Inside Cancer
Finding Cancer: Can you hear the light?
Apr 4th
Finding cancers early allows for more effective treatment with the least side effects, so finding better ways to detect cancers is an important part of the fight. A new technique may help us “hear” where cancers are, allowing doctors to diagnose cancers more precisely than is currently possible. The technique, which is called photoacoustic tomography, takes pictures of sound waves that come from tissues when laser light is shined on the tissue. This is possible because different parts of the body absorb different amounts of light. When light is absorbed, it raises the temperature of the tissue, and the temperature More >
Future Nobel Prize-winning cancer researchers?
Mar 19th
What did you do for your science fair this year? Or last year? Or 20 years ago?
Recently three high school students took out top honors in science fairs for their projects involving cancer research:
- Angela Zhang from California developed nanotechnology to destroy cancer stem cells and win the 2011 Siemens Competition in Math, Science & Technology;
- Shree Bose from Texas discovered a protein that could help prevent resistance to chemotherapy to take out first prize in the first International Google Science Fair; and
- Michigan native Nithin Tumma won the 2012 Intel Science Talent Search with his investigation of molecular pathways to compare breast cancer More >
Exhausting Our Lungs
Mar 7th
I have often wondered what impact the diesel fumes from yellow school buses might have on students. I know that I don’t like driving behind those buses because the fumes don’t smell good, so it seemed to me that there might be some health consequences. Others have wondered, too, and there is evidence that exhaust levels in buses can have health effects. However, it is hard to study this sort of thing, because finding people that are exposed to high levels of diesel in a controlled environment over long enough periods to measure the effects is challenging. Now, a study More >
What do you get when you cross an immunologist, a nanotechnologist, and a geneticist? A DNA nano-robot!
Feb 17th
Welcome to the world of nanobiotechnology and translational research…
In a brilliant example of multidisciplinary research, Harvard Medical School’s Shawn Douglas, Ido Bachelet, and George Church combined forces to build nanostructures that would mimic the body’s immune system to recognize cancer cells and trick them into self-destructing. Their research is published today in Science but the discovery didn’t just happen overnight. It’s the culmination of several key discoveries going back several years, by researchers around the globe.
In 2006, Paul Rothemund at the California Institute of Technology, discovered “DNA origami,” where the Watson-Crick base-pairing rules are exploited to create molecules from viral DNA More >
Tumor Treatment: Whether to Shrink or Not to Shrink
Feb 6th
Just like normal tissue, tumors need blood vessels to grow. Because of this, drugs that stop angiogenesis, or the formation of new blood vessels, are one important approach to treating cancers. These angiogenesis inhibitors stop tumor growth by starving them of oxygen and nutrients, usually by interfering with signals from the tumor cells that promote blood vessel formation in the surrounding tissue. Angiogenesis inhibitors have been shown to be effective in the treatment of several cancer types, but the results aren’t always as expected. Several recent studies show how complicated this can be. For instance, FDA approval of the drug More >
Mapping the migratory patterns of……brain cancer cells?
Jan 18th
We’ve all watched fascinating David Attenborough documentaries about the migratory patterns of birds, sub-Saharan animals and butterflies, but cancer cells? Yes, cancer cells migrate too. More specifically, brain cancer cells.
Researchers have known for a while that not only are glioblastoma multiforme cells highly resistant to chemotherapy, but they can also deftly migrate away from sites of radiation or surgery, setting up camp and regrowing in other parts of the brain. This means that brain cancer is notoriously difficult to treat and the prognosis is almost always grim.
Last year the New York Times described Hanahan and Weinberg’s Hallmarks of Cancer as follows:
“Through a More >
Evaluating our DNALC Inside Cancer website
Dec 22nd
Every multimedia developer is from time‐to‐time faced with the difficult question from a board member, critic or funding body: “This program is all very nice, but can you prove it actually helps students to learn?”
This year, we found the answer.
As part of my job as a producer at the DNA Learning Center, I evaluate our suite of resources, including websites, teacher training workshops and apps. We recently completed the evaluation of our cancer biology website, Inside Cancer, which included conducting experiments in 2010–11 to see if the site improves student learning in genetics and cancer biology.
There is increasing pressure on More >
Cancer Overtreatment. When the solution is worse than the problem.
Dec 13th
We often focus on cancers that are lethal, and especially those that can’t be treated, and for obvious reasons. This week, the National Institutes of Health addressed a different concern- that sometimes a cancer that isn’t life threatening is best left alone. In this case, it is prostate cancer, which affects about 30 to 40 percent of men over 50. About 240,000 men are diagnosed with prostate cancer a year, and over 30,000 die of the disease – so it is far from being rare or harmless for many. However, over half of prostate cancers are localized and many will More >
Harnessing the power of bioinformatics in cancer research
Nov 22nd
One of the biggest challenges facing cancer researchers is that the disease varies so much from person to person. Even the same type of cancer – lung, brain, breast, colon, and so on – can be subtly different. This means that a therapy that works well in one patient may have no effect in another.
So researchers in the UK brought in the big guns – bioinformatics.
Cancer Research UK has set up seven British centers to start collecting 9,000 tumor samples from a wide range of cancer patients to create a DNA database. Researchers will extract DNA from these tumors and More >


