
RESOURCES
The objective is to develop a portal for any relevant information that can be shared around the community and help others discover paludiculture. This is of course an organic process (excuse the pun) and the site will continue to evolve with time. To help us achieve this we would appreciate your input. If you have any content or links to videos, podcasts, companies, publications or other research that you think we should consider including please email us at paludiculture@niab.com.
Links to other sites
An important part of this page is linking openly to other websites. This approach offers access to more detailed information and a chance to check out a different perspective. We select links we consider are suitable and relevant to the sites content. Whilst external links are reviewed on a regular basis, NIAB cannot accept responsibility for the content of external internet sites. The inclusion of a link to an external website should not be understood to be an endorsement of that website or the site’s owners, products, or services.
Recognize the high potential of paludiculture on rewetted peat soils to mitigate climate change
2019
|
Geurts J.J.M., van Duinen G.-J.A., van Belle J., Wichmann S., Wichtmann W., et al.
The paper emphasises that paludiculture—sustainably cultivating wetland crops on rewetted peat soils—holds exceptional potential to cut greenhouse‑gas emissions, preserve peat carbon stores, and simultaneously provide productive biomass and vital ecosystem services, making it a key strategy for climate‑smart land use. Journal of Sustainable and Organic Agricultural Systems 69:5–8
Effect of Harvest Time and Frequency on Biomass Quality and Biomethane Potential of Common Reed (Phragmites australis) Under Paludiculture Conditions.
2017
|
Dragoni F., et al.
This study examines how harvest timing (May–September) and biomass partitioning influence biomethane yield and quality in P. australis grown under paludiculture. Biomethane potentials ranged from 283–412 NL CH₄/kg VS depending on tissue type and maturity. September harvests produced the highest total methane per hectare, and double‑cut strategies showed comparable or improved yields. The study concludes that while reed does not match conventional biogas crops in total yield, it is ecologically valuable in peatland restoration systems.
An Exploration of Common Reed Bioenergy Potential in North America.
2016
|
Vaičekonytė R., et al.
This review assesses reed as a bioenergy resource in North America, considering both ecological and energy perspectives. Reed pellets produced in Montréal showed energy content of 16.9 kJ/g, comparable to switchgrass, with ash and moisture values suitable for pelletisation. The study promotes combining harvested reed with organic waste streams to optimise pellet quality while simultaneously managing invasive reedbeds to benefit biodiversity. [mires-and-peat.net]
Typha Cultivation in Agriculture.
2014
|
Krus M., et al.
Large‑scale Typha cultivation for agricultural and industrial use, particularly for producing magnesite‑based Typha insulation and construction panels. Highlights the benefits of peatland rewetting, carbon sequestration, biodiversity value, water purification, and economic opportunities for farmers. Typha’s combination of high productivity, ecological benefits, and industrial utility is emphasised.
Cattail (Typha spp.) Biomass Harvesting for Nutrient
Capture and Sustainable Bioenergy for Integrated
Watershed Management
2014
|
Grosshans
Typha’s dual role as a high‑yield biomass crop (15–20 t DM/ha) and an effective nutrient‑capture system capable of removing 30–60 kg/ha/year of phosphorus from eutrophic waters. Provides detailed analysis of fuel value (17–20 MJ/kg), carbon offsets (≈1.05 tonnes CO₂ per tonne biomass), and ash nutrient recovery (up to 88% phosphorus in ash). This is highly relevant for integrated watershed management and bioenergy systems
The Utilisation of Reed (Phragmites australis): A Review.
2013
|
Köbbing J.F., Thevs N. & Zerbe S.
A comprehensive global review of reed utilisation, covering historical uses (thatching, fodder, crafts), modern applications (pulp, bioenergy, wastewater treatment), and ecological distribution. Productivity can reach 30 t/ha/yr above‑ground biomass, making reed one of the world’s most productive wetland grasses. The authors review quality requirements for thatching and construction materials, and discuss stand management practices such as winter harvesting. This review is essential for understanding both traditional and emerging reed industries.