A new paradigm for a biobased economy. Can we re-vegetate and reforest degraded low carbon soils to obtain biomass for renewable energy or biomaterials with a net overall benefit for the society? The sustainability of bioenergy under debate today: Emissions and food vs fuels debates. FAO assessments on marginal lands availability with potential use for biomass dedicated plantations. Links between deforestation, desertification, erosion, biodiversity and perennial biomass cropping systems. Expected contribution of dedicated plantations to a global biobased economy. Bioenergy cropping systems producing low carbon footprint/ILUC biomass. A new approach for existing sustainable cropping systems with potential for a biobased economy. Energy cane and Pennisetum sp. Cropping systems. Energy grasses in temperate regions (including arundo, switchgrass, miscanthus, Tall wheatgrass and many others). Energy grasses in tropical regions including Brachiaria, Setaria, Chloris gayana, Rhode grass, Guinea grass and other C4 species. Semi herbaceous crops: Sida, Nicotiana and others. SRF tropics: Eucalyptus, Acacia and several others for tropics (examples in SE Asia, Australia, Latin America and Caribbean). SRC in temperate areas (bringing USA, Canada, Germany, etc.). Biomass systems from extremely marginal lands. Case studies review: Prosopis trees (Mesquite) in Australia and Northern Argentina, Atriplex in Northern Chile, Acacia/guinea grass in Australia, Siberian Elm in semiarid cold northern latitudes. CAM plants for bioenergy (Opuntia and Agave in marginal lands and commercial examples). Annual biomass cropping systems: when and how are they sustainable? Sorghum, triticale, rye, others systems. Multi purpose cropping systems - The four F (Food, feed, fuel, fibre). Geospatial Modeling Applications for low cost and footprint of solid biomass. Biomass characterization from cultivated species. Recent trends and evidence of biomass cropping systems sustainability. How much sustainable land to use and Food security and land use. Social implications/aspects regarding Bioenergy crops. Perennial bioenergy cropping systems and flora & fauna. Bioenergy crops improving soils to increase net carbon sequestration. Life Cycle thinking and lignocellulosic bioenergy crops - The systems boundaries. Economics of farming energy crops in marginal lands. Implementation viability of biomass projects with dedicated plantations in marginal areas and large scale.
