The Army pays ThinKom to test an anti-drone microwave, with field use years away

On August 19, the U.S. Army signed a contract worth up to forty-nine million dollars with ThinKom Solutions to deliver and test Alecto, a mobile high-power microwave system meant to fry enemy drones out of the sky. SatNews reported the award that day.

The announcement also clarifies what the money does not buy: no production authorization, no commitment to purchase a single unit afterward, and field testing only in 2027, as Interesting Engineering noted on August 20. The Army is paying real money today for a weapon whose usefulness remains a hypothesis with a two-year waiting period.

ThinKom's press office announced the award through Business Wire on August 19, and trade press confirmed it within hours. But the pressure underneath has been building since the skies over Ukraine filled with cheap aircraft. According to SatNews on August 19, small drones that cost less than a used car are defeating interceptors that cost more than a house, and every army watching that war has concluded the same thing: missiles cannot stay the answer when the threat costs hundreds of dollars per airframe.

The Army's Fires acquisition office, running its counter-drone program out of Redstone Arsenal, wants a weapon whose ammunition is electricity rather than inventory, because a magazine that never runs dry solves the arithmetic problem Russia created.

ThinKom wants a second act. The company built its name on satellite antennas, and this is its entry into weapons after demonstrating in 2025 that its antenna design can handle enormous peak power without melting, as SatNews noted on August 19.

Epirus, the California firm that has been the visible leader in microwave defense, just watched a competitor walk into its lane. Days earlier, DefenseScoop reported on August 10 that Epirus had won eleven million dollars from the Marine Corps to bolt its own microwave system onto combat vehicles.

Alecto uses a flat antenna made of angled metal slats—a design called VICTS that steers a beam by physically shifting layers rather than moving parts—paired with vacuum-tube electronics old enough to have powered radar sets half a century ago, according to SatNews on August 19. The claim that matters is that it can fire while the truck is driving, against small and medium drones including swarms, as Interesting Engineering noted on August 20.

If that works, a single vehicle could sweep dozens of aircraft from the sky for the cost of diesel. If it does not work, the failure modes are unforgiving. Microwave energy scatters in rain, reflects off terrain, and demands power generation that most tactical vehicles cannot carry.

Radar and rubble

In 1935, British officials asked whether radio waves could be turned into a death ray that killed at distance. The answer was no—but the inquiry led Robert Watson-Watt to propose using those waves to detect aircraft instead, and radar was born as the byproduct of a failed weapon. The lesson cuts both ways. Boeing's airborne laser program consumed over a decade and billions of dollars before the Pentagon cancelled it in 2011, having built a flying laser that worked in demonstrations and could not survive near a battlefield. Directed energy has produced both radar and rubble; which one you get depends on whether anyone is honest about the pivot.

The case for the skeptics to answer is genuinely strong. Microwave defense attacks the economics of drone war directly. One shot costs pennies of electricity against an attacker spending hundreds on each airframe, and unlike a missile battery there is no stockpile to deplete during a night of raids. That is why, according to SatNews on August 19, the Army asked for four prototypes and funded one—it is buying options, not hardware. Defense News reported on August 10 that the Marine Corps move toward a production-ready microwave system early next year suggests the concept is past the science-fair stage somewhere in the force.

Who pays

American taxpayers fund the ceiling, and their exposure is capped at forty-nine million dollars only on paper. The real cost arrives later if the Army commits to production of a weapon tested against threats that will have evolved twice by then, according to SatNews on August 19. The Army itself is not in a hurry, which may be because the missile makers quietly keep their market if the thing fails.

If the 2027 trials succeed, sensor makers and tactical-truck builders inherit new demand, because a beam weapon is useless without radars that find targets fast enough to shoot while moving—and ThinKom's satellite-antenna patent becomes a franchise in the fastest-growing corner of defense spending while Epirus defends a lead it no longer holds alone. If the trials fail publicly, procurement dollars flow straight back to gun-based interceptors and missile answers that Ukraine already proved at scale, and every beam-and-jamming program in the Pentagon inherits the blame. Either way, the market has a race now instead of a monopoly.

If the read is right, the Army exercises the remaining prototype options within a year, because nobody spends on three more units of something they expect to cancel. Watch also whether the 2027 tests happen against live swarms or scripted single-target runs. Live swarms mean the evaluators believe. Scripted runs mean they are managing a program toward cancellation.

Perhaps this is ordinary prototyping, the normal way armies buy anything experimental, and the "before it works" framing is cynical noise. True enough in form. But the urgency in the Army's own words—urgent need, rapid proliferation, scalable capabilities—is the language of commanders told by Ukraine that their current magazine depths are inadequate today, not in 2027. SatNews reported on August 19 that paying slowly for an urgent problem is itself the story.

A soldier in a convoy in 2028 will carry either the first weapon in American service whose ammunition is a wall socket, or another canceled directed-energy program in a file cabinet at Redstone Arsenal.

Forty-nine million dollars is cheap either way. The expensive thing is the two years of sky between now and the answer.