Bovine colon organoids: From 3D bioprinting to cryopreserved multi-well screening platforms

Three-dimensional (3D) colon organoids, termed “colonoids”, derived from adult stem cells represent a powerful tool in in vitro pharmaceutical and toxicological research. Murine and human colonoid models exist. Here we describe the establishment of bovine colonoids for agri-biotechnological applicat...

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Veröffentlicht in:Toxicology in vitro 2019-12, Vol.61, p.104606-104606, Article 104606
Hauptverfasser: Töpfer, Elfi, Pasotti, Anna, Telopoulou, Aikaterini, Italiani, Paola, Boraschi, Diana, Ewart, Marie-Ann, Wilde, Colin
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container_title Toxicology in vitro
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creator Töpfer, Elfi
Pasotti, Anna
Telopoulou, Aikaterini
Italiani, Paola
Boraschi, Diana
Ewart, Marie-Ann
Wilde, Colin
description Three-dimensional (3D) colon organoids, termed “colonoids”, derived from adult stem cells represent a powerful tool in in vitro pharmaceutical and toxicological research. Murine and human colonoid models exist. Here we describe the establishment of bovine colonoids for agri-biotechnological applications, and extend the repertoire of colonoid culture options through proof-of-principle for bioprinting and novel in-plate cryopreservation technology. As a first step, we differentiated established long-term bovine colonoid cultures into mature colonoids. Tissue-specific differentiation was demonstrated by gene expression. Second, we investigated cryopreservation of colonoids in situ within an extracellular matrix in multi-well plates. Upon controlled thawing, cryopreserved 3D cultures grew at similar rates to unfrozen colonoids. Cytotoxic sensitivity to staurosporine was not significantly different between in situ freeze-thawed and unfrozen control cultures. Third, scalability of colonoid culture assembly by extrusion bioprinting into multi-well plates using GelMA bioink was assessed. With optimised bioprinting and crosslinking parameters, colonoids in GelMA were printed into 96 well culture plates and remained viable and proliferative post-print. For tissue-relevant in vitro studies we furthermore established differentiated colonoid-derived monolayer cultures on permeable membranes. Taken together, we outline novel in vitro approaches to study the ruminant colonic epithelium and introduce in-plate cryopreservation as convenient alternative to conventional in-vial cryopreservation. •Culture methodology for bovine 3D colonoid long-term culture.•Novel in situ cryopreservation technique of 3D colonoid cultures in multi-well plates for subsequent screening assays.•Proof-of-principle for suitability of bovine colonoids in 3D extrusion bioprinting.•Differentiated epithelial monolayer formation from bovine colonoids.
doi_str_mv 10.1016/j.tiv.2019.104606
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subjects 3D bioprinting
Animal models
Animals
Bioprinting
Bovine enteroid
Cattle
Cell culture
Colon
Crosslinking
Cryopreservation
Cytotoxicity
Epithelium
Extracellular matrix
Extrusion
Freeze-thawing
Gene expression
In-plate cryopreservation organoids
Intestinal Mucosa
Membranes
Monolayer culture
Organoids
Plates
Printing, Three-Dimensional
Staurosporine
Stem cell transplantation
Stem cells
Thawing
Three dimensional printing
Tissue engineering
title Bovine colon organoids: From 3D bioprinting to cryopreserved multi-well screening platforms
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