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Open Waters

There is a great potential for societal savings in water treatment infrastructure, as well as development and innovation for a sustainable future. In this project we are investigating the possibilities with open data and shared design for cross-sectoral cooperation and innovation in digital twins.

Our focus is water treatment

The aim of this project is to ensure sustainable management of water and sanitation for all, and to promote the transition towards sustainable value chains and inclusive and sustainable economic growth. We believe that the development of digital twins, not only for the systems and processes but for the water treatment infrastructure as a whole, can open up for new efficient techniques and sustainable innovations.

Water treatment plants in Sweden the coming decade

As many of the existing water treatment plants in Sweden needs to be renovated or replaced over the coming decade, multimillion-class investments will be required to meet these needs. A cost-effective and innovative model of the critical infrastructure for water treatment can therefore play an important role in the development of smart and sustainable water treatment, not only in Sweden but also in the world at large. Finding new ways to collaborate around open data and shared design could work as facilitators to collaboration and innovation. 

Open data in digital twins for sustainable water treatment

By developing a scenario and model definition of how data can become open, available and integrated in infrastructure development (wastewater treatment plants and drinking water production plants) we want to provide a basis for digital transformation and innovation for the public sector as well as for industry and services. The new PSI Directive (Directive 2003/98/EC on the re-use of public sector information) is one foundation for our discussions. The NIS Directive (Directive on Security of Network and Information Systems) is another. Some of the questions and issues in our focus are:

  • What needs to be considered, if and when data and design becomes open and shared in digital twins, to meet the risk and security requirements?
  • How can we find new ways to collaborate in digital twins so that it adds value for the different stakeholders in the water treatment value chain.

Risk management and sustainable open source

There are several obvious risks when data and design for wastewater treatment plants and drinking water production plants become available. One of those risks is shared design, which presupposes long-term maintenance of files in open file formats. As we don’t want risks to become obstacles for sustainable development, risk management across the entire value chain is of essence.

In this project we will therefore consider the longevity of files containing qualitative data and design information, as it presupposes that file formats used are implemented in sustainable open source software projects.

Sharing data and design within innovation ecosystems

One of the keys as we see it, to achieve long-lasting and sustainable water treatment infrastructure, is to work in cross-sectoral cooperation. By sharing data and design within so called “innovation ecosystems”, stakeholders can contribute with facts, knowledge and share experience in an efficient way and innovation ecosystems can evolve.

With this, new knowledge and innovation can be built on top of research, experiences and insights from several different sources to create new solutions. We therefore find it satisfying that we within this project consortium have a broad base of stakeholders that adds different needs, perspectives, requirements and experiences to the table.

Added value when digital twins work as virtual copies of an environment

A digital twin means that you have a virtual environment that looks exactly like a physical one, in case a water treatment plant or parts of it. Within the virtual environment you can then create, test and build equipment and see how it preforms without affecting the physical one. You could also test different scenarios like floods, drought or other to see how it effects the water treatment plant. In this project we want to increase the knowledge of digital twins' reliability, traceability, robustness and resilience in real time and over time.

Expected results and deliverables

  • A description of opportunities, limitations and challenges for those who want to use digitization, open data and shared design to develop critical infrastructure.
  • Increased knowledge of how the public sector can work with requirements in procurement, to begin the transition towards open data and shared design in digital twins for critical infrastructure (wastewater treatment plants and drinking water production plants).
  • Increased knowledge of digital twins' reliability, traceability, robustness and resilience in real time and over time (in wastewater treatment and drinking water production plants).
  • A proposal for a conceptual model, based on modular thinking, that will give different stakeholders the ability to receive customized decision support on, for example, design of facilities, operational optimization or safety analysis.
  • Review of how machine learning and AI can support e.g. data analysis, design proposals and decision support through access to big data, open data and shared design.
  • Identification of legal aspects and security risks arising from open data and shared design.
  • A general description of how the interaction and exchange of information between different stakeholders can contribute to the development of innovation capacity and the emergence of new innovative products and services.

Questions we would like to answer during the project

  • Do we have a common conceptual overview and understanding of the words and terms that the project encompasses? (open data, shared design, innovation ecosystems, digital twin, digitization etc.)
  • How do we develop and sustain a common understanding among the different stakeholders?
  • How do we tackle the relatively high complexity – in regards of conceptual, operational as well as technical dimensions – that the project addresses?
  • How can we define our focus and set limitations, as the technological developments in this area are rapid and continuously opens up for new opportunities.
  • How do we tackle the fact that there are different driving forces, levels of commitment and resources among the different project partners?
  • How do we tackle the fact that this is an innovation project with a great deal of uncertainty in regards of the final results?
  • How can we find a clear “what’s in it for me” for each and every one of the partners involved?

Project facts

  • Funder: Vinnova (Innovations for a sustainable society)
  • Partners: IVL Svenska Miljöinstitutet, Göteborgs Stad, Högskolan i Skövde, KTH (Kungliga Tekniska högskolan), Ramböll, RISE, Renova, Svensk Energi & Miljö
  • Period: 2020 - 2022