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Grant: Engage Grants for universities

Akbari, Mohsen (University of Victoria)

$25,000.00

A microfluidic printhead for printing photo-cross linkable hydrogels

EF 2017-18 · 2018-03-07

Résumé
The demand for organ repair and transplantation, and a shortage of available donors necessitates the clinical_x000D_ need to develop innovative treatment strategies for long-term repair and regeneration of injured or diseased_x000D_ tissues and organs. 3D printing is a process used to construct 3D objects by relying on the layer-by-layer_x000D_ deposition of materials onto a computer-controlled build platform. Bioprinting combines 3D printing_x000D_ technology, cell biology, and materials science, by coupling the build platform with a device that enables the_x000D_ deposition of bioinks. Bioprinting technology is adaptive to a wide range of biomaterials (i.e., synthetic and_x000D_ natural polymers, blood-derived proteins, and de-cellularized extracellular matrix (ECM)), accommodating the_x000D_ growth and proliferation of various cell sources, including stem cells and somatic cells. Aspect Biosystems'_x000D_ proprietary Lab-on-PrinterTM technology utilizes the concept of coaxial-flow focusing to deposit cell-laden_x000D_ biological fibers layer-by-layer and form 3D tissue-like constructs. Aspect Biosystems is planning to extend_x000D_ their Bioink library to include photo-crosslinkable materials including gelatin methacryloyl (GelMA) and_x000D_ polyethylene glycol diacrylate (PEGDA). Lab-on- a-PrinterTM technology is compatible with a range of low_x000D_ and medium viscosity Bioinks that are particularly well suited to promoting tissue function due to a_x000D_ combination of favorable mechanical properties and high ratios of bioactive and cellular content to scaffold_x000D_ components. Using these materials can significantly improve the printing resolution which will lead to better_x000D_ control on the micro- and macrostructure of the fabricated scaffolds. The overarching goals of this Engage_x000D_ project are to modify the current printhead cartridges to print photo-crosslinkable gelatin as a widely used_x000D_ biomaterial in the tissue engineering community. We will perform a systematic characterization study to_x000D_ develop a protocol for the fabrication of photo-crosslinkable hydrogel constructs. Cells will be loaded in the_x000D_ fabricated constructs to evaluate the biocompatibility of the process.
Programme
Engage Grants for universities
Emplacement
British Columbia|Colombie-Britannique, Canada
Type de bénéficiaire
Academia
Type
Grant
Source
Proactive Disclosure - Grants and Contributions

Tel que publié

Additional Information
Grant or Award spanning more than one fiscal year (2017-2018 to 2018-2019).
Additional Information (French)
Subvention ou bourse octroyée s'appliquant à plus d'un exercice financier (2017-2018 à 2018-2019).
Agreement Number
EGP
Agreement Start Date
2018-03-07
Agreement Title
A microfluidic printhead for printing photo-cross linkable hydrogels
Agreement Title (French)
A microfluidic printhead for printing photo-cross linkable hydrogels
Agreement Type
Grant
Agreement Value
$25,000.00
Amendment Number
0
Organization Code
nserc-crsng
Organization
Natural Sciences and Engineering Research Council of Canada | Conseil de recherches en sciences naturelles et en génie du Canada
Program Name
Engage Grants for universities
Program Name (French)
Subventions d'engagement partenarial pour les universités
Program Purpose
The demand for organ repair and transplantation, and a shortage of available donors necessitates the clinical_x000D_ need to develop innovative treatment strategies for long-term repair and regeneration of injured or diseased_x000D_ tissues and organs. 3D printing is a process used to construct 3D objects by relying on the layer-by-layer_x000D_ deposition of materials onto a computer-controlled build platform. Bioprinting combines 3D printing_x000D_ technology, cell biology, and materials science, by coupling the build platform with a device that enables the_x000D_ deposition of bioinks. Bioprinting technology is adaptive to a wide range of biomaterials (i.e., synthetic and_x000D_ natural polymers, blood-derived proteins, and de-cellularized extracellular matrix (ECM)), accommodating the_x000D_ growth and proliferation of various cell sources, including stem cells and somatic cells. Aspect Biosystems'_x000D_ proprietary Lab-on-PrinterTM technology utilizes the concept of coaxial-flow focusing to deposit cell-laden_x000D_ biological fibers layer-by-layer and form 3D tissue-like constructs. Aspect Biosystems is planning to extend_x000D_ their Bioink library to include photo-crosslinkable materials including gelatin methacryloyl (GelMA) and_x000D_ polyethylene glycol diacrylate (PEGDA). Lab-on- a-PrinterTM technology is compatible with a range of low_x000D_ and medium viscosity Bioinks that are particularly well suited to promoting tissue function due to a_x000D_ combination of favorable mechanical properties and high ratios of bioactive and cellular content to scaffold_x000D_ components. Using these materials can significantly improve the printing resolution which will lead to better_x000D_ control on the micro- and macrostructure of the fabricated scaffolds. The overarching goals of this Engage_x000D_ project are to modify the current printhead cartridges to print photo-crosslinkable gelatin as a widely used_x000D_ biomaterial in the tissue engineering community. We will perform a systematic characterization study to_x000D_ develop a protocol for the fabrication of photo-crosslinkable hydrogel constructs. Cells will be loaded in the_x000D_ fabricated constructs to evaluate the biocompatibility of the process.
Program Purpose (French)
The demand for organ repair and transplantation, and a shortage of available donors necessitates the clinical_x000D_ need to develop innovative treatment strategies for long-term repair and regeneration of injured or diseased_x000D_ tissues and organs. 3D printing is a process used to construct 3D objects by relying on the layer-by-layer_x000D_ deposition of materials onto a computer-controlled build platform. Bioprinting combines 3D printing_x000D_ technology, cell biology, and materials science, by coupling the build platform with a device that enables the_x000D_ deposition of bioinks. Bioprinting technology is adaptive to a wide range of biomaterials (i.e., synthetic and_x000D_ natural polymers, blood-derived proteins, and de-cellularized extracellular matrix (ECM)), accommodating the_x000D_ growth and proliferation of various cell sources, including stem cells and somatic cells. Aspect Biosystems'_x000D_ proprietary Lab-on-PrinterTM technology utilizes the concept of coaxial-flow focusing to deposit cell-laden_x000D_ biological fibers layer-by-layer and form 3D tissue-like constructs. Aspect Biosystems is planning to extend_x000D_ their Bioink library to include photo-crosslinkable materials including gelatin methacryloyl (GelMA) and_x000D_ polyethylene glycol diacrylate (PEGDA). Lab-on- a-PrinterTM technology is compatible with a range of low_x000D_ and medium viscosity Bioinks that are particularly well suited to promoting tissue function due to a_x000D_ combination of favorable mechanical properties and high ratios of bioactive and cellular content to scaffold_x000D_ components. Using these materials can significantly improve the printing resolution which will lead to better_x000D_ control on the micro- and macrostructure of the fabricated scaffolds. The overarching goals of this Engage_x000D_ project are to modify the current printhead cartridges to print photo-crosslinkable gelatin as a widely used_x000D_ biomaterial in the tissue engineering community. We will perform a systematic characterization study to_x000D_ develop a protocol for the fabrication of photo-crosslinkable hydrogel constructs. Cells will be loaded in the_x000D_ fabricated constructs to evaluate the biocompatibility of the process.
Recipient City
British Columbia|Colombie-Britannique
Recipient Country
CA
Recipient Legal Name
Akbari, Mohsen (University of Victoria)
Reference Number
GC-2017-Q4-00029