future of sports

Does Baseball's Future Lie In These Cold, Robotic Hands?

A robot pitcher faces off against a robot batter

Right now the next baseball great may be warming up, not on a Little League diamond, but in a lab. Researchers at the University of Tokyo have pitted a robotic pitcher against a robotic batter to show that the robots can respond to each other at high speeds.

The pitcher is a three-fingered robot arm that was developed by the University's Graduate School of Information Science and Technology: it can open and close its fingers 10 times a second. This allows for precise pitching that lands in the strike zone 90 percent of the time. The batter is an arm developed by MIT that has a 1000-frame-per-second camera eye attached to detect incoming pitches.

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Tune in Tomorrow

Couch potatoes, rejoice! From the racetrack to the gridiron, one company is completely changing how you watch sports on TV

The roar of the engines is deafening. Directly in front of me, I’ve got the No. 1 car, more than 3,000 pounds of hot steel, locked in my sights. I’m right on my rival driver’s rear bumper, a supermodel-thin distance between us as my 760-horsepower Chevy bears down at 184 mph. As we go into the last turn, No. 1 offers the tiniest of openings to the inside. I go low for the pass, giving my ride everything it’s got left to pull ahead in the final straightaway . . .

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How It Works

How It Works: The Dolphin Kick

Snapping ankles and dancer-like toes are what makes Michael Phelps win

Despite its name, the dolphin kick—the motion that propels the swimmer forward underwater after he dives in and at the turns—isn’t just about the legs. It requires a swimmer’s entire body to crack like a whip, creating a fluid wave that starts at the chest and increases in amplitude as it travels all the way through the toes. In the best swimmers, this wave moves at about nine feet every second, about half the speed an actual dolphin performs the same motion. To move this quickly, whole-body flexibility is key.

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The Score

Performance Enhancers

The equipment that will optimize your temperature, stop a nosebleed, and help you hit the perfect 300-yard drive

This is not a story about steroids. But it is about improving your abilities on the playing field. Using technology as sophisticated as any developed in traditional fields of science, athletics companies have designed this equipment to make you better, stronger, faster and healthier. It’s funded by absurd amounts of money and validated by the best athletes in the world. And if you’re lucky, it will be sitting in your gym bag soon.

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How It Works

How it Works: The Pole Vault

A fast run and a carbon-fiber pole create 20 feet of vertical

The pole vault is all about energy conversion. The kinetic energy built up during the vaulter’s run turns into potential energy stored in the pole as the vaulter bends it nearly 90 degrees. When the pole recoils, it unleashes that energy to help propel the vaulter up and over the bar. Of these stages, Peter McGinnis, a professor of kinesiology at the State University of New York at Cortland, has found that the most important is the speed of the vaulter just before he plants his pole. The energy built up during the run accounts for almost 60 percent of the vault’s height.

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The Making of an Olympian

An unorthodox, highly scientific training regimen made Andy Potts the top triathlete in the country

At the starting dock of the Olympic triathlon trials, the expression on Andy Potts’s face seems to say I will kill you with my eyes. As the starting gun fires, he plunges into the Black Warrior River in Tuscaloosa, Alabama, and, in a burst of white foam, quickly pulls ahead of nine rivals. The second-ranked Hunter Kemper manages to hold pace with Potts for a few minutes, then drifts back into third place.

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How It Works

How it Works: The Fastball

The biomechanics behind throwing 100 mph without ripping your elbow apart

The slingshot move of a pro pitcher’s shoulder is the fastest recorded action in sports. A pitch’s power, however, is generated by his entire body. For a right-handed pitcher, the chain of kinetic energy starts as soon as he lifts his left leg and faces third base. The energy of that foot landing transfers into the rotation of the trunk and then finally unleashes in the arm whipping around at the elbow.

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The Stadium of Tomorrow

Check out the cutting-edge features that might just make tomorrow’s stadiums worth the outrageous price of admission with our animated fly through

Frankenstein's Dome: We combined the best design and technology features from a dozen cutting-edge stadium plans to create the ultimate Stadium of the Future, seen on these pages.  Graham Murdoch
Now that fans can enjoy high-def sports action from their living rooms, stadium owners need to offer more to potential patrons than $8 beer. What can you expect from the stadium of the future? Comfortable seats close to the action, interactive screens that provide real-time game stats, sustainable design, and architecture that directs the roar of the home crowd onto the field.

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December 2009: Best of What's New

In our December issue, Popular Science names the 100 best innovations of the year: bombproof wallpaper, self-parking cars, the fastest helicopter, and 97 more. Plus inventor profiles and videos.

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