How Scientifically Accurate Is Watchmen?

A science consultant to the film explains some of its mysteries

By Katherine Harmon 

The anticipated film  <http://watchmenmovie.warnerbros.com/> Watchmen, based
on the 1980s DC Comics 12-part comic book series (later adapted as a graphic
novel), hits theaters tomorrow. Die-hard fans of the original publication
may fret over its faithfulness to the series, but studio execs also worried
about their movie's faithfulness to
<http://www.sciam.com/report.cfm?id=science-movies>  science. To set their
minds at ease, they placed a call to Jim Kakalios
<http://www.physics.umn.edu/people/kakalios.html> , a physics professor at
the University of Minnesota. 

Kakalios, 50, began advising the film's makers in the summer of 2007 on
everything from the quantum mechanics of Dr. Manhattan (one of the
superheroes of the story) down to the details in the laboratories. "They
wanted to know what was around the corner at the end of the long corridor,
even if the audience wasn't going to see it," he says.

So why is Dr. Manhattan blue? He might just be leaking
<http://www.sciam.com/article.cfm?id=how-are-elements-broken-d>  electrons,
Kakalios explains. In a previous accident, the character had destroyed his
"intrinsic field" (a made-up concept), which presumably stripped him of the
fundamental <http://www.sciam.com/article.cfm?id=what-is-a-fictitious-force>
forces—electromagnetic, strong force, weak force—other than gravity, that
hold material together. Some avid readers of the book wrote to Kakalios
expressing concern after seeing a trailer that included an "intrinsic field
generator," which, they felt, was clearly meant to be an intrinsic field
remover.

Not to worry, Kakalios says: in the same way that sound waves can be
canceled by running other waves out of synch with them, one could destroy
intrinsic fields by canceling
<http://www.sciam.com/article.cfm?id=a-do-it-yourself-quantum-eraser>  them
out with others. (Kakalios cautioned the filmmakers, however, that
generating those fields would take a ton of energy, so it would be wise to
include a particle accelerator of some sort in the lab.)

Dr. Manhattan's life-altering accident, like so many others in comic book
history, has given him special quantum powers, such as (drum roll)…
teleportation
<http://www.sciam.com/article.cfm?id=why-teleporting-is-nothing-like-star-tr
ek> !

"Teleportation isn't real," Kakalios concedes. "But quantum mechanical
tunneling is." In quantum
<http://www.sciam.com/article.cfm?id=escape-from-the-nucleus-i>  tunneling,
which scientists have known about for some 80 years, a particle passes
through a barrier that classical mechanical physics says it shouldn't be
able to. By that point, he says, "you're dealing with real science that is
just as fantastic as anything in the comic book."

Kakalios was also happy to correct something that Hollywood always gets
wrong: the ever-prominent A Beautiful Mind–style blackboard. In the movies,
he says, these chalkboards are always filled with the most complex, but
unrelated equations—Schrödinger's right next to Heisenberg's—probably chosen
by an art director. But in real life, he says, it's only going to be one
(not-so-famous) problem, along with notes to remind oneself to pick up the
kids from, say, swim Lessons (or in Schrödinger's case, to let his cat out
of that box).

Not many physics professors get a phone call from the National Academy of
Sciences in Washington, D.C., asking them to help out on a new Warner Bros.
Entertainment superhero movie. But then again, not many of them are Jim
Kakalios. By day, he studies nanotechnology
<http://www.sciam.com/topic.cfm?id=nanotechnology> , but explaining science
is his passion—and he's found that superheroes are just the right tool.
(He's even written a book called  <http://www.physicsofsuperheroes.com/> The
Physics of Superheroes and teaches a course on the subject.) "I can use this
in some kind of sneaky ninja fashion to teach…real science," he says.

Kakalios notes that scientific incongruities in movies don't actually bother
him that much: "I don't go to these movies with a pad of paper and a
calculator." But he delights in finding snippets of accuracy in films, which
to him, "is like finding an inside joke." In Iron Man, for instance, he
noticed that star Robert Downey, Jr.'s character, Tony Stark, constructed
the superhuman
<http://www.sciam.com/article.cfm?id=real-life-iron-man-exoskeleton>  Iron
Man suit using the same type of soldering iron Kakalios has in his lab—and
correctly!

But he's not too concerned about the central aspects of Watchmen that can't
fully be reconciled with real science, such as Dr. Manhattan's ability to be
in two places simultaneously. In superhero
<http://www.sciam.com/article.cfm?id=dark-knight-shift-why-bat>  movies,
after all, he says, "You're asking the audience to buy something that's
intrinsically ridiculous." 

Still, he thinks it's a good chance to tap into a new market of minds. "The
audience for this material…, [they] are also, in general, fans of real
science," he says. At the end of the day, a nerd is a nerd, Kakalios admits
comfortably, because he is also a comic
<http://www.sciam.com/article.cfm?id=comic-books-from-the-atomic-age>  book
aficionado: "Geeks are people who get turned on by ideas" whether that's
about spider powers or quantum mechanics.

And superheroes use a lot of the same brainpower and creativity as
scientists do, Kakalios adds: "In the lab we're always doing creative
problem solving, but usually with much less dire consequences."

Here's a video of Jim <http://www.youtube.com/watch?v=zmj1rpzDRZ0>  Kakalios
explaining more about the science in Watchmen.

http://www.sciam.com/article.cfm?id=how-accurate-is-watchmen

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