FOURMARS.COM Building A Brighter Future

Robots

The Robot Revolution has begun.

Fourmars Robot Use Cases are just beginning. What do you have in mind? Use Case Project Leaders and team members needed.

Master Chef, My New Favorite Use Case Development

Forestry
Imagine I am Charlene, revolutionizing the forest industry. Lower costs, higher profits and improving the environment at the same time.
Until the robots are fully autonomous they can be remotely teleoperated. The robot is learning more every minute.
Robot Racing
Imagine it’s 2027 and I am Hotima, helping lead our robot racing team, gaining knowledge and skills we will need here on Earth, on our Moon, Mars.
Can you imagine how much fun it will be to be on this team? Interested in the hardware or software? Auburn versus UA?
Mining
Imagine it’s 2027 and I’m Sarah, leading my profitable robot rare earth recovery team that is cleaning up legacy environmental waste at the same time.
Sarah’s robots could be anywhere making profits and improving the environment at the same time.
Farming
Imagine I’m Clara, teaching gardening, love of nature, and the wonders of God and creation at the same time. Building trust at all community levels.
He could be on your family farms starting 2027, reducing costs and improving yield.

Here’s a Use Case example to get you started.

A really fun Use Case. I made this video with Google Gemini, I know you can do much better. Send your creation links by text to 1.423.677.1161, or by email to robots@fourmars.com. Thanks for your help.

Robot Racing and Backhoe Rodeos. Can you imagine being part of a team that makes these dreams come true in 2026-2027?

Robot racing fun could begin in the fall of 2026. Robot racing profitability can begin at the same time. 

Fourmars is primarily a software company that is also in the cattle business. We have begun raising Cash Cows. Robot Racing could become one of our most successful because it will provide entry into 6 different market spaces – use cases. Can you imagine Fourmars Robot Racing around the world beginning in late 2026? Live stream robot races could be very profitable, combined with robot racing merch. Wow. Maybe. Let’s join together and find out.

Backhoe Rodeos could also begin in 2026-2027. This looks really fun, how about you?

Fourmars American Partnership Candidates (Others to follow)

  • Tesla’s Optimus Robot is an autonomous, bipedal humanoid robot under development designed to handle repetitive, dangerous, or boring tasks. Tesla has moved into production preparation for Optimus Gen 3 at its Fremont and Texas facilities, targeting commercial scaling to 1 million robots per year by the end of 2027.
  • Boston Dynamics (Atlas+Spot): The gold standard for extreme industrial hardware reliability and dynamic physical tasks, especially suited for high-payload manipulation and unpaved terrain. Recently purchased by Hyundai, the 2026 production is sold out but many of the robots are targeted for Hyundai research facilities in the US.
  • Agility Robotics (Digit): The leading candidate for verified commercial supply. Their dedicated RoboFab facility in Oregon is built for high-volume output (scalable up to 10,000 units/year), and Digit is purpose-built for logistics, material moving, and rugged industrial workflows.
  • Apptronik (Apollo): Designed explicitly for industrial AI, mass manufacturing, and heavy labor environments. With strong industrial backing (including automotive pilots like Mercedes-Benz), Apptronik is positioned to scale fleet sizes rapidly.
  • Figure AI (Figures 1-3): High-capability AI-first humanoid systems designed for precision manipulation and heavy industrial environments. Their scaling lines are built to ramp output significantly for enterprise pilots.
  • There are currently 140+ Chinese Humanoid robots manufacturers led by Unitree Robotics (G1 / H2) & AgiBot. Chinese volume leaders currently have one fifth of the current global market offering cost-effective hardware platforms for open-architecture software integration, extreme terrain navigation, and bulk fleet readiness.

Key Technical & Logistics Vectors for the Deployment

Phased Rollout: Structuring initial deliveries around pilot production (50–100 units in 2026 and early 2027) to validate teleoperation latency and site workflows before scaling to the full 1,000+ robot fleet footprint.

Hardware Ruggedization: Mountain and field environments require high ingress protection (IP ratings against dust/moisture), wide operating temperature ranges, and dynamic balance on steep, uneven grades.

Edge Compute & Satellite Teleoperation: Establishing a decentralized edge-compute architecture (local AI inference clusters linked via low-latency satellite nodes like Starlink) ensures continuous coordination in remote hollows where cellular infrastructure is sparse.

Growing AI Autonomy: Autonomous humanoid robot technology just can’t happen fast enough. While remote teleoperation can work on Earth (nearly instantaneous messaging) and to some degree on our Moon (2.5 second send-receive message latency), Mars requires a very high level of autonomy due to the 8 to 42 minute send-receive message latency.

Heavy Machinery Integration: Equipping humanoids with multi-modal end-effectors and trained vision-action models so they can board, manipulate controls, and operate heavy equipment (excavators, loaders, skidders, and haulers) without needing to re-engineer existing machinery.