Our flagship rover merges enclosed hub motors with 7× more torque and a three-pack battery architecture, delivering high output without compromising operational runtime. Scroll on to discover the technical brilliance behind each subsystem and learn how LEAP-ONE redefines off-world robotics.
Our flagship rover merges enclosed hub motors with 7× more torque and a three-pack battery architecture, delivering high output without compromising operational runtime. Scroll on to discover the technical brilliance behind each subsystem and learn how LEAP-ONE redefines off-world robotics.
LEAP-ONE is a pioneer in our LEAP Series—a rover forged by student teams eager to tackle authentic space exploration challenges. Its chassis, power systems, and autonomous navigation all converge into a single platform aimed at conquering rugged, planetary-like terrains.
Driven by interdisciplinary teams, showcasing how undergraduates and mentors unite to solve aerospace challenges.
Optimized for rocky, dusty, or low-gravity settings, reflecting conditions on Mars or the Moon.
Ditches brushed motors for enclosed hub motors and uses a triple battery setup to deliver more power and extended resilience.
Below are the standout features that set LEAP-ONE apart from conventional rovers, emphasizing performance, adaptability, and robust engineering design.
Each wheel-mounted motor is sealed against dust and debris, offering formidable climbing and maneuvering capabilities.
Splits power demands across three packs, improving stability and safeguarding runtime under heavy load.
Allows quick swaps of scientific instruments, sensors, or mechanical parts—extending the rover’s operational lifespan and adaptability.
LEAP-ONE’s mobility framework ensures steady traction and minimal tipping risk, vital when exploring uncertain terrains. Every structural choice was made to balance durability with weight efficiency.
Keeps wheels grounded on uneven surfaces, reducing rollovers and wheel slip.
Built from lightweight alloys, offering both rigidity and easy reconfiguration for mission upgrades.
Minimizes energy loss on rough soil, directing power where it’s needed most.
A reliable power system is essential for extended exploration. LEAP-ONE’s intelligent battery configuration and thermal design maintain consistent energy delivery, even under intense usage.
Maintains similar runtime as before but supports higher power draw for demanding tasks.
Prioritizes motors and vital sensors to prevent sudden power deficits.
Monitors temperature in real time, activating cooling measures if pack heat rises too high.
Designed to handle a range of tasks—from sampling loose regolith to twisting maintenance panels—the robotic arm delivers refined control through a combination of stepper and servo motors.
Offers precise positioning for instruments or end-effectors, crucial in delicate operations.
Swaps effortlessly between grippers, scoops, or probes, broadening the rover’s mission scope.
Sensor feedback helps minimize vibration and prevent accidental drops when handling fragile samples.
LEAP-ONE’s drill system digs below surface layers to uncover geological secrets. This robust assembly is engineered for stability, torque control, and sample integrity.
Penetrates up to 30 cm underground for deeper exploration and data collection.
Adapts drilling force to soil density, reducing mechanical strain.
Extracted samples can be tested on the spot, saving time and boosting scientific yield.
By pairing the rover with a small aerial partner, LEAP-ONE expands its operational zone, gathering intel on distant sites or guiding more efficient navigation.
Drone scouting identifies hazards and highlights potential sample areas.
Coordinated telemetry allows both rover and drone to exchange situational awareness and terrain visuals.
Future design considerations aim to house, recharge, or maintain drones onboard.
LEAP-ONE integrates multiple sensors and AI-driven algorithms to tackle off-world navigation with minimal human input. Its real-time terrain mapping elevates mission precision and safety.
Merges 2D/3D data for robust obstacle detection, even in dusty or low-light conditions.
Identifies key targets—like rock formations or panels—supporting tasks such as sampling or maintenance.
Executes path planning and dynamic adjustments, essential for large arenas or competitive tasks like ERC.
Aries.space unites students, researchers, and enthusiasts to explore new frontiers in rover design, aerial robotics, and beyond—one bold idea at a time.