yroByte
FIELD ROBOTICSPrepare for an
Prepare for an
unpredictable world.
Simulate navigation and coverage planning before the next field trial. Replay the moments that need a closer look.
Simulation / Navigation / ReplayAll services
- MVP Development A first version that ships
- Full Product Development App, backend, admin, ops
- Scaling & Platform Performance under load
- Web App Development Product-grade web apps
- Mobile App Development iOS and Android, one codebase
- Desktop Development Windows, macOS, and Linux
- API & Backend Systems Integrations and production APIs
- Shipping Platforms Carrier APIs and multi-carrier platforms
- Admin Dashboards Consoles a team works from
- Ecommerce Solutions Stores, payments, and orders
- AI Platform Mission Control for your team
Studio & specialized
- Game Development iOS, Android, web, desktop
- 2D Assets & Animation Sprites, UI, and cutscenes
- 3D Assets & Animation Characters, props, cinematics
- Embedded Hardware Boards, firmware, manufacturing
- Robotics & Autonomy Perception, planning, control
- Scientific & Biomedical Instrument-adjacent software
- Aerospace & Simulation Enterprise programs only
- Realtime Communication Game servers, WebRTC, UDP/TCP
- AI Tracking People, plates, pulse — live cameras
- Security Communications 4G PTT, command, personnel
- End-to-End Encryption Your keys, Signal-class sessions
- Consultation Scope, architecture, a plan
- Asset Design 2D and 3D under one roof
Robotics software
Perception.
Planning.
Control.
We engineer the software layers that make robots useful — ROS 2 systems, sensor fusion, simulation-first development, and the teleoperation and fleet tooling operators actually work with.
Our work ships under strict NDAs. We show what we know, not who we built it for.
01 / THE SOFTWARE BETWEEN
Hardware has potential.
Software gives it purpose.
From the first sensor reading to the operator’s next decision. We connect the layers that turn a machine into a useful system.
THE AUTONOMY LOOP01 / 04
A shared view of the world.
Bring cameras, lidar, IMU, and odometry into one coherent data pipeline. Time-aligned inputs and consistent coordinate frames give downstream decisions a foundation.
Camera · Lidar · IMUAligned world model
A CONNECTED TOOLCHAIN
ROS 2C++PythonRustGazeboDDSFoxglove
02 / DIFFERENT FORMS. SHARED FOUNDATIONS.
Meet the machines.
Explore the software.
Four original airframe concepts. Four ways to explore the perception, planning, and control challenges behind autonomous flight.
ZYROBYTE / AIRFRAME STUDIES
CONCEPT VISUALIZATION + + +
CONCEPT VISUALIZATION + + +04 / OMNIDIRECTIONAL
ZyroByte ORB
A protective geodesic cage and a multi-rotor layout. A concept for exploring movement, spatial awareness, and control in constrained spaces.
SOFTWARE FOCUSSpatial awareness & control
- Sensor fusion
- Motion planning
- Control allocation
Original design studies illustrating software problem spaces. Project scope is shaped around your hardware and operating requirements.
03 / PROVE IT. THEN MOVE IT.
Confidence starts
in simulation.
The real world is full of edge cases. Our workflow makes them easier to find, reproduce, and work through.
Trustworthy before clever.
Observable. Testable. Understandable.
- 01
Define the operating envelope.
Map the platform, sensors, environment, and failure modes. Agree on what success needs to look like.
Architecture & acceptance criteria - 02
Build a world to test in.
Create simulation scenarios and replay recorded inputs to make behavior reproducible before hardware trials.
Simulation & replay workflows - 03
Close the loop on hardware.
Integrate incrementally. Measure critical paths and investigate where real-world behavior diverges from simulation.
Integration & performance evidence - 04
Make it operable.
Bring telemetry, remote assistance, and regression coverage together so the system can keep evolving.
Operator tooling & handover
04 / OUT OF THE LAB
Built around
the job to be done.
Representative scenarios, grounded in the problems robotics teams need to solve.
01 / LOGISTICS
A fleet. One clear picture.
Live status, task queues, and exception handling in a supervisory interface that helps operators know where to act.
Fleet coordination / Remote assist02 / INSPECTION
Captures become insight.
Organize and georeference sensor data. Give analysts the review tools to find, flag, and investigate defects.
Data pipelines / Review tooling05 / YOUR NEXT MOVE
Start with a question.
Build toward a system.
A focused exploration or an ongoing engineering partnership. We shape the engagement around what your team needs next.
EXPLORE & VALIDATE
R&D partnership
Resolve an unknown, test an architecture, or bring an early autonomy concept into simulation.
A focused problem. A defined next step. BUILD & EVOLVEDedicated team
Extend your engineering capability across integration, operator tooling, and sustained platform development.
Shared context. Continuous progress. NDA-ready collaborationHow engagements work
BEFORE WE BUILD
A few useful answers.
Yes. The starting point is your platform, sensor suite, existing code, and operating constraints. We can scope a specific layer or work across the software stack, with integration boundaries agreed during discovery.
An exploratory engagement can focus on architecture, a simulation environment, or a bounded proof of concept. We define the question to answer and the evidence needed before expanding the work.
We use explicit state design, defined failure behavior, replay-driven debugging, and scenario-based regression testing. Any formal safety or certification requirements need to be established as part of the project scope.
Tell us about the robot, its sensors, the environment it operates in, and the software problem you need to solve. An architecture sketch, a sample recording, or a description of the current bottleneck is a useful starting point. Confidential material can be covered by an NDA.
Building software for autonomous systems?
Tell us about your platform, your sensors, and where the software is holding you back. We will propose an engagement shaped around the problem.