Friday, July 2, 2010
Nuclear Extraction
I've told you about playing with cells. So what happens after they are transfected? In my case, I transfected them because I wanted them to express a certain protein (my protein of interest is called BORIS). So now, I want access to that protein. BORIS is a protein that binds to DNA. DNA is inside the nucleus of the cell. If you can reach back with me to high school biology, you might remember that a cell has a membrane that is sort of like skin. It lets certain things in (ions, glucose, etc.) and tries to keep certain things out (viruses for instance). It holds the cell together as a singular unit. Inside the cell membrane is the cytosol. This is basically a fancy way of saying the innards of the cell. This includes the all the structures in the cell, the liquid inside the cell, all the proteins that are chilling in there, and a bunch of other stuff that I have no interest in.
I want the nucleus. The nucleus is sort of like a mini cell within the cell. It has a membrane around its outside also, called the nuclear envelope. Inside, is the nucleus, which by our analogy is like the cytosol. It contains DNA and other goodies. So, how do I get the nucleus, and get rid of the cell membrane and the cytosol? The answer is nuclear extraction.
You have probably read that I do a lot of hurry up and wait. That on any given day, I probably don't do more than 2 hours of actual work. That is the antithesis of nuclear extraction. The first time I did a nuclear extraction, it took me about six hours from start to finish. Six hours of actually doing stuff. I have gotten a lot better at it, where my last attempt only took about 4 hours.
First you need to harvest your cells. I have generally done between 15 and 20 plates at a time with my nuclear extractions. I leave most of them in the incubator and harvest only one of my transfected cell types. For example, I am working with mutants of the BORIS protein and I have six that I work with (where one of them is the "wild-type" unmodified protein). I will generally have five plates of any given type of BORIS-protein-expressing-cells. So I take five plates, vacuum off the media (food) from the cells while trying not to actually vacuum up any cells. I then wash the plate gently and vacuum off the wash (again trying to miss the cells). Then, you have to scrape the cells off the plate. This is done with a tool called a cell scraper. It is like a mini squeegee attached to a toothbrush handle. You scrape this along the bottom of the plate, and try to get all the cells to come off and congregate in one place. Then you suck off the cells, and put each plate's worth of cells into a test tube. Repeat this process for all of your plates and you will have harvested about 10^7 cells from each plate.
Next, you stick all those test tubes into a centrifuge, and spin them around at a lazy pace of 300 x the acceleration due to gravity. Hard to believe, but that actually is a lazy pace. The centrifuge can do 14,000 x the acceleration of gravity. The point of this is to pull all the heavy stuff (the cells actually) to the bottom, and leave the liquid separate. Then you try to pipette off the liquid so you are left with just the cells. Then you wash the cells with the same stuff as before, but mixed with some ingredients that will try to prevent the cells from dying/committing suicide (when cells are shocked enough, they will die and send signals to their buddies to kill themselves). Again you stick them in the centrifuge, and again you suck off the fluid, and again wash them. Repeat this previous sentence.
The reason that the centrifuging was at such a slow pace was that we didn't want to rupture the cells. We just wanted to wash them a bit. Now we mix them with hypotonic buffer. The inside of the cell wants to be at equilibrium with the outside of the cell. This is generally done by controlling the amounts of ions that pass through the membrane. This will then change the amount of water in the cell by osmosis. The hypotonic buffer will make the cells swell up.
You let the cells swell for a little while then add detergent. The detergent will break apart the cell membrane. Stick these broken up cells in the centrifuge, and the liquid portion will be the cytosol. Pipette that off and if you are interested in the cytosol you can store it for use later.
I, however, am interested only in the nuclear fraction. I just throw away the cytosol at this point. Now, you add nuclear extraction buffer (creative name, huh?). You shake/mix vigorously for a few seconds. Let it sit for a few minutes. Shake/mix vigorously for a little longer. Let it sit for a few. This should have turned the nuclear envelope inside out (I'm not so clear on how it does this...). Then you centrifuge at 14,000 x gravity. The liquid portion of this is the nuclear fraction, and the pellet (the non-disolved stuff at the bottom) is cell membranes and nuclear envelope and other stuff that we don't want. We pop the nuclear fraction into fresh tubes, and stick it in the -80 C (otherwise known as really frickin' cold) freezer, and we are done.
Tuesday, June 22, 2010
new students
It is 1:15 in the afternoon and I have not yet done science. But, I am a t-shirt and "New Student Kit" richer.
Today was the second in the "Summer Student Seminar Series." Basically, a bunch of summer interns sit in an auditorium and hear about new/interesting research. The speaker who was supposed to come in today cancelled, but they had a different researcher step in. He was actually quite interesting.
Last week, at the seminar, I only nodded-off three times. Today, there was zero nodding-off. The speaker knew how to engage the audience (students, mostly) and he asked questions. Correct answers warranted a Snickers bar. I had three correct answers, but only needed one Snickers. He spoke to us about Lupus, and specifically how it seems that he accidentally infected mice with it. This is currently (as I write this) giving rise to a new model of Lupus. As I said before, it was quite interesting.
At the end of the seminar, there were student intern t-shirts to be had. In addition, New England BioLabs prepared welcome kits for us. It contained a lot of crap mostly. There were posters, catalogs, and lots of other things that I have not yet gone through, but most intriguing there were samples of reagents. In fact, they basically sent all the things necessary to do a PCR or Polymerase Chain Reaction (read about that in earlier posts). Also, they gave me a retractable super-fine tip Sharpie permanent marker. I always like goody bags.
Now that the seminar is over, I am waiting for the next 41 minutes, 46 seconds for something to finish incubating.
Thursday, May 27, 2010
Cells
To begin with, the type of cells that I work with are Human Embryonic Kidney 293T cells. Known as HEKs or 293Ts. A cell line is a group of immortalised cells. You can order them from a company, and you know what you are getting. HEK 293s were originally from a "healthy aborted fetus" in the 1970s. The number 293 comes from Frank Graham (the guy who immortalised this cell line), who numbered each of his experiments. Thus, HEK 293s came from his 293rd experiment.
HEK 293s are not just plain human cells. A bit of adenovirus 5 DNA was added and incorporated into the human chromosome. This is what gives them their immortality.
Ours are not just plain 293s, but 293Ts. This means that they are able to be transfected with plasmids easily. More on that later.
The way we work with these cells is very cyclical, so I really could start anywhere in describing the process.
We'll start with a flask filled with cells. The cells are in media (read food). We use DMEM as our media. DMEM is composed of amino acids, salts, glucose, vitamins, iron, and phenol red. Phenol red is very important. It is a dye that changes color based on how acidic it is. Mixed into our DMEM is fetal bovine serum (FBS) and a penicillin/streptomycin mixture. The FBS is what is left of the liquid portion of fetal cow blood after it is allowed to clot. It does not have blood cells in it, is low in antibodies, and has a good amount of growth factors. The pen/strep mixture is antibiotics so that the cells don't get infected.
You pull your flask out of the incubator (37 degrees C and 5% CO2), and you notice that the liquid (media) is a dull orange. Time to change the media! Why? Well, remember that phenol red? It starts out a reddish-pinkish color. When it gets too acidic (cell excrement makes it that way), the cells will die. Imagine living in your own poop. Even if you get nutrients from the air, after a while there is just too much poop, and you suffocate from it. Same sort of thing. The change in color signifies that it is becoming too acidic. These particular cells are called adherents. This means that they stick to a surface. In this case, they stick to a side of the flask (whichever end was down). So you flip the flask over, and all the liquid is on the opposite side from the cells. Now you can use an aspirating pipette (also known as a vacuum) to pull out the spent media. If you just want your cells to grow more, you will add more media. This is known as changing, swapping, or replacing the media.
Let's say that before you swapped the media, you looked at your flask under a microscope. You found that there was some overcrowding going on. This is another leading cause of cell death. If cells do not have space to grow in, they die. Sometimes something peculiar happens and the cells on the edge will start growing up the walls. Sometimes, they don't have good anti-gravity skills and the off-the-wallers become curlers. A film of cells will curl up off the wall and back into the cells. It may look cool, but it definitely means your cells are unhealthy (I know from experience).
How do you deal with cell-overcrowding? Decimation. You suck off the old media, and put in a little bit of trypsin-EDTA. The trypsin will cleave proteins (it's actually one of the digestive enzymes that digests proteins in humans), and the EDTA prevents the cells from clumping. You leave that in the incubator for five minutes, and all your cells will come off the walls/floor of the flask. You then spray them down with media so any clingers are forced into the solution. You pipette up and down to make sure everything is mixed nicely, and usually you pull off 9/10 of the liquid (and thus the cells) in the pipette. Then you vaccuum them. You are left with 1/10 your original cell count (-ish) and you add more media to get back to your original volume. I have found that doing this generally gives you three or four days before your cells are confluent (overcrowding) again.
We have cells. We know how to maintain them. What's the point? In our case, the point is usually transfection. Transfection is introducing foreign DNA for the cell to incorporate in its own genome. You put your cells in solution, and instead of vaccuuming a large portion of them, you then add that portion to a different flask. You then add an appropriate amount of media, and do some heavy mixing. Then you add about 10 ml of this new solution to your cell culture plates. You may know them as petri dishes. Your cells will grow and flourish (hopefully), and reach confluency.
After a couple of days, when it is time to change the media, you can transfect them. You put a bit of the DNA that you hope to express in a mix with media and a special reagent that will make a hole in the cell membrane for the DNA to go through. You add a few drops of this mix to each plate, and the new foreign DNA gets pulled into the cell. If everything worked well, the cell will think, 'Huh! There is DNA outside of the nucleus. Better put that back where it belongs!' The cell adds the new DNA to its own, and then acts as though nothing is different. In our case, the foreign DNA will code for a particular protein.
After another couple of days, the cells had enough time to produce that protein, and you can harvest them. This is done by basically scraping each of the plates, and sucking up the cells that were on there. There are a number of things that can be done after you have harvested the cells, but that is outside the scope of this post.
Now, you are an expert on cell culture! (-ish)
Thursday, May 20, 2010
General Updates
I currently am living in an apartment that's actually in the center of town. It is a little bit less than two miles to get to the base. In fact, I turn right out of my apartment, turn right at the end of the street, and if I keep going straight, I end up on base. Win.
AK finished up school for the year, and came down to live with me. Timing worked out really well there. She finished up her finals and whatnot before the end-end, and I had a meeting to finish up Division II with JM and CJ. I went up to Amherst for my meeting, brought some great beer to celebrate (Three Philosophers. If you haven't tried it, do so). JM and CJ asked me all sorts of questions to gauge the sorts of things I have learned in the last two years. This is, of course, after I had given them a portfolio and retrospective essay. That way, they knew about which things to ask questions.
After the meeting, AK and I drove down to my folks' house. We had some dinner and grabbed a few things that I had not brought down the first time around. In the morning, we drove down to Frederick. And, I, smartypants that I am, went in to work. I had a nuclear extraction to do (I will explain that in more detail in a different post), and it took me about five hours. I had just driven about five hours, and then I worked for five hours. A glutton for punishment.
AK and I went tag saling last weekend. We bought a table, chairs, a microwave, a toaster, and various knick-knacks. Our apartment is starting to look homely.
AK is on the hunt for the elusive "job." She has applied to probably 30 places by now... So far, no dice. But, not all of them have rejected her yet either. If nothing comes, she is planning on volunteering. Probably with the local animal shelter.
I have been falling more and more into a routine. Aside from nuclear extractions that take about five continuous hours, it is mostly hurry up and wait. Right now, I am waiting for a gel electrophoresis (1.5 hours). After that, I do about ten minutes of stuff, and wait another 1.5 hours, etc.
The smallest things
Inside this second box, was... labelling tape. Twelve rolls. This is basically colored masking tape, but a little bit stronger so you can color code/label your experimental items. There was only one roll each of blue and orange, but two rolls of white, yellow, green, pink, and red. I asked AB, and he said that blue and orange are the most popular colors so they sell those separately. No, that does not make any sense to me either.
AB decided he had to put the colors in the right, most useful order. We have a tape dispenser that can accomodate eight rolls of tape, so that is one of each color, plus one of scotch-type transparent tape. AB spent the next five to ten minutes putting them in the "right" order. Previously, I had just used whatever tape was closest or whatever, but now it seemed like there was a correct and incorrect tape to use for different circumstances. I asked AB. He said, "Of course the colors have meaning. Everything has meaning." I made a face that begged for a more complete response, but none was forthcoming.
He had seven rolls on there when he said, "Hmm, but where does the pink go?" He thought about it for a moment, and took a few rolls off, put the pink on then replaced the rest. The final order is transparent, orange, red, pink, yellow, green, blue, white. He glanced up at me and looked really pleased with himself. I had an urge to pat him on the head and say, "Good boy!"
It's the smallest things that make people happy.
Wednesday, May 5, 2010
Umm...News?
--
-Tal
Thursday, April 15, 2010
Practice makes perfect
Gel electrophoresis is really cool. You start with an individually sealed package. Inside, is a plastic slab. The plastic slab houses a "gel." In this case the gel is agarose, the sugar-matrix that is made from red algae, and is used in lots of deserts and "seaweed salad" in Asian foods. Read more about it here. The gel has wells at the top. These are very small holes where the gel is cut out. You put the gel-slab rectangle into a bigger plastic box. It is covered with a buffer solution that is electro-conductive. There is a cathode and an anode (positive and negative electric terminals) on either end of the box, the DNA itself is electrically negative. Below is a picture of the slab in the electro-conductive box.
At the top, against the blue background, you can see the wells. A pipette is used to load material (in our case, DNA) into the gel.
First, it is really difficult to get the pipette right into the well, and further to put your material in there. Light is refracted against the buffer solution, and makes aim difficult. You are also using this long pole (the pipette) with a tiny end that needs to fit inside a tiny hole. Regardless, once you have the material in place, you seal the box. It is connected to wires that are connected to a power supply. It's basically a completed circuit. Electricity flows from the anode (negative) through the gel to the cathode (positive). It also pulls the DNA along with it.
Before putting the DNA in the wells, dye was added. This dye, called Ethidium Bromide, binds to each base of DNA- one molecule of dye for each base. This dye allows you to see how far the DNA ran on the gel. The farther the band, the smaller the molecule. Basically, the smaller the molecule, the faster it goes when electrocuted. The location of a band on the gel tells you what you are looking at.
When the electrophoresis is over, you take the gel to a chamber that emits UV light. This is a small light-proof box. You put the gel inside, and seal it up. You turn on the UV light, and can take a picture of the gel using a camera in the box. Ethidium Bromide glows when it is lit by UV light. The resulting photograph shows the bands where there is Ethidium Bromide and thus DNA.
The following is a picture of the UV illumination:
The more dense a band is, the more material there is.
With the gel that I ran, shown below, the left-most column was a mistake, and is to be disregarded. The second from the left is a negative control. It was basically only dye, to have a scale. The third is the positive control. The fourth and final column was my experiment. It was looking for a region called DMR. You see that band at the bottom of the the final one? That is DMR. I found it. However, the problem is the control. It is blurred and crazy. We have no idea what exactly went wrong there.

So the DMR is good, but the control is messed up. We can keep the DMR that I made in PCR, but have to run the control again, else we won't be able to actually experiment with it.
AB decided that he would set up the control for PCR so it would be quicker, and if I noticed anything that he did differently, then we might know what went wrong.
Start to finish, he was done in 15 minutes. He did half of what I did, but when I did it, it took me an 1.5 hours. This means that he did it three times faster than me. I guess practice makes perfect.
LATER: It is now four hours after I wrote that up. AB's new PCR is done. We also ran the gel electrophoresis. We took a picture. You know what? His looks just the same as mine.
This means a number of things. First and foremost, I didn't mess everything up. The other really big thing, is that we have no idea what is wrong. We have pretty much found that it wasn't really the mixing that messed things up. It might be either the quality or quantity of the reagents that went into it. Also, it might be something with the temperature of the thermocycler.
Next week, we will try to address this problem. Possibly, there was too much template DNA. This is odd because this PCR has been successful twice before, but has now failed twice. Possibly, it means that the amount of template DNA is right on the threshold- in the right conditions it might be enough but under the wrong conditions it's too much. We have no idea what the "right conditions" actually are.
Tuesday, April 13, 2010
PCR
PCR is a very complicated process. The premise is to be able to copy (many, many times) a piece of DNA. There is a particular segment of DNA that you want to study, or in our case you want to study the proteins that bind to that DNA.
A bunch of reagents get mixed together. These include primers, dNTPs, polymerase, buffer, and of course the DNA template. There are forward and reverse primers, each one travelling in one direction along the DNA strand. They are complementary to the ends of the template. dNTPs (deoxynucleoside triphosphates) are the building blocks of DNA. Polymerase is the stuff that actually does the copying/making new DNA.
After mixing these together in the right proportions, which is the only thing I was actually doing for the past hour and a half, they are put into tiny thin-walled test tubes called PCR tubes. This is so that their temperatures can be changed very quickly. There are 50 micro-liters in each tube (about 1 drop of water's worth). These get put into a thermocycler. This is a device that is able to change temperature very quickly, and sustain a certain temperature for a given amount of time. Each temperature allows for different parts of PCR to occur.
First, the mixture is heated a lot. In our case, 94 degrees C. This is to denature the DNA, ie. to make it melty. It separates the bonds of the DNA that would normally make it a double spiral. It is now two single strands.
The temperature now goes down to 55 degrees C. This is the optimal temperature for the primers to attach to the strands. Remember how there is a forward and a reverse? The primer attaches in the middle of the strand, so this is necessary. Also, it can only do reverse in short segments, and these have to get zipped together at the end. Thus, the forward primers need to circle back. The polymerase will now attach to the primer-template hybrid. This is called annealing.
The temperature is raised to 72 degrees C. This is the optimal temperature for the polymerase to make new DNA. The primer is sort of a blueprint for the polymerase to know how/which dNTP to attach to make DNA. This is the extension step.
This process is one cycle. With each cycle you have double the amount of DNA material. We repeat this 45 times. I think that means we end up with 2^45 times the amount of DNA than we originally had as the template. Regardless of the math, it's a tremendous duplication.
At the end, it gets chilled to 4 degrees C, and it can stay there indefinitely. My PCR wont be done before the workday is over, so I can fetch it tomorrow.
I did this all by myself. *pats self on back, and says, "I am terrific."* AB wasn't even looking over my shoulder. Tomorrow, we get to see whether it worked.
Friday, April 9, 2010
Really? More Bureaucracy?
President Bush signed an executive order that said that all federal employees should use the same wireless access card, where the only difference is the logo of the department you work for. We are currently moving to that system. In order to get this new access card, all federal employees need a background check. Two days ago, I got my email saying that I needed to complete my application for the background check. I went to a special website, and put in my identifying information, and it presented me with a huge mess of forms to fill out.
I mentioned this to AB, who said that maybe I should contact the agency and tell them that I was only interning for a few months, and maybe its a waste of resources? I called them, and they told me that I should go ahead and fill it out. That they will initiate the background check and at whatever point it was left at when I leave they will leave it. I thought that this is a tremendous waste of resources, but there is plenty of waiting time during the day, so it will give me something to do.
It was really in depth. They wanted me to account for every place that I have lived in my life, and who (name, address, phone number) could account for my being there. Relatives don't count. Further, account for every job or period of unemployment since turning 16. Again, someone has to be able to account for my being there. What schools have I gone to? Finally, give three character references (again, no family), with adresses, phone numbers, and length of time that I've known them. They should be able to account for the last five years. It was really intense.
Now, they are going to waste your tax dollars in researching that information.
Thursday, April 8, 2010
journal access
I admit I didn't know what I was missing. I was able to deal with the planning ahead that is required in doing research at Hampshire.
The NIH has subscriptions to everything. Just click, and there it is. In PDF, HTML, or other formats. From multiple sources. It's just so easy. And crazy expensive. Again, your tax dollars at work.
Monday, April 5, 2010
The point (sorry, but Ringo is not here)...
We are both a "Core Services" lab and a "Research and Development" lab. Core Services mean that scientists around the country can hire us to do experiments for them. The R&D bit means that we aim to design new technologies and techniques for understanding proteomics. Most labs are one or the other. Both together though works very well. This means that scientists can work with us to design an experiment that will create a new technique or give new understanding in an area.
Apparently, the project that AB and I are working on has immediate applications in cancer chemotherapy. One of the problems of chemotherapy is the toxicity of it. One of the reasons for this is that chemotherapy affects how cells reproduce (at a DNA level). Many chemotherapies, in addition to targeting cancerous cells/reproductions, also inadvertently target the DNA repair mechanism in healthy cells. In a normal healthy cell there is an RNA protein machine that repairs nicks in the DNA. It sort of slides along the chromatin and unzips it in places that need to be repaired. The chemotherapy, however, causes this unzipping to get stuck. The RNA protein machine then sort of tacks on the end of the DNA. If this happens only a couple of times, generally the cell can survive (and this does happen occasionally in healthy cells to no detriment). Unfortunately, if it is continued, it is toxic to the cell. Thus one of the reasons of chemotherapy toxicity. We are looking at interactions of a particular protein with this RNA protein machine. It seems that in vivo (in the actual cell), this protein that we are studying will actually cleave the RNA protein machine off the end of the DNA allowing the DNA to return to normal functioning. If this turns out to always be the case, this protein could be infused with the normal chemotherapy for a cocktail that will reverse the damage that chemotherapy causes.
Here's the thing. I don't believe that it is that simple. It is amazingly difficult to study protein interactions that involve more than say three proteins (and even that many is pretty difficult). While it may be true that the protein that we are studying may be part of this interaction, there is no telling yet whether it is directly responsible for those results. Even so, it's some pretty cool revolutionary stuff.
Monday, March 29, 2010
Value
Friday, March 26, 2010
Goals
science
Thursday, March 25, 2010
JK comes out of his shell
Wednesday, March 24, 2010
Parking v2
Tuesday, March 23, 2010
Parking
Monday, March 22, 2010
A dip of the toes
Bureaucracy!
Thursday, March 4, 2010
Flurry of activity
Monday, March 1, 2010
SPA conference round-up
Aaron: The executive director of SPA. A really cool guy. I guess that part of my Jewish assumption was that Aaron mentioned to me before the conference that he wanted to have a minyan for a prayer service on Saturday. I did not actually happen. He was a little too busy to try to deal with that. He was my first contact with SPA, and he convened The Meeting. He is deeply spiritual, very into his Judaism, very down to Earth, and so willing to laugh.
Julia: The managing director of SPA. A fantastic public speaker. She was able to speak for a half hour with no notes! And clearly. I was very excited to attend a session for learning to speak well that was facilitated by her. Rightly so. Not only is she a good speaker, but a good teacher of that art. Whether or not I actually learned remains to be seen. She was the chief logistical person, and things went so smoothly. On Saturday, we got behind agenda by a half hour, and somehow she recovered that time and we finished on schedule!
Zana: One of the few students with whom I actually connected. Apparently SPA thinks of students in a different fashion than J Street U. SPA is really for anyone from middle-school to post-school community organizers. Zana got a scholarship from her school to come. She has never done peace organizing or advocacy. She had a lot of prior knowledge regarding domestic violence and other issues, but this conference was her first affirmation that she is not crazy; there are other people who think and feel in the same way she does. She is a little too sarcastic for her own good, and does not yet know how to use it only in the right situations. It was kind of exciting to see her change from the beginning to end of conference.
Mary Ann: A sweet middle-aged lady from West Texas. Her son was the lead coordinator at Southwestern University (the hosting school). She is very aware of just how rural her surroundings are, yet she has remained quite liberal. She is a lawyer who used to work with artists but now represents big oil tycoons after her husband insisted she get a "real" job. She took Kobi, a few others, and me (I was the youngest) out for drinks Friday night. She took us to a restaurant that was easily four stars, everyone got at least one round of drinks, we shared a cheese plate. The bill was probably over $100, but she covered the whole thing. She was really wonderful, and always had a smile on when she saw me.
Kobi: Once upon a time, I had no experience with planning events at Hampshire. Over the past 2.5 years, I have gained a lot of experience in that area. The first event that I helped coordinate was to bring in a speaker who had served in the Israeli Army and was brought up in a racist-against-Arabs youth movement, but who had renounced all that while in service. He is now a peace activist, and goes on speaking tours all over the country. His name is Kobi. Kobi was at this conference. It was really awesome to catch up with him. I think he was really happy to see how much of a peacenik and activist I have become. He went out with us for drinks, and in true Israeli fashion ordered a cucumber salad. We then got to talk about how awful the cucumbers and tomatoes are in this country. One of my favorite topics! He had lots of interesting insight and information to share.
Ben: I was picked up at the airport in a van with many interesting traits, such as the door usually didn't close quite all the way so when we went over a bump the door-open light would come on. More interesting than the vehicle were the people in it. Ben was one such person. He works for an NGO in Uganda called Invisible Children. They do a ton to get child soldiers in the Lord's Resistance Army to defect and rejoin Ugandan society. His work is totally amazing. He was a speaker for a break-out session (as was Kobi, but they were at the same time and I have already seen/heard Kobi's spiel), and I attended it. You should immediately open a tab and check out invisiblechildren.com. WOW.
Lisa: I kept seeing this girl who looked way too familiar. I had no idea where I knew her from but she had a very Jewish look about her. Also, she was hanging out with the kids from Brandeis so it was high probability that I knew her from some Jewish past life. Turns out we went on the NFTY (North American Federation of Temple Youth) Israel summer trip at the same time, and her group often did activities with my group. It was pretty cool to connect with her.
Emma's Revolution: A fantastic music group. Their music is folky, rocky, and all-around awesome. You know those salaam, shalom, peace shirts? OK, maybe not. It's a shirt that says peace in Arabic, Hebrew, and English. It was their idea. They are great. I got a chance to chat with both of them after the conference in the exhibition hall (I was there first and foremost as a representative of J Street U). The Emma in question is Emma Goldman. They live in DC when not touring, and want to meet up for coffee at some point. Check them out at emmasrevolution.com
Ed: My first "friend" at the conference. He noticed my tzitzit, commented on them, and proceeded to tell his life story. He is from Rochester. He was there to support his daughter. She started an SPA chapter at her high school, and brought three friends to the conference. He chaperoned. Poor guy dealing with four teenage girls who were not all his own! He was really sweet. Kept referring to Reform Judaism as reformed. He showed me pics his wife sent from their Purim celebration back home. It was very sweet. We chatted multiple times throughout the conference, pretty much whenever he didn't have his hands full.
Andrew: Probably the best connection that I made. He is the executive director of the Harry Potter Alliance. They use the allegories of Harry Potter to help to create social change in the world. It's been around for less than three years, and he has over 100,000 people around the world who have volunteered under the banner of the HP alliance. He sees Harry Potter as just the beginning; he wants to mobilize many fandoms in a fight for a social change. I attended a session by him on using new social media for organizing. YouTube and related is absolutely the future of activisms. We are so behind the times! It is some good stuff. He currently has a minor obsession with Buffy. We exchanged reading lists. This looks to be the beginning of a beautiful relationship. Check out the HP alliance at thehpalliance.com
Michael: I attended a session about letters to the editor and Op-Eds. The presenter was OK. Michael was fantastic. He has ghost-written Op-Eds for various Middle-Eastern and Asian heads of state. He currently is the communications director for a congressman. He knows his stuff. He gave me his card saying that he would be happy to send me the tips he gives to his students, or to read over any Op-Ed or letter to the editor that I write so as to give suggestions.
Echo: She was another interesting thing about the van ride from the airport. She has been in grad school for a long time. It's been long enough that her beginning credits are going to start expiring next year. By grad school, I mean seminary for Jews for Jesus. She was trying to shovel the concept of a "Department of Peace" down my throat. This was my first impression of SPA folks, and I thought, 'My goodness, What have I gotten into?!' It does turn out that SPA's long-term goal is the creation of a Department of Peace at the federal level. But they are not as pushy about it as she is. Also, they wait until they know you approve before pushing the Department of Peace concept. By the time the SPA actually mentioned it, I was ready for it and could believe in it.
Delta: They lost my bag. It got left at Atlanta with my connecting flight. I filed a claim when I got to Austin, but it took them three days (!) to get it to me. It is not fully resolved yet, as they said they would give me $50 off my next Delta flight. I would rather they just refunded me the check-in fee.
Victor: I am only including him because I was amazed that I encountered three members of the International Phonetic Alphabet (Alpha, Bravo, Charlie, Delta, etc), namely Delta, Echo, and Victor. He was also in the van to the hotel. I guess he just came along for the ride or as company. He said nothing the whole drive. Near the end, Echo asked if this was my first time in Texas, and I answered in the affirmative. She then said, "Well Victor is from San Antonio." He responded, "Welcome to Texas." And that was it.
Hotel Lady: I came into the Hotel on Saturday night. The woman at the desk looked at me and said, "This blue bag behind the desk belongs to you." I looked at her dumbly. How did she know!? She responded to my slack-jawed look, "I'm psychic. No, really you are just wearing your name tag from the conference." I took my bag to my room, tried to get in. The key did not work. I came back to the desk and she said, "Your key doesn't work." It was not a question. She knew her stuff. As I was standing there, she said to another fellow, "Who's wedding was it?" He gave her a familiar dumb look. She said, "You are wearing a pin that identifies you as best man." She explained that her uncle is a police officer and it rubbed off on her.
Southwestern University: A small liberal arts college founded in 1864 (?). They have a lot more money than Hampshire. It gives me hope for what Hampshire might look like once it has money to improve facilities. They have a fireplace. Something that I have said Hampshire direly needs. Also, they have Sodexho for dining services. Like we do. Except they are a Level 4 facility (I don't know what that means); their dining commons were so much more tasty than ours, though with less selection especially as far as veg and vegan options go. Apparently hipster-ism has found its way to middle-of-nowhere Texas as well. While I actually saw a tiny number of students (they disappear for the weekend), I saw plenty of fixed gear bikes. Related to being in the middle of nowhere, when I was speaking with Aaron before the conference, he said that it was taking place near Austin. I suppose it was "near" in Texas terms. It was a full hour from the airport.
The Meeting: Aaron's vision was/is to have collaboration between a whole bunch of peace/nonviolence groups. He organized a meeting of organizations. The real alliance behind the Student Peace Alliance. This was the first such meeting of its kind. It lasted from 4:30 in the afternoon until about midnight. But it was not painfully long, boring, or slow. Really it was so good. And powerful. There was such energy in the air. I will bring it back to J Street U, and I fervently hope that we will band together with the group. Aaron aimed high, and I think we met his hopes and ran with them.
That was pretty much the conference for me in a nutshell. I got so much more out of it than expected. I still have not heard from DM to know whether I am supposed to start today....
Saturday, February 27, 2010
To Austin?
And so it begins...
Tuesday, February 23, 2010
The story so far
campus for the Spring semester. This could mean study abroad, exchange,
or field study. I had been considering Semester at Sea, but decided it
was not for me. I looked at a number of study abroad sites, and none of
them really clicked. I started investigating internship opportunities
domestically (that's the field study option).
I asked CJ and CR if they knew of any labs or related that would not
mind a student intern. I was basically offering myself as free labor
(OK, so they had to pay me in experience/knowledge, but otherwise free)
in the hopes that I could find some sort of experiential learning
opportunity. CJ asked me to continue to pester him, to make sure he
would give me some information. He gave me three names of friends of
his with labs at the National Institutes of Health (NIH). I sent them
all cover letters and resumes, and the one whom CJ had thought least
likely emailed back to say, "Yes, I think we can arrange an internship.
I will get back to you next week. Give my best to CJ." This of course
is DM. My request was on 10/9/2010 (non-European dating, as in
October). The response was on 10/30. This should have set a precedent
in my mind. 20 days to respond.
Now, I was particularly excited about the prospect of working in a lab.
I had other choices of things to do for the Spring, but I decided that
working at the National Cancer Institute under DM would be really cool.
As I have said since the start of my Division II (major), "How can one
learn to communicate science, without knowing the science." I was going
to get a chance to know the science first-hand.
I paid attention to all of the deadlines for school. I filled out all
of my paperwork. I had to get JM's signature as he is my chair. He
basically thinks that I am off and doing things and learning, etc. so he
does not much care what he is signing for me. He is very happy to help
out in a bureaucratic way, but he also does not think we have to meet so
often if I am just going to ask him to sign things.
Hampshire has a January term. You take one class for three weeks in
January, meeting everyday. It is about equivalent to taking a class
over a semester (except that it is physically impossible to do the same
amount of reading in one month as a person might in four). I decided
that if I do not get this internship with DM, I would take "Gene
Cloning" over January term. I would get extensive "wet" lab experience
doing interesting molecular things. I asked CR if he thought that I
should take Gene Cloning (he teaches it) even if I end up with this
internship. He tried his best to talk me out of it without explicitly
saying, "Don't do it." Fine. I taught myself Cell Biology instead
(Alright, I am still continuing to teach myself Cell Biology almost two
months later).
Every few weeks, I would email DM and ask for more details. It was as
though he was enjoying tantalizing me; releasing just the tiniest morsel
of information at a time. He would say things like, "I have a meeting
on Thursday to work out details. I'll let you know." And then, he
wouldn't. Also, he never responded in less than five business days. It
became the end of the Fall semester (beginning of December), and I still
did not know if he wanted me there at the beginning of January. I had
already told school that they could have my room for the Spring, but I
did not yet know whether I would be there for January. I asked CJ what
chapters I should try to learn for Cell Biology. He told me to do most
of the non-molecular stuff. I wrote down which chapters he suggested.
DM said that I would start on Feb 1, but that he is still trying to work
it out. That's a relief. Parents can stop bugging me. I can look for
an apartment. I can even commit to scheduling things for January!
January was awesome. In addition to Cell Bio, I tried to learn some
linguistics as well, but that will have to be a whole different blog. I
really enjoyed the
learning-at-your-own-pace-with-no-external-responsibilities things. It
was pretty pleasant. I did have a job for Fall and theoretically
January (teaching Religious School at a local synagogue). But the
kids/parents could not get their acts together. So really I made my own
schedule and did what I wanted when I wanted. I even learned some Cell Bio.
I used roommates.com and craigslist to try and find potential
roommates/landlords. I found a few options, and in the middle of
January I went down to meet them, tour apartments, etc. I liked JK the
most, and I liked his condo the most. Not difficult. I also met with
DM for the first time to get to know him, ask questions in person
(rather than waiting for five days for a response), and actually hear
what the project was about. I barely understood what he was saying (if
I had not been studying Cell Bio, I really would not have understood).
Basically, all that molecular stuff that CJ said I would not need, I
needed. Badly.
I debriefed with CJ. He told me stories from the old days about DM. In
grad school, apparently DM had two girlfriends. One who knew about
both, one who didn't. It was a really nice conversation. I also had a
really nice chat with CR. It was the first time that I was really
chatting with him outside the bounds of the teacher-student setup. I
know that at Hampshire students are supposed to be like peers with the
faculty. That's why we call everyone by first name. Blah, blah, blah.
It is really hard to do that in practice. I am sorry to my faculty
members that may have felt otherwise. For me however, it is only now
(speaking for the end of January, beginning of February) that I am able
to appreciate faculty as peers. My bad. Sorry.
Somewhere in there, DM said that it would be the middle of February.
Then somewhere in there, he said the end of February or beginning of
March. Grr.
I took things into my own hands. I told JK that I would be moving in on
2/22. It worked. I did that.
Thanks for bearing with me. I should really write as it happens.
Unfortunately this blog was a late idea in the whole process. I promise
shorter posts in the future.