HyperSciences

In a workshop in Spokane, a small team points a long steel tube at a slab of rock and pulls the trigger. A projectile - sometimes plastic, sometimes concrete - leaves the muzzle at roughly nine times the speed of sound and disappears into the stone. There is a crack, an acoustic signature recorded for the machine-learning models, and a hole where there wasn't one. This is HyperSciences at work: a company convinced that the fastest way through the earth is not to grind, but to shoot.

HyperSciences, Inc. is a deep-tech company of about eleven people with the ambitions of a national lab. It has one core invention - the ram accelerator, an in-tube hypersonic engine - and a stubborn belief that the same physics can drill oil and geothermal wells, bore tunnels, break mining rock, and one day fling payloads toward orbit. Big oil has written checks. NASA has written checks. So, unusually, have thousands of ordinary people on the internet.

Here is the inconvenient truth the energy and mining industries live with: we are very good at digging shallow and very bad at digging deep, fast, and cheap. A conventional drill bit is a marvel of metallurgy that still wears out, still needs pulling, and still slows to a crawl in hard rock. Tunnel-boring machines cost a fortune and move at the pace of a contemplative snail. And the cleanest geothermal energy - the kind available almost anywhere if you go deep enough - sits frustratingly out of reach behind miles of stone.

The mechanical drill bit has had a good century. That, more or less, is the problem. Progress in drilling has been incremental when the planet needs it to be exponential - cheaper tunnels for transit, faster wells for clean heat, more accessible minerals for the energy transition. HyperSciences looked at the bottleneck and asked an almost childish question: what if you didn't touch the rock with a slow spinning bit at all?

The answer came from an old idea most engineers had filed under "interesting, impractical." The ram accelerator was invented at the University of Washington: imagine a ramjet turned inside out, where instead of an engine flying through open air, a projectile flies through a stationary tube filled with combustible gas. Stage by stage, the fuel ignites behind the projectile and shoves it faster and faster, all the way to hypersonic speed. Elegant. Also, for decades, mostly a laboratory curiosity.

Mark Russell decided it didn't have to stay one. Russell holds master's degrees in aeronautics and astronautics from Stanford and had been lead engineer on the crew capsule at Blue Origin - a resume that suggests he understood both rockets and the cost of building them. In 2014 he founded HyperSciences, licensed the ram accelerator from the University of Washington, and started the unglamorous decade-long work of turning a physics demo into industrial hardware. Roughly thirty patents later, the company claims it has built the most advanced ram accelerator in the world.

The bet was platform, not product. Build one extreme-velocity engine well enough, the thinking went, and you could aim it at any industry that needs to move very fast through something very hard. Point it down, you have a drill. Point it up, you have a launcher. It is a wonderfully simple thesis, which is precisely the kind that takes ten years and a great deal of money to prove.

Everything starts with the HyperCore, the ram-accelerator propulsion platform. Around it, HyperSciences has wrapped a family of applications - each one the same trick aimed at a different industry. The projectiles are cheap and consumable. The fuel is a patented blend of gas and air, or hydrogen and oxygen. The result is rock fragmentation at speeds mechanical bits can't approach.

Four products. One barrel. The whole company fits in that sentence.

Hypersonics is a field rich in animations and poor in hardware, so the relevant question for any skeptic is simple: who has actually paid for this? The answer is more interesting than the usual venture roll call. Shell's GameChanger arm put in more than a million dollars to develop the HyperDrill. NASA contributed an SBIR grant for the launch application. And a crowd of retail investors - the kind who normally never get near a deep-tech cap table - funded the company through platforms like StartEngine, helping push total raised to roughly $19.7 million.

The patent stack is its own kind of proof. HyperSciences reports roughly thirty issued patents and around sixty filings worldwide, with more than twenty utility patents issued or allowed. For a company this small, that is an enormous moat of intellectual property - the kind of asset that matters whether HyperSciences eventually sells drills, licenses the engine, or simply owns the foundational claims to a faster way through rock.

Strip away the hypersonic theatrics and the mission is grounded: make it dramatically cheaper to move through the earth. That single capability quietly underwrites a surprising amount of the future we keep talking about. Geothermal energy becomes viable far beyond volcanic hotspots. Subways and utility tunnels get cheap enough to actually build. Mining for the metals the energy transition demands gets faster and, the company argues, more efficient and less wasteful.

HyperSciences frames its work around tunneling, mining, energy drilling, and aerospace - but the through-line is access. Access to clean heat under your feet. Access to minerals without tearing the surface apart. Eventually, access to space without a full first-stage rocket. The company is selling the same thing to all of them: speed where speed has been impossible.

Deep tech keeps its promises slowly, and HyperSciences is no exception - a decade in, it is still proving rather than scaling, still running Phase 1 trials rather than shipping fleets. Skeptics are entitled to their skepticism. Hardware that fast, that cheap, that broadly applicable usually exists most reliably in pitch decks. The honest read is that HyperSciences has assembled something rare - a defensible engine, real industrial partners, a patent fortress - and now has to do the hardest part, which is the part everyone always underestimates.

But go back to the workshop in Spokane. The tube is pointed at the rock again. The projectile leaves the muzzle at nine times the speed of sound, the acoustic sensors light up, and the hole appears a little faster and a little cheaper than it did the time before. Multiply that single shot by every tunnel we can't afford, every geothermal well we can't reach, every mine we'd rather not scar - and the picture changes. The drill bit had its century. HyperSciences is betting the next one belongs to the barrel.