Author:
Publisher:
ISBN:
Category : Biomass energy
Languages : en
Pages : 92
Book Description
Achieving Wood Energy Potentials
Achieving wood energy potentials
Author: Dennis P. Bradley
Publisher:
ISBN:
Category : Biomass energy
Languages : en
Pages : 82
Book Description
Publisher:
ISBN:
Category : Biomass energy
Languages : en
Pages : 82
Book Description
Energy Potential from Central and Southern Rocky Mountain Timber
Author: George Roger Sampson
Publisher:
ISBN:
Category : Energy development
Languages : en
Pages : 8
Book Description
Publisher:
ISBN:
Category : Energy development
Languages : en
Pages : 8
Book Description
Power
Wood Energy Information Guide
Wood Energy Potential in West Virginia
Wood Energy in Alaska
Author: David L. Nicholls
Publisher:
ISBN:
Category : Biomass energy
Languages : en
Pages : 44
Book Description
Biomass resources in Alaska are extensive and diverse, comprising millions of acres of standing small-diameter trees, diseased or dead trees, and trees having lowgrade timber. Limited amounts of logging and mill residues, urban wood residues, and waste products are also available. Recent wildfires in interior Alaska have left substantial volumes of burned timber, potentially usable for biomass energy. Motivated, in part, by rising fuel prices, organizations across the state -- including businesses, schools, and government agencies -- have all expressed an interest in wood energy applications. Numerous sites have pursued feasibility studies or engineering design analysis, and others have moved forward with project construction. Recent advances in biomass utilization in Alaska have been enabled by numerous factors, and involve various fuel sources, scales of operation, and end products. Already, thermal wood energy systems are using sawmill residues to heat lumber dry kilns, and a public school heating system is in operation. Management policies on national forests and state forests in Alaska could determine the type and amounts of available biomass from managed forests, from wildland-urban interface regions, and from salvage timber operations. Biomass products in Alaska having potential for development are as diverse as wood pellets, cordwood (firewood), compost, wood-plastic composite products, and liquid fuels. In addition, new technologies are allowing for more efficient use of biomass resources for heating and electrical generation at scales appropriate for community power. This case study review considers successes and lessons learned from current wood energy systems in Alaska, and also considers opportunities for future bioenergy development.
Publisher:
ISBN:
Category : Biomass energy
Languages : en
Pages : 44
Book Description
Biomass resources in Alaska are extensive and diverse, comprising millions of acres of standing small-diameter trees, diseased or dead trees, and trees having lowgrade timber. Limited amounts of logging and mill residues, urban wood residues, and waste products are also available. Recent wildfires in interior Alaska have left substantial volumes of burned timber, potentially usable for biomass energy. Motivated, in part, by rising fuel prices, organizations across the state -- including businesses, schools, and government agencies -- have all expressed an interest in wood energy applications. Numerous sites have pursued feasibility studies or engineering design analysis, and others have moved forward with project construction. Recent advances in biomass utilization in Alaska have been enabled by numerous factors, and involve various fuel sources, scales of operation, and end products. Already, thermal wood energy systems are using sawmill residues to heat lumber dry kilns, and a public school heating system is in operation. Management policies on national forests and state forests in Alaska could determine the type and amounts of available biomass from managed forests, from wildland-urban interface regions, and from salvage timber operations. Biomass products in Alaska having potential for development are as diverse as wood pellets, cordwood (firewood), compost, wood-plastic composite products, and liquid fuels. In addition, new technologies are allowing for more efficient use of biomass resources for heating and electrical generation at scales appropriate for community power. This case study review considers successes and lessons learned from current wood energy systems in Alaska, and also considers opportunities for future bioenergy development.
Energy and Raw Material Potentials of Wood Residue in the Pacific Coast States
Author: John Bernard Grantham
Publisher:
ISBN:
Category : Forests and forestry
Languages : en
Pages : 44
Book Description
Results are reported of a preliminary investigation of feasibility of using wood residue to meet energy and raw material needs in the Pacific Coast States. Magnitude of needs was examined and volume of logging-residue and unused mill residue was estimated. Costs of obtaining and preprocessing logging residue for energy and pulp and particle board raw material were estimated and compared with selling values of mill residue fuel, pulp chips, and particle board. Marginally feasible energy use seemed best suited for inplant steam and power production by the wood industry, Although raw material selling values make wood residue use for products more attractive than for electric power generation, even these returns are seldom sufficient to meet the high costs of delivering logging residue for such use alone. Production of higher valued products or public absorption of extra costs of utilization can make these residue management alternatives more feasible.
Publisher:
ISBN:
Category : Forests and forestry
Languages : en
Pages : 44
Book Description
Results are reported of a preliminary investigation of feasibility of using wood residue to meet energy and raw material needs in the Pacific Coast States. Magnitude of needs was examined and volume of logging-residue and unused mill residue was estimated. Costs of obtaining and preprocessing logging residue for energy and pulp and particle board raw material were estimated and compared with selling values of mill residue fuel, pulp chips, and particle board. Marginally feasible energy use seemed best suited for inplant steam and power production by the wood industry, Although raw material selling values make wood residue use for products more attractive than for electric power generation, even these returns are seldom sufficient to meet the high costs of delivering logging residue for such use alone. Production of higher valued products or public absorption of extra costs of utilization can make these residue management alternatives more feasible.
Wood Energy Potential in Northwestern South California
Prospects for wood-based electricity for the Indonesian National Energy Policy
Author: Pirard, R.
Publisher: CIFOR
ISBN:
Category :
Languages : en
Pages : 40
Book Description
To achieve the target of 23% renewable energy by 2020, Indonesia has been actively exploring options to loosen its dependence on fossil fuels. While biofuels have been developing fast and remain a priority for the government, wood-based energy also holds great potential. This report is a first attempt to assess its state of development and feasibility. Wood-based energy could be based on the high-profile large-scale industrial tree plantation program in Indonesia. This is one of the largest in the world with millions of hectares planted, but it has failed to achieve all of its public objectives. The government envisions its revival, with bioenergy as an alternative to the mature pulp and paper market. To do so, a flagship feed-in tariff policy has been put in place as an incentive for power plants to using biomass (or biogas material). Our research – based on intensive interactions with stakeholders at all levels, secondary data and three case studies – leads to one straightforward message that this source of energy is not going to represent a significant share of the energy mix for a long time. Major obstacles include the difficulty in establishing and managing large-scale tree plantations dedicated to energy production with recurrent claims and conflicts on the ground, the inability of the feed-in tariff policy to compensate investors for the risks of shifting to a new type of energy, the absence of subsidies provided to the state-owned electricity company that sees little interest in buying relatively expensive power, and the lack of proof of concept that lowers the probability of significant investments in this field.
Publisher: CIFOR
ISBN:
Category :
Languages : en
Pages : 40
Book Description
To achieve the target of 23% renewable energy by 2020, Indonesia has been actively exploring options to loosen its dependence on fossil fuels. While biofuels have been developing fast and remain a priority for the government, wood-based energy also holds great potential. This report is a first attempt to assess its state of development and feasibility. Wood-based energy could be based on the high-profile large-scale industrial tree plantation program in Indonesia. This is one of the largest in the world with millions of hectares planted, but it has failed to achieve all of its public objectives. The government envisions its revival, with bioenergy as an alternative to the mature pulp and paper market. To do so, a flagship feed-in tariff policy has been put in place as an incentive for power plants to using biomass (or biogas material). Our research – based on intensive interactions with stakeholders at all levels, secondary data and three case studies – leads to one straightforward message that this source of energy is not going to represent a significant share of the energy mix for a long time. Major obstacles include the difficulty in establishing and managing large-scale tree plantations dedicated to energy production with recurrent claims and conflicts on the ground, the inability of the feed-in tariff policy to compensate investors for the risks of shifting to a new type of energy, the absence of subsidies provided to the state-owned electricity company that sees little interest in buying relatively expensive power, and the lack of proof of concept that lowers the probability of significant investments in this field.