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Funded by the National Science Foundation Future Manufacturing Program and Improving Undergraduate STEM Education Program
Synthetic biology and biomanufacturing are buzzwords of an emerging bioeconomy based on our increasing ability to manipulate living systems. Join Vincent Noireaux, a founder of the annual Synthetic Biology course at Cold Spring Harbor Laboratory (CSHL), to come up-to-the minute with a new, cell-free transcription-translation (TXTL) system he pioneered to engineer and manufacture bacteriophages in vitro.
This work is the latest in a distinguished lineage of (bacterio)phage research, which began at CSHL and provided the first tools to explore the molecular mechanics of living cells. The “Phage Course,” founded at CSHL in 1945 by Max Delbrück and Salvador Luria, trained the first two generations of molecular biologists. Al Hershey and Martha Chase’s “blender experiment,” conducted at CSHL in 1952, provided conclusive evidence that DNA is the molecule of heredity. Delbrück, Luria, and Hershey shared the 1969 Nobel Prize for this seminal work.
Now, phage therapy is used to control bacterial infections in medicine and agriculture. Phages provide a virtually limitless resource of bioactive materials that are increasingly exploited in biotechnology, nanotechnology, and bioremediation. In education, the SEA-PHAGES Program of the Howard Hughes Medical Institute is one of the most widely implemented infrastructures for course-based undergraduate research experiences (CUREs). Cell-free TXTL is a logical next step for students who have been exposed to phage and/or bacterial genetics, providing them an opportunity to explore the use of phages in biomanufacturing.
Workshop participants will carry out cell-free TXTL with reporter genes (short DNAs) and whole bacteriophage genomes (long DNAs). Spotting assays and plate readers will be used to confirm the activity of engineered phages, as well as kinetics of phage assembly. Nanopore sequencing will be introduced as a method to confirm new phage constructs.
A $500 stipend will be provided. Travel funds available.
Download Schedule (PDF)
Monday, March 4 | ||
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8:30 AM | Coffee and Sign-In | |
9:00 AM | Participant and Staff Introduction | |
9:15 AM | LAB | Cell-free Expression of Reporter Genes (Fluorescent Proteins) |
11:00 AM | CONCEPT | Introduction to Cell-free Expression |
12:00 PM | LUNCH | |
1:00 PM | LAB | Cell-free Biomanufacturing of T7 Phage: Infect Host Cells with Biomanufactured Phages |
3:00 PM | LAB | Results of Cell-free Expression of Reporter Genes |
4:00 PM | LAB | Cell-free Biomanufacturing of T7 Phage: Set Up |
5:00 PM | DISMISS |
Tuesday, March 5 | ||
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8:30 AM | Coffee | |
9:00 AM | CONCEPT | Assays for Detecting Active Phage |
10:00 AM | LAB | Cell-free Biomanufacturing of T7 Phage: Set up Spotting Assays |
11:00 AM | LAB | Cell-free Biomanufacturing of T7 Phage: Assay Infection Kinetics on Plate Reader |
12:00 pM | LUNCH | |
1:00 PM | CONCEPT | Bacteriophage Biology |
2:00 PM | LAB | Cell-free Phage Reactions with Varying Parameters |
3:00 PM | LAB | Cell-free Biomanufacturing of T7 Phage: Analyze Spotting Assays |
5:00 PM | DISMISS |
Wednesday, March 6 | ||
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8:30 AM | Coffee | |
9:00 AM | LAB | Cell-free Phage Reactions with Varying Parameters: Set up Spotting Assays |
10:00 AM | LAB | Cell-free Phage Reactions with Varying Parameters: Assay Infection Kinetics on Plate Reader |
12:00 AM | LUNCH | |
1:00 PM | CONCEPT | Oxford Nanopore Sequencing of Phage |
2:00 PM | LAB | Cell-free Phage Reactions with Varying Parameters: Analyze Spotting Assays |
3:00 PM | SURVEY | |
4:00 PM | DISMISS |
Biological Sciences Center
Room 320 (Learning lab)
1445 Gortner Avenue
Saint Paul, MN 55108
Funded by grants from the National Science Foundation:
Future Manufacturing #2228971; Improving Undergraduate STEM Education #1821657