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Browse by Series: NC Woody Biomass
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Conversion Factors for Bioenergy

By: Oak Ridge National Laboratory, Dennis Hazel, Robert Bardon NC Woody Biomass

This is a quick-reference list of conversion factors used by the Bioenergy Feedstock Development Programs at Oak Ridge National Laboratory. It was compiled from a wide range of sources, and is designed to be concise and convenient rather than all-inclusive.

Managing Forests for Biomass Potential

By: Mark Megalos, Rajan Parajuli, Colby Lambert NC Woody Biomass

This publication describes the types of forests and conditions that can be improved by biomass harvesting, and where such harvest may be less than ideal, to help you determine the right management choice for your land and situation.

Air Quality and North Carolina Wood Energy

By: Mark Megalos, Colby Lambert, Rajan Parajuli NC Woody Biomass

High fossil fuel costs and concerns about climate change have thrust low-cost, home-grown renewable fuels, like wood, into the energy spotlight. The enactment of North Carolina’s Renewable Energy Portfolio has increased the interest and opportunities to burn wood fuel to make electricity, heat, and steam. This factsheet reviews the air quality impacts of supplementing fossil fuels with woody biomass and current regulation on emissions from wood-fired plants.

Minimizing Wildfire Risk with Biomass Harvesting

By: Robert Bardon, Mark Megalos NC Woody Biomass

North Carolina is experiencing historic population growth, which has led to significant changes in land use. North Carolina’s population growth is expanding communities into rural lands and woodlands, known as the wildland-urban interface (WUI). It is in these areas that wildfire is a growing concern. This note describes how biomass harvesting can reduce wildfire risk.

Community Economic Profile: Buncombe and Orange County Examples

By: Matthew Langholtz, Douglas Carter, Alan Hodges, Annie Oxarart, Richard Schroeder, James Jeuck NC Woody Biomass

In the southern United States, communities with increasing populations and nearby forests may be able to consider using woody biomass to generate energy. A variety of other factors must also be considered, such as the price of existing energy sources, competing markets for wood, community acceptance and the economic availability of wood resources. To gain a better understanding of the range of possibilities for economic availability and the local economic impacts of using wood for energy, Buncombe and Orange counties were selected for analysis in this community economic profile. This document is for forestry professionals and county planners to understand the Community Economic Profile and Analysis Process.

Sustainable Woody Biomass Harvesting: Minimizing Impacts

By: Mark Megalos, Rajan Parajuli, Colby Lambert NC Woody Biomass

Woody biomass harvesting for renewable energy generation and bio-based products is likely to increase in North Carolina - sparked by higher energy prices and government policies to promote renewable energy. The expansion of a wood-based energy industry has prompted concerns about intensified forest biomass removal and its potential impact on water, wildlife, biodiversity and site nutrients. This publication reviews common, cost ­effective strategies that minimize, prevent, or mitigate harvest impacts.

A Biomass and Bioenergy Glossary for Forest Landowners

By: Robert Bardon NC Woody Biomass

This publication defines unique biomass and bioenergy terms as they relate to forestry and forest management. These definitions will help you understand commonly used words and phrases that arise in biomass and bioenergy literature and discussions.

Woody Biomass - Frequently Asked Questions

By: Dennis Hazel NC Woody Biomass

This publication defines many of the questions often asked about biomass-based energy, the associated technologies and producing woody biomass. These questions and their answers will help you understand terms and concepts commonly associated with biomass energy.

Economic Impacts of Using Woody Biofuels in North Carolina

By: Alan W. Hodges, Mohammad Rahmani, James Jeuck NC Woody Biomass

This publication provides a synopsis of the basic information about local economic benefits and impacts local woody biomass energy generates from a larger southeastern project.

Economics of Harvesting Woody Biomass in North Carolina

By: James Jeuck, Doug Duncan NC Woody Biomass

This publication reviews the basic steps and cost factors associated with woody biomass harvest, processing and transportation. This provides the landowner with the basic technology and general economics of biomass production in North Carolina and forest management options are currently available.

Timber Management Goals Through Woody Biomass Harvesting

By: James Jeuck NC Woody Biomass

This publication describes how emerging biomass markets can increase your timber health and productivity through harvesting, stand replacement, thinning, crop tree release and fuel reduction.

Trees, Carbon and Climate Change

By: Mark Megalos NC Woody Biomass

Current policy discussions about climate change suggest that forestry is an inexpensive way to capture atmospheric carbon dioxide and potentially reduce forecasted climate change. This factsheet discusses which forestry practices are being considered to capture carbon dioxide and how landowners might engage in trading as carbon markets develop.

Torrefaction for Biomass Energy Applications

By: Chris Hopkins, Dennis Hazel NC Woody Biomass

Biomass has an advantage over renewable energies (such as solar, wind and hydro) in that it can produce both electrical power and liquid transportation fuels. Biomass is also carbon-neutral because in a broad sense, the CO2 released in combustion of current vegetation is captured by the next generation of vegetation through photosynthesis. However, biomass feedstocks (both forestry and agricultural) have low energy density and they are bulky, moist and perishable so that they are relatively expensive to transport and store. Torrefaction solves these problems by making a feedstock that is dry, does not rot and holds much more energy per unit of volume and mass.