This post is written by guest blogger, Peter Kritsch MS, Adjunct Instructor BTC Institute.
When I was in the middle of my junior year in high school, my family moved. We had lived in the first state for 12 years. I had gone to school there since kindergarten. Although it wasn’t a small district, I knew everybody and, for better or worse, everybody knew me. Often the first reaction I get when I tell people when we moved is that it must have been hard to move so close to graduation. The reality is . . . it really wasn’t. In fact, it was quite liberating. See, I didn’t have to live up to anybody else’s expectations of who I was based on some shared experience in 2nd grade. I had the opportunity to be who I wanted to be, to try new things without feeling like I couldn’t because that wasn’t who I was supposed to be.
As long as I refrained from beginning too many sentences with “Well at my old school . . . “ people had to accept me for who I was in that moment, not for who they perceived me to be for the previous 12 years. Now, the new activities were not radically different. I still played baseball and still geeked out taking AP science classes, but I picked up new activities like golf, playing basketball with my friends, and even joined the yearbook. I know . . . “radically different.” The point is that the new situation allowed me to try something new without worrying about what had always been.
The pandemic has forced a lot of us to move our classrooms online. In a short period of time, everything changed about how education was done. Our prior teaching experience, including the experience I had with doing blended learning (ooops . . . “back at my old school”), was helpful to a point. But we quickly found out that being completely virtual was different. And as science teachers, how do you do more than just teach concepts when online? How do you help students to continue engaging in the crucial parts of science – observing, questioning, designing, analyzing, and communicating?
Screen Media. Cell phones. Social media accounts. If you are a parent, you have probably discussed rules of engagement with your children about these things. All of our modern social media platforms are designed to keep us engaged with them by showing us the latest post, the next video or the people now online. Work emails give us notifications when something arrives in our Inbox. Business software platforms like Microsoft Teams send us notifications whenever someone comments in a conversation we have ever been part of. There are many siren signals pulling us toward our screens.
Enter COVID-19, the flu-like illness caused by the SARS-CoV-2 virus that has already claimed the lives of 210,000 people in the United States, and leaving countless others permanently affected by other long-term health consequences. Spread by aerosol, COVID-19 is most dangerous in places where lots of people congregate in a small area, particularly if they are talking to each other. Consequently, office buildings are empty as many of us work or go to school remotely.
Before COVID-19, if I had a day full of meetings at work, I was running from conference room to conference room, two miles, uphill, in the snow between buildings. Now, a day full of meetings means sitting in front of a computer monitor, trying to figure out how I will get any kind of break between calls. The average number of steps recorded by my pedometer has decreased markedly since March when our remote work started.
Technology has been an incredible blessing during this pandemic—allowing us to continue to work and stay connected with friends and family. Technology is the only way that some people can connect with loved ones in long-term care facilities. It allows students to continue learning through remote classrooms and chats.
But what has been the effect of the increased time spent on screens during this pandemic?
Today’s post is written by guest blogger, Elizabeth Smith, PhD, Field Client Support Specialist at Promega
As a person of color (POC), I would like to share my story to raise awareness on how important diversity programs are in my community and how they helped to shape my career. My hope is that it will inspire the younger generation and provide insight into a different perspective. Growing up, I always felt like there was something great out there for me to achieve. As a young child, never did I imagine that I would have what it takes to obtain a PhD. This was not on my radar as a young student, and not something that I thought would ever be in my future. I did not see people that looked like me reflected in this space, so I never considered it early on.
I knew that I wanted to go to college with a science focus, but I did not really explore what life would look like or should look like after that. What I was sure of was being involved in science in some way. Whenever, someone asked my younger self, “What do you want to be when you grow up?” My answer would always be, “A Scientist!” All throughout elementary and high school, I focused on science related courses and did very well. This enabled me to apply for and receive a full undergraduate scholarship.
At this level of my education, I felt like I had to prove to everyone, and even myself, that I belonged here. That I was deserving of this scholarship and placement at the university. That I was good enough to receive a bachelors.
Today’s blog is written by guest blogger, Isobel Utschig, a science teacher at Dominican High School in Whitefish Bay, WI. We bring this to you in celebration of #TeacherAppreciationWeek2020
About 10 years ago, I attended a field trip at the Biopharmaceutical Technology Center Institute with my AP Biology classmates. I felt apprehensive upon seeing the micropipettes and other “foreign” lab supplies on the benchtops. We learned that we would be using enzymes to cut DNA and visualize those different fragments on a gel. I marveled at the glowing streaks and found it incredible that I was looking (albeit indirectly) at real pieces of DNA. As we moved into the genetic transformation activity I was even more intrigued. We opened the tubes of bacteria and added some luciferase DNA, which would allow the bacteria to create a light-producing protein. We then “heat shocked” the bacteria to coax them to take up these plasmids from their environment looking at the bacteria later, their glow revealed our success. The day flew by and at the end I marveled at all that we had done!
Three years later I joined a research lab at Marquette University. Upon seeing the lab benches full of unfamiliar equipment, the same wave of apprehension came over me. My PI introduced me to the first task: digest a plasmid with restriction enzymes and verify the cut with gel electrophoresis. Memories of the high school field trip flooded my mind as I gripped a micropipette and attempted to nimbly load the wells. While I greatly improved in my skills over the course of the summer, the familiarity I had from my trip to the BTC Institute put me at ease from the beginning.
Today’s blog is brought to us by and alumus of Dane County Youth Apprenticeship Program, Aidan Holmes.
In this blog I have the opportunity to write about how my experiences at the BTC Institute as a high school student were instrumental in leading me to my passion for science education, my Peace Corps experience, and my current role as a biotechnology instructor for the very same institute.
I became familiar with the BTC Institute as a student at Marshall High School when our biology teacher organized a biotechnology field trip for us. I loved learning about DNA and biotechnology since 7th grade so attending a field trip like this was an incredible opportunity to engage in hands-on biotechnology. When I learned about the Youth Apprenticeship Program in Biotechnology I knew I had to apply and enrolled during my senior year of high school. Through the program I took a weekly class at the BTC Institute and I worked as a student researcher in a biochemistry lab at UW-Madison. I enrolled for classes at UW-Madison the following year and pursued an undergraduate degree in genetics and a certificate in education and educational services. Continue reading “From BTCI to Africa and Back Again: One Student’s Journey in Science Education”
Embryonic stem cells have the extraordinary ability to divide without limit yet maintain the potential to make all types of cells found in the human body. This holds tremendous implications for the worlds of drug discovery and testing, cell production, and tissue transplantation medicine.
Overall, I’m really glad I decided to go to the talk. I got to learn a lot about stem cells, how they are used in different parts of the body, and some of the difficulties with using stem cells. It was definitely way more enjoyable than anything else I was planning on doing during that time. If there are more opportunities like this that come up, I would definitely try to go to them.
Celebrating the 20th anniversary of Dr. James
Thomson’s breakthrough work with induced pluripotent stem cells, the Wisconsin
Institute for Discovery (WID) hosted a panel of University of Wisconsin stem
cell scientists to discuss the future of their research on November 13th. Entitled “Stem Cell Science: The Next 20
Years” and designed for the general public, the audience heard from Drs. Lynn Allen
Hoffman, David Gamm and
Vereide, who talked about applying stem cell
research to develop clinical applications for skin grafting, vision restoration
and regenerative biology, respectively.
During the week of March 26, 2018, while many students were having fun and relaxing during Spring Break, others were busy doing extra lab work at the BTC Institute. This four-day workshop was designed to provide an introduction to the molecular biology laboratory for students affiliated with the Center for Educational Opportunity (CeO) on the UW Madison campus. As noted on its web site: “CeO promotes access to resources, academic achievement and personal growth for students whose parents have not received a four-year degree, students who meet specific federal family income guidelines, and students with documented disabilities.”
It is well known that first-generation college students, women and students of color persist in STEM fields at lower rates than the general population. This interferes with the creation of a diverse STEM talent pool, in turn needed to ensure diverse problem-solving perspectives.
Further, STEM fields are often seen as being stressful, given their competitive learning environments. This may be especially discouraging for students from racial/ethnic minorities who may not have as many mentors and role models to turn to.
My twin daughters are finishing up their 10th-grade year next month, finding themselves smack in the middle of their high school experience, and discussions of classes, colleges and careers are increasing in frequency in my household. (It’s cliché, but I have to say it… Where does the time go?) As the girls begin to ponder their future, my husband and I are encouraging them to gain real-life insight from adults who work in fields they’re curious about. It’s never too early to get a first-hand perspective.
One of my girls has known from a pretty young age that she wants to pursue something in STEM, and likely the “S” in the acronym. Her schedule happened to be open the night a few months ago that one of my Promega colleagues, Senior R&D Scientist Danette Daniels, was speaking on a panel sponsored by the University of Wisconsin – Madison chapter of Graduate Women in Science. My daughter wasn’t sure about how she’d be received as the only high school student in the room, but she agreed to go with me anyway. Besides, I told her, they’re serving pie.
The six women on the panel represented a huge variety of avenues (academic to industry), specialties (biophysics to geology) and professional styles. During introductions, one panelist declared, “I had a job in a lab and was depressed. When I was stuck in a library all day, I was totally excited.” She now works with an organization to recruit more women into STEM fields. The woman sitting beside her runs a research lab and declared, “I love the bench quite a bit, and I don’t want to be in an office reading!” Continue reading “Inspiring the Next Generation of Scientists”
Scientific inquiry —looking at the world and asking questions about what we observe—is a natural human behavior. Why is the sky blue? What would happen if I did this Mom? Ask any grade school teacher. Kids do science naturally. They are not afraid of questions. They are not afraid of nature. They are not afraid of experiments and data collection.
One other things kids do really well is: fold paper. I never cease to be amazed at the elaborate fortune tellers, hoppers, boats, hats and other creations that my daughter and her friends make at a moment’s notice out of virtually any scrap of paper they can find.
Recently members of the Prakash Lab at Standford University announced the Foldscope: an optical microscope that is printed and folded from a single flat sheet of paper. These microscopes, which can provide magnification of up to 2000X, can be produced for less than $1.00/each. Furthermore these scopes weigh less than 10g (a couple of coins), require no external power source, can be dropped from 3-stories without damage, and can even be stepped on.
These characteristics make the Foldscope ideal for field work, particularly in remote locations where access to power and other resources is difficult. Prakash and colleagues have published their work in a PLOS One paper and have demonstrated many uses for these Foldscopes including high-resolution brightfield microscopy, fluorescence microscopy, and darkfield microscopy. Continue reading “Fold It Up and Discover a Whole New World”
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