We automate what
standard robots
can't reach.

Gantry, end-effectors and sensor-to-actuator control for the processes automation hasn't reached yet. Epic builds the body; the digital twin keeps the brain.

Robotic gantry lab automation cell
Illustration · gantry automation cell concept
Epic Robotics engineers working around a robotic gantry in the lab
Illustration · commissioning cell concept
— The people behind the body

One interdisciplinary team.
Hardware, software, IT,
cybersecurity, data.

Mechanical and control engineers build the gantry and end-effector; IT and data engineers run the edge, network and storage; cybersecurity engineers hold the loop closed and the process trusted — then hand clean, timestamped ground truth back to the research that asked for it.

The loop

Twin → edge → robot → process

The simulation defines the algorithm. Epic builds and runs the hardware that executes it, and returns clean, timestamped ground truth upstream. Precise action down, honest data up.

control vector
01

Digital twin

Algorithms, vision ML, predicted state. Partner-owned.

02

Edge layer

Sensors, actuators, closed loop at the cell. Epic.

03

Robot

Gantry, end-effector, handling. Epic.

04

Process

Live state measured, quality preserved.

Adaptive gripper on a precision stage
— WS01 · HANDLING
Adaptive gripper on a precision stage
Epic Robotics · 2026
Robotic cell commissioning
— FIELD · VALIDATION
Robotic cell commissioning
Predicted-vs-observed ground truth
Machine-vision rig & calibration
— WS05 · PERCEPTION
Machine-vision rig & calibration
Inline metrology + pose
— The corridor

Built in Europe's
robotics heartland.

Epic Robotics operates in the Munich–Nuremberg deep-tech corridor — one of the strongest robotics and AI ecosystems in Europe. Epic draws on this corridor's talent, hardware, and research base to build automation that is precise, credible, and grounded in real science.

Munich — Nuremberg · ~150 km
MUN48.14°N

Munich

Robotics research anchor

TUM's Munich Institute of Robotics and Machine Intelligence (MIRMI) — force-controlled manipulators, the same class of arms Epic uses for delicate handling. TUM Weihenstephan brings crop and plant-science depth where robotics and biology meet.

NUE49.6°N

Erlangen

AI & applied automation

FAU Erlangen-Nürnberg — a national leader in machine learning and computer vision, alongside Siemens and Fraunhofer IIS. Dense, applied layer of automation expertise north of Munich.

UTN49.45°N

TU Nürnberg

New AI-and-robotics university

Technische Universität Nürnberg — a purpose-built institution for AI and robotics, adding a research-native generation of talent to the corridor.

THN49.45°N

TH Nürnberg

Applied mechatronics

Applied mechatronics and automation engineering — the hands-on engineering school feeding skilled integrators into the corridor.

Capability stackWS01 — WS06
—  WS01 · HANDLING

Programmable manipulation of delicate parts

Soft and adaptive end-effectors for irregular, fragile and lab-scale components — vials, wafers, tissues, assemblies — without process-specific tooling for every new part.

Compliance control · part registration · damage-free handling across mixed geometries

—  WS02 · MOTION

Multi-axis gantry & precision positioning

High-repeatability gantries and stages that service dense, stacked geometry and reach into constrained cells with collision-free paths.

±10 µm repeatability · tray/cell registration · collision-free servicing

—  WS03 · PERCEPTION

Machine vision & inline metrology

Angled camera arrays, structured light and force sensing that close the loop on part presence, pose and quality at the cell.

Pose estimation · inline metrology · illumination stability and calibration

—  WS04 · EDGE CONTROL

Sensor-to-actuator layer

Mounting and driving sensors and actuators, running low-latency closed loops at the cell and streaming clean, timestamped state upstream.

Edge acquisition · actuation latency · data-pipeline integrity

—  WS05 · CELLS

Integrated robotic work cells

Registration, tool change and servicing that turn a gantry and an arm into a working cell on the floor or the bench.

Cell integration · tool change · repeatability over long runs

—  WS06 · AUTONOMY

Process-driven scheduling

Signal-triggered orchestration: the system decides when to act from live process state, not a fixed clock.

State-triggered policy · predicted-vs-observed validation

Quantified · engineering dashboardWS04 + WS05 · edge + perception
WS04 · edge control

Closed-loop cycle-time settling

The cell converges to target cycle time within the first run and holds it. Measured per cycle against the model — the loop validates itself before sustained autonomous operation.

01234567891011121314151617180s0.65s1.3s1.95s2.6starget
ModelMeasured
WS05 · perception

Vision metrology · nominal vs. measured

Inline optical measurement tracks nominal dimension within engineering tolerance across the part set — no re-baselining between runs, no drift in the loop.

071426nominal mm071426measured mm
— agreement vs. y = x reference · 12-part gauge study · tolerance ±0.05 mm
Research-connected

We build robots against a measured process, not in a vacuum.

Epic's automation is driven by live process measurement: inline metrology, force and vision sensing, and state-triggered control at the cell. The process sets the control target; the robot meets it.

→ Munich robotics & automation cluster
→ TU Munich · automation & robotics R&D
→ EU research network · robotics consortium
23-month roadmap
M1Month 1–4Robotic cell concept and interface spec, including digital-twin integration
M2Month 5–10Handling prototype and edge layer feeding live data upstream
M3Month 11–16Integrated cell: gantry, handling and perception on one platform
M4Month 17–23Signal-triggered autonomy and predicted-vs-observed validation
News & updatesAll updates ↗
Project Maya: closing the loop on lab automation.
— Project update/January 2026

Project Maya: closing the loop on lab automation.

The first Maya cell is running unattended cycles in Munich — a gantry, a vision module, and a tight edge controller keeping the experiment loop closed end to end.

Read the update ↗
AI systems beyond robotics — lab workstation with computer vision, NLP, predictive analytics and intelligent automation
Illustration · AI systems beyond robotics
— Beyond robotics

AI Systems
Beyond Robotics

EPIC Technologies develops AI-based systems for the automated collection, processing and analysis of complex technical and commercial information. In addition to intelligent robotics and machine-vision applications, the company is developing software solutions that transform heterogeneous data and documents into structured, decision-relevant information.

Computer VisionNatural Language ProcessingPredictive AnalyticsIntelligent Automation
— Pipeline

Projects in Development

Software initiatives extending EPIC Technologies' AI capability into adjacent commercial workflows.

EPIC TenderAI

AI-supported tender, market & partner analysis

Status · In developmentTarget market · Ghana (eval.)Sector · B2B software

EPIC TenderAI is an AI-supported B2B software solution currently in development for analysing tender, market and business-partner information. The system is intended to identify relevant opportunities, structure requirements and deadlines, and support companies in internal bid/no-bid and market-entry decisions.

Ghana is being evaluated as the first international target market. The planned solution will complement existing procurement platforms and will not replace official tender portals or automatically submit bids.

Have a process nobody can automate yet?

Epic Robotics · Munich, Germany · engineering@epicrobotics.de

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