Institute for Energy Technology SMARTES Smart Methods And Technologies for Emergency Situations

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1 Institute for Energy Technology SMARTES Smart Methods And Technologies for Emergency Situations Contact: Istán Szőke Alexandra Fernandes

2 Institute for Energy Technology (IFE) Nuclear technology Oil & Gas Digital Systems Isotope laboratories Energy and Enironment Control Rooms & Interaction Design Virtual & Augmented Reality Intelligent Systems Automation & User Monitoring Risk, Safety, & Security Human Centred Digitalisation Digital systems labs: VR-lab HAMLAB ATM lab FutureLab 2

3 Digital innoation Machine age Atomic age Jet age Space age Information/ Digital age Next age Digitally powered communities Process automation / efficiency Smart concept smart infrastructure, resource allocation Robots and remote operations Wearables, embedded comp., Internet of Things, ubiquitous comp. 3D printing (additie manufacturing) Online education / E-learning, Mixed Reality based training 3

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5 Competence: Technology Technology Radiological modelling Real time deterministic radiation transport Geostatistical analyses Monte Carlo radiation transport Source deconolution Internal dosimetry New! People (human) IT Processes (organization) 3D modelling Virtual and Augmented reality Adanced user interfaces Mobile and wearable deices Augmented (3D) sematic web technology Robotics: digitalization, sensors, control Hazard mapping: e.g. gamma cameras 5

6 Competence: Humans & Organization Technology Definition of first responders needs Current tools and ways of working Expectations Human-robot collaboration Trust in automation Automation transparency Monitoring role for the human What information to show and how to show it? Risk isualization 6 Processes (organization) People (human)

7 Application: Planning, Training & Education Virtual, Augmented & Mixed Reality, Augmented Virtuality Site/job specific training Emergency training Refresher training Deep training Emergency response? 7

8 Application: Robotics Processes will be more remote/automated through application of robotics and digitalisation. Especially when eleated risks to humans. 8

9 Research programme - ROBOTICS How to sufficiently integrate into a digital experience? How to alidate and adopt for the intended use (suboptimal solution may results in high costs, safety has to be demonstrated)? How to train operators? Are low-cost solutions suitable for professional use? How to integrate humans and robots (HMI, collaboratie humanrobot field work)? Research into digital support for design, testing, and deployment of new robotic solutions for decommissioning

10 Application: Emergency response What s missing? Enabling hardware Sensors: 3D scanning, sensors, beacons, Carriers: drones, crawlers (robots) Visualisation: glasses, Network: resilient connection, IoT Hazard simulation Classic: fire, smoke, heat, falling, Special: radiation, dangerous chemicals, Experience design Distributed, embedded experiences Input ia sensors and analyses (e.g. behaioural and location based) Embedded, frictionless, contextualized and personalized information Needs, tests, training: close collaboration with end-users (first responders) Field ready, tested solutions for real problems 10

11 Support system Sensors/ beacons Hazard simulation (special hazards) Information systems (BIM) Robots (UAVs) Support system (for first responders) 11

12 Consortium IFE: Institute for Energy Technology Norway Simula Norway Enitech Ltd. Hungary CER: Centre for Energy Research Hungary INESCTEC Portugal CREATEC UK UOY: Uniersity of York UK ius: Institute for Enironmental Technology and Radiation Protection - Germany ISPNPP: Institute for Safety Problems of Nuclear Power Plants - Ukraine UOF: Uniersity of Fukui Japan JAEA: Japan Atomic Energy Agency Japan Vattenfall Sweden? KAERI: Korea Atomic Energy Research Institute Korea? + First Responder organizations 12