References

AgriLife (2022). Urban ‘green’ infrastructure can bolster flood resilience. (Figure and text). Available on https://agrilifetoday.tamu.edu/2022/04/15/ urban-green-infrastructure-can-bolster-flood-resilience/. Last accessed on May 20, 2023.

Atmaja, K.J., Pascima, I.B.N., Asana, I.M.D.P. and Sudipa, I.G.I., 2022. Implementation of Artificial Neural Network on Sales Forecasting Application Journal of Intelligent Decision Support System (IDSS), 5(4), pp.124-131.

Begum, R.A., Sarkar, M.S.K., Jaafar, A.H. and Pereira, J.J., (2014). Toward conceptual frameworks for linking disaster risk reduction and climate change adaptation. International Journal of Disaster Risk Reduction, 10, pp.362-373.

Bogl, MAD Architects & Holt O’Brien (2019). Nyhavna. (Figure and text). Available on https://bogl.no/nyhavna/?fbclid=IwAR0H1hNBWWAX9ycNMbB9KOO1IoL vkW4CXyY2--vYubws9YahQY7WBMlHAOY. Last accessed May 22, 2023

Boon, J. D., Wang, H. V., Shen, J., & Virginia Institute of Marine Science. Initiative for Coastal Climate Change Research. (2009) Planning for sea level rise and coastal flooding. VIMS climate change white papers. Virginia Institute of Marine Science, William & Mary. http://doi.org/10.21220/V56K50.

Bosello, F., Nicholls, R. J., Richards, J., Roson, R. & Tol, R. S. (2012). Economic impacts of climate change in Europe: sea-level rise. Climatic change, 112, 63-81.

El-Raey, M., Dewidar, K. & El-Hattab, M. (1999). Adaptation to the impacts of sea level rise in Egypt. Mitigation and adaptation strategies for global change, 4, 343-361.

Geoinnsyn (n.d.). Stormflo & bølgepåvirkning. (Figure and text). Available on https://geoinnsyn.no/?application=trondheim&project=stormfl %20 med%20b%C3%B8lgep%C3%A5virkningsp%C3%A5slag&zoom=12&lat=7033492.00&lon=569143.00. Last accessed on May 20, 2023.

Grindaker & Gillhardi+Hellsten (2022). Nyhavna. (Figure and text). Available on https://grindaker.no/projects/nyhavna/?fbclid=IwAR2u4nN0plbj4xE1yW3RM kf0OVVisgUVezHcuzQTXv-aqDdpx5BdSd1JVxM. Last accessed May 22, 2023.

Imperiale, A.J. and Vanclay, F., 2021. Conceptualizing community resilience and the social dimensions of risk to overcome barriers to disaster risk reduction and sustainable development. Sustainable Development, 29(5), pp.891-905.

Koshy, M. (2023) Contingency planning in Practice: Case Study of the Netherlands, Urban Contingency practice and Planning, NTNU. Last accessed on: May 24, 2023 Class Lecture.

Mimura, N. (2013). Sea-level rise caused by climate change and its implications for society. Proceedings of the Japan Academy, Series B, 89, 281-301.

NASA (n.d.). Projected Sea Level Rise Under Different SSP Scenarios - Trondheim 2. (Figure and text). Available on https://sealevel.nasa.gov/ipcc-ar6sea-level-projection-tool?psmslid=1748&data layer=scenario&boxinfo=true&info=true&info=true. Last accessed on May 20, 2023.

Nillesen, A. L. (2019). Spatial Quality as a Decisive Criterion in Flood Risk Strategies: An integrated approach for flood risk management strategy development, with spatial quality as an ex-ante criterion. A+BE Architecture and the Built Environment. https://doi.org/10.7480/abe.2019.1

NOAA, n.d. Green Infrastructure Tools. (Figure and text). Available on https://oceanservice.noaa.gov/news/sep15/green-infrastructure.html. Last Accessed on May 20, 2023.

Norwegian Directorate for Civil Protection (2017). Integrating Sea Level Rise and Storm Surges in Local Planning. Published by Norwegian Directorate for Civil Protection. ISBN 978-82-7768-447-5

Oppla, n.d. Cloudburst Management Plan, Copenhagen. Available on https://oppla.eu/casestudy/18017. Last accessed on May 20, 2023.

Rambøll (n.d.). Copenhagen Cloudburst project for urban resilience using GI for managing flood risk. (Figure and text) Available on https://www. researchgate.net/publication/326267324 URBAN GREEN INFRASTRUCTURE FOR CLIMATE RESILIENCE A REVIEW. Last accessed on May 23, 2023.

Shukla, P. R., Skea, J., Calvo Buendia, E., Masson-Delmotte, V., Pörtner, H. O., Roberts, D. C., & Malley, J. (2019). IPCC, 2019: Climate Change and Land: an IPCC special report on climate change, desertification, land degradation, sustainable land management, food security, and greenhouse gas fluxes in terrestrial ecosystems.

Trondheim byarkiv by Schrøder (n.d.). Ny plan - og pol. (Figure and text). Available on https://nyhavna.no/om-oss/historien/. Last accessed on May 23, 2023.

Trondheim kommune (2021). Nyhavna, kommunedelplan. Available on https://www.trondheim.kommune.no/kdpl nyhavna/. Last accessed on April 26, 2023.

Trondheim kommune & Trondheim Havn (2020). Kvalitetsprogram for Nyhavna. Available on https://www.trondheim.kommune.no/globalassets/10-bilderog-filer/10-byutvikling/byplankontoret/1b off-ettersyn/2020/kvalitetsprogram-for-nyhavna/1.-kvalitetsprogram-for-nyhavna.pdf. Last accessed on April 18, 2023.

Twigg, J., (2015). Disaster risk reduction (New edition 2015). Humanitarian Policy Group Overseas Development Institute.

United Nations Office for Disaster Risk Reduction (2021). Nature-based solutions for disaster risk reduction: Words into action. Published by UNDRR.

List of figures

Figure 1: Map of Trondheim City Center showing Nyhavna and the surrounding area. Source: authors.

Figure 2: Photo of Nyhavna in 1952. Source: Trondheim byarkiv by Schrøder, n.d. (https://nyhavna.no/om-oss/historien/)

Figure 3: The view to Trondheimsfjorden from the industrial area in Nyhavna. Source: Authors.

Figure 4: Nyhavna coastline as it is now, source:authors

Figure 5: The streets around the historical building at Nyhavna are not very pedestrian-friendly. Source: Authors.

Figure 6: The vehicles and delivery trucks placed at Nyhavna. Source: Authors.

Figure 7: Illustration plan of Transittkaia and Nyhavna Nature Reserve. Source: Grindaker & Gillhardi+Hellsten, 2022

Figure 8: Map of the estuary of Gaula and Nidelva. Source: Grindaker & Gillhardi+Hellsten, 2022

Figure 9: Illustration of Nyhavna as an active area. Source: Bogl, MAD Architects & Holt O’Brien, 2019

Figure 10: Illustration of the raised pathways in Nyhavna. Source: Bogl, MAD Architects & Holt O’Brien, 2019

Figure 11: Stormsurge in 2050. Source: Geoinnsyn, n.d.

Figure 12: Stormsurge in 2100. Source: Geoinnsyn, n.d.

Figure 13: Stormsurge in 2150. Source: Geoinnsyn, n.d.

Figure 14: Relevant actors and actions. Source: Authors.

Figure 15: Stakeholder relationship. Source: Author.s.

Figure 16: The level of power for the stakeholders. Source: Authors.

Figure 17: SWOT-analysis of Nyhavna. Source: Authors.

Figure 18: Resistance against flood risk structures with ecological and spatial impact Source: Nillesen, 2019.

Figure 19: Green infrastructure practices provide ecological, economic, and societal benefits that play a critical role in making coastal communities more resilient to natural hazards. Source: NOAA

Figure 20: Copenhagen Cloudburst project for urban resilience Source: Rambøll, n.d.

Figure 21: Urban ‘green’ infrastructure bolstering flood resilience Source: AgriLife, 2022

Figure 22: Model-simulated inundation at Alexandri

Figure 23: Comparison of hurricane storm surge, storm tide at Sewells Point, Hampton Roads, VA, in feet above 1983-2001 Mean Lower Low Water (MLLW).

Figure 24: Implementation Plan. Source: Authors.

Figure 25: Two alternatives of how the connection between water and land could be designed. Source: Grindaker & Gillhardi+Hellsten, 2022

Figure 26: Different surfaces inspired by the Gaula estuary. Source: Grindaker & Gillhardi+Hellsten, 2022

Figure 27: Operational Support Plan. Source: Authors.

Figure 28: Preparedness Plan. Source: Authors

Figure 29: Benefits and limitations with the measures. Source: Authors.

Figure 30: Budget of the measures. Source: Authors.

Figure 31: High-value assets of Nyhavna future development. Source: Authors.