Use case & requirements
Define user, task, environment, payload, reach, speed, runtime, interfaces, hazards and acceptance criteria before choosing a form factor.
Robotics & Embodied AI · Desk 07
Move from a useful problem to requirements, CAD, robot descriptions, bills of materials, prototypes, tests and a responsible production plan.
Desk thesis
Reader outcomes
Follow a practical path from use case and requirements to prototype and production readiness.
Find appropriately licensed CAD, URDF/MJCF, schematics, software and assembly references.
Understand which reviews, tests and professional sign-offs remain before a design can become a safe product.
Go deeper
Five reviewable stages connect requirements, digital models, simulation, reproducible prototypes and controlled release—with inputs, artefacts, review questions and primary sources at every gate.
Open the five-stage path →04Find official CAD, robot descriptions, software, simulation models and hardware references by robot form—with per-source licence boundaries, evidence maturity, missing validation and FUURAA analysis.
Open the engineering reference library →Professional map
Every topic carries an engineering meaning and a question that must be answered.
Define user, task, environment, payload, reach, speed, runtime, interfaces, hazards and acceptance criteria before choosing a form factor.
Kinematics, structure, joints, transmissions, bearings, enclosures, tolerance and maintainability become versioned assemblies and drawings.
Motors, drives, batteries, protection, wiring, compute and sensors are sized from loads, duty cycle, thermal limits and fault behaviour.
CAD is translated into URDF, MJCF or equivalent models, then connected to drivers, state estimation, planning, control and observability.
A controlled bill of materials links approved parts, alternatives, lead times, suppliers, processes, cost and quality checks.
Build instructions, fixtures, torque records, cable routing, firmware and calibration turn parts into a reproducible prototype.
Unit, integration, endurance, environmental, misuse and safety tests close requirements before controlled release and field monitoring.
Reference architectures differ: factory cells prioritise throughput and integration; domestic and companion systems prioritise low energy, quiet operation, privacy, contact safety and maintainability.
Source gateways
FUURAA connects readers to originals through professional translation and structured analysis; it neither reproduces source sites nor hides evidence boundaries.
Open models, datasets and tools for real-world robot learning.
Official tutorials for modelling robot links, joints, physical properties and state publication.
An open research quadruped reference with CAD, electronics, cable drawings, software and assembly material.
Curated robot simulation models with meshes, MJCF descriptions and model-specific licences.
Simulation, learning, acceleration libraries and workflows for physical AI.
A standards entry point for industrial robot safety requirements.
Scope & limits
FUURAA can organise public, licensed engineering references and build paths; it does not warrant that a third-party design is complete, safe, certified or manufacturable.
High-power, load-bearing, medical, mobility, hazardous-environment and human-contact robots require qualified engineering and jurisdiction-specific review.
Only licence-compatible files may be redistributed; otherwise FUURAA links to the source and records provenance, version and terms.
The portal will not publish weaponisation instructions, bypassed safeguards or unlawful surveillance designs.