andin situmicroscopic imaging of up to 10 Organ Chips inside a standard tissue culture incubator. The automated Interrogator platform maintained the viability and organ-specific functions of 8 different vascularized, 2-channel, Organ Chips (intestine, liver, kidney, heart, lung, skin, blood-brain barrier (BBB), and brain) for 3 weeks in culture when fluidically coupled through their endothelium-lined vascular channels using a common blood substitute medium. When an inulin tracer was perfused through the multi-organ Human Body-on-Chips (HuBoC) fluidic network, quantitative distributions of this tracer could be accurately predicted using a physiologically-based multi-compartmental reduced order (MCRO)in silicomodel of the experimental system derived from first principles. This automated culture platform enables non-invasive imaging of cells within human Organ Chips and repeated sampling of both the vascular and interstitial compartments without compromising fluidic coupling, which should facilitate future HuBoc studies and pharmacokinetics (PK) analysisin vitro.
Publisher
Cold Spring Harbor Laboratory
Cited by
4 articles.
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