Tag Archives: drone

A 40-Gram Drone Is Now Hunting the World’s Deadliest Animal

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The mosquito has never been bested by elegance. We’ve thrown everything at it: citronella candles that smell like a health food store, zappers that feel more like novelty items than actual deterrents, sprays that coat everything in a layer of chemical suspicion. None of it has really worked. Not comprehensively. Not quietly. Not without trade-offs.

Enter Tornyol’s LeSonar2, a 40-gram autonomous drone that doesn’t just repel mosquitoes. It hunts them. The concept alone is enough to stop you mid-scroll. A micro-drone, roughly the weight of a few sheets of paper, patrols your living space like a silent sentinel, listening for the specific wingbeat frequency of a mosquito and then intercepting it mid-air. No chemicals. No noise you can hear. No action required on your part. It just handles it.

Designer: Tornyol

The engineering behind the LeSonar2 is where things get genuinely impressive. The drone uses 32 ultrasonic emitters to send out pulses that bounce off nearby objects and insects, and 380 smartphone microphones to capture the returning data. An Artix-7 FPGA processor handles the real-time beamforming, mapping the environment in 3D and measuring movements down to 0.1 millimeters. To put that in context, that’s the same underlying principle bats use to navigate and hunt in total darkness. Tornyol has essentially built a bat, shrunk it to the size of a large cookie, and given it a mission.

Once the LeSonar2 confirms a target by reading its wingbeat signature, it intercepts and dispatches the mosquito mid-flight using its own propellers. First air-to-air kill by an autonomous micro-drone. That milestone recently landed and it reads like a sentence from a near-future thriller, except it happened in a lab and it’s now available for pre-order.

The setup is more straightforward than you’d expect. You draw your protection zone on a base-station map. The drone launches, patrols, returns to charge on its own between passes, and relaunches. The whole system runs 24/7 without you touching it. Tornyol calls it “silent, safe, chemical-free,” and those three words carry more weight than they initially seem, especially for households with children, pets, or anyone wary of pesticide exposure.

The design thinking here is just as sound as the engineering, and I think that deserves attention. The choice to avoid cameras is notable. Instead of building something that watches your room, Tornyol built something that listens to it. That’s a meaningful distinction in an era where surveillance fatigue is real. A sensor that identifies a mosquito by its wingbeat signature rather than by filming your living room feels like a more considered approach to consumer technology. Privacy, quietly protected alongside you.

The bigger picture is hard to ignore, too. Mosquitoes kill more people every year than any other animal on the planet. Malaria alone accounts for over 400,000 deaths annually, with dengue adding tens of thousands more. Tornyol was founded by two CentraleSupélec graduates with the stated goal of consigning mosquitoes to history, and while a home drone isn’t going to solve a global public health crisis on its own, it’s a serious first step from a company that clearly understands the scale of what it’s attempting.

Backed by Y Combinator and currently open for pre-orders with a $100 refundable deposit, the LeSonar2 is targeting US shipping in 2027. The drone comes in black, red, and orange for people who care about that kind of thing, and I think more people do than would admit it. Tornyol’s LeSonar2 is one of those designs that makes you realize how much creative inertia exists in categories we assume are already solved. Bug control felt finished. Candles, sprays, zappers, and screens. We stopped asking for better because we didn’t know better was possible. Now it is, and it weighs less than a slice of bread.

The post A 40-Gram Drone Is Now Hunting the World’s Deadliest Animal first appeared on Yanko Design.

Palm-sized drone edges one step closer to disappearing completely in flight behind enemy lines

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When we think of invisibility, the idea centers around shielding the form with invisible cloaks or trying to make the object camouflage in the surroundings. Northwestern University in Illinois, however, has a very different approach. Taking advantage of the limitations of the human eye to focus on objects, the team of engineers has come up with a nifty science trick to make a drone that disappears when in flight.

The neat motion is attributed to the drone chassis spinning at 25 RPS, which tricks the human eye into perceiving the flying object as a faint smudge in the air. Dubbed the Phantom Twist, this drone was first demonstrated as a part of a Robotics: Science and Systems 2026 presentation. According to team lead Michael Rubenstein, “the idea of low visibility through persistent motion is something few people have explored.”

Designer: Northwestern University

Unlike most quadcopters that have four rotors to generate lift, Phantom Twist has one motor and a propeller. The propeller spins in one direction, forcing the rest of the body to go in the other direction. The team used AI and optimization configurations to generate around 20,000 drone configurations to finally arrive at the stable flight model. Of course, they had to put together the drone’s components like the motor, circuit boards, counterweight and batteries to arrive at this odd form. Over 500 final models were run in the optimizer against the simulated spinning mid-flight and overlaid on the 100 real-world backgrounds to arrive at this final design.

Michael added that “For a typical quadrotor drone, the propellers are spinning, but the robot is stationary. So, you still see its body. For our drone, the whole thing is rotating, so there are no stationary parts.” The human eye takes time to process the information, just like a camera exposure shot. The quick spinning drone therefore goes completely transparent as the partially opaque elements average out against the background, creating a slight haze. This makes the Phantom Twist drone 10 times more difficult to spot than a standard quadcopter.

The only giveaway is the whirring sound the drone makes. Also, the support wires and the rods are partially visible, but still you can’t see this flyer from a distance. Further improvements of this unique design hint at the use of more transparent materials and a quieter propulsion system. So, we can expect to see a drone that is closer to complete invisibility in the future from the Northwestern University team. The applications are endless, including secret military missions behind enemy lines or a world where drones just operate in the background without anyone ever realizing.

 

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Deflatable drone capable of flying over 10 hours could be the next big leap in operational efficiency

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The DJI Mavic 4 Pro can fly for around 50 minutes before needing a recharge, but are those numbers sufficient for a drone tasked with surveillance of hundreds of kilometers of pipeline or sensitive zones spanning miles? Nor is there any viable solution for monitoring disaster-struck areas that are too risky for manned flights. The next best option is low-flying unmanned airplanes or VTOLs, but the costs involved are way too high for such tasks.

This prompted French aerospace startup Celeste Ecoflyers to design an inflatable fixed-wing aircraft drone that comes tagged with the promise of superior safety and efficiency. Christened daS10, the 8-meter fixed-wing aircraft has a “pressurized textile envelope” and a pneumatic wing that generates lift thanks to the inflated structure. The design ensures the drone can stay in the air for longer without taking up a lot of energy.

Designer: Celeste Ecoflyers

The unmanned craft can be deflated and stored easily in flat form, which makes it highly deployable in any kind of situation. This unique idea comes from the CEO, engineer, and founder Olivier Manette, who happens to be a licensed ULM flight instructor. daS10 is currently in the development stage and recently conducted the initial low-altitude flight tests that lasted a few seconds. More tests are scheduled for Q4 of this year, which will bring it closer to the intended results. When fully operational, the fixed-wing drone can cruise at speeds of up to 50 mph for more than 10 hours in a sortie. That surpasses the JOUAV CW-30E, which can operate for around 480 minutes with a range of 200 kms from base.

This 8-meter fixed-wing drone is targeted towards commercial operations that require safety and more sustainable logistics. For instance, surveillance of pipelines or energy grids requires a more affordable approach than current solutions. Just for reference, a helicopter flight to inspect a pipeline costs around $2,500 per hour, and this doesn’t include the costs of the pilot or fuel. Also, bad weather and pilot availability can cancel one-fourth of the scheduled flights, hampering the overall operations. This aircraft, capable of generating aerodynamic lift sans any buoyant systems and carrying a payload of 11 lbs, is the ideal replacement for traditional options.

The biggest USP of the daS10 drone is the deflatable wing, which can fold and compress into a smaller volume for easy transportability. That will come in very handy for military operations as well, which require movement of logistics in remote regions. Though it is still early days for the drone, and a lot more engineering challenges lie ahead when it comes to fully scaled flights, the results could be revolutionary for the aviation industry heading towards automation.

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What If Your Drink Could Fly Itself Across the Room to You

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Smart home technology has reshaped how we think about convenience, but most of it still assumes you’re the one who has to reach for things. Appliances respond to voice commands, lights adjust to your mood, and thermostats learn your schedule. Yet the objects we grab dozens of times a day, from a glass of water to the TV remote, still sit wherever you last left them.

Designer Ivana Nedeljkovska’s ORBIA concept takes a different angle on this problem. Rather than adding another smart feature to a home setup, it asks a more fundamental question about object design itself: why do objects have to stay still? ORBIA is envisioned as an autonomous flying serving tray that moves through space, navigates around obstacles, and delivers objects directly to wherever the user happens to be.

Designer: Ivana Nedeljkovska

It’s a concept that doesn’t fit neatly into any existing product category. The design is built around an intelligent navigation system that enables ORBIA to understand its surroundings, read the space it moves through, and adjust its path in real time. That capability is what separates it from the static, fixed-in-place gadgets that populate most homes today, no matter how sophisticated those gadgets might be.

Think about a quiet evening at home. You’re in the middle of something, and your drink is across the room. With ORBIA, you wouldn’t need to interrupt what you’re doing. The concept is designed to respond to a call without requiring any physical contact, operating quietly and precisely, functioning as a kind of unobtrusive assistant that simply appears when needed and retreats when it’s done.

The same thinking applies in a hospitality setting, where service efficiency has always been a balancing act. In a restaurant or lounge, ORBIA could handle the routine deliveries that currently require constant back-and-forth from staff, moving between spaces with the same quiet precision it brings to a living room. The system reads its surroundings continuously, adjusting course around obstacles and adapting to different spatial conditions in real time.

Where the concept gets particularly compelling is accessibility. For someone with limited mobility, having to rely on others to bring everyday objects can quietly erode a sense of independence. ORBIA is designed with that in mind, offering support that lets people access things around them on their own terms, without having to wait or ask someone else for help each time.

Visually, ORBIA doesn’t try to announce itself. The form is clean and minimal, built around a large oval tray surface with a brushed matte finish, carried by a quad-rotor body whose contours flow outward in smooth, organic curves. Blue LED lighting runs along the underside and rotor housings, giving the whole thing a quiet, purposeful glow that integrates naturally into a contemporary interior.

There’s still a long way between this concept and something you could buy, and the engineering involved is genuinely complex. But ORBIA isn’t trying to be a product announcement. It’s a design argument, one that makes the case for a future where objects go beyond being smarter to becoming fundamentally more active, bringing things to you rather than waiting to be carried.

The post What If Your Drink Could Fly Itself Across the Room to You first appeared on Yanko Design.

This Kid-Safe Drone Looks Like a Frog and Hides Spinning Blades

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Most consumer drones look and feel intimidating to a child. They’re loud, angular, full of exposed propellers, and packed with complex controls adults barely understand. Kids want to see the world from above, but parents see spinning blades and fragile arms that cost too much to replace. The mix of fascination and fear turns what could be fun into something closer to borrowing a grown-up’s expensive, breakable toy.

Aeroleap is a kid-friendly drone concept that tries to lower that barrier. Designed for children aged six to twelve, it uses soft, organic form language and clear visual cues to communicate safety and balance. The design draws inspiration from a frog’s stance, so the drone feels stable and approachable rather than mechanical or aggressive, more like a small creature ready to hop than a tiny aircraft ready to crash.

Designer: Anuja Deshpande

A child in a backyard holds a controller that feels like a gamepad, watching a bright green drone lift off without exposed blades buzzing near fingers. The integrated propeller rings and rounded body make it clear where it’s safe to touch, and the frog-like stance on the ground helps it read as balanced and ready, not twitchy or fragile like hobby drones that need constant correction just to hover.

The frog metaphor shows up in the geometry. A central body sits low with four limbs ending in circular rings that fully enclose the propellers. Those rings add protection during low-height play, reducing injury risk and damage when the drone bumps into walls or trees. The rounded guards and soft transitions do the safety work without needing extra cages or add-on bumpers that make everything heavier.

The interaction layer stays simple. A controller holds a phone that shows a live camera view from the drone, focusing on essentials like battery and connection. The physical controls stay familiar and tactile, so kids get the thrill of seeing their surroundings from above while parents can glance at the same feed. Nobody has to decode a cockpit full of tiny icons just to enjoy a short flight.

The project is grounded in research with kids, parents, and tech educators, who all flagged fragile builds, complex controls, and unsafe-feeling devices as major turn-offs. Aeroleap responds by keeping functionality simple and robust, focusing on how the product is held and understood at first glance instead of layering on autonomous modes that might confuse more than they help when you’re nine years old.

Aeroleap explores how industrial design alone can shape a child’s confidence around new technology. By softening the form, enclosing the dangerous bits, and making the controller feel familiar, it invites kids to be curious about flight without scaring parents off. Sometimes the difference between intimidating and inviting isn’t a feature list but the way an object looks and moves the first time you meet it, and a drone shaped like a friendly frog feels like it’s already smiling before it leaves the ground.

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World’s first hydrogen-powered surveillance drone enters combat duty with Ukrainian Defense Forces

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Hydrogen-powered unmanned aerial vehicles are not a new concept. Drones running on hydrogen fuel have been in experimental forms for over a decade, but this is for the first time, a drone has been fully designed and deployed on full-scale combat duty in an active war zone.

The drone is a hybrid version of the Raybird USA developed by Skyeton and is deployed with the Ukrainian Defense Forces. It is designed for long-endurance and perhaps is, Ukraine’s first attempt at sending a hybrid hydrogen-powered drone into an active battlefield. It has been in the war zone “since December 2025, as part of interagency testing,” Skyeton informs.

Designer: Skyeton

As a hybrid version of the Raybird, the drone is powered by an electric motor running on electricity generated by hydrogen fuel. The UAV has been reengineered to adequately distribute the space and weight of the hydrogen tank system onboard. Being hybrid, the drone is quieter in comparison to other combustion engine options, thus it makes a great surveillance aircraft.

“We have converted two years of laboratory testing into a new aircraft concept: it is the same class and weight, but a completely redesigned concept based on electric propulsion,” Roman Knyazhenko, CEO of Skyeton said. “Hydrogen fuel is a solution that allows us to combine all the advantages of an electric motor… with the long-duration continuous flight that is a hallmark of our UAV, he added.

According to Skyeton, the hydrogen-based Raybird is not armed, it instead has radar and sensors in its payload for its identified long-range reconnaissance missions. The drone is created with a wingspan of up to 15 feet, and it has a total payload capacity of 23 kgs. Being a Raybird, the hybrid drone can cruise at over 110 km/h top speed, and the UAV can function in temperatures ranging between -35°C to +55°C. It has a flight endurance of 12 hours for now, which the Skyeton engineers are determined to increase to 20 hours.

According to the company, the hydrogen-powered Raybird on war duty can fly at an altitude of up to 18,000 feet to carry out its surveillance duties. Of course, for now, the drone running on a hydrogen-electric propulsion is being used for long-range reconnaissance missions by Ukraine, but its operational efficiency and environmental benefits suggest it can be useful in a range of other applications: both civilian and defense.

For its usability in different scenarios, Skyeton says it will provide the hydrogen-powered Raybird in two variants. A drone with pre-filled tanks that can be swapped like cartridges. Or paired with a compact mobile unit capable of generating hydrogen on site as required.

The post World’s first hydrogen-powered surveillance drone enters combat duty with Ukrainian Defense Forces first appeared on Yanko Design.

World’s first hydrogen-powered surveillance drone enters combat duty with Ukrainian Defense Forces

Posted on by

Hydrogen-powered unmanned aerial vehicles are not a new concept. Drones running on hydrogen fuel have been in experimental forms for over a decade, but this is for the first time, a drone has been fully designed and deployed on full-scale combat duty in an active war zone.

The drone is a hybrid version of the Raybird USA developed by Skyeton and is deployed with the Ukrainian Defense Forces. It is designed for long-endurance and perhaps is, Ukraine’s first attempt at sending a hybrid hydrogen-powered drone into an active battlefield. It has been in the war zone “since December 2025, as part of interagency testing,” Skyeton informs.

Designer: Skyeton

As a hybrid version of the Raybird, the drone is powered by an electric motor running on electricity generated by hydrogen fuel. The UAV has been reengineered to adequately distribute the space and weight of the hydrogen tank system onboard. Being hybrid, the drone is quieter in comparison to other combustion engine options, thus it makes a great surveillance aircraft.

“We have converted two years of laboratory testing into a new aircraft concept: it is the same class and weight, but a completely redesigned concept based on electric propulsion,” Roman Knyazhenko, CEO of Skyeton said. “Hydrogen fuel is a solution that allows us to combine all the advantages of an electric motor… with the long-duration continuous flight that is a hallmark of our UAV, he added.

According to Skyeton, the hydrogen-based Raybird is not armed, it instead has radar and sensors in its payload for its identified long-range reconnaissance missions. The drone is created with a wingspan of up to 15 feet, and it has a total payload capacity of 23 kgs. Being a Raybird, the hybrid drone can cruise at over 110 km/h top speed, and the UAV can function in temperatures ranging between -35°C to +55°C. It has a flight endurance of 12 hours for now, which the Skyeton engineers are determined to increase to 20 hours.

According to the company, the hydrogen-powered Raybird on war duty can fly at an altitude of up to 18,000 feet to carry out its surveillance duties. Of course, for now, the drone running on a hydrogen-electric propulsion is being used for long-range reconnaissance missions by Ukraine, but its operational efficiency and environmental benefits suggest it can be useful in a range of other applications: both civilian and defense.

For its usability in different scenarios, Skyeton says it will provide the hydrogen-powered Raybird in two variants. A drone with pre-filled tanks that can be swapped like cartridges. Or paired with a compact mobile unit capable of generating hydrogen on site as required.

The post World’s first hydrogen-powered surveillance drone enters combat duty with Ukrainian Defense Forces first appeared on Yanko Design.

World’s first hydrogen-powered surveillance drone enters combat duty with Ukrainian Defense Forces

Posted on by

Hydrogen-powered unmanned aerial vehicles are not a new concept. Drones running on hydrogen fuel have been in experimental forms for over a decade, but this is for the first time, a drone has been fully designed and deployed on full-scale combat duty in an active war zone.

The drone is a hybrid version of the Raybird USA developed by Skyeton and is deployed with the Ukrainian Defense Forces. It is designed for long-endurance and perhaps is, Ukraine’s first attempt at sending a hybrid hydrogen-powered drone into an active battlefield. It has been in the war zone “since December 2025, as part of interagency testing,” Skyeton informs.

Designer: Skyeton

As a hybrid version of the Raybird, the drone is powered by an electric motor running on electricity generated by hydrogen fuel. The UAV has been reengineered to adequately distribute the space and weight of the hydrogen tank system onboard. Being hybrid, the drone is quieter in comparison to other combustion engine options, thus it makes a great surveillance aircraft.

“We have converted two years of laboratory testing into a new aircraft concept: it is the same class and weight, but a completely redesigned concept based on electric propulsion,” Roman Knyazhenko, CEO of Skyeton said. “Hydrogen fuel is a solution that allows us to combine all the advantages of an electric motor… with the long-duration continuous flight that is a hallmark of our UAV, he added.

According to Skyeton, the hydrogen-based Raybird is not armed, it instead has radar and sensors in its payload for its identified long-range reconnaissance missions. The drone is created with a wingspan of up to 15 feet, and it has a total payload capacity of 23 kgs. Being a Raybird, the hybrid drone can cruise at over 110 km/h top speed, and the UAV can function in temperatures ranging between -35°C to +55°C. It has a flight endurance of 12 hours for now, which the Skyeton engineers are determined to increase to 20 hours.

According to the company, the hydrogen-powered Raybird on war duty can fly at an altitude of up to 18,000 feet to carry out its surveillance duties. Of course, for now, the drone running on a hydrogen-electric propulsion is being used for long-range reconnaissance missions by Ukraine, but its operational efficiency and environmental benefits suggest it can be useful in a range of other applications: both civilian and defense.

For its usability in different scenarios, Skyeton says it will provide the hydrogen-powered Raybird in two variants. A drone with pre-filled tanks that can be swapped like cartridges. Or paired with a compact mobile unit capable of generating hydrogen on site as required.

The post World’s first hydrogen-powered surveillance drone enters combat duty with Ukrainian Defense Forces first appeared on Yanko Design.

This Glowing Drone Fortress Could Save Lives in the Mountains

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Picture this: you’re hiking through the Carpathians when fog rolls in and you lose your bearings. Instead of waiting hours for a helicopter rescue team, a drone reaches you in minutes, delivering supplies and guidance while thermal cameras track your location. This isn’t science fiction. It’s the vision behind Lynx, a jaw-dropping architectural concept that’s equal parts rescue station, tourist destination, and gothic cathedral.

Architect Alina Sanina has designed something that looks like it was pulled straight out of a fantasy epic, yet serves an incredibly practical purpose. These circular stations would perch in remote mountain locations across ranges like the Alps and Pyrenees, acting as autonomous hubs where drones can charge, launch, and coordinate rescue operations. But here’s where it gets interesting: they’re not just utilitarian tech boxes. Each station could house a planetarium, research facilities, viewing terraces, or even overnight accommodations. Think of them as architectural landmarks that happen to save lives.

Designer: Alina Sanina

The design itself is absolutely stunning. Sanina describes the aesthetic as “gothic futurist,” and you can see why. Concentric rings echo ancient fortress layouts, while serrated concrete walls rise in rhythmic peaks that mirror the surrounding ridgelines. It’s architecture that doesn’t fight the landscape but converses with it. The real magic happens in the materials, though. The structure uses a composite that blends concrete with glass inclusions, gradually shifting from solid concrete at the base to increasingly translucent glass as it climbs upward. The result? A building that literally appears to dissolve into the sky.

Those microscopic glass particles aren’t just pretty either. They refract light throughout the day, creating a crystalline shimmer that changes with cloud cover and sun position. Integrated photovoltaic cells turn the entire exterior into an energy-generating skin, allowing these stations to operate completely off-grid in locations where traditional infrastructure would be impossible. Additional roof panels power the drone charging systems and internal operations. Inside, floor-to-ceiling glass opens onto panoramic mountain views, blurring the line between shelter and wilderness. The flexible design means each station could adapt to its location and needs, functioning as an observatory in one spot, a wayfinding beacon in another, or a resort-adjacent public space somewhere else.

The concept emerged from a real and growing problem. In Ukraine’s Carpathian mountains alone, rescue teams conducted over 500 missions in 2024. Sudden weather shifts, communication failures, and treacherous terrain put hikers at constant risk. Traditional rescues require extensive resources: trained teams, search dogs, specialized equipment, helicopters. It’s expensive, time-consuming, and sometimes dangerous for the rescuers themselves. Drones can survey vast territories in minutes, detect thermal signatures through fog or darkness, deliver urgent supplies, and provide real-time communication.

What makes this concept particularly timely is Ukraine’s rapid advancement in drone technology, accelerated by wartime innovation. “The moment for Lynx has come,” Sanina explains. “The technology is ready, aerial routes exist, and there are hundreds of skilled operators. It’s time to imagine how drones can serve rescue, care and human well-being.” It’s a powerful reframing of technology often associated with warfare, repositioning it as infrastructure for care and conservation.

The system would integrate through a mobile app providing hikers with route data, weather updates, and a crucial SOS function. Service drones would deliver essentials like water, food, and medical supplies to remote hiking segments, while separate passenger drones could offer aerial sightseeing tours. The stations would form a networked system, monitoring environmental conditions and coordinating responses across entire mountain ranges.

Lynx imagines a future where drone stations become as commonplace in mountain regions as ski lifts or ranger stations, but far more intelligent and adaptive. It’s infrastructure that doesn’t dominate nature but works symbiotically with it. These aren’t just buildings or tech installations. They’re a new architectural typology entirely, one where technology, tourism, and wilderness protection converge in structures as beautiful as they are functional. In an era when we’re constantly told to choose between technological progress and environmental preservation, Lynx suggests maybe we don’t have to choose at all.

The post This Glowing Drone Fortress Could Save Lives in the Mountains first appeared on Yanko Design.

Antigravity A1 Review: Reimagining What a Drone Feels Like to Fly

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PROS:


  • Unique immersive experience with vision goggles

  • 8K 360 capture with post-flight reframing

  • Intuitive one-hand grip controller and automated modes lower the skill barrier

CONS:


  • Several pieces to carry and manage: drone, goggles, and controller

  • First-time setup and learning curve can feel overwhelming

  • Visual observer requirements in places like the U.S. limit solo flying

RATINGS:

AESTHETICS
ERGONOMICS
PERFORMANCE
SUSTAINABILITY / REPAIRABILITY
VALUE FOR MONEY

EDITOR'S QUOTE:

Antigravity A1 turns flying a drone into a new point of view, and once you are inside it, the experience feels hard to put a price on.

Antigravity is Insta360’s bold experiment in what happens when a 360‑camera company stops thinking only about the camera and starts redesigning the entire act of flying. It is an independent drone brand, incubated by Insta360, built on the same obsession with immersive imaging and playful storytelling, but free to rethink the aircraft, the controls, and the viewing experience as one coherent object. Instead of asking how to strap a 360 camera onto a drone, Antigravity asks how to make the whole system feel like a natural extension of your point of view.

Antigravity A1 is the first expression of that idea. It is a compact 8K 360 drone that arrives as a complete kit, with Vision goggles and a single‑hand Grip controller that you steer with subtle tilts and gestures. You do not fly it by staring at a phone and juggling twin sticks. You put on the goggles, step into a 360‑degree bubble of imagery, and guide the drone by moving your hand in the direction you want to travel. What was the experience with Antigravity A1 like? We tested it to bring you that answer.

Designer: Antigravity

Aesthetics

Antigravity A1 presents itself more as a system than a single object. There is the compact drone with its dual cameras, the Vision goggles, and the one‑hand Grip controller. Visually, the aircraft itself is quite understated. Aside from the two opposing lenses and the leg that shields the lower camera on the ground, it looks like a neat, functional quadcopter. The drama is reserved for what the system does, not how the airframe shouts for attention.

The Vision goggles lean into an almost character-like, even bug-like look, especially when you fold up the black antennas on each side that resemble insect feelers. The front shell is white with two large, dark circular eyes, giving the whole front a slightly cartoonish face. In between and just above those eyes sits an inverted triangle-shaped grille with a subtle Antigravity logo, adding a small technical accent without breaking the simplicity.  The fabric strap and thick face padding sit behind this front mask. Wearing the goggles does look strange at first, but in a strangely cool way.


 
The Grip motion controller has a white plastic shell with buttons and a dial that uses color and icon cues to hint at their functions. On the back, a black trigger-style pull bar sits where your index finger naturally rests. There are additional buttons on each side. The mix of white body, black accents, and clearly marked controls makes the Grip look approachable rather than intimidating, which suits a controller that is meant to translate simple hand movements into flight.

Overall, the drone, goggles, and controller share a cohesive design language. They all use the same soft white shell, black accents, and gently rounded forms. The whole kit feels like a single, intentional system rather than three unrelated gadgets.

Ergonomics

The Vision goggles are where comfort really matters, and Antigravity has clearly spent time on fit. The goggles weigh 340 grams, yet the padding and strap geometry distribute that weight in a way that avoids obvious pressure points, even during longer sessions. The side that meets your face feels soft and accommodating, so the hardware never feels harsh. Once the 360-degree image appears, the headset fades faster than you might expect, which is exactly what you want from an immersive device. Optional corrective inserts mean many glasses wearers can enjoy a sharp view without wrestling frames under the band, which makes the experience more inclusive and less fussy.

Power for the goggles lives in a separate battery pack that you can wear on a lanyard around your neck. At 175 grams, it is not heavy, but over time, it can feel slightly cumbersome to have it hanging there, especially when you are moving around. Antigravity sells a 1.2 metre (3.9 foot) USB-C to DC power cable that lets you route the battery to a trouser pocket or bag instead, which makes the whole setup feel less dangly and more integrated.

You adjust the head strap with velcro, which works, but it is not perfect. A small buckle or hinge mechanism would make it much easier to put the goggles on or take them off while wearing a hat, without having to readjust the strap length every time. It is a minor detail, yet it shows how close the design already is. You start wishing for refinements, not fixes.

The Grip controller is where Antigravity’s ergonomic thinking really shows. It rests comfortably in one hand, with a form that supports a natural, slightly relaxed grip rather than a tense, clawed hold. For my hand, it is just a tiny bit on the large side, enough to notice but not enough to break the experience. This is very much nitpicking, and it actually underlines how well resolved the controller already is. When you are down to debating a few millimetres of girth, it means the fundamentals of comfort and control are in a very good place.

Performance

My experience with Antigravity A1 actually started at IFA in Berlin in early September. Outside the exhibition halls, I slipped on the Vision goggles while an Antigravity staff member flew the drone. As the A1 lifted and the IFA venue unfolded beneath me in every direction, my legs actually shivered a little, even though I like heights. Being wrapped in a live 360-degree view felt less like watching a screen and more like I was flying. That first taste was magical, which made me both excited and nervous to test the A1 myself later. I had almost crashed a friend’s drone years ago and had not flown since, so my piloting skills were close to none.

That magic comes with a setup phase that feels more like preparing a small system than turning on a single gadget. The first time you connect the drone, pair the Vision goggles, update firmware, and learn the grip controls, it can feel overwhelming. There are menus on the drone, options in the goggles, and status lights to decode, and they all compete for your attention at once. After a few sessions, it settles into a rhythm, but that initial ramp is something you feel before you ever lift off on your own.

Mobile app – Tutorial

Packing the Antigravity A1 means finding room for the drone, the goggles and their separate battery, and the grip controller, often in a dedicated case or carefully arranged backpack. This nudges the whole experience away from “throw it in your bag just in case” and toward “plan a proper flying session.” The result is that the A1 feels more like a deliberate outing than a casual accessory.

On paper, the A1 looks quite sensible. With the standard battery, it weighs 249 g, staying just under the 250 g threshold that works nicely with regulations in many places, and it offers up to about 24 minutes of flight time in ideal conditions. Pop in the high-capacity battery, and the weight goes over 250 g, but Antigravity quotes up to around 39 minutes in the air. In reality, you get a solid single session per pack and will want spares if you plan to film seriously.

Flight behaviour is also adjustable. There are three flight modes, Cinematic, Normal, and Sport, so you can match how the drone responds to the scene you are flying in. Together with Free Motion and FPV, that gives the A1 enough range to feel relaxed and floaty when you want it, or more direct and energetic when the shot calls for it.

Vision goggles menu

On top of those basics, Antigravity adds automated tools like Sky Genie, Deep Track, and Sky Path. Sky Genie runs preprogrammed patterns that give you smooth, cinematic moves with minimal effort. Deep Track follows a chosen subject automatically, so you can focus more on timing than stick precision. Sky Path lets you record waypoints and have the A1 repeat the route on its own, which is handy for repeated takes or for nervous pilots.

Safety and workflow sit quietly in the background, which is exactly where they should be. Obstacle sensors on the top and bottom help protect the drone when you are close to structures or changes in elevation, and one click Return to Home acts as a psychological parachute. Knowing you can call the drone back with a single command does a lot to calm the nerves, especially if your last memory of drones involves a near crash.

In the United States, FAA rules treat goggle-only flying as beyond visual line of sight, so you are meant to have a visual observer watching the drone while you are wearing the headset. That nudges the A1 away from solo, spur-of-the-moment flights and toward planned sessions with someone beside you acting as spotter.

On the imaging side, the A1 records up to 8K 360-degree video, with lower resolutions unlocking higher frame rates when you want smoother motion. Footage can be stored on internal memory or a microSD card, and you can offload it either by removing the card or plugging in via USB-C, so it slips neatly into most existing editing habits.

Vision goggle screen recording

The real leap, though, comes from the goggles. They are the thing that truly sets A1 apart from almost every other consumer drone. Instead of glancing down at a phone, you step into an immersive 360-degree view that tracks your head and surrounds your vision. The drone feels less like a gadget in the sky and more like the spot your eyes and body are occupying. A double-tap on the side button flips you into passthrough view, so you can check your surroundings without pulling the headset off, and a tiny outer display mirrors a miniature version of the live feed for people nearby.

That small detail turned out to be important in Bali, where a group of local kids noticed the goggles and the moving image, wandered over, and suddenly found themselves taking turns “flying” above their own neighbourhood. Their gasps, laughter, and stunned silence were as memorable as the footage itself.

Mobile app

The magic continues even after you land. Because the A1 captures everything in 360 degrees, you can decide on your framing after the flight, which feels a bit like getting a second chance at every shot. Antigravity provides both mobile and desktop apps for this, so you can scrub through the sphere, mark angles, and carve out regular flat videos without having to nail every move in real time.

Desktop app

If you have used the Insta360 app, the Antigravity app will feel instantly familiar, with similar timelines, keyframes, and swipe-to-pan gestures. Even if you have not, it is straightforward to learn, helped by clear icons and responsive previews. There is also an AI auto-edit mode that can assemble quick cuts for you, which is handy when you just want something shareable without sinking an evening into manual reframing.

In the end, A1’s performance is not just about how long it stays in the air or how many modes it offers. Those pieces matter, and they are solid, but what you remember is the feeling of lifting off inside the goggles and the ease with which you can hand that experience to someone else. It still behaves like a well-mannered compact drone on the spec sheet, yet in use it edges closer to a shared flying machine, one that turns a patch of ground into a small, temporary viewing platform in the sky.

Sustainability

Antigravity does not make any big sustainability claims with the A1. There is no mention of recycled materials or lower-impact manufacturing, and the packaging and hardware feel very much in line with a typical consumer drone. This is not a product that sells itself on being green, and the company does not pretend otherwise. 

What you do get is some support for repairing rather than replacing. The A1 ships with spare propellers in the box, which encourages you to swap out damaged blades instead of treating minor knocks as the end of the drone. Antigravity also sells replacement lenses, so a scratched front element does not automatically become a total write-off. It is a small step, but it nudges the A1 slightly toward a longer, more fixable life rather than a purely disposable gadget.

Value

The standard Antigravity A1 bundle starts at 1599 USD, with Explorer and Infinity bundles stepping up battery count and accessories for longer, more serious flying. It is undeniably an expensive system, especially compared to regular camera drones that only give you a phone view.

At the same time, what you are really paying for is the experience of being inside the flight and reframing your shots after the fact. That sense of presence and flexibility is hard to put a number on, and for me, it nudges the A1 from “costly gadget” toward something closer to a priceless experience machine, if you know you will actually use it.

Verdict

Antigravity A1 is not the simplest drone in terms of equipment. You are managing goggles, a grip controller, multiple batteries, and in some places, you also need a visual observer if regulations require it. On top of that, the price sits firmly in premium territory. In return, you get a very different kind of flying. At first, setup and piloting can feel overwhelming, but it becomes natural surprisingly quickly, and there are plenty of automated features to help you keep the drone under control and capture cool shots. Combined with 360-degree capture and post-flight reframing in the Antigravity app, it feels less like operating hardware and more like stepping into a movable viewpoint.

If you just want straightforward aerial clips, the A1 is probably more than you need. If you care about immersive perspective and shared experiences, the mix of kit, software, and feeling it delivers starts to justify the cost. It is fussy, ambitious, and occasionally awkward, yet when you are inside that live 360-degree view, it really does reimagine what a drone can feel like to fly.

The post Antigravity A1 Review: Reimagining What a Drone Feels Like to Fly first appeared on Yanko Design.