75 resources found

The Sustainable Forest Management certificate is a flexible, career-focused program designed for forestry professionals aiming to advance their skills or pursue Registered Professional Forester designation. Delivered through three stackable micro-credentials, the program covers forest ecology, silviculture systems, harvesting practices, and forest health management. Learners gain practical, applied knowledge to assess forest disturbances and implement sustainable management strategies.

The Forest Health Management micro-certificate will teach professionals how to detect, diagnose, and manage forest health issues caused by insects and diseases. Through four sequential courses, learners will explore insect and disease biology, ecology, identification, and mitigation strategies. The program emphasizes early detection and response to forest health threats, which are increasingly influenced by climate change and globalization.

FPBC's professional development courses are designed to enhance the competence of forest professionals in British Columbia. These e-courses and micro-courses cover topics such as climate change, ethical conduct, forest stewardship, conflict management, and working with Indigenous communities. Learners gain practical skills in areas like visual resource management, fieldwork quality, and professional forestry practice rights. Each course supports ongoing learning and includes a certificate of completion to recognize achievement.

The Aleza Lake Research Forest is a 9000 ha university-based outdoor research facility and working forest 60 km east of Prince George, BC. The mandate of the Research Forest is to provide research and education facilities and opportunities to the University of Northern BC and other institutes, universities, government agencies, private sector research, schools and other educational groups with regards to ecosystem and resource management studies within the wet sub-boreal spruce biogeoclimatic zone. The research and education programs are multidisciplinary with an emphasis on: Partial cut harvest systems, Biological Diversity, Climate Change and Environmental Monitoring in Small Forest Tenures. The Aleza Lake Research Forest provides a location for field research and education, and also facilitates the development, implementation and evaluation of research and education programs with the user groups.

This interactive and self-paced short course is delivered through four e-learning modules. It is designed for anyone who wants to learn more about climate change, providing concepts, case studies, and perspectives with a focus on the B. C. context, aiming to enhance understanding and promote ideas for climate action.

This presentation focuses on managing forests for resilience as a crucial method for achieving both forest sustainability and value. It begins by establishing the importance of resilience in the context of forestry, defining it across ecological, engineering, and social-ecological perspectives, and distinguishing between general and disturbance-specific resilience. The presentation then explores how to promote resilient forests, emphasizing the role of diversity, complexity, and understanding ecological systems. Through case studies and management principles, it demonstrates practical ways to enhance forest resilience at various spatial scales, acknowledging the inherent trade-offs in managing for future uncertainties like fire, insects, drought, and climate change.

This paper investigates how wildfires influence the upward migration of tree species in California's subalpine forests, a phenomenon often linked to climate change. Researchers examined post-fire tree regeneration across various fire severities, focusing on the contrasting responses of shade-tolerant and shade-intolerant conifer species. While overall montane species regeneration decreased in burned areas, shade-intolerant Jeffrey pine showed increased success in severely burned plots, aligning with predictions of higher climatic suitability. Conversely, shade-tolerant red fir regeneration declined significantly with higher fire severity, suggesting that the specific regeneration niche of a species, its ideal post-fire conditions, is critical in determining whether fire facilitates or hinders its range expansion.

This document outlines how to integrate wildfire risk reduction into forest regeneration practices. It explains that these standards are modifications of existing reforestation guidelines, tailored to achieve specific fire management objectives, such as reducing crown fire potential and enhancing fire suppression effectiveness, particularly near communities and high-value infrastructure. The document details considerations for developing these standards, including species selection based on fire resilience, stand density management to influence fire behavior, and structural characteristics like canopy base height. It provides a framework and examples for forest professionals to create stocking standards that balance timber production with proactive wildfire management at both local and landscape levels.

This paper investigates the effectiveness of different forest fuel treatments, such as thinning and prescribed burning, in reducing the severity of subsequent wildfires. Leveraging a unique 1200-hectare experiment that was later impacted by a significant wildfire, the authors compared various treatment approaches, including thin-only, burn-only, and a combination of both, against an untreated control. Their analysis of fire severity metrics, considering pre-fire fuel conditions and fire weather, provides strong evidence that proactive fuel management, especially combining thinning and burning, significantly mitigates wildfire intensity and damage to trees, even decades after the treatments were implemented and under a range of weather conditions. The study supports the continued use of these treatments as valuable tools for forest restoration and enhancing resilience to increasingly severe wildfires.

This paper explores the opportunities and limitations of forest thinning as a strategy to enhance the resistance and resilience of trees and forests to global change. The authors reviewed existing literature to assess how thinning impacts forest vulnerability to key stressors like drought, fire, insects and pathogens, and wind. While the study identifies several instances where thinning can be beneficial, particularly in mitigating drought and fire risks, it emphasizes that thinning is not a universal solution and its effectiveness varies depending on the specific stressor, forest type, and management practices. The paper highlights the need for more research, especially in underrepresented regions, to better understand the long-term effects of thinning and to develop effective adaptive forest management strategies in the face of increasing global environmental challenges.

This document outlines British Columbia's Forest Carbon Initiative, a provincial program dedicated to leveraging forests for climate change mitigation. The initiative focuses on increasing carbon sequestration and avoiding emissions through enhanced forest management practices. It details specific modules, including fertilization, reforestation, road rehabilitation, and improved utilization of logging residues, each designed to optimize carbon benefits. The overarching purpose is to inform forest professionals and resource managers about these opportunities and provide guidance on project implementation, highlighting the significant role forests play as natural carbon storehouses.

This document explores the complex relationship between fire management in fire-prone forests of British Columbia and the dynamics of forest carbon. It highlights the challenge for natural resource managers in determining when fire management actions act as sources or sinks of greenhouse gases. The document discusses forest carbon cycles, the impact of climate change on fire regimes, and various forest management approaches, including fire suppression and fuel reduction, in the context of carbon storage and emissions. The docuemtn aims to inform decision-making by considering carbon dynamics alongside other crucial ecological and economic values in these fire-dependent ecosystems.

This paper investigates how diversifying managed forests in British Columbia could enhance their ability to recover from disturbances, specifically a recent mountain pine beetle epidemic linked to climate change. The authors used computer simulations to compare different forest management strategies over an 80-year period, assessing their impact on ecological resilience, timber supply, and economic outcomes. Their findings suggest that a strategy focused on proactively harvesting dominant, susceptible tree species and promoting a greater variety of planted and naturally regenerating trees leads to improved forest health, higher long-term harvest rates, and more stable economic returns without compromising economic viability. The study advocates for incorporating diversification as a key approach to increasing the resilience of managed forests in the face of future environmental challenges.

This paper investigates how to better integrate forest carbon management into overall forest resource planning. The authors developed a novel modeling system that combines forest disturbance, management activities, and carbon dynamics to estimate both the current carbon stocks and the natural carbon-holding capacity of a forest landscape in British Columbia, Canada. By comparing these estimates under different harvesting scenarios, the study provides a framework and essential information for implementing nature-based climate change mitigation strategies in forest ecosystems. This paper aims to bridge the gap between traditional forest management and informed carbon management.