Systems Engineer · Robotics Scientist · Founder

Anna Adamczyk

I develop systems for complex real-world challenges and design human-centered interfaces that make them understandable and usable.

Anna Adamczyk

Currently

Building infrastructure for personal applications where people have exclusive control over their data, yet can securely sync it with the people they care about, enabling a new generation of private apps.

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Complex systems,
made human.

Human-Centered
Systems Engineering

The work that interests me most lies at the intersection of engineering, real-world constraints, and human use. Neither side is negotiable.

Systems operating in this space are inevitably complex.

Designing and building such systems means handling that complexity robustly while keeping them understandable and usable for the people who rely on them.

In robotics, distributed systems, and privacy infrastructure alike, the same principle holds:

Complexity belongs in the system.
Clarity belongs in the interface.
Anna Adamczyk testing an environmental robotics mission with a ground robot in the lab
Anna Adamczyk installing a tactile robotic arm in the SVan mobile field laboratory and testing the control interface on a laptop
Distributed systems Human-machine interfaces Robotics Telepresence Zero-knowledge encryption Offline-first architecture Algorithms Numerical methods

Selected Work

Spanning distributed field robotics and privacy-first consumer technology, my work focuses on building complex systems that must operate reliably under real-world constraints.

Environmental Robotics

Envirobotics · EU · Since 2019

Environmental Robotics explores how robotic systems can become tools for environmental experts to study and protect natural ecosystems.

  • Robotic systems as new tools for environmental experts
  • Translating environmental challenges, such as lake monitoring, into missions and workflows that can be supported by robots
  • Tailoring available robots into heterogeneous teams across air, water, and ground for multi-domain environmental missions
  • Telepresence software enabling worldwide multi-user teleoperation of heterogeneous robot teams in real-world environments
  • Accessible interfaces on everyday devices to lower the barrier to advanced robotics in environmental science
  • Developing operational workflows for deploying robot teams effectively in real environmental fieldwork
  • Internet-accessible mobile robotic field laboratories supporting efficient environmental monitoring missions
  • Flagship system: SVAN
envirobotics →
Environmental robotics in action: Telerobotic Watersampling.Expert in US is remotely taking a water sample from a lake in Germany by teleoperating an underwater robot redesigned to integrate a custom-built Niskin bottle. We see through the robot's camera, which is the expert's live view during the operation.
Environmental robotics: Mobile Field Laboratory. A robot arm from the Mobile Field Laboratory is remotely operated by an expert to hold and examine an aquatic plant sample collected from a lakeshore in Germany under a microscope connected to the expert’s interface.
Environmental Monitoring Robotics Ecology Telepresence Distributed Systems Robots as Tools for Humans

Flagship Envirobotics

SVAN: Synchronous Team-Robot Van

Technical University of Munich, Germany · 2020-2023

Project SVAN explored environmental monitoring using land, air, and underwater robots operated from a mobile van-based field lab.

  • Mobile robot hub for rapid deployment of multi-domain robot teams
  • Internet-connected hub for remote mission operation worldwide
  • Experts can connect to SVan and its robot team using only a laptop and standard internet, no specialized control station required
  • Hub providing robot logistics, communication and edge computation
  • From concept to deployable prototype for real field conditions
SVan →
Envirobotics Flagship Project SVAN. A van converted into a mobile robot hub is shown with its robot team consisting of a drone, a land robot with a tactile arm, and an underwater robot with an arm.
Environmental Robotics Multi-robot Multi-domain Edge Compute Networked Robotics Accessible robotics interfaces

Robotics Infrastructure

Flying Robots Lab & Mobile Systems Arena

Technical University of Munich, Germany · Munich Institute of Robotics and Machine Intelligence (TUM MIRMI) · 2020-2025

Conceptualized and built the Flying Robots Lab and its Mobile Systems Arena as lab manager, creating shared infrastructure for aerial, ground, and robot arm experiments across multiple labs.

  • Laboratory management
  • Multi-domain laboratory for robots in air, on ground, in water (planned), and robotic arms
  • Motion tracking system, Networking and Safety
  • Used for scientific experiments and demonstrations
  • Shared robotics infrastructure between several research groups
Mobile Systems Arena at TUM MIRMI. It has specialized workstations, various flying robots, and the Mobile Systems Arena. The Arena has a floor area of 81m2, is surrounded by a truss system with mesh and is equipped with a Vicon motion capture system.
Lab Management Motion Tracking Networking Safety Research Infrastructure

Robotics Research

Human–Robot Systems Design & Multi-Robot Telepresence

Technical University of Munich, Germany · Munich Institute of Robotics and Machine Intelligence (TUM MIRMI) · 2019-2025

Research on distributed robotic systems and the human interfaces that allow people to perceive, control, and collaborate with them in real-world environments.

  • Multi-modal feedback for telepresence with heterogeneous, geographically distributed robot teams
  • Human-machine interaction in long-distance robotic telepresence
  • Developing telepresence interfaces on everyday devices to lower the barrier to entry and broaden access to telerobotics
  • Flexible integration of high-end haptic telepresence interfaces when needed, tailored to the specific telerobotic task
  • Live demonstrations communicating robotics research to high-profile visitors and delegations
  • Public demonstrations at trade fairs where visitors could operate our robot teams through the telerobotic system
HMI / HRI Telepresence Multi-modal feedback Robot teams
Two-part research figure comparing feedback approaches in telemanipulation. Top: high-end haptic setup with force feedback reflected on a haptic device. Bottom: web-based interface on an everyday laptop, exploring how far visual force feedback substitution can replace high-end haptic feedback for accessible telemanipulation.
Control scheme diagram for haptic force feedback telepresence in flying robots. The system renders actual external forces and wind acting on the robot to the operator's haptic device, enabling true force feedback rather than artificial force fields, for safe teleoperation in unknown and cluttered environments.

M.Sc. Computational Engineering

Leibniz University Hannover, Germany · Until 2019

At the intersection of mathematics, physics and software. Applying mathematical modelling, algorithms and numerical methods to translate physical phenomena and systems into software, focusing on fluid dynamics, AI and robotics. Software becomes most interesting when it has to meet real-world constraints.

Computational Engineering Mathematical Modelling Computational Fluid Dynamics Robotics Machine Learning
Conservation law equation

B.Sc. Civil & Environmental Engineering

Leibniz University Hannover, Germany · Until 2016

Studying the engineering structures that shape our world and the environmental systems they influence. This sparked my interest in how software is designed to control and interact with complex engineering systems.

Civil Engineering Environmental Engineering Fluid Mechanics Numerical Methods Physical Systems
Convection–diffusion equation