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Journalism: The over-exploitation of BC forests

Library: Destruction of wildlife habitat and loss of biodiversity

Journalism: Loss of forest-related employment

Journalism: The need to expedite final treaties with First Nations

Journalism: Loss of primary forest

Journalism: Loss of carbon sequestration capacity

Other notable forest-related writing and reports

Noteworthy writing and reports from the forest-industrial complex

Forest News

Library: The over-exploitation of BC forests

Library: Loss of primary forest

Library: Loss of the hydrological functions of forests

Make conservation of the hydrological function of forests a higher priority than timber extraction

Library: Loss of forest-related employment

Library: The need to expedite final treaties with First Nations

Transition from clearcut logging to selection logging

Library: Increase in forest fire hazard

Journalism: End public subsidization of BC's forest industry

Library: End public subsidization of BC's forest industry

Library: The need to reform BC forest legislation

Journalism: The need to reform BC forest legislation

Library: Creating a new vision for BC forests

Forest industry public subsidy calculator

Manufacturing and processing facilities

Forest Trends

Investigations

Community Forest Mapping Projects

Area-based calculations of carbon released from clearcut logging

Journalism: The increase in forest carbon emissions

Library: Increase in forest carbon emissions

To protect biodiversity, transition away from clearcut logging

Peachland Watershed Protection Alliance

Library: Loss of future employment resulting from exporting raw logs

Mapping old forest on Vancouver Island

Mapping old forest in Omineca Natural Resource Region

Mapping old forest in Skeena Natural Resource Region

Mapping old forest in Northeastern Natural Resource Region

Mapping old forest in Cariboo Natural Resource Region

Mapping old forest in South Coast Natural Resource Region

Mapping old forest in Thompson-Okanagan Natural Resource Region

Mapping old forest in Kootenay-Boundary Natural Resource Region

Forest Conservation Organizations

Mapping old forest on Haida Gwaii

Mapping old forest on the central coast

Library: Ecologically damaging practices

Journalism: Ecologically damaging practices

Critical Issues

Analysis

Comment

Listed species: Cascades Natural Resource District

Listed species: 100 Mile House Natural Resource District

Listed species: Campbell River Natural Resource District

Listed species: Cariboo-Chilcotin Natural Resource District

Listed species: Chilliwack River Natural Resource District

Listed species: Fort Nelson Natural Resource District

Listed species: Haida Gwaii Natural Resource District

Listed species: Mackenzie Natural Resource District

Listed species: Nadina Natural Resource District

Listed species: North Island Natural Resource District

Listed species: Peace Natural Resource District

Listed species: Prince George Natural Resource District

Listed species: Quesnel Natural Resource District

Listed species: Rocky Mountain Natural Resource District

Listed species: Sea-to-Sky Natural Resource District

Listed species: Selkirk Natural Resource District

Listed species: Skeena Natural Resource District

Listed species: South Island Natural Resource District

Listed species: Stuart-Nechako Natural Resource District

Listed species: Sunshine Coast Natural Resource District

Listed species: Thompson Rivers Natural Resource District

Listed species: Coast Mountains Natural Resource District

Action Group: Divestment from forest-removal companies

Fact-checking mindustry myths

First Nations Agreements

Monitor: BC Timber Sales Auctions

BC Timber Sales auction of old-growth forests on Vancouver Island

Monitoring of forest fires in clearcuts and plantations: 2021

Library: End public subsidization of forest industry

Examples of engaging the mindustry:

Portal: The over-exploitation of BC forests

Portal: The need to reform BC forest legislation

Portal: The need to expedite treaties with First Nations

Portal: The need to get more organized, informed and inspired for change

Portal: Develop a new relationship with forests

Portal: Destruction of wildlife habitat and loss of biodiversity

Portal: Loss of the hydrological functions of forests

Portal: Increase in forest fire hazard

Portal: Loss of carbon sequestration capacity

Portal: Increase in forest carbon emissions

Portal: Ecologically damaging forestry practices

Portal: Loss of forest-related employment

Portal: Loss of future employment resulting from raw log exports

Portal: Costs of floods, fires and clearcutting of watersheds

Portal: The economic impact on communities of boom and bust cycles

Portal: Loss of economic development by other forest-based sectors

Portal: The true cost of subsidies provided to the logging industry

Help

Loss of trust in institutions

Portal: The instability of communities dependent on forest extraction

Portal: The psychological unease caused by forest destruction

Portal: Loss of trust in institutions caused by over-exploitation of BC forests

Portal: Social division caused by over-exploitation of BC forests

Journalism: The instability of communities dependent on forest extraction

Journalism: Psychological unease caused by forest destruction

Journalism: Loss in trust of institutions as a result of over-exploitation of BC forests

Journalism: Social division caused by over-exploitation of BC forests

Library: The instability of communities dependent on forest extraction

Library: Psychological unease caused by forest destruction

Library: Loss of trust in institutions as a result of over-exploitation of BC forests

Library: Social division caused by over-exploitation of BC forests

Resources: Psychological unease caused by forest destruction

Resources: The economic impact on communities of boom-and-bust cycles

Resources: Loss of economic development potential in other forest-based sectors

Journalism: Cost of floods, fires and clearcutting of community watersheds

Journalism: The economic impact on communities of boom-and-bust cycles

Journalism: Loss of economic development potential in other forest-based sectors

Library: Cost of floods, fires and clearcutting of community watersheds

Library: The economic impact on communities of boom-and-bust cycles

Library: Loss of economic development potential in other forest-based sectors

Portal: Permanent loss of forests to logging roads

Portal: The economic costs of converting forests into sawdust and wood chips

Journalism: Permanent loss of forests to logging roads

Library: Permanent loss of forests to logging roads

Journalism: The economic costs of converting forests into sawdust and wood chips

Library: The economic costs of converting forests into sawdust and wood chips

Resources: The economic costs of converting forests into sawdust and wood chips

Resources: Ecologically damaging forestry practices

Resources: Conversion of forests to permanent logging roads

Library: Getting organized

Journalism: Getting organized

Forest politics

Forest Stewards

Portal: Plantation failure

Library: Plantation failure

Journalism: Plantation failure

Library: Loss of carbon sequestration capacity

Portal: Soil loss and damage

Journalism: Soil loss and damage

Library: Soil loss and damage

Resources: Soil loss and damage

Journalism: Loss of employment resulting from export of raw logs

Journalism: Destruction of wildlife habitat and loss of biodiversity

Journalism: Loss of the hydrological functions of forests

Journalism: Increase in forest fire hazard

Action Group: Sunlighting professional reliance

Making the case for much greater conservation of BC forests

Science Alliance for Forestry Transformation

Bearing witness:

Economic State of the BC Forest Sector

Big tree mapping and monitoring

Reported Elsewhere

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Start a forest conservation project

Get involved

Article reference pages

Physical impacts created by logging industry

Nature Directed Stewardship at Glade and Laird watersheds

References for: How did 22 TFLs in BC evade legal old-growth management areas?

References for: BC's triangle of fire: More than just climate change

References for: Teal Cedar goes after Fairy Creek leaders

References for: Is the draft framework on biodiversity and ecosystem health something new? Or just more talk and log?

IWTF events, articles and videos

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  1. THE GRAPH BELOW shows that the average harvested volume per hectare on Crown land has fallen from a level of about 450 cubic metres per hectare in the 1970s to current levels of around 260 cubic metres. The decline is the result of the shift from logging old-growth forests to, increasingly, logging managed stands. To maintain a given harvest volume under such circumstances, the area logged each year is growing over time. In 1973, logging on 123,000 hectares produced 57 million cubic metres. In 2018, 230,000 hectares were logged, producing 62.2 million cubic metres. To maintain a given annual volume of cut will result in an ever larger area being clearcut each year.
  2. By C. Van Rensen, N.N. Neumann and V. Young (BC Ministry of Forests, Lands and Natural Resource Operations and Rural Development). Introduction: The Government of British Columbia (the Province) is committed to sustainable resource management. As resource demands grow, we must be able to measure the combined effects of all resource development activities and natural disturbances, large and small, on the values important to the people of B.C. To meet this need, the Province established a Cumulative Effects Framework (CEF) in 2014 to guide the assessment of cumulative effects1 across natural resource sectors and support the integration of assessment results in natural resource decision-making. Application of the CEF is underway in the Kootenay Boundary Region, led by the Ministry of Forests, Lands, Natural Resource Operations and Rural Development. Through this initiative, the Elk Valley Cumulative Effects Assessment and Management Report was completed which included an assessment of Aquatic Ecosystems as a valued component, and led to identification of priority management and mitigation actions (Elk Valley Cumulative Effects Management Framework Working Group 2018). Since completion of the Elk Valley project, the Kootenay Boundary Cumulative Effects (CE) team has expanded their CE initiatives to other areas in the region. For the new initiatives a watershed assessment procedure first designated by Thompson Okanagan Region was adopted (Lewis et al. 2016). Regional modifications were made to the assessment methods and are presented in Van Rensen et al. (2020). These new assessment methods were first applied to the Kettle River drainage basin and results are presented in this report. 199029901_2019AnalysisoftheKettleRiverWatershedStreamflowandSedimentationHazards(2021).pdf
  3. By the Society of American Foresters Position: The Society of American Foresters (SAF) supports policies, programs, and actions that enhance the health, sustainability, management, and restoration of forested watersheds. Healthy, resilient forests are essential to providing a clean and continuous supply of fresh water for humans and the environment. Forests also recharge aquifers, stabilize soils, filter pollutants, mitigate stormwater runoff, regulate stream flows, and moderate stream temperatures. SAF agrees that trees and forests are a critical component to solving the water-related challenges facing communities, utilities, businesses, and the environment, and that sustainable management is critical to improve the health and resilience of the nation’s watersheds. Forest Water Resources A position of the Society of American Foresters (2020).pdf
  4. By Sara A. Goeking and David G. Tarboton Abstract: In coniferous western forests, recent widespread tree mortality provided opportunities to test the long-held theory that forest cover loss increases water yield. We reviewed 78 studies of hydrologic response to standing-replacing (severe wildfire, harvest) or nonstand-replacing (drought, insects, low-severity wildfire) disturbances, and reassessed the question: Does water yield or snowpack increase after forest disturbance? Collective results indicate that postdisturbance streamflow and snowpack may increase, not change, or even decrease, and illuminate factors that may help improve predictability of hydrologic response to disturbance. Contrary to the expectation that tree mortality reduces evapotranspiration, making more water available as runoff, postdisturbance evapotranspiration sometimes increased—particularly following nonstand-replacing disturbance—because of (a) increased evaporation resulting from higher subcanopy radiation, and (b) increased transpiration resulting from rapid postdisturbance growth. Postdisturbance hydrologic response depends on vegetation structure, climate, and topography, and new hypotheses continue to be formulated and tested in this rapidly evolving discipline. Forests and Water Yield- A Synthesis of Disturbance Effects on Streamflow and Snowpack in Western Coniferous Forests (2020).pdf
  5. By Lisa Nordin Summary Since 2006, BC’s Forest and Range Evaluation Program (FREP) has sampled over 11,000 post-harvest sites to assesses the effectiveness of forest and range practices in conserving resource values, including riparian/streams and water quality. To date, the focus has been on random sampling at recently harvested cutblocks. Riparian/stream conditions are evaluated at a reach scale and results are typically summarized by natural resource district. In 2019, a pilot project was completed in the Kootenay-Boundary region to develop and test a methodology for evaluating riparian/stream condition at a watershed scale using targeted sampling. This project was initiated in response to interest among decision makers in having information on factors influencing the condition of specific watersheds of concern. Using this methodology, FREP researchers combined reach-scale ground assessments in a pour-point sample design with GIS estimates of riparian disturbance to result in an integrated ranking of condition. Results were supplemented with data from assessments of potential sediment delivery and habitat connectivity at road crossings. Treatment and reference watersheds within the Kettle River and Kootenay Lake drainage areas were sampled, where the majority of land disturbances in the treatment watersheds were due to logging and roads, and the reference watersheds were mainly undisturbed by human development. Results In the Kettle River drainage, the Boundary and Rock Creek treatment watersheds were found to be not properly functioning. The level of impairment was significantly higher in these two watersheds compared to all the others in the study, mainly due to a high amount of human-caused riparian disturbance. The reduced buffering capacity and resilience that results from an impaired riparian area means that these systems are presently in a sensitive state and may be easily affected and slow to recover from additional disturbance. Supplementary information gathered at road crossings indicates that sedimentation, livestock, and habitat connectivity for fish are also issues in the Boundary and Rock Creek watersheds. Attributes associated only with the stream channel identified flooding as one of the main causes of impacts in both treatment and reference watersheds in the Kettle River drainage, indicating that this area may be susceptible to naturally occurring high flow events. In the Kootenay Lake drainage area, the Redfish treatment watershed was assessed to be in properly functioning condition, with results similar to several of the reference watersheds. Where indicators were impaired in Redfish, they were linked to road-related issues such as surface erosion and mass wasting using the riparian/stream evaluation. Similar issues were also observed at three road-crossing assessments in Redfish using the water quality assessment. In addition to discussing the approach and findings, the report also presents recommendations for mitigating future detrimental effects in these watersheds. WATERSHED ASSESSMENTS IN THE KOOTENAY-BOUNDARY REGION: Combining GIS and Ground-Based Methodology with Pour-Point Design (2020).pdf
  6. By Rita Winkler and Sarah Boon Introduction: Forest disturbance, whether natural or as a result of timber harvesting, directly affects stand-scale hydrologic processes through changes in interception, evaporation, and transpiration. When disturbance occurs over a large enough area, hydrogeomorphic processes at the watershed scale can also be affected. In British Columbia, statistically significant shifts in the timing and magnitude of snowmelt- dominated streamflows and in the frequency of peak flow events of all magnitudes have been measured in watersheds where more than 5% of the area has been clearcut. Streamflow regimes may also be affected following less extensive changes in forest cover where disturbance location and watershed attributes synchronize melt runoff timing and delivery to stream channels. These increases may have subsequent downstream effects on channel morphology, aquatic habitat, alluvial fans, floodplains, infrastructure, and community water supplies. The potential effects of forest disturbance on streamflow are often evaluated by examining the total area disturbed and the location(s) in a watershed where forest cover has been (or will be) altered. The assumption is that the greater the disturbed area, the greater the potential for hydrologic change. It is also assumed that these changes will diminish over time as the forest regrows (i.e., recovers). The extent of disturbance, accounting for regrowth, is referred to as the equivalent clearcut area (eca). This note describes eca, including its origin, development, and use, how it is calculated, and its applicability to forest development planning and watershed assessment. This note focusses on eca in snow-dominated interior British Columbia watersheds where spring peak flows are a key hydrologic concern. However, the discussion applies wherever eca is used, although the methods of calculation and seasons considered may vary. Equivalent Clearcut Area as an Indicator of Hydrologic Change in Snow- dominated Watersheds (2017).pdf
  7. An investigation report by the BC Forest Practices Board (2016) The Complaint In February 2015, a local hunter and advocate for wildlife conservation submitted a complaint about Interfor Corporation’s (Interfor) cutblock 04Q-09 in Tree Farm Licence 8 (TFL 8). The cutblock is 20 kilometres north of Greenwood, in the Dry Creek watershed (see Figure 1). The complainant is concerned that the 454-hectare cutblock is too large and will negatively impact water and wildlife. He would like government to stop licensees from harvesting such large cutblocks. There is a limit on cutblock size under the Forest and Range Practices Act (FRPA), but forest licensees are allowed to harvest larger cutblocks, subject to certain constraints. The effects of these larger cutblocks can be negative or beneficial, depending on the hydrology or species of wildlife present. Since the complainant raised concerns about the size of the cutblock at a general level, rather than about a specific wildlife species or hydrological effect, the Board investigated Interfor’s management of wildlife and water in the Dry Creek area by examining the following two questions: Were Interfor’s management of water and assessment of hydrological risk reasonable? Did Interfor adequately manage impacts to wildlife habitat and biodiversity at the stand level and landscape level? Forest licensees must comply with FRPA, but have discretion in how they address forest values that are not regulated. Each section of this report examines compliance with FRPA, followed by a discussion of how Interfor considered the risk of this large cutblock affecting water and wildlife values. Dry Creek – Hydrology and Wildlife Concerns About a Large Cutblock FPB investigation report (2016).pdf
  8. A graduating essay by Yu Chen submitted for a BSc at UBC. Abstract: Stream sedimentation issues resulting from forestry practices are prevalent in the province of British Columbia. The impacts of riparian forest harvesting on the sediment regime of streams are of concern because of extensive commercial use of forest resources in BC. Forestry practices can alter the natural sediment balance and lead to abnormally high rates of sediment input resulting in increased concentrations of sediment in the water body and increased deposition of sediment on the stream bottom. The increase of sediment yield driven by forestry operations can reduce the storage capacity of reservoirs and degrade the water quality for human drinking, industrial, and recreational uses. Sediment inputs that exceed the background level and turbidity can also increase the risk to the survival and the integrity of aquatic ecosystems. Riparian forested areas in both coastal and interior plateau forest watersheds need careful considerations of riparian buffers and best management practices to avoid excessive sediment delivery into stream networks. Also, quantitative studies need to be conducted to compare different harvesting methods and provide forest management planner better suggestions to achieve both economic and environmental objectives. In general, a holistic approach is required to control sediment production across different landscapes. What’s more, a better understanding of the interaction between sediment dynamics and forest harvesting and continuous implementation of best management practices will result in fewer problems. Assessment Of Effects Of forest Harvesting On Stream Sedimentation- A Focus On Coastal And Central Interior Forest Watersheds Of British Columbia (2016).pdf
  9. By Oliver M. Brandes and Jon O'Riordan Abstract: Water is society’s most critical and, increasingly, its most strategic asset. Without abundant clean and flowing fresh water—and functioning watersheds—there is no life, no economy, and no future. Yet, sustainable water use is increasingly under threat across the globe due to growing consumption, pollution, and rapid resource development, all of which impact watershed health and drinking water sources. The prospect of shifting hydrology due to a changing climate will only exacerbate the problems associated with these threats via, for example, more extreme weather events, increased flooding, and prolonged droughts. Over the past 20 years, the Province of British Columbia has implemented a number of significant legislative changes to its resource management and governance regime. This will culminate in a new Water Sustainability Act, expected in 2014. As part of the Province’s recent Water Act modernization process, significant public discussion (instigated by government) has occurred around key aspects of water management and the extent to which water and related resource policy reforms are needed. Yet, the deeper and more complex dialogue about the who, how, what, and accountability of decision-making—the essence of watershed governance—is only just beginning. Provincial and territorial governments across Canada are moving away from top-down, government-driven approaches and towards more collaborative and delegated forms of water and watershed governance. This mirrors trends in many jurisdictions around the globe. In Canada, Ontario, Quebec, parts of the prairies, and regions in the North are making changes to watershed governance based on meaningful engagement with affected communities, better involvement of First Nations, and improving financial support and capacity at the watershed level. This Blueprint focuses on watershed governance in British Columbia and sets out a 10-year program for effectively managing and governing fresh water in the context of functioning and healthy watersheds. It represents a potentially transformative change for watershed governance in the province. A Blueprint for Watershed Governance in British Columbia (2014).pdf
  10. By Ryan J. MacDonald, Sarah Boon, James M. Byrne, Mike D. Robinson, and Joseph B. Rasmussen Abstract: Native salmonids of western North America are subject to many environmental pressures, most notably the effects of introduced species and environmental degradation. To better understand how native salmonids on the eastern slopes of the Canadian Rocky Mountains may respond to future changes in climate, we applied a process-based approach to hydrologic and stream temperature modelling. This study demonstrates that stream thermal regimes in western Alberta, Canada, may only warm during the summer period, while colder thermal regimes during spring, fall, and winter could result from response to earlier onset of spring freshet. Model results of future climate impacts on hydrology and stream temperature are corroborated by an intercatchment comparison of stream temperature, air temperature, and hydrological conditions. Earlier fry emergence as a result of altered hydrological and thermal regimes may favour native westslope cutthroat trout (Oncorhynchus clarkii lewisii) in isolated headwater streams. Colder winter stream temperatures could result in longer incubation periods for native bull trout (Salvelinus confluentus) and limit threatened westslope cutthroat trout habitat. Potential future climate effects on mountain hydrology, stream temperature, and native salmonid life history (2013).pdf
  11. By Sarah Boon, Rita Winkler, John Pomeroy, and Dave Spittlehouse Abstract: One of the most important ecosystem services from forested regions is the provision of a sustainable water supply. In the United States, for example, streamflow from forest land provides almost 2/3 of the total freshwater supply (Jones et al. 2009). On a global scale, forested headwaters that are snowmelt-dominated produce 60% of total runoff (Chang 2003). Given that forest ecosystems are significantly affected by climate change and associated forest disturbance such as wildfire, insect infestation, and disease (Westerling et al. 2006; Littell et al. 2009), there is a critical need to quantify the subsequent effect of these changes on water supply. In British Columbia, the Forest and Range Practices Act (FRPA) requires the forest industry to incorporate non-timber values such as water into their forest management plans using best available knowledge. The response of snow processes to clearcut harvesting is well understood, and has been used as a forest management strategy to increase water yield from headwater basins (Hibbert 1967; Bethlalmy 1974; Ziemer et al. 1991; Wigmosta and Burges 2001). However, we know little about the effects of natural disturbance, such as mountain pine beetle (Dendroctonus ponderosae; MPB) and wildfire, and much of this more recent knowledge is at the stand rather than watershed scale (Winkler and Boon 2009; Bewley et al. 2010; Pugh and Small 2011; Schnorbus 2011). Our research expands previous stand-scale hydrologic process research to the source area watershed scale. The results provide forest and water resource professionals with key information required to assess the hydrologic consequences of forest response to climate change, and to make scientifically defensible water and timber management decisions. Effects of climate and forest cover change on snowmelt dominated water supplies in the Okanagan (2012).pdf
  12. By Rita Winkler, Dan Moore, Todd Redding, David Spittlehouse, Brian Smerdon and Darryl Carlyle-Moses Abstract: The effects of forest disturbance on hydrologic pro- cesses and the generation of streamflow are highly variable and are influenced not only by the disturb- ance, but also by the weather and the biophysical characteristics, of the watershed. This chapter has described how forest harvesting and natural disturb- ance-related changes in fundamental hydrologic processes, including precipitation, interception, evaporation, and soil moisture, can influence hill- slope flow, groundwater, and streamflow. The details the forest canopy account for some of the variability in hydrologic processes, such as snow accumulation and melt, among stands, but year-to-year differences in snowfall patterns account for the largest propor- tion of the variability (Winkler et al. 2005; Winkler and Moore 2006). Therefore, estimates of recovery derived from measurements made over a relatively small number of seasons may not adequately repre- sent the range of weather conditions expected within a given watershed, and at best, represent average conditions. The greatest uncertainty lies in the ap- plication of stand-scale recovery estimates and ECA indices to the evaluation of hydrologic change at the watershed scale. Linkages between stands, hillslopes, and entire watersheds are complex and vary with the weather and the watershed; consequently, these linkages have not been quantified. A 50% recovery in snow accumulation or melt may not represent a 50% recovery in peak flow magnitudes. The ECA index provides only an indication of potential hydrologic change based on the extent of disturbance. It should not be used as a substitute for professional analyses and field assessments. of past and ongoing research in British Columbia and elsewhere can be found in the references cited. New initiatives are building on this foundation by linking stand-scale processes to watershed response; by conducting modelling over greater temporal and spatial scales, with scenarios of extensive harvesting and changing climates; and by conducting field re- search to quantify the effects of natural disturbance on hydrology and hydrologic recovery. The Effects Of Forest Disturbance On Hydrologic Processes And Watershed (2010).pdf
  13. By Gerrit Cornelis van Kooten, University of Victoria Department of Economics. Abstract: The government of British Columbia (BC) imposes restrictions on the export of logs from public and private forestlands, primarily to promote local processing and associated employment benefits. Most economists wholeheartedly oppose BC’s export restrictions, arguing that BC’s citizens are worse off as a result of the government’s measures. In this paper, it is shown that, while free trade in logs might well maximise global wellbeing, it might not necessarily result in the greatest benefit to BC. Indeed, both economic theory and a follow-up numerical analysis indicate that some restrictions on the export of logs can lead to higher welfare for BC than free trade. Thus, log export restrictions could be economically efficient from a local perspective, but only if the transaction costs of obtaining necessary permits are not excessive. Revisiting BC restrictions on log exports (2014).pdf
  14. A position paper released by the Fraser Institute. Abstract: This paper develops a partial equilibrium trade model that reflects the BC Coastal log market and the international market for BC logs to analyze three possible policy options: a ban on exports, an export quota, and free trade in logs. Using 2011 market data, the model suggests that an export quota that restricts log exports to current levels is more beneficial to British Columbia than an export ban or free trade. The intuition behind this result is that limiting BC log exports allows BC log owners, as a group, to exercise market power in the international market. Sensitivity analysis suggests that the results partially hinge on how substitutable BC logs are for logs from other jurisdictions: if BC logs are very substitutable, then free trade in logs is more beneficial than an export quota. One thing is exceedingly clear from the analysis: an outright prohibi- tion on log exports from British Columbia, as advocated by many pundits, politicians, and interest groups, is very costly compared to all alternatives. Both free trade in logs and a quota policy allowing limited log exports are preferable to a ban on exports. Although free trade in logs is not the preferred policy from a BC per- spective, it certainly is from a global perspective. Chinese, Japanese, and Korean log consumers directly benefit from British Columbia allowing more log exports. This presents an opportunity. Canada is currently in talks to join the Trans Pacific Partnership, which includes Japan. There have also been calls in the media and policy circles for the commencement of trade negotiations with China in the future. It is possible that removing all restrictions on log exports as part of a trade agreement could leverage concessions of a similar size that would benefit British Columbia and Canada. Log Export Policy for British Columbia (2014).pdf
  15. A graduating essay submitted for the requirements of a Bachelor of Science in Forestry degree at UBC by Derek Burdikin. Abstract: The issue of log exports has been a topic of debate for decades in the Province of BC. With rising numbers of exports and decreasing manufacturing facilities on the coast of BC a squeeze for fibre supply is occurring. Currently the provincial government has jurisdiction over crown lands, and the exports from those lands. The economic downturn is pushing manufacturing on the coast to the brink, the average price for log to yield to the mill is $75, and the price willing to pay at manufacturing facilities is $50-60. The export logs are valued on average $80-120 and are able to support the domestic harvesting and manufacturing by selling a portion of logs at a loss. REVIEW OF COASTAL BRITISH COLUMBIA LOG EXPORTS (2012).pdf
  16. By Craig W. Shinn, USDAFS Abstract: Log exports have been restricted in British Columbia for over 100 years. The intent of the restriction is to use the timber in British Columbia to encourage development of forest industry, employment, and well-being in the Province. Logs have been exempted from the within-Province manufacturing rule at various times, in varying amounts, for different reasons, and by changing procedures. Although policy clearly restricts log exports, the effects are not simple. The timber industry benefits from both financial returns due to exporting and a restricted log market, while policy changes and implementation have worked to enhance the economic welfare of the Province. Realizing the intent to maintain Provincial well-being is perhaps the key to understanding the endurance of restrictive British Columbia forest policy over time and its dynamics. British Columbia Log Export Policy—Historical Review and Analysis (1993).pdf
  17. This video documentary, by Will Koop of the BC Tap Water Alliance (www.bctwa.org), “Trashing a British Columbia Drinking Watershed Reserve: High Elevation Logging in Peachland Creek,” was filmed from late April to May 2019. It reveals how the BC government, through something called “Professional Reliance,” and under controversial legislation that allows commercial logging in community drinking watersheds, sanctioned enormous clearcuts in the Peachland Creek Community Watershed Reserve. It reveals the total disregard that both government and industry have in protecting fresh water sources, how they disregard animal habitat, and make false claims to public bodies. Please refer to the BC Tap Water Alliance website (www.bctwa.org) for more information and videos on the Peachland watershed, and for report information on many other community watersheds.
  18. Video and story by Will Koop THE PEACHLAND COMMUNITY WATERSHED was once protected by provincial law that prohibited logging (Timber Sales) on public or Crown lands within the watershed’s forests. The video, some 30 minutes in length, tells this history as well as the tragic tales about how government foresters broke the law that protected this community watershed, and many others that were similarly protected in British Columbia since the early 1900s. This video, narrated and produced by Will Koop, the Coordinator of the BC Tap Water Alliance, follows the release of his March 18, 2019 time-lapse video of logging in the Peachland community watershed (1984 – 2018). For more information, visit the BC Tap Water Alliance website, www.bctwa.org.
  19. Video and story by Will Koop: In 1992 logging began in earnest in the District of Peachland's Community Watershed Reserve, with a recent forest tenure license given to Riverside Forest Products (taken over in 2004 by Tolko Industries). Some of the Peachland watershed has a small forest tenure by BC Timber Sales (in the upper Greata sub-basin). Another section of the Peachland Communty watershed is under a Community Forest Tenure (granted in 2009) by the Westbank First Nation. The timelapse, 1984 - 2018, by Google Earth imagery, shows the progression of logging. In 2017, Tolko, BC Timber Sales and the Westbank FIrst Nation began a Watershed Assessment process, which was closed to the public. When the public asked for a copy in late 2018, Tolko and BC Timber Sales refused to release it. The government protected the community watershed in the 1920s with a Land Act tenure, called a Watershed Reserve. Government re-protected the watershed again in 1974 with another Watershed Reserve tenure. The protection tenure was hidden from the public, and when the Okanagan / Shuswap Land and Resource Management Plan (LRMP) process was underway (1996 - 2000), government hid this tenure from the public working tables. For more information, please visit the BC Tap Water Alliance website, www.bctwa.org, and the Peachland Watershed Protection Alliance website, www.peachlandwpa.org
  20. A report by the US Forest Service Forests are considered a natural solution for mitigating climate change because they absorb and store atmospheric carbon. With Alaska boasting 129 million acres of forest, this state can play a crucial role as a carbon sink for the United States. Until recently, the volume of carbon stored in Alaska’s forests was unknown, as was their future carbon sequestration capacity. In 2007, Congress passed the Energy Independence and Security Act that directed the Department of the Interior to assess the stock and flow of carbon in all the lands and waters of the United States. In 2012, a team composed of researchers with the U.S. Geological Survey, U.S. Forest Service, and the University of Alaska assessed how much carbon Alaska’s forests can sequester. The researchers concluded that ecosystems of Alaska could be a substantial carbon sink. Carbon sequestration is estimated at 22.5 to 70.0 teragrams (Tg) of carbon per year over the remainder of this century. In particular, Alaska’s dense coastal temperate forests and soils are estimated to sequester 3.4 to 7.8 Tg of carbon per year. Forest management activities were found to have long-term effects on the maximum amount of carbon a site can sequester. These findings helped inform the carbon assessment sections of Chugach and Tongass National Forests’ land management plans. Forestry as a Natural Climate Solution- The Positive Outcomes of Negative Carbon Emissions (2020).pdf
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