The Super MoneyMaker Pump—yes, that's the real name—sucks up water from sources as many as 30 feet below the ground, can spray it up to 40 feet high, and can even push it through 1,000 feet of hose to cover a larger section of land. In all, the pump can irrigate two acres of land, and costs only around $100.

MIT professor Martin Fisher and his team at KickStart, a nonprofit, invented the pump for small-scale farmers. Since it's human-powered and easy to use, it allows them to irrigate crops all year round, instead of just waiting for the rainy season.

No, we're still not up to the level of Luke's mechanical hand in Star Wars, but progress does seem to be accelerating. The i-LIMB, from Touch Bionics, debuted last year, and German researchers recently tested it against a new prototype, the Fluidhand. The researchers say both are more dexterous than the industry standard, given that the individual fingers of the mechanical hands can be controlled independently.

Researchers from the University of Wisconsin-Madison and Florida International University have developed a technique that enables them to identify the weak spots in a structure from afar.

The program they developed, Scan and Solve, uses 3D data of an object to predict where it is most likely to fracture, and how its faulty spots will be affected by outside forces such as gravity or other forms of strain.

A panel convened by the National Academy of Engineering announced today a list of the most important projects in the world—at least, what would be, were we to figure out how to build them. The 14 priorities range from economical solar power—we only need to harness 1/10,000th of the sunlight that hits Earth to satisfy the world's energy needs—to reverse-engineering the brain and universal access to clean water (see the full list after the break). They're also introducing a slick new website to solicit public opinion. What do you think is the most important engineering challenge for the century to come?

An earthquake is a sudden release of stress that has built up along a fault line, where rock faces push against each other. If that stress could be released over a longer period of time—with a series of smaller quakes—the result might be less catastrophic.

Engineers have known for 40 years that injecting fluids deep into wells can accidentally trigger mini—quakes by lubricating “sticky” rock faces. Since that time, there have been numerous proposals to pump fluids into stressed fault lines.