HomeInfrastructuresDepartment of Robotics | TERRINet

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Address:
Hallenweg 15,
7522 NH Enschede, Holland

Website
Department of Robotics

Scientific Responsible
Stefano Stramigioli

The structure

Robotics and Mechatronics (RaM) deals with application of modern systems and control methods to practical situations. Focus is on robotics, as a specific class of mechatronic systems. The research is embedded in the CTIT and MIRA institutes. The research of the group is application oriented. Main goal is to investigate the applicability of modern systems, imaging and control methods to practical situations in the area of robotics. Robot application areas we investigate are: inspection robotics (UAVs, UGVs, UUVs); medical robotics (assistance to surgeons, diagnostics); service robotics (street cleaning, service to people).

The science and engineering topics we work on are: modeling and simulation of physical systems; intelligent control; robotic actuators; computer vision and medical imaging; embedded control systems. In our labs we have quite a variety of robotic setups: basic 1 or 2 motor systems, precise motion control platforms, a production cell-like block circulator, several types of flying wheeled mobile robots, humanoid walking robots, and setups for robotized needle insertion.

Available platforms
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LOPES

The LOPES can be used to assist patients (e.g. stroke, SCI) during walking or assess gait impairments. It has eight powered degrees of freedom (hip flexion/extension, hip abduction/aduction, knee flexion/extension, pelvis forward/backward and pelvis mediolateral). Other degrees of freedom are left free. The robot is attached with a minimal amount of clamps which results in a short donning and doffing time. It is admittance controlled and allows for control over the complete spectrum from low to high impedance. Kinematics and interaction forces are measured by the device and it can be easily combined with EMG measurements. It allows to test new controllers (e.g. for exoskeletons) or assessment algorithms in a safe environment.

Key features

  • Admittance controlled: control from low to high impedance possible
  • Integrated sensors to measure kinematics and interaction forces
  • 8 powered degrees of freedom
  • Short donning and doffing time
  • Simulink development library, allowing easy integration of new control algorithms

Possible applications

  • Gait training
  • Gait assessment
  • Human-Robot Interaction
  • Controller development for exoskeletons
  • Human-in-the-loop testing
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Robotic arms

At RaM we have multiple general-purpose robotic arms; KUKA LBR4+ arm and Franka Emika Panda arms. Each is a 7-axis fully-actuated robot with torque sensing and control. Each joint is equipped with a position sensor on the input side and position and torque sensors on the output side. The robots can thus be operated with position, velocity and torque control.

Unlike typical factory robots, which are so dangerous they are often put inside cages, these arms can operate among people. They are designed to perform tasks that require direct physical contact in a carefully controlled manner. These include drilling, screwing, and buffing, as well as a variety of inspection and assembly tasks that electronics manufacturers in particular have long wanted to automate. The KUKA robot is programmable in C++.
The Franka Emika robots are setup with Robotic Operating System (ROS) interface, hence they may be programmed in a variety of languages such as C++, Python, etc.

Key features

Kuka LBR4+

  • Weight of 16 kg;
  • 7kg load capacity;
  • Workspace range 790mm;
  • Can be programmed by moving it by hand;
  • Its rounded shape contains no sharp edges that could be harmful to a human working beside it;
  • Since it is a collaborative robot, its sensors detect external forces made by an obstacle or a human.

Franka Emika Panda

  • Weight of 18kg;
  • 3kg load capacity;
  • Workspace range 855mm;Immediate stop in case of collision;
  • Accurate contact detection, interpretation and reaction;
  • Internal data of the robot and accepts parameters and control values at an update frequency of up to 1 kHz;
  • More modern easy to use control interface, both programmatically as well as GUI based.

Possible applications

  • Testing teleoperation algorithms;
  • Physical human-robot collaboration and interaction tasks;
  • Learning by demonstration and reinforcement learning of manipulation tasks;
  • Implementation of control algorithms for industrial and medical manipulation tasks;
  • Development of eye-in-hand visual servoing algorithms;/li>
  • Inspection and service robotic applications;
  • Medical applications such as control of an ultrasound transducer to follow in-body instruments such as a catheters, endoscopes or biopsy needles.
utwente, mira

TechMed Simulation and Training Centre

The TechMed Centre’s simulation and training centre offers the latest state of the art simulation technology for research, development and the education of students and professionals in health care. It is used as a large high-tech and safe learning space in which the authentic professional environment is simulated. It fits our high demands for training of Technical Medicine students and other professionals, offering them numerous courses and postgraduate courses, such as: Laparoscopic or Endovascular Interventions, Advanced Life Support, Fundamentals of Ventilation. The TechMed simulation and training centre is one of the Centres of Expertise of the University of Twente. It is used as a ‘beta test site’ by the market leaders in simulation technology and, of course, several scientists of the TechMed Centre carry out their research with the help of advanced technology.

Key features

  • Fully equipped simulated operating theatre with A/V recording infrastructure
  • Fully equipped intensive care unit including various fully body patient simulators (CAE MetiMan, CAE HPS) with A/V recording infrastructure
  • Various medical skill trainers, e.g. Simbionix Bronch Mentor, GI Mentor, AngioMentor, US Mentor, LapSim
  • Dedicated pre/debriefing rooms for immediate evaluation of simulation sessions
  • Wide array of medical imaging modalities including Siemens Acuson US systems, Verasonics US system, Esaote G-scan 0.25T weight bearing MRI system

Possible applications

  • Additional example of applications may be found on the SmartXP website
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HMI Human media interaction lab facilities

The lab offers extensive utilities for Human Robot Interaction Experimentation and testing in laboratory or in the wild conditions.
There are two outfitted lab environments: A smaller (50m2) lab outfitted with virtual reality and tracking facilities as well as the DesignLab:
DesignLab (2000m2) is a platform at the University of Twente for multidisciplinary collaboration, innovation and creativity. It connects students, educational staff, researchers, businesses, societal organisations and governments through its Science2Design4Society method. To provide an optimal infrastructure for team-based collaboration and multidisciplinary research and education, DesignLab offers dynamic working spaces in a state-of-the-art facility. The ambition of DesignLab: integrate TeamScience and Design Thinking into education and research, and use scientific insights to build a better tomorrow today. It inclused a maker space, an electronics lab, laser cutting and 3d printing facilities as well as a fully outfitted user lab with control room.

Key features

  • Multiple robotic platforms for Human Robot interaction research including Nao, Pepper, Zeno, double and home-developed platforms such as FROG, TERESA, SQUIRREL and R3D3.
  • The infrastructure is also supported by various software modules such as emotion recognition from video and voice in the wild/outdoors.
  • A flexible behaviour generation engine for virtual agents and robots as well as a virtual/physical environment where remote collaboration with remote co-workers can be realised through VR and robotics.

Possible applications

  • Additional example of applications may be found on the SmartXP website
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Smart Experience Laboratory-SmartXP

The name of the lab refers to Smart Experience Laboratory. It part of the creative technology study track. Throughout the many hands-on projects typical of our programmes at Twente, researchers and students develop technical knowledge and skills. if helps researchers and students to investigate ability to understand how technology influences humans, design and creative processes. In our Smart XP lab, you will have room to discover how to turn a question or an opportunity into an appealing prototype.

Key features

  • Rapid prototyping facilities such as a maker space, an electronics lab, laser cutting and 3D printing facilities
  • Motion capture facilities for many application such as human motion and indoors drones
  • Space for testing indoor robots and drones
  • Various types sensors can be provided at SmartXP can be used to be tested on a robot such as distance, pressure/force, touch and rotation
  • Educational applications where students and have all tools they need to build or test robotic devices and also organize competitions

Possible applications

  • Additional example of applications may be found on the SmartXP website
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Space53

Space53 builds the tools and facilities to evolve unmanned systems technology into concepts that create societal and economic impact based on Technology Readiness, Economic Readiness (economic or societal business case) and Societal Readiness (ethics, legal, society).

Space53 offers testing and training facilities and proper legal and procedural conditions for the safe and legal testing of unmanned aerial systems in a fully structured environment (lab), a fully unstructured environment (real life) and all gradual steps in between. Space53 has access to large enclosed structures, a 3 km runway with airspace and several experimental zones in industrial and urban environments

Key features

  • Indoor testing area up to 10.000 m2
  • Outdoor testing area 220 ha
  • Airstrip 3 km long for fixed wing UAVs
  • Fully licensed and legally responsible operator available
  • Offices and technical workspaces at walking distance
  • Fenced, protected area
  • Access to simulated and real urban and industrial areas for experiments

Possible applications

  • Testing experimental UAVs and other unmanned vehicles in a protected indoor environment
  • Testing experimental UAVs and other unmanned vehicles outdoor
  • Experimenting with the application of unmanned systems in a simulated or real life urban or industrial environment