The economic viability of large-scale timber harvesting depends on the existence of a robust market for logs, a sector that has suffered significantly due to the earlier halt in logging on federal lands. Currently, approximately one-quarter of the nation’s lumber supply, valued at roughly $19.7 billion, originates from Canada. As Canadian operations have depleted their easier-to-access resources, production in that country has dropped by 55% over the past ten years, with further reductions anticipated. This shift presents a strategic opportunity for the United States to rebuild a modest domestic forest products industry, thereby creating the necessary market demand for thinned and harvested timber. Substituting imported Canadian lumber with domestically produced material could inject an estimated $39.4 billion into the gross domestic product through downstream financial effects. Furthermore, historical practices allocated 25% of gross revenues from federal timber sales to local counties for road and school infrastructure, providing substantial benefits to rural areas. Proponents argue this approach is more prudent than the current strategy, which they describe as allowing forests to burn.
Beyond the economic arguments, the thinned and harvested timber offers various potential end products, starting with engineered wood. Modern construction for larger buildings typically relies on reinforced concrete, a process that requires the energy-intensive mining and refining of iron ore to produce steel and concrete. Engineered wood products demand significantly less energy to produce. Wooden structures have been successfully built up to 14 stories, while the Ascent building in Milwaukee, Wisconsin, reaches 25 stories primarily using timber. In Sydney, Australia, the hybrid-structure Atlassian Central stands at 39 stories. For the thousands of smaller multi-story commercial and apartment units, utilizing lumber and engineered products would yield considerable environmental benefits. Wood construction is lighter than concrete and steel, necessitating smaller foundations and thereby reducing the overall environmental footprint.
Concerns regarding the fire safety of wooden structures are often raised, yet wood performs well in this regard. The collapse of the Twin Towers was attributed to jet fuel igniting and weakening the steel reinforcement, causing a cascading structural failure. In contrast, wood structures retain their strength for a longer duration before collapsing. Modern designs, which include proper treatment and fire suppression systems, are considered highly safe. Additionally, because wood is 40% carbon, its use in construction represents a form of carbon sequestration.
Another potential use for the timber is in biofuel plants, which can convert forest residue, sawmill offcuts, and urban wood scrap into synthetic gas, renewable diesel, and electricity. This technology could generate sufficient power for small communities situated in areas requiring forest fuel reduction. One example is the Hat Creek Bioenergy facility in Burney, California, which began operations in 2025, supplying power to PGE and producing biochar. While the long-term profitability of such plants remains to be seen, they release far less of the highly toxic compounds associated with forest fires compared to burning wood directly. These facilities are also effective at reducing fuel loads and can become economically viable when paired with the harvesting of merchantable timber.
The Pacific Northwest timber industry is poised to expand domestic manufacturing capacity to offset the decline in production from British Columbia. Industry observers suggest that adding processing facilities will intensify competition among buyers for raw logs. Furthermore, clustering mills in specific regions is expected to lower overall manufacturing expenses.
For investors in timberland, transportation logistics are a critical factor in determining profitability. The expense of hauling harvested wood from the forest to the processing plant is a key variable in stumpage pricing. This approach mirrors agricultural economics, where producing goods near the point of consumption is considered both economically efficient and environmentally beneficial.
Current management practices in the U.S. federal forests differ significantly from those employed in Canada. While Canadian forestry has historically involved intensive land use, American federal lands have recently seen a shift toward allowing forests to mature without intervention. This strategy has led to increased populations of pests and diseases, as well as a higher likelihood of wildfires. Proponents of a balanced approach argue that a lighter-touch management style, similar to methods used by Indigenous peoples, could be more effective on both sides of the border.