School leaves me with very little free time, but somehow I managed to find just enough of it to pick up a new hobby: woodworking.
It all began over Christmas break. I learned how to use a laser cutter, and before I knew it I was hooked. Drawing from my love for all things science, I started cutting anatomy-related objects out of wood. As it turned out, enough people liked what I was doing and now I have an Etsy store with an entire line of anatomy-themed keychains.
I’m learning a lot more about wood. So far my favorite is this beautiful red wood called padauk. It’s perfect for making anatomical hearts!
And, of course, I had to make some space-related items too.
Most recently, I added some radiology-themed items to the shop.
I love making them. If they make others happy too, great!
One of the unique things about my school is that clinical experience is interwoven into the entire program. My clinical rotation started the second week of the first semester, rather than being introduced later into the program. We started out with two eight-hour days in the radiology department and three inside the classroom. That lasted for two semesters. Now that I’m in my third, we’ve upgraded to three clinical days and only two classroom days. While that means a lot more experience for me, it also means that I’m on my feet a lot more.
There isn’t a lot of down time when you’re juggling outpatients, inpatients, ER patients, and fluoroscopy exams. At the end of the day my feet were less than pleased—specifically my heels. But it wasn’t until my two-week surgery rotation that I realized the shoes I was wearing weren’t cut out for the demands I was putting on them. The pain from my feet started radiated up to my knees and lower back. In surgery, radiographic technologists usually stand in the operating room until the surgeon needs an x-ray. There isn’t always a place to sit, and as a student I usually let the lead tech enjoy that luxury if it’s available.
There were times when I wanted to excuse myself from the OR just to go stretch or sit for a moment, but I didn’t want to miss out on anything important or seem unprofessional. Seriously, if a nurse or a surgeon can stand for the operation, so can I. But they had better shoes! As a student, we have to wear white leather shoes, which really limits our choices when out shopping. Trust me, I would much rather wear my running shoes. So at the end of my surgical rotation I set out to find a new pair of clinical-appropriate shoes.
I had bookmarked these Timberland PRO Women’s Renova Professional Slip-on shoes a while back. The price tag just didn’t meet my student-friendly budget. But I was desperate. I talked with friends and classmates and they all told me that splurging on shoes, especially since I’m on my feet so often, is totally worth it. So I did. And I wish I had done it sooner.
The breaking in process was a little annoying. While my heels didn’t hurt as much after a full day at the hospital, my ankles were sore from the sides of the shoes rubbing against them. This has subsided a lot after a few weeks of wear, but it’s something to consider. I recommend breaking them in at home before taking them out for a full shift. They do squeak a little when I walk, but it’s a small price to pay for comfort. Other than that, I’ve been very happy with my purchase. They’re non-slip, breathable, and easy to clean.
If you’re a healthcare professional in need of a change, I definitely recommend Timberland PROs. Yes, spending $120 on work shoes might seem like a lot of money, but it’s well worth it. Foot health is important, and if you’re a student, you’ve got a lot more long days ahead of you! Be kind to your feet.
Side note: The company didn’t ask me to review the shoes, so all opinions are my own.
Computerized Tomography (CT) is one of the most important developments in diagnostic imaging over the past 50 years. It creates virtual slices that allow doctors to see inside the human body without having to make an incision. Unlike x-ray, CT is able to visualize soft tissues—more importantly, bleeding within those soft tissues. This is critical in trauma cases because CT scans can provide an incredible amount of diagnostic information in an extremely short amount of time. Every second counts when someone’s life is on the line.
But enough with the radiology lesson! Today in my Imaging class I learned a really interesting fact about the history of CT machines: The Beatles actually contributed to its creation. Now The Beatles weren’t actually moonlighting as physicists or engineers, but their crazy success allowed Godfrey Hounsfield to invent the CT scanner.
Hounsfield was a researcher at Electrical and Musical Industries (EMI). You might remember EMI as the record label that signed The Beatles, but in the 1950’s it was actually an industrial research company. Long story short, when the band was signed to the label in 1962, Hounsfield was given permission to conduct independent research with the funding from The Beatles’ insane success. With that funding, he was able to invent the CT scanner, which EMI released in 1972.
What’s even cooler is that Lurie Children’s Hospital here in Chicago has a “Yellow Submarine” themed CT scanner in honor of The Beatles’ contribution. It’s just one of the many fun-themed rooms at the hospital, but it’s certainly a memorable one!
So there you have it. Feel free to share this fun fact with the Beatles fans in your life!
I feel terrible that I haven’t been writing here because I’ve been involved in some really cool things that deserve to be mentioned. School and work have kept my brain so busy that I just haven’t had the energy to write for me. But I’m hoping to change that!
During my spring break, I attended a NASA Social to learn about the first-ever NASA mission to travel to an asteroid, retrieve a sample, and bring the sample back to Earth.
— Jennifer Beese (@bottlethecrazy) April 29, 2016
During the one-day event, I got to see the OSIRIS-REx spacecraft at Lockheed Martin. In addition to that, I got to speak with engineers about the inspiration behind and challenges facing OSIRIS-REx, took a tour of the mission operations center, and got an up close look at Lockheed’s massive asteroid wall.
Why is this mission such a big deal?
Asteroids are composed of leftover debris from the solar system formation. This can teach us about the history of our planets, as well as answer the question: Where did we come from?
OSIRIS-REx will launch in 2016, meet the asteroid in 2018, depart the asteroid in 2021, and return home with samples in 2023. What makes this such an incredible mission is that the spacecraft will only make contact with the asteroid for about five seconds while it gets its samples!
What is OSIRIS-REx?
OSIRIS-REx, or Origins-Spectral Interpretation-Resource Identification-Security-Regolith Explorer, is the first NASA mission to bring samples from an asteroid back to Earth.
— Jennifer Beese (@bottlethecrazy) April 29, 2016
It will launch this Fall, and orbit the sun for a year until finally using Earth’s gravitational field to move it long its path to Bennu. It will spend another year mapping potential sample sites on the asteroid.
A picture of the sample capsule and TAGSAM.
A sampling arm, called TAGSAM, will release a burst of nitrogen gas which will cause rocks and soil to be stirred up and captured by the samples head. After this brief encounter with Bennu’s surface, the sample capsule will separate from the OSIRIS-REx spacecraft and return to Earth. NASA hopes to collect between 60 and 2000 grams of asteroid material.
Where is OSIRIS-REx going?
The OSIRIS-REx spacecraft will travel to the asteroid Bennu. Scientists chose Bennu because of its composition, size, and proximity to our planet. It’s considered a rare or “primitive” asteroid, meaning that it hasn’t changed significantly since it formed nearly 4.5 billion years ago. Because of this, scientists hope to find organic molecules on Bennu like those that led to the origin of life on Earth.
— Jennifer Beese (@bottlethecrazy) April 29, 2016
Admittedly I knew nothing about OSIRIS-REx when I applied for the NASA Social. After attending the Orbital ATK rocket launch (which was sadly scrubbed) in December, I jumped at the chance to attend another event during my break from school. I would have gone to any one of them, but I’m so glad this was the one I ended up at. Learning about this mission and touring Lockheed Martin was such an incredible experience.
And the other attendees made this social one to remember. Everyone was so interesting and I loved hearing about what got them interested in science and space exploration. I really hope to see some of them at the OSIRIS-REx launch in September!
If you’re interested in attending an event like this, check out the list of upcoming NASA Socials and apply.
Our school participated in a Christmas tree decorating contest earlier this month.
A classmate had a brilliant idea for our tree’s theme: bones! We took bones from a skeleton and turned them into ornaments. One of our clinical instructors cut out x-rays, which are a bit difficult to see in this picture, but trust me they’re awesome. And who needs a star when you have a skull?
Needless to say, we won the contest 🙂
Right now we’re learning about infection control at school. Since I spent 40 hours in a hospital each week, I’m trying to absorb every bit of information possible. It’s actually quite fascinating, and I regret never taking microbiology because I think I’d love it.
Anyway, it was perfect timing that an article about early infection detection popped up in my Facebook News Feed today. It appears that scientists have created a prototype wound dressing that’s able to detect the presence of bacteria at a much earlier stage of infection.
The dressing is triggered by a biofilm, a substance created by colonizing bacteria. It’s made up of DNA, proteins, and complex sugars. If detected, the dressing will react with it and turn a bright fluorescent color.
Infection is the most likely reason people wind up back in the hospital following surgery. A wound dressing like this one could certainly help to reduce the number of post-op infections. In testing, the dressing was able to detect the presence of bacteria within four hours from the initial invasion.