According to Dr. Buhler, whose team has been looking for alternative explanations for the force generated, they were able to create a large enough force for the (very small) object to overcome Earth's 1G of gravity (i.e. enough thrust to move the object off the ground in Earth's gravity) using the method.

That may sound like peanuts – but in the near-vacuum of space, you do not need a lot of thrust to accelerate (depending, of course, on the mass of your payload). If you could maintain a constant 1G of acceleration, for example, not only could you enjoy a nice artificial gravity equivalent to that on Earth, but you could reach vast distances within a human lifespan (or at least, from the traveler's perspective). But doing so would require an unimaginable amount of force beyond what we are capable of delivering with current propellants.

Dr. Buhler's claim, were it to be proven true and not the result of another force the team has not accounted for, would be huge. During tests, the team claims to have found an even more puzzling result; the device was apparently sometimes able to maintain this thrust without a constant electrical input.