Blue-green infrastructure
Entry Requirements
45 credits in technology and 15 credits in landscape architecture, natural geography or biology
Alternatively
60 university credits in landscape architecture
Course facts
- Course name
- Blue-green infrastructure
- Swedish course name
- Grönblå infrastruktur
- Level
- First cycle (G2F)
- Main field of study
- Technology, Landscape Architecture
- Credits
- 15.0 credits
- Rate of study
- 100 %
- Study location
- Uppsala
- Form of instruction
- Distance learning with in-person meetings (2 mandatory physical meetings)
- Application code
- SLU-10326
- Course code
- TN0361
- Course language
- Swedish
- Included in program
-
Landskapsingenjörsprogrammet - UppsalaLandscape Engineer Programme - Alnarp
- Offered as a freestanding course
- Ja
- Tuition fee
-
Tuition fees only for non-EU/EEA/Switzerland citizens
45010 SEK
TN0361, Blue-green infrastructure, 15.0 Hp
Print syllabus
Syllabus
Level
First cycle (G2F)
Main field of study
Technology, Landscape Architecture
Grading Scale
The grade requirements within the course grading system are set out in specific criteria. These criteria must be available by the course start at the latest.
Course language
Swedish
Entry Requirements
45 credits in technology and 15 credits in landscape architecture, natural geography or biology
Alternatively
60 university credits in landscape architecture
Objectives
The purpose of the course is help the student gain a broad perspective on green-blue infrastructure and indepth knowledge on dimensioning, construction, management and maintanence of green-blue infrastructure in urban areas. Focus is primarily on using stormwater in raingardens, permeable surfaces and soils.
After completing the course, the student should be able to:
Knowledge and understanding
- Describe basic principles of hydrology and hydraulics
- Give a general account of the history, architecture, legislation, environmental aspects and treatment in connection with stormwater management
Skills and Abilities
- Propose, motivate, design and dimension a resilient green-blue infrastructrue with suitable vegetation and construction elements.
Evaluation, ability and approach
- Show insight into sustainable stormwater management regarding planning, organization and management
- Critically evaluate a proposal and discuss its sustainability
Content
The course covers basic hydrology and hydraulics as well as design, dimensioning, treatment, management and vegetation conditions in green-blue infrastructure. It also gives an introduction to environmental problems and legislation related to stormwater and land drainage. The student acquires knowledge through lectures, seminars, exercises, assignments and excursions. The course can be taken at SLU Uppsala (Ultuna) or Alnarp. Some teaching elements such as lectures take place jointly via video link. There are teachers and tutors at both campuses.
The course contains compulsory acitivites in the form of seminars, exercises and presentations.
Examination Formats and Requirements for Passing the Course
- Passed exams - Participation in compulsory activities - Approved project assignment
Responsible Department/Equivalent
Department of Landscape Architecture, Planning and Management
Supplementary information
Included in program
- Landskapsingenjörsprogrammet - Uppsala
- Landscape Engineer Programme - Alnarp
Module set
| Title | Credits | Code |
|---|---|---|
| Concets / connections within blue-green inf | 5.0 | 0201 |
| Hydrological calculations | 5.0 | 0204 |
| Projects | 5.0 | 0203 |
| Project - Wetlands | 2.0 | 0106 |
The Course Replaces
TN0337, TN0360
Other Information
Applies to independent students from academic year 2022/23. To embrace the content in this course, it is of great importance that the student has the basics knowledge in technical design and CAD corresponding the courses LK0359 or TN0339. In cases where the student’s undergraduate education does not contain these parts, students must have acquired this knowledge themselves before the course starts.
Travel expenses for study trips are financed or part-financed by students. Information about costs will be available on the course website 4 weeks before the start of the course.
Kurslitteratur TN0361 Grönblå infrastruktur
Huvudlitteratur som köps via Vattenbokhandeln
(välj kundtyp "Student" för förmånliga priser)
Stahre, P. (2004). En långsiktigt hållbar dagvattenhantering: planering och exempel. Stockholm: Svenskt Vatten.
Svenskt Vatten. (2011). Publikation P105: Hållbar dag- och dränvattenhantering. Råd vid planering och utformning. Stockholm: Svenskt Vatten.
Svenskt Vatten. (2016). Publikation P110: Avledning av dag-, drän- och spillvatten. Funktionskrav, hydraulisk dimensionering och utformning av allmänna avloppssystem. Stockholm: Svenskt Vatten.
Huvudlitteratur som tillhandahålls via Canvas
Blecken, G. (2016). Kunskapssammanställning dagvattenrening. Svenskt Vatten Utveckling, rapport 2016-05. Svenskt Vatten.
Egerup, J. (2010). Vatten – vårt gemensamma ansvar: vattenförvaltningen 2009–2015. Vattenmyndigheterna.
Feuerbach, P. & Strand, J. (2010). Vatten och mångfald i jordbrukslandskapet: att arbeta med vattenbiotoper ur ett nordeuropeiskt perspektiv. Hushållningssällskapet Halland.
Fridell, K. & Jergmo, F. (2015). Regnbäddar – biofilter för behandling av dagvatten. Movium Fakta 2/2015. Alnarp: Movium.
Grip, H. & Rodhe, A. (1988). Vattnets väg från regn till bäck. Uppsala: Hallgren & Fallgren.
Håkansson, A. (1997). Dränering, sjösänkning och ängsvattning. I M. Morell m.fl., Agrarhistoria. Stockholm: LT.
Larm, T. & Blecken, G. (2019). Utformning och dimensionering av anläggningar för rening och flödesutjämning av dagvatten. Svenskt Vatten Utveckling.
Loberg, B. (1999). Geologi: material, processer och Sveriges berggrund. Stockholm: Prisma.
McIntyre, K. & Jakobsen, B. (2000). Practical Drainage for Golf, Sportsturf and Horticulture. Chelsea, MI: Ann Arbor Press.
Nationalencyklopedin. Uppslagsorden Sjö, Eutrofiering och Vattenvård. NE.se.
Viklander, M. (2017). Föroreningar i dagvatten. Luleå: Luleå tekniska universitet.
Wahl, S. (red.). Formler, tabeller och diagram för beräkning av dagvattenflöden och dimensionering av fördröjningsanläggningar. Kurskompendium, TN0361 Grönblå infrastruktur. Tillhandahålls via Canvas.
Fördjupningslitteratur som tillhandahålls via Canvas
Bengtsson, L., Grahn, L. & Olsson, J. (2005). Hydrological function of a thin extensive green roof in southern Sweden. Hydrology Research, 36(3), 259–268.
Craul, P. J. (1999). Urban Soils: Applications and Practices. New York: Wiley.
Ekka, S. A., Rujner, H., Leonhardt, G., Blecken, G.-T., Viklander, M. & Hunt, W. F. (2021). Next generation swale design for stormwater runoff treatment: A comprehensive approach. Journal of Environmental Management, 279, 111756.
Fletcher, T. D., Shuster, W., Hunt, W. F., Ashley, R., Butler, D., Arthur, S., Trowsdale, S., Barraud, S., Semadeni-Davies, A., Bertrand-Krajewski, J.-L., Mikkelsen, P. S., Rivard, G., Uhl, M., Dagenais, D. & Viklander, M. (2015). SUDS, LID, BMPs, WSUD and more – The evolution and application of terminology surrounding urban drainage. Urban Water Journal, 12(7), 525–542.
Luo, Q. L., Hillock, D. & Holmes, M. (2017). Sustainable Landscapes: Designing a Rain Garden for Residential Property. Oklahoma State University Extension.
Montgomery County Conservation District. Rain Gardens: Stormwater Solutions for Any Location. Montgomery County Conservation District.
Pettersson Skog, A., Sandestedt, G., Teutsch, K. & Fridell, K. (2023). Regnbäddar är ett bra sätt att ta hand om dagvatten. AMA-nytt, 1/2023.
Stovin, V., Poë, S., De-Ville, S. & Berretta, C. (2015). The influence of substrate and vegetation configuration on green roof hydrological performance. Ecological Engineering, 85, 159–172.
Stål, Ö., Fridell, K., Sköld, H. B. & Boström, C. Klimatsäkrade systemytor för urbana miljöer – referensanläggningar och studier i urban miljö.
Svensk Markbetong. (2019). Fördröjning av dagvatten med dränerande markstensbeläggning: projektering, utförande samt drift och underhåll av multifunktionella gaturum.
Utkina, K., Ashley, R. M., Sun, Z., Adhikari, U., Deak Sjöman, J., Randrup, T. B., Blecken, G.-T. & Viklander, M. (2026). Assessment of blue green infrastructure implementation schemes for multifunctional urban stormwater management: a case study in three Swedish cities. Socio-Ecological Practice Research. https://doi.org/10.1007/s42532-026-00253-4
Vitruvius. (1989). Om arkitektur: tio böcker. Stockholm: Byggförlaget.
Yuan, J., Dunnett, N. & Stovin, V. (2017). The influence of vegetation on rain garden hydrological performance. Urban Water Journal, 14(10), 1083–1089.
academic year 2025/2026
Blue-green infrastructure (TN0361-10043)
2025-10-26 - 2025-11-09
Blue-green infrastructure (TN0361-10044)
2025-10-26 - 2025-11-09
academic year 2024/2025
Blue-green infrastructure (TN0361-10029)
2024-10-24 - 2024-11-14
Blue-green infrastructure (TN0361-10030)
2024-10-24 - 2024-11-14
academic year 2023/2024
Blue-green infrastructure (TN0361-10156)
2023-10-23 - 2023-11-13
Blue-green infrastructure (TN0361-10213)
2023-10-23 - 2023-11-13
academic year 2022/2023
Blue-green infrastructure (TN0361-10027)
2022-10-28 - 2022-11-07
Blue-green infrastructure (TN0361-10028)
2022-10-28 - 2022-11-07
Contact
- Course coordinator
- Scott Wahl
- Course administrator
- Josephine Dahl
- Examiner
- Scott Wahl