While most of my semester was dominated by finishing up my undergraduate courses, I did get a little bit of work done on my "Monitoring in vivo transcription in the marine diatom Thalassiosira pseudonana using eGFP reporter plasmids" project. Most of my work can be summed up through my post on working on the culture side of the transformational protocol (another post here), setting up media for the transformation protocol, and working on my Academic Spree Day poster and a proposal for my summer work on my 5th year Master's project.
I've had really good success on multiple science projects by putting a lot of effort working on a poster or Powerpoint presentation and then writing my term paper for the project. Below is the final draft of my poster (which I hope to hang up outside of the lab later today), which I presented at Academic Spree Day (ASD).
I had a lot of fun at this year's ASD presenting and sharing my work with science (and non-science) professors and classmates. It was particularly satisfying sharing my poster with fellow science (but non-biology) students, and then going over their posters with them. Certainly a little bit of sharing and learning!
This poster then was the basis for updating my project proposal:
This week is my first week after graduating on Sunday. The name of the game for this week is to get back into the flow of things in lab, and hopefully establish a workable rhythm. At the moment, I'm continuing to work on creating inducible expression plasmids for nitrite reductase.
Showing posts with label Academic Spree Day. Show all posts
Showing posts with label Academic Spree Day. Show all posts
Wednesday, May 25, 2011
Sunday, April 17, 2011
Here fishy fish fishy...
I've spent most of this past week hanging out with my threespine stickleback, trying to poke and prod them along the way to compete for limited food sources. Well, I didn't poke and prod them, but I did spend most of my Wednesday in lab conducting feeding trials. For the most part, a trial goes something like this:
1.) We select two fish from their home tank, aiming to collect a small fish and a big fish. Not only do we want a sizable difference for our data, but it makes scoring the trials easier if we can instantly tell the fish apart.
2.) We bring the fish into the lab where we run our experiments, and let them acclimate in the 3-gallon testing tanks. If we're quiet, they're good to go within 15 minutes of being moved (although maybe 1 out of every 5 trial pairs simply do not calm down and won't even eat a worm sitting on the bottom of the tank).
2b.) While the fish are "chillin' out", I take a picture above the tank for later determination of fish size and ratio.
3.) To conduct a single round, we pipet a worm into a plastic pipet, and hold the pipet in the tank until both fish are interested. To make it a fair game, both fish need to be equally interested in eating the worm. Once this happens, we let the worm fly out of the pipet and see who wins.
4.) If we have a hungry, happy pair of fish, we can get up to 25 worm rounds in a single trial.
5.) After coming up with a worm feeding score for the two fish, I turn to the computer to see how big the fish were:
Here both fish are of an obvious size difference. Because I know the tank is just over 5 inches wide, and I figure out the standard length of each fish really easily using a ruler in Photoshop. We can then use these standard lengths to determine what the size ratio between them.
This size data will be the main part of our data.
I've been studying all day today, and while I've made a lot of progress (like finishing the first draft of my poster to present at Academic Spree Day - hey! I'm on that link!!), it's time to get back to work and keep chugging. I'll be back in touch with my sad outlook of finals, which I'm actually excited to finish.
1.) We select two fish from their home tank, aiming to collect a small fish and a big fish. Not only do we want a sizable difference for our data, but it makes scoring the trials easier if we can instantly tell the fish apart.
2.) We bring the fish into the lab where we run our experiments, and let them acclimate in the 3-gallon testing tanks. If we're quiet, they're good to go within 15 minutes of being moved (although maybe 1 out of every 5 trial pairs simply do not calm down and won't even eat a worm sitting on the bottom of the tank).
2b.) While the fish are "chillin' out", I take a picture above the tank for later determination of fish size and ratio.
3.) To conduct a single round, we pipet a worm into a plastic pipet, and hold the pipet in the tank until both fish are interested. To make it a fair game, both fish need to be equally interested in eating the worm. Once this happens, we let the worm fly out of the pipet and see who wins.
4.) If we have a hungry, happy pair of fish, we can get up to 25 worm rounds in a single trial.
5.) After coming up with a worm feeding score for the two fish, I turn to the computer to see how big the fish were:
Here both fish are of an obvious size difference. Because I know the tank is just over 5 inches wide, and I figure out the standard length of each fish really easily using a ruler in Photoshop. We can then use these standard lengths to determine what the size ratio between them.
This size data will be the main part of our data.
I've been studying all day today, and while I've made a lot of progress (like finishing the first draft of my poster to present at Academic Spree Day - hey! I'm on that link!!), it's time to get back to work and keep chugging. I'll be back in touch with my sad outlook of finals, which I'm actually excited to finish.
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