Rooting for Your Ancestors Doesn’t Make You Racist

A group of people waving flags in a World Cup theme.
Editor's Note: This op/ed is in response to our Big Question of the month: "Should shared genetics play any role in encouraging sports fans to root for a certain team?"
A soccer fan can usually explain why he chose to love his team, but there is seldom any logic to it.
If it takes a mail-order DNA test to get you into the game, then swab your cheek and join the party.
Maybe he likes the colors, or maybe his mom grew up in the city where the team plays. Maybe a certain elegant Dutchman (Marc Overmars) played for a certain London club (Arsenal) during the most impressionable years (the late '90s, roughly) in the life of a young person (me), and that poor child continued to follow that poor club decade after losing decade, even though he lived in Florida, where games were only sometimes shown on TV and he missed most of them anyway, and, besides, this was long after the Dutchman had ceased being an employee of that club to which the young Floridian had absolutely no spiritual or economic connection.
I digress.
Maybe the fan simply picked the most dominant team at the moment he discovered the sport, thereby choosing Manchester United, which is just another way of saying he gets off on the suffering of others. Or maybe he took a mail-order DNA test, found out he was 1/12 French, and decided it would be Les Bleus or bust this summer at the World Cup.
A company called 23andMe hopes that millions of American fans, casting about for a team to support since their own failed to qualify for the World Cup, will take that last path. The TV spots hawking the service are already blanketing Fox Sports. And while I happen to think that soccer is a highly interesting sport for lots of better reasons, my position is that if it takes a mail-order DNA test to get you into the game, then swab your cheek and join the party.
The point is, soccer is an exercise in the arbitrary. Your favorite player will probably miss the goal. The referee will probably make the wrong call. Your team will probably lose. You will probably get angry and then you will get sad and then, next week, you'll start the cycle again, over and over, ultimately infecting your offspring with the same illogical obsession so that you'll have someone else to be miserable with.
Choose misery with a chance of joy, I say. Choose empathy and random connection.
Maybe, because of a DNA test, you'll choose to care about the national soccer team of Egypt or Colombia or South Korea. The best that can happen is that you might plug in with a group of people who live far away in Egypt or Colombia or South Korea. You might, for a moment, share in their suffering and delight in their triumphs. You might empathize with strangers for no other reason than the fact that your great great great great great great great great great great grandmother was born in a crude hovel somewhere in the Nile Delta.
Whoa! Cool! That's the splendor of soccer… and advances in our understanding of the human genome, I suppose.
A leading bioethicist has suggested that 23andMe's campaign could inflame racial animosity, but that seems unlikely to me, because if we could alter the allegiances and behavioral patterns of actual soccer hooligans—for better or worse—by appealing to science and reason, they would already be extinct. No, the worst that could happen is that you'll waste a few hours of your life screaming at a TV show featuring two groups of men who are being paid millions of dollars to determine who is more proficient at placing a small orb between two sticks.
Choose misery with a chance of joy, I say. Choose empathy and random connection. Choose Iceland, even though it's unlikely you have any Icelandic ancestors, because it's the smallest country ever to qualify for the World Cup and what did Iceland ever do to you? Just don't choose Germany—they don't need your help.
[Ed. Note: To read the counter viewpoint, click here. Then visit leapsmag on social media to share your opinion: Who wins this debate?]
A new type of cancer therapy is shrinking deadly brain tumors with just one treatment
MRI scans after a new kind of immunotherapy for brain cancer show remarkable progress in one patient just days after the first treatment.
Few cancers are deadlier than glioblastomas—aggressive and lethal tumors that originate in the brain or spinal cord. Five years after diagnosis, less than five percent of glioblastoma patients are still alive—and more often, glioblastoma patients live just 14 months on average after receiving a diagnosis.
But an ongoing clinical trial at Mass General Cancer Center is giving new hope to glioblastoma patients and their families. The trial, called INCIPIENT, is meant to evaluate the effects of a special type of immune cell, called CAR-T cells, on patients with recurrent glioblastoma.
How CAR-T cell therapy works
CAR-T cell therapy is a type of cancer treatment called immunotherapy, where doctors modify a patient’s own immune system specifically to find and destroy cancer cells. In CAR-T cell therapy, doctors extract the patient’s T-cells, which are immune system cells that help fight off disease—particularly cancer. These T-cells are harvested from the patient and then genetically modified in a lab to produce proteins on their surface called chimeric antigen receptors (thus becoming CAR-T cells), which makes them able to bind to a specific protein on the patient’s cancer cells. Once modified, these CAR-T cells are grown in the lab for several weeks so that they can multiply into an army of millions. When enough cells have been grown, these super-charged T-cells are infused back into the patient where they can then seek out cancer cells, bind to them, and destroy them. CAR-T cell therapies have been approved by the US Food and Drug Administration (FDA) to treat certain types of lymphomas and leukemias, as well as multiple myeloma, but haven’t been approved to treat glioblastomas—yet.
CAR-T cell therapies don’t always work against solid tumors, such as glioblastomas. Because solid tumors contain different kinds of cancer cells, some cells can evade the immune system’s detection even after CAR-T cell therapy, according to a press release from Massachusetts General Hospital. For the INCIPIENT trial, researchers modified the CAR-T cells even further in hopes of making them more effective against solid tumors. These second-generation CAR-T cells (called CARv3-TEAM-E T cells) contain special antibodies that attack EFGR, a protein expressed in the majority of glioblastoma tumors. Unlike other CAR-T cell therapies, these particular CAR-T cells were designed to be directly injected into the patient’s brain.
The INCIPIENT trial results
The INCIPIENT trial involved three patients who were enrolled in the study between March and July 2023. All three patients—a 72-year-old man, a 74-year-old man, and a 57-year-old woman—were treated with chemo and radiation and enrolled in the trial with CAR-T cells after their glioblastoma tumors came back.
The results, which were published earlier this year in the New England Journal of Medicine (NEJM), were called “rapid” and “dramatic” by doctors involved in the trial. After just a single infusion of the CAR-T cells, each patient experienced a significant reduction in their tumor sizes. Just two days after receiving the infusion, the glioblastoma tumor of the 72-year-old man decreased by nearly twenty percent. Just two months later the tumor had shrunk by an astonishing 60 percent, and the change was maintained for more than six months. The most dramatic result was in the 57-year-old female patient, whose tumor shrank nearly completely after just one infusion of the CAR-T cells.
The results of the INCIPIENT trial were unexpected and astonishing—but unfortunately, they were also temporary. For all three patients, the tumors eventually began to grow back regardless of the CAR-T cell infusions. According to the press release from MGH, the medical team is now considering treating each patient with multiple infusions or prefacing each treatment with chemotherapy to prolong the response.
While there is still “more to do,” says co-author of the study neuro-oncologist Dr. Elizabeth Gerstner, the results are still promising. If nothing else, these second-generation CAR-T cell infusions may someday be able to give patients more time than traditional treatments would allow.
“These results are exciting but they are also just the beginning,” says Dr. Marcela Maus, a doctor and professor of medicine at Mass General who was involved in the clinical trial. “They tell us that we are on the right track in pursuing a therapy that has the potential to change the outlook for this intractable disease.”
A recent study in The Lancet Oncology showed that AI found 20 percent more cancers on mammogram screens than radiologists alone.
Since the early 2000s, AI systems have eliminated more than 1.7 million jobs, and that number will only increase as AI improves. Some research estimates that by 2025, AI will eliminate more than 85 million jobs.
But for all the talk about job security, AI is also proving to be a powerful tool in healthcare—specifically, cancer detection. One recently published study has shown that, remarkably, artificial intelligence was able to detect 20 percent more cancers in imaging scans than radiologists alone.
Published in The Lancet Oncology, the study analyzed the scans of 80,000 Swedish women with a moderate hereditary risk of breast cancer who had undergone a mammogram between April 2021 and July 2022. Half of these scans were read by AI and then a radiologist to double-check the findings. The second group of scans was read by two researchers without the help of AI. (Currently, the standard of care across Europe is to have two radiologists analyze a scan before diagnosing a patient with breast cancer.)
The study showed that the AI group detected cancer in 6 out of every 1,000 scans, while the radiologists detected cancer in 5 per 1,000 scans. In other words, AI found 20 percent more cancers than the highly-trained radiologists.
Scientists have been using MRI images (like the ones pictured here) to train artificial intelligence to detect cancers earlier and with more accuracy. Here, MIT's AI system, MIRAI, looks for patterns in a patient's mammograms to detect breast cancer earlier than ever before. news.mit.edu
But even though the AI was better able to pinpoint cancer on an image, it doesn’t mean radiologists will soon be out of a job. Dr. Laura Heacock, a breast radiologist at NYU, said in an interview with CNN that radiologists do much more than simply screening mammograms, and that even well-trained technology can make errors. “These tools work best when paired with highly-trained radiologists who make the final call on your mammogram. Think of it as a tool like a stethoscope for a cardiologist.”
AI is still an emerging technology, but more and more doctors are using them to detect different cancers. For example, researchers at MIT have developed a program called MIRAI, which looks at patterns in patient mammograms across a series of scans and uses an algorithm to model a patient's risk of developing breast cancer over time. The program was "trained" with more than 200,000 breast imaging scans from Massachusetts General Hospital and has been tested on over 100,000 women in different hospitals across the world. According to MIT, MIRAI "has been shown to be more accurate in predicting the risk for developing breast cancer in the short term (over a 3-year period) compared to traditional tools." It has also been able to detect breast cancer up to five years before a patient receives a diagnosis.
The challenges for cancer-detecting AI tools now is not just accuracy. AI tools are also being challenged to perform consistently well across different ages, races, and breast density profiles, particularly given the increased risks that different women face. For example, Black women are 42 percent more likely than white women to die from breast cancer, despite having nearly the same rates of breast cancer as white women. Recently, an FDA-approved AI device for screening breast cancer has come under fire for wrongly detecting cancer in Black patients significantly more often than white patients.
As AI technology improves, radiologists will be able to accurately scan a more diverse set of patients at a larger volume than ever before, potentially saving more lives than ever.