Transformation And Characterization Of Deskjet Printers Into Low-Cost Bioprinters For Drug Screening And Cell Printing
School Name
Governor's School for Science and Math
Grade Level
12th Grade
Presentation Topic
Engineering
Presentation Type
Mentored
Abstract
Drug development is a timely and risky industry. High throughput drug-screening using inkjet printing technology could be the solution to the problems that arise during drug trials. This work shows the modifications made to an inkjet printer in order to make it fit to be used to print anti-cancer drugs. An HP Deskjet 600 printer was characterized in order to establish what volume of a liquid could be printed for different pixel sizes, liquid viscosities and colors. MCF-7 cells and 3T3 cells and an anti-cancer drug were pipetted into one cell plate while cells were pipetted but the anti-cancer drug was printed into another cell plate. The cells in both cell plates were counted using CellTiter 96® AQueous One Solution Assay each day from day 0 – day 4. Then the effect of the pipetted anti-cancer drug was compared to the effect of the printed anti-cancer drug on the cells. This work has the potential to lead to further development in high throughput bioprinting technology.
Recommended Citation
Moore, Ariel, "Transformation And Characterization Of Deskjet Printers Into Low-Cost Bioprinters For Drug Screening And Cell Printing" (2016). South Carolina Junior Academy of Science. 73.
https://scholarexchange.furman.edu/scjas/2016/all/73
Location
Owens G07
Start Date
4-16-2016 2:45 PM
Transformation And Characterization Of Deskjet Printers Into Low-Cost Bioprinters For Drug Screening And Cell Printing
Owens G07
Drug development is a timely and risky industry. High throughput drug-screening using inkjet printing technology could be the solution to the problems that arise during drug trials. This work shows the modifications made to an inkjet printer in order to make it fit to be used to print anti-cancer drugs. An HP Deskjet 600 printer was characterized in order to establish what volume of a liquid could be printed for different pixel sizes, liquid viscosities and colors. MCF-7 cells and 3T3 cells and an anti-cancer drug were pipetted into one cell plate while cells were pipetted but the anti-cancer drug was printed into another cell plate. The cells in both cell plates were counted using CellTiter 96® AQueous One Solution Assay each day from day 0 – day 4. Then the effect of the pipetted anti-cancer drug was compared to the effect of the printed anti-cancer drug on the cells. This work has the potential to lead to further development in high throughput bioprinting technology.
Mentor
Mentor: Dr. Rodriguez-Devora; Department of Bioengineering, Clemson University