Four-thruster concept
Directional control with a focus on simple, familiar piloting.
Underwater exploration Concept stage
A real ocean.
Your next frontier.
A vision for exploring the underwater world
with a game controller, from anywhere.
Real places. Shared discoveries.Concept visualization
The device
Meet the device.
Open a new world.
A compact underwater drone concept, built around a camera, a familiar controller and a simple connection to the surface.
Camera-first design
Live underwater imagery at the centre of the experience.
Modular by design
Replaceable parts, with room to explore new capabilities.
The engineering idea
Pressure-balanced electronics and a repairable frame could bring costs down. Depth, endurance and production economics still need physical validation.
Above water. Connected below.
The surface is
the connection.
A compact companion for the cable, the connection and the next dive.
The surface hub concept brings together the tether connection, local Wi-Fi and a possible mobile-network uplink. An integrated reel is a packaging idea being explored to make cable storage and deployment part of the same portable system.
The vehicle would carry its own battery. The tether’s job is communication: control, video and telemetry. Early prototypes start with a practical wired setup, with lighter fibre options to explore later.
The starting point
Keep the dive close.
From a shore, pier or boat, the operator connects a controller and screen to the surface station. The tether carries video and movement commands to the drone. Local control is intended to remain useful without a cloud subscription or an internet connection.
Controller + screenSurface stationDrone
On the water
A boat trip.
An underwater chapter.
One guest takes the controls. Others follow the underwater view on a big screen. A local operator brings the whole experience together.
Take a closer look
A headset could bring the underwater view into a personal virtual screen. A familiar controller gives the guest a way to explore.
Make it a shared discovery
An onboard TV keeps everyone part of the dive. Guests can spot marine life, suggest a direction and take turns piloting.
Offer another experience
Operators could add guided underwater sessions to an existing excursion. Pricing and profitability are questions for commercial pilots.
The path to immersion
A live screen in a headset
The initial VR concept.
A camera that follows a look
A later head-tracking experiment.
A sense of depth
Future stereo-camera research.
An illustrative operator day
One setup.
Different audiences.
Local guests, remote pilots and viewers could make use of the same equipment at different times. Utilization has to be proven in real operations.
Add a dive to the boat trip.
A sightseeing cruise, fishing trip or private charter could offer underwater exploration as an additional activity. Guests watch on a shared screen, try the controller or join a guided headset experience. The commercial pilot would test demand alongside preparation time, battery changes, maintenance and staff attention.
Potential income: hosted experiencesA starting point at the water’s edge
From a pier.
From the shore.
From curiosity.
The concept also starts with a person, a controller and somewhere to launch.
Rocky coasts, lakes and marinas offer a different kind of exploration close to home. A portable setup could bring live underwater imagery to a nearby screen, without needing a boat.
Personal ownership is part of the idea from the beginning. Local piloting, recording and basic control are intended to stand on their own, with connected services adding options over time.
Proposed use cases depend on site suitability and operating conditions.
Concept visualizationThe experience
From your living room
to the seafloor.
The idea is direct: move a controller, move a real drone. Explore together, watch the same view and take turns at the controls.
A local operator would handle launch and recovery, with the ability to take over when needed.
YouA familiar controller
The connectionInternet, buoy, tether
The real oceanA drone in the water
Remote control. Local responsibility. Stabilization is designed to run onboard. The field operator retains priority.
Proposed session formats
Come to watch.
Stay to explore.
Public viewing creates a way in. Paid control reserves something physical: time with a real drone at a real place.
Follow an expedition.
Public viewing would let people discover a location and share the underwater view before deciding whether to participate. A broadcast can serve a wider audience while control remains with one authorized pilot.
Discover a placeJoin the viewGet readyTake a turnShare the discovery
The pilot’s video connection and the public broadcast are separate parts of the proposed system. No sessions are available to book yet.
The people behind a dive
Five roles.
One shared expedition.
One person can take several roles. Separating them creates room for local businesses, remote hosts and owners to participate in different ways.
Owner
Provides the hardware.
An owner could use the drone personally or place it with a local operator. Ownership need not require living near the deployment site.
Field Operator
Makes the dive possible.
Stores, charges, checks, launches and retrieves the equipment. This person monitors local conditions and retains priority control.
Mission Host
Brings people together.
Welcomes participants, guides the conversation and manages the pilot queue. A host could run a session from another location.
Remote Pilot
Takes a turn exploring.
Receives control for an authorized part of the session. The pilot chooses where to look and how to move within the mission’s limits.
Viewer
Shares the discovery.
Follows the underwater view and can become a participant. Watching, talking and requesting a turn are part of the social concept.
Hardware ownership, site operations, hosting and temporary control are distinct responsibilities.
The opportunity
One device.
More ways to explore.
Concept visualizationOwn the hardware
A repairable drone for personal exploration and commercial use. Hardware and accessories form the starting business model.
Hardware & accessoriesHost the experience
Boat tours, dive centres and coastal resorts could add a new activity, with local operators handling launch and recovery.
Tourism & local operatorsPilot from anywhere
Paid time at the controls would give remote participants access to real places, with shared viewing and guided sessions.
Remote sessionsBuild the network
More operators could bring more locations online. Public streams would help people discover dives; transactions could generate platform revenue.
A future marketplaceA proposed business model. Customer demand and operating economics remain to be tested.
The business, in stages
Sell the device.
Grow the reasons to use it.
The business model develops with the installed base. Each additional service should answer a real need discovered in use.
Hardware that stands
on its own.
Drones, accessories, replacement parts and commercial kits are the initial revenue directions. Repairability matters to individual owners and to operators preparing equipment for another day on the water.
- Base devices and commercial bundles
- Batteries, lights and tether options
- Replacement and service components
Local operations.
Remote demand.
Tourism experiences and paid piloting sessions could create income around each deployment. The proposed platform could earn transaction fees while owners, operators and hosts agree how to share the work and proceeds.
- Hosted onboard experiences
- Remote and private sessions
- Booking and transaction services
Tools for a
growing network.
Fleet management, archives, creator tools and optional cloud features become relevant when enough people are using the system. The design principle is that basic local ownership remains useful without a mandatory subscription.
- Operator and fleet tools
- Optional recording and cloud services
- Creator and discovery features
Unit economics remain to be measured: demand, utilization, staff time, network costs, servicing and equipment life all matter.
An expedition with an audience
Make a discovery.
Make a story of it.
A creator could host the dive, invite a guest pilot and let an audience follow the exploration.
A familiar public channel such as YouTube Live could help people discover the project. Scheduled events, guided sessions and guest turns would give viewers different ways to join.
The content itself could introduce the device to a new audience. That is a growth hypothesis to test through real footage and repeatable experiences.
A proposed dive journal
Bring something back
from the dive.
A fish, an old anchor, a new detail.
Keep the moment and its context.
Revisit a clip or snapshot.
Let others follow the discovery.
More people. More perspectives.
A field trip
the class can help steer.
A teacher, a local operator and a room of curious students could share the same underwater view. Remote participation opens possibilities beyond tourism.
Education
A teacher could host a remote field trip while students observe and take turns exploring. Marine biology, ecology and robotics are natural subjects for early educational pilots.
Research & observation
Researchers could join a shared session, discuss features and add observations. With permission, future dives might contribute records of habitats, species or underwater litter.
Inspection & mapping
Marinas and boat owners could explore visual inspection use cases. Sonar, measurement and mapping are possible later modules, with their own hardware and validation needs.
Potential applications, not existing deployments or validated scientific and educational outcomes.
Built to be worked on
A device to explore.
A platform to develop.
Replaceable components and accessible prototyping could let the hardware improve through real use.
A proposed Community Edition would bring together printable parts, a bill of materials, firmware and assembly guidance. Makers could help investigate thruster geometry, materials, tether handling and control feel.
For operators, modularity is practical: inspect a component, replace what needs attention and prepare for the next deployment. Pressure-balanced electronics are an engineering approach to investigate, with compatibility and pressure testing still ahead.
Repairable modulesPrintable prototypesOptional future sensors
Community files, SDKs and guides are proposed deliverables, not released resources.
Trust starts with the design
Remote exploration.
Local responsibility.
A host manages the experience. A field operator stays responsible for what happens at the site.
Control is designed to pass through a clear handover. Onboard stabilization handles the fast corrections, while local priority and command timeouts address interruptions in the remote connection.
Recovery is a set of engineering questions to validate. No single mechanism removes the risk of loss or entanglement.
Buoyancy and controlled ascent
The vehicle is intended to be slightly positively buoyant. Prototype work would test how it behaves when propulsion stops, alongside locally controlled ascent. Conditions and entanglement can still prevent a return.
Independent recovery mechanisms
Releasable ballast is a proposed mechanical recovery layer. Later work includes emergency flotation and independent control or reserve energy, so recovery is not tied to one normal system.
A separate location marker
An emergency locator buoy is a different component from the normal communications hub. Its line would help locate a trapped device; it should not be assumed to lift the vehicle or guarantee retrieval.
Preparation for the next dive
Operators would inspect the tether, check equipment and service activated recovery components before reuse. Repeatability and maintenance burden belong in the validation programme.
Future research
The exploration
could keep going.
Between human sessions, an autonomous operator could continue a bounded mission: observe, revisit points of interest and create a public stream under local supervision.
A participant’s turn would pause autonomous activity. The mission would be reassessed before continuing.
Find something worth seeing.
A future decision layer could choose where to look next, while local control handles movement within the mission’s limits.
Give the moment room.
Camera direction could slow down around a subject, adjust lighting and avoid repeating the same view. Wildlife distance comes first.
Use evidence from real dives.
Recorded observations and human interventions could inform later development. Research starts by watching before acting autonomously.
ExplorationUseful footageAn audienceHuman sessions
Our roadmap
Prove it in the water.
Then go further.
The next step is a working shallow-water prototype. Each stage is designed to answer a real question before expanding.
- 01
Prototype
Validate movement, stability and useful live video in shallow water.
The first milestone - 02
Pilot experiences
Test repeated operation and guest demand with local tourism partners.
Proposed next step - 03
Remote sessions
Prove remote handover, connection quality and willingness to pay.
Planned development - 04
Global network
Add locations and booking tools as supply and demand develop.
Long-term vision
On the horizon
Autonomous exploration and camera direction between human sessions, within operator-approved limits.
Future researchThe next conversations
A clear idea.
Real questions
to answer.
There is a difference between a compelling vision and a proven business. The next work connects the two through hardware trials and focused pilot experiences.
Discuss a pilot or investmentIs Remote Dive already available?
The project is at concept and prototype-planning stage. The first milestone is useful shallow-water piloting and video, followed by repeated operation and carefully scoped commercial pilots. The images on this page are design studies.
Is this a video experience or real control?
Real piloting is central to the proposal. A remote participant would command direction and movement; onboard software would stabilize the vehicle. Viewers could watch the same exploration without having control.
Would the system work without the internet?
Local control at a shore, pier or boat is a core design goal. Internet connectivity would add remote participation and public streaming. A boat-side satellite uplink is a possible future option, not validated Remote Dive compatibility.
What would the first VR experience look like?
The starting concept is an underwater live view on a virtual screen inside a headset, with a game controller for piloting. Head-linked camera movement and stereo imagery are separate future experiments.
How could an operator earn from it?
Proposed routes include hosted boat experiences, paid remote turns, private sessions and creator events. Revenue would depend on customer demand, operating conditions, staff time and equipment costs; no return is guaranteed.
What needs to be proven next?
Natural controls, useful footage, tether handling, repeatable recovery and equipment durability. Tourism pilots would then test the guest experience and workload. Remote sessions add connection quality, handovers and willingness to pay.
Let’s build what comes next
Help open the
underwater world.
An early-stage venture seeking conversations
with investors and pilot partners.
Contact details will be available soon.