Research Structure and Implementation Plan

Brief workplan

AEGIS has a duration of 24 months, and is structured around 5 interlinked Work Packages (WPs), each complementing and building on the others, forming a coherent and integrated whole.

WP1 delivers the hydroinformatics solutions of the project, i.e., the CP models for SWNs and WWNs, the integrated AEGIS CP simulation platform, and the hydrodynamic impact assessment module.

WP2 formulates the resilience assessment methodology to underpin the integrated CP simulation platform under multiple long-term and short-term stressors and develops the necessary tools to downscale and disaggregate climate projections to suit the finer scales of timeseries needed to inform the stress-testing scenarios, specifically during flood events. The first two technical WPs are complemented by three cross-cutting WPs.

WP3 develops the AEGIS case study based on the UWS of DEYA Syrou for testing and demonstration purposes.

WP4 works on communication and dissemination with the scientific community, broader audiences and the stakeholders of the case study, through a website, scientific publications and a workshop.

Finally, WP5 manages the project to ensure timely and effective implementation.

Objectives:

i) develop CP simulation models for SWNs and WWNs to allow evaluation of CPA scenarios,

ii) integrate cyber-physical models for SWNs, WWNs and WDNs into the AEGIS CP simulation platform for UWSs, capable of long-period simulation,

iii) develop a hydrodynamic impact assessment module to evaluate flood and overflow events.

Task 1.1: Development of cyber-physical simulation models for SWNs and WWNs. Novel CP simulation models will be developed (D1), building on the extensible cyber layer of RISKNOUGHT, and coupling physical models based on SWMM for the physical processes. This will allow the simulation of CPA events on SWNs and WWNs. The models will be integrated in the AEGIS CP simulation platform (T1.2).

Task 1.2: Development of the AEGIS integrated CP simulation platform for UWS networks. Cyber-physical WDN, SWN and WWN models will be integrated into the same platform, supporting long-period simulation, to allow unified and holistic stress-testing of the UWS (D2).

Task 1.3: Development of a hydrodynamic impact assessment module. This task focuses on coupling the AEGIS CP simulation platform (T1.2) with HEC-RAS through a dedicated module to automatically set-up and run 2-D flood and overflow simulations in order to assess the impact of natural and human-induced hazards through a multitude of social, environmental and economic metrics. The module (D3) can provide feedback to the AEGIS CP platform about possible cascading effects between the networks.

Deliverables:

D1: CP SWN and WWN models

D2: AEGIS CP platform

D3: Hydrodynamic impact module

Partners

A multidisciplinary consortium combining research excellence and industrial expertise in advanced water technologies.

National Technical University of Athens (NTUA) logo
Laboratory of Applied Hydraulics, NTUA logo
DEYA Syrou (Water Supply and Sewerage Company of Syros) logo
Hellenic Foundation for Research and Innovation (HFRI/ELIDEK) logo
contact
+30 210 7722816-2828

nikolopoulosdio@central.ntua.gr

Heroon Polytechneiou str. 5, 15780, Zographou, Athens, Greece

Hellenic Foundation for Research and Innovation (HFRI/ELIDEK) logo

Funded under the 4th Call for H.F.R.I. Research Project to support Postdoctoral Researchers by the Hellenic Foundation for Research & Innovation, project number 28996.