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Incorporating Bioenergy Production and Landscape Restoration: Lessons from Central Kalimantan

  1. Himlal Baral Incorporating Bioenergy Production and Landscape Restoration: Lessons from Central Kalimantan, Indonesia International Workshop on: Developing science- and evidence-based policy and practice of bioenergy in Indonesia within the context of sustainable development Bogor, 14 February 2017
  2. Project background and aims • Bioenergy – one of the most versatile form of renewable energy sources • Conversion of arable land/native forest for bioenergy ‘Food-energy-environment trilemma’ • Use of degraded or marginal land – as an alternative to produce bioenergy while restoring degraded land • This project aims: o to identify the potential of sustainable biomass production on degraded and marginal land; o restoration of degraded land; o supporting rural livelihoods. Photo: CIFOR
  3. Key questions Q1: How can sustainable bioenergy be developed to avoid the food-energy- environment trilemma with alternative feedstocks while restoring degraded landscapes? Q2: What are the most promising species to achieve efficient bioenergy production from degraded land in Indonesia? Species characters, productivity and additional environmental values? Q3: What are the socio-economic and environmental benefits/impacts of energy plantation on degraded land? Critical land Conservatio n area Non-protected area Yes No Protected area Land Cover Map Available Licensed to a concession Site available Suitability analysis Growth place suitability attribute Landsyste m map Biophysics attributes Bioenergy species Yield estimation Productivity rate Potential Bioenergy in Indonesia
  4.  Component I: Reviewing/mapping policies, land availability, species suitability, potential productivity, community perceptions – opportunities and challenges  Component II: Establishing research/demo trial of key bioenergy species (trees not herbaceous plants) in degraded peatland in C Kalimantan  Component III: Laboratory/chemical analysis – fuel/energy productivity/efficiency and suitable business model for smallholders/SMEs  Stakeholder engagement and capacity building: work with local/national partners – universities and community groups  Potential for scaling up these activities and linking to restoration of degraded land for biomass production Project activities/components... Review/stakeholders perception Action research/ field trial and learning Laboratory/chemical analysis, Business model Potential for scaling up Photo: CIFOR
  5. Site-specific species selection for bienergy production Terrestrial soil • n=232 references • n=19 tree species suitable • Tolerances: Drought, poor and saline soils having pH ranging between 4 – 9 • Potentials: 6 – 40 t biomass ha-1 yr-1 2 – 36 t bio-oil ha-1 yr-1 Semi-terrestrial soil (Peat) • Review in progress • 13 pioneer species to produce biomass • Need to develop appropriate harvesting technology • 2 MSc students currently working • Expected to complete by Apr’2017
  6. Site-specific species selection for bienergy production Terrestrial soil • n=232 references • n=19 tree species suitable • Tolerances: Drought, poor and saline soils having pH ranging between 4 – 9 • Potentials: 6 – 40 t biomass ha-1 yr-1 2 – 36 t bio-oil ha-1 yr-1 Semi-terrestrial soil (Peat) • Review in progress • 13 pioneer species to produce biomass • Need to develop appropriate harvesting technology • 2 MSc students currently working • Expected to complete by Apr’2017 • Geographic impact – Indonesia, South East Asia, • Institutional impact – Governments, private/ institutional investors, small and medium enterprises, community groups…
  7.  Monoculture  Mixed Crops 0 50 100 150 200 0 5 10 Plantheight(cm) Months 0 20 40 60 80 100 120 140 160 0 5 10 Plantheight(cm) Months 0 5 10 15 20 0 5 10 Diameter(mm) Months 0 2 4 6 8 10 12 14 16 0 5 10 Diameter(mm) Months 0 20 40 60 80 100 120 140 0 5 10 Leafnumbers Months 0 20 40 60 80 100 120 140 0 5 10 Leafnumbers Months • Initial results indicate potentials of agroforestry system • Further investigation is required to identify yield, returns etc.
  8. Interim conclusions and the way forward… Provides opportunity to restore the degraded land while producing sustainable bioenergy and supporting rural livelihoods… • Avoids conflicts between food, fuel and environment • Create jobs opportunities in rural areas – production processing • Improve energy security • Contribution to several SDGs • Further work/investigation is required to answer some emerging issues…(ES trade-offs, tenure/governance, market… )
  9. cifor.org blog.cifor.org ForestsTreesAgroforestry.org THANK YOU

Editor's Notes

  1. This talk will be focused on Q How can sustainable bioenergy be developed to avoid the foods vs. fuel trap with alternative feedstocks while restoring degraded landscape? To open the discussion, I will cover 4 key points
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