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How a sphere flies.

Four systems make Orb One possible – and each one is a design goal we are actively proving, not a finished claim. Here is the honest version of how it is meant to work.

SeamRoute Propulsion – Internal fans are designed to breathe through hairline seams, so the sphere flies with nothing sticking out.
01 · SeamRoute Propulsion

SeamRoute Propulsion

Internal fans are designed to breathe through hairline seams, so the sphere flies with nothing sticking out.

Conventional drones hang their rotors in the open air because that is the simplest way to move a lot of mass. Orb One takes the harder path: the lift fans are meant to live entirely inside the TrueShell, with the only outward sign being four pairs of hairline seams that arc across the surface. Each seam is a disguised channel – one side draws air in, the other routes it out – so what looks like a part-line on a premium earbud is actually the airway. We call this architecture SeamRoute.

The physics here is real but unforgiving. Ducted and shrouded fans are a proven idea, and enclosing the airflow can cut blade-strike risk and tidy the acoustics, but ducting also adds internal drag and weight, and narrow intakes limit how much air you can move. That trade is the central engineering problem of the whole product, and it is the main reason Orb One is framed as a concept targeting 2030 rather than something we claim ships today – the efficiency has to come up before the flight times become honest.

What SeamRoute is designed to buy is not raw performance but a different feel: a flying object with no exposed propeller, no cage, and no obvious front, that you could catch in your hand without flinching. We would rather under-promise the endurance and get that experience right than bolt visible rotors onto a sphere and call it seamless.

TrueShell Collision Resistance – One seamless composite body designed to be both the enclosure and its own bumper.
02 · TrueShell Collision Resistance

TrueShell Collision Resistance

One seamless composite body designed to be both the enclosure and its own bumper.

On most drones the structure and the crash protection are separate jobs – a frame to hold the parts, then a cage or prop guards bolted around it. TrueShell is designed to collapse both into a single seamless composite body. Because the propulsion is internal, the outside of the sphere has no rotors to shield and no corners to snag, so the shell can be a continuous, rounded surface that takes a knock and keeps its shape. The same wall that encloses the electronics is the part that meets the wall, the floor, or your hand.

A sphere is a genuinely good shape for this. It has no weak protruding edges, it distributes a point impact outward, and it can roll off a glancing hit instead of catching it. We aim to pair that geometry with a soft-touch matte skin over an energy-absorbing composite layup, tuned so a low-speed bump dents the moment, not the machine. Collision-resistant is the honest claim here – not crash-proof. A hard enough fall, a sharp edge, or a fast impact can still cause damage, and the internal fans are the components we most have to protect.

The intended payoff is that the protection costs nothing visually. There is no add-on guard to clip on for indoor flying and take off for photos; the bumper is the body. That is what should let Orb One read as a calm, held object rather than a piece of equipment wearing armor.

SoftSet Autonomy & Piloting – Hands-off takeoff, hold, and a gentle landing – with a clear handover when you want to fly it.
03 · SoftSet Autonomy & Piloting

SoftSet Autonomy & Piloting

Hands-off takeoff, hold, and a gentle landing – with a clear handover when you want to fly it.

Orb One is built around the idea that the safest, nicest thing a small drone can do is take care of its own takeoff, hover, and landing. SoftSet is the autonomy behavior we are designing to handle those moments: it lifts off on its own, holds a stable position, and when it is time to come down it decelerates, looks for a clear spot, and sets the sphere down gently – or lets it roll to a stop in your hand. The goal is to remove the two phases where casual pilots crash most: the launch and the landing.

Autonomous position hold, return-to-home, and obstacle-aware descent are established techniques on today's better drones, so the building blocks are real. What we are targeting for 2030 is doing them inside a fully enclosed sphere that has no GPS-friendly open frame and only one sensor band to work from, reliably enough that catching it in your hand becomes a normal action rather than a stunt. That reliability bar is high, and we would rather narrow where SoftSet is trusted than over-state it.

Manual piloting is meant to sit on top of this, not underneath it. You could take the stick to move the sphere where you want, but the autonomy stays in the loop – holding steady when you let go, refusing to fly into something it can see, and always able to take the landing back. Remote piloting is for intent; the machine is designed to keep the part that has to be safe.

EquatorSense Navigation – One equatorial ring of cameras and depth sensors is designed to give the sphere all-around awareness.
04 · EquatorSense Navigation

EquatorSense Navigation

One equatorial ring of cameras and depth sensors is designed to give the sphere all-around awareness.

A seamless sphere cannot wear sensors all over its skin without ruining the surface, so Orb One concentrates its sensing into a single 18 mm band of dark optical glass running the equator. EquatorSense is that ring: cameras and depth sensors spaced around the band so the drone gets a wide, near-panoramic read of the space around it from one clean feature instead of a face full of scattered lenses.

The argument for a ring is geometry. For a hovering object, most of what matters – walls, people, furniture, the hand reaching out to catch it – is arranged around it horizontally, and a continuous equatorial band covers that sweep with no visual break. The honest limits are the poles: a single equatorial ring sees less directly above and below, so close work near the floor and ceiling has to lean on the downward sensing used for SoftSet landings and on the drone's own slow, deliberate movement rather than on raw coverage.

We treat EquatorSense as awareness for safe flight first and as a camera second. Its primary job is feeding the autonomy – holding position, spotting obstacles, judging the descent – so the sphere can be trusted to fly itself. Framing it that way keeps us honest about what a 2030 sensor band realistically delivers, instead of promising flawless all-around perception from a single thin glass line.

The vocabulary

Four names you'll see a lot.

Coined for clarity, defined plainly. Each is a 2030 design goal under active development.

SeamRoute

The hidden propulsion architecture – the hairline seams that channel airflow to internal fans so no rotor is ever exposed. A 2030 design goal under active proving.

TrueShell

The seamless, collision-resistant composite body that doubles as the full enclosure and the bumper. Collision-resistant by design, not crash-proof.

EquatorSense

The single equatorial band of cameras and depth sensors that gives the sphere all-around awareness from one clean ring.

SoftSet

The autonomy behavior that decelerates, finds a clear spot, and sets the sphere down gently – or lets it roll to a stop in your hand.

See the target specs

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