The following post about tips on storytelling is the third in a three part series called “Story Notes,” all of which originally appeared on the blog of The Story Collider Co-Founder, Ben Lillie. This entry was a guest post by Erin Barker, Senior Producer for The Story Collider.
How much science should I include in my story? (Scientists Edition)
One of the biggest challenges The Story Collider faces when working with scientist storytellers is how to blend complex science into a compelling narrative that everyone can understand and appreciate. I will admit up front that I have not always had the best ideas in this area. I once asked a neuroscientist to explain his work at a fifth-grade reading level. Suffice to say, I regret this, and will never do so again.
It occurred to me after this conversation that maybe the key isn’t to treat the audience like ten-year-olds. After all, they aren’t dumb — they just aren’t all scientists. They may be experts in other things like tax law or real estate or cake baking or karate chopping, or other important or complex subject areas. They can be perfectly intelligent people who don’t want to be talked down to, just because they don’t happen to have a decade-plus of foundational knowledge in any given scientific field. There must be a better way to communicate with them than by condescending.
Maybe the key instead is to be concise, I thought. By limiting the amount of scientific explanation you include in your story, you could avoid overwhelming the audience without treating them like dummies. A great example of this is a Story Collider story by cognitive neuroscientist David Carmel. In this story (which, naturally, I highly recommend listening to), David struggles with his fascination when his own father suffers a stroke that leaves him believing that the arrangement of his limbs is out of order. (“The bottom two-thirds of my body are gone,” he tells David at one point.) David’s explanation of what’s taking place in his father’s brain, and why it’s so unusual, is succinct — no more than a few lines — and it lasts only about thirty seconds.
There is a representation of the body in the brain. It’s called the homunculus. There are actually several homunculi. There’s one for the sense of touch. There’s one for motion. There’s one for proprioception, the sense of where your limbs are at any given time, so that you can balance properly. And the homunculus is plastic, meaning it can change over time, through experience. For example, the representation of the fingers is larger in pianists. But I’ve never heard of a complete remapping, a complete rearrangement, of the body representation after a stroke.
I’m sure that David, being a cognitive neuroscientist, could have waxed lyrical about what was going on his dad’s brain for hours. But because he kept it to only a few lines — and used really only one or two pieces of jargon — it becomes much easier to digest, and in fact, much more memorable. I have remembered the term homunculus and what it means ever since I first heard this story over two years ago, which is longer than I remembered the names of half of the people I’ve dated.
Sadly, David and I are not the first geniuses to consider this. In his book Don’t Be Such a Scientist: Talking Substance in an Age of Style, science communicator and filmmaker Randy Olson also advises concision.
“Dumbing down” refers to the assumption that your audience is too stupid to understand your topic. So you water down all the information or just remove it, producing a vacuous and uninteresting version of what in reality is complex and fascinating. “Concision” is completely different. It means conveying a great deal of information using the fewest possible steps or words or images or whatever the mode of communication is. The former results in a dull, shallow presentation; the latter is a thing of beauty that can project infinite complexity.
After listening to David’s story, who can argue?
So what can you do to be more concise? Start small. If you could teach someone just one thing about your work, what would it be? What are the facts we absolutely need to know in order to appreciate your story and the stakes at hand? Each time you are including complex scientific information, ask yourself: Does this advance the plot? Does the audience need to know this in order to follow the events taking place? If the answer is no, it’s likely that your story is better off without it.
You may feel naked without it. Suffocating detail can be like a warm, comforting blanket to scientists. It means you have covered all your bases and left no stone unturned – understandable instincts for someone in your line of work. But when it comes to storytelling, if that detail comes at the cost of losing the audience’s attention or overwhelming them, what is it really worth?
Erin Barker is senior producer of The Story Collider and a host of its live show in New York. She is the first woman to win The Moth’s GrandSLAM storytelling competition twice and has appeared in its Mainstage and shows in cities across the country, as well as on its Peabody Award-winning show on PRX, The Moth Radio Hour. One of her stories was included in The Moth’s New York Times-bestselling book, “The Moth: 50 True Stories.”
1 thought on “Story Notes #3 — Use Just Enough Science”
Put even more simply: the crrvatuue is not natural , but caused by huge magnets built into the detectors specifically to cause it. This lets the scientsts figure out the charge of the particle (by the direction of crrvatuue), and the charge/momentum ratio. The charge interacting with the magentic field causes a curving force; the ratio of that force and the particle’s momentum determines the amount of crrvatuue. Since charges other than b11 are very rare, for practical purposes this gives you the momentum of the particle.Although the detector magnets do not have as high a field strength (measured in Tesla) as the main dipole magnets in the accelerator, they are still very strong, and vastly larger, making them the highest-powered magnets in the whole complex by many measures.All 1232 dipoles around the full LHC circumference have a combined stored energy of 11 GJ, when operating at 14 TeV, which won’t actually happen until after the 2013 long shutdown. The CMS solenoid magnet alone has a stored energy of 2.3 GJ, at the strength they’re running it at today. For details, see .The magnets are oriented in such a way that they have minimal effects on particles travelling straight down the middle of the detector, notably the colliding protons themselves. But anything that sprays outward will cross field lines and be bent.