The Art of the Steal

Art of the Steal: On the Trail of World’s Most Ingenious Thief

The most ingenious one they’ve caught, anyway.

Blanchard wasn’t listening. He was noting the motion sensors in the corner, the type of screws on the case, the large windows nearby. To hear Blanchard tell it, he has a savantlike ability to assess security flaws, like a criminal Rain Man who involuntarily sees risk probabilities at every turn. And the numbers came up good for the star. Blanchard knew he couldn’t fence the piece, which he did hear the guide say was worth $2 million. Still, he found the thing mesmerizing and the challenge irresistible.

He began to work immediately, videotaping every detail of the star’s chamber. (He even coyly shot the “No Cameras” sign near the jewel case.) He surreptitiously used a key to loosen the screws when the staff moved on to the next room, unlocked the windows, and determined that the motion sensors would allow him to move — albeit very slowly — inside the castle. He stopped at the souvenir shop and bought a replica of the Sisi Star to get a feel for its size. He also noted the armed guards stationed at every entrance and patrolling the halls.

But the roof was unguarded, and it so happened that one of the skills Blanchard had picked up in his already long criminal career was skydiving. He had also recently befriended a German pilot who was game for a mercenary sortie and would help Blanchard procure a parachute. Just one night after his visit to the star, Blanchard was making his descent to the roof.

Brrrrrromine, et al

Modeling Ultracold Chemistry

Atomic physicists have steadily improved their ability to cool atoms to temperatures where quantum effects reign, and in the past decade they have also trapped loosely bound pairs of atoms. But only in 2008 did they produce large numbers of ultracold pairs that were bound strongly enough to properly be called molecules. Each of these molecules is in its lowest possible state of vibration and rotation, and their overall motion corresponds to temperatures under a millionth of a degree above absolute zero. Bose-Einstein condensation of ultracold atoms 14 years ago spawned a continuing flurry of physics experiments and garnered a Nobel Prize, but researchers expect even richer quantum behavior from ultracold molecules. Understanding how ultracold molecules interact is critical to the experiments.