Abstract: The forest industry plays a key role in global economic development and environmental conservation. The Swedish forest industry has a leading position in world forest clusters. The strategy of the Swedish forest industry is giving the environmental and the production objective the same high priority. On the other hand, China, as the second largest economy in the world, operates the forest sector in a different way. The aim of this paper is first to look at how sustainable the Swedish forest industry is and learn what aspects of it can be possibly applied by China, by making a limited comparison between these two countries. Literature review is the main method, combining with SWOT-analysis and comparative study. After analyzing the environmental economic and social aspects of sustainable development within the forestry sector in both countries, a brief summary is made using SWOT-analysis, which highlights strength, weakness, future potential and threat. The study and analysis shows that a delicate balance between the production and the environmental objective is kept in Sweden. Even though the forest industry is one of the most energy intensive industries, Sweden has accumulated some experience in streamlining production line and enhancing the resilience of forests aiming for climate change mitigation. As the biggest developing country in the world, China’s forestry has developed extensively. China shows limitation in extraction and handling with forest resources, but also potential in the forestry industry. Though limited, this comparison gives some clues on how and what policies and measures could be applied in China. China could draw some experiences from Sweden in forestry development, technology innovation and operation patterns.

Educational response to climate change is one of the measures to prepare people to combat climate change. This thesis explores the lived experiences of secondary Science teachers from Kathmandu Valley on the perception of climate change, the way they handled climate change issues in the classroom setting, the problems and challenges they came across in climate change communication in the classrooms and the relevance of existing secondary Science curriculum in relation to climate change. The thesis is built upon the study of secondary Science curriculum, relevant literature on climate change education and the interviews with secondary Science teachers, teaching Science at secondary level in different schools of Kathmandu Valley.  The results showed that the teachers were convinced and concerned on the ongoing climate change and stressed on knowledge for climate change actions; they were found to introduce climate change issues contextually and relating to the topics like greenhouse effect, ozone layer depletion they teach; lack of resources, exclusion of climate change in the secondary Science curriculum, their own limited knowledge on climate change, the unpractical theory and marks oriented educational system, and shifting of the responsibilities by the students hindered effective climate change communication in the classroom settings. The findings have been discussed in relation to social learning theory and relevant literature.

According to the Intergovernmental Panel on Climate Change report, “Adaptation to climate change is defined as, an adjustment in natural or human systems in response to actual or expected climatic stimuli or their effects, which moderates harm or exploits beneficial opportunities” (IPCC 2007). Adaptation is required due to the increase in the number of natural disasters and extreme changes in environmental conditions in coastal areas that are a function of sea level rise, floods, extreme heat, drought, and coastal storm surge from severe storms. To reduce the impacts of climate change risks in the future, coastal communities through local government initiatives are compelled to develop and implement grass roots community plans. This study is part of an International Community-University Research Alliance (ICURA), “C-Change” that aims to develop community-based adaptation protocols based on best practices and through the evaluation of the scientific method of problem solving designed to help coastal communities be sustainable and to protect their local coastal environments. To this end, the thesis reviews the international development and application of adaptive strategies related to climate change and evaluates these global strategies for identification of best practices and application to coastal communities. The objective of this research is to design and develop improved C-Change community adaptation frameworks by analyzing the applications of international protocols and local action plans with respect to the scientific method and of problem solving through using AHP (Analytic hierarchy process) as a tool, and by choosing best practices to provide guidelines for communities’ climate adaptation plans for the C-Change ICURA coastal communities in Canada.

Pollen profiles from two lakes, Tawny Pond (44°48’59”N, 77°10’54”W, 276m) and Stoll Lake (44°58’16”N, 77°17’22”W,303m) in Addington Highlands, eastern Ontario, Canada were analyzed to understand the effects of late-Holocene climate change and European settlement on eastern Ontario’s forests. Both lakes were analyzed at high temporal resolution and record vegetation dynamics over the last 1000 years. Throughout the past 1000 years, Pinus, Tsuga, Betula, Quercus, Acer and Fagus were the dominant taxa in the pollen record. The pollen records show vegetation response in relation to the Medieval Warm Period and the Little Ice Age. From 970-1200 AD the forest was dominated by hemlock, beech and maple trees. From 1200-1870 AD the forest composition changed as pine and boreal trees became more abundant and/or had increased relative pollen production. Most recently, since 1870 AD, herbaceous plants (weeds) increased, whereas softwoods decreased and hardwoods increased, due to landscape changes associated with European settlement. These results show that high resolution studies of unvarved lakes, with an appropriate chronology, can detect multi-decadal climate variability. This thesis was also concerned with making management suggestions to the forestry community. Future climate change will likely create a forest composition more similar to that of the Medieval Warm Period than the time of European colonization, and thus should be the basis for forest planning.

Climate change is considered one of the primary threats to the sustainability of ski tourism around the world. Studies in several countries project the ski industry will be impacted by shorter ski seasons, greater snowmaking requirements, and a declining ski demand. Many supply-side studies suffer key limitations, such as the omission of snowmaking, leaving their conclusions highly questionable. This study utilizes the SkiSim 2 model to reassess the implications of projected climate change for two major ski tourism destinations in the Western USA (Vail, Colorado and Lake Tahoe, California) where previous studies projected major impacts when snowmaking was not considered. Historical climate data (1961-1990) and the stochastic weather generator LARS-WG are used to examine the impact of climate change scenarios for ski season length and snowmaking requirements by the 2050s. Comparisons with previous studies and implications for ski tourism development and planning will be discussed.

Multiple global climate models suggest that the Canadian Prairies will experience temperature increases due to climate warming. This could influence pasture and grazing production. Three climate scenarios CGCM2 A21, CSIROMk2 B11 and HadCM3 A21 were used to predict daily weather data to 2099 and incorporated into the GrassGro decision support tool to project pastoral production during 30-year increments, 2010 to 2099. Simulations were compared with the World Meterological Organization baseline years, 1961-1990 at two sites (Saskatoon and Melfort) and two soil textures (loam topsoil / loam subsoil and sandy-loam / sandy-clay-loam). Two tame grasses [crested wheatgrass (CWG; <i>Agropyron cristatum</i>) and hybrid bromegrass (HBG; <i>Bromus inermis x Bromus riparius</i>) and a mixed native pasture (<i>Festuca hallii; Elymus lanceolatus; Pascopyrum smithii; Nassella viridula</i>) were studied at each location.<p> Soil moisture was greater for loam/loam than sandy-loam/sandy-clay-loam resulting in more plant available moisture in all climate scenarios at both locations. However, plant available moisture alone was unable to explain changes in pasture dry matter (DM) production. The results projected from CGCM2 A21 were more favorable to plant and livestock production than those of CSIROMk2 B11 and HadCM3 A21. CGCM2 A21 simulated increases in mean DM production of HBG at both locations during spring each 30-yr period (P<0.05) but an overall decline (P<0.05) in mean average daily gain (ADG) of steers at Melfort, whereas at Saskatoon there was an increase in ADG (P<0.05). CWG decreased in DM production at Melfort during summer and increased at Saskatoon with CGCM2 A21 but there was an overall decrease in ADG of steers during each 30-yr period relative to baseline. It was concluded that HBG was better able to stabilize production under various future climatic conditions than CWG. There was a shift in species dominance from <i>Festuca hallii</i> to <i>Elymus lanceolatus</i> in the mixed native pasture at both locations associated with the increase in summer temperatures. This suggests that various grass species may respond differently to climate change.These results indicate that climate change will cause significant changes in soil moisture, productivity and quality of tame pastures, liveweight of grazing cattle and species composition of native pasture.

The 2002 ratification of the Kyoto Protocol by the government of Canada represents an interesting case study in Canadian federalism. This thesis seeks to explore the perspective of the government of Saskatchewan during the debate surrounding the ratification of the Kyoto Protocol. In examining Saskatchewans perspective, this thesis uses the theoretical framework developed by Richard Simeon in Federal-Provincial Diplomacy: The Making of Recent Policy in Canada. In particular, the four major sources of intergovernmental conflict identified by Simeon, economic conflict, ideological conflict, political competition, and differences in perspective, will be used to examine Saskatchewans reaction to the ratification to the Kyoto Protocol. Climate change policy provides interesting insights into Canadian federalism. Constitutional authority in environmental policy is concurrently shared between both levels of government. At the same time, the federal government has authority to make international treaties, but requires provincial consent to implement those treaties in areas of provincial jurisdiction. Unlike other previous intergovernmental negotiations, the Kyoto Protocols ratification also introduces international elements and considerations to domestic federal-provincial relations, which have rarely been explored in academic literature surrounding Canadian federalism. As such, this thesis hopes to use the case study of Saskatchewans perspective on Kyotos ratification as a means of expanding on the relevance of Simeons framework through the consideration of unexplored international factors on Canadian federalism.

Climate change may change the frequency and intensity of weather events which will likely challenge human and natural systems more than normal change. Agriculture is considered one of the most vulnerable systems to climate change. The main goal of this study is to estimate the economic impact of climate change on agriculture in the Canadian prairies and to capture the impact of weather conditions on the viability of production systems along with the impact of market price effects by predicting the economic impact of climate change. A two way fixed effects panel model with time and provinces group fixed effects is calibrated to simulate a set of potential climate change and global change in prices on the economics of prairie agriculture. The predicted impact of change in rainfall, increase in temperature and rise in future global market prices indicate that climate change will have complicated nonlinear effects on prairie agriculture. The results of this study also highlight the importance of precipitation for agriculture on the Canadian prairies. Marginal impacts of the evapo-transpiration proxy, rainfall, and July relative humidity indicate direct and positive relationship between agricultural land values and water related climate variables. It verifies that agriculture in the Prairies is very vulnerable to water scarcity and land use and land value strongly depends on the precipitation. The most important finding of this study is that climate change is beneficial for Canadian prairie agriculture except for some south east regions of Alberta. Comparing the results from direct impacts of climate and price changes on land value with the results from indirect impacts through area response estimation reveals that direct impacts of climate and price change increase farmland value by 31% while the indirect impacts from different scenarios increase simulated land value by up to 51%.<p> The results from base and three scenarios in this study reveal that climate change may not be a big threat for prairie agricultural economics if farmers employ appropriate adaptation strategies such as switching between crops and introducing new crops. As a matter of fact, climate change may provide an opportunity for agricultural producers in the prairies to gain from future price and environmental change. To achieve this goal, policies to address climate change concerns need to put a greater emphasis on dealing with water deficit and scarcity. Policies that facilitate access to irrigation and crop choices will help farmers to adapt to climate change.

Tree-ring analyses have contributed significantly to investigations of climate change and climate cycles, including the North Atlantic Oscillation (NAO), Pacific Decadal Oscillation (PDO) and El Niño/Southern Oscillation (ENSO). Stable isotope climate proxies (?18O, ?D, and ?13C) have enhanced traditional ring-width data, although poor preservation of ancient wood has generally constrained reconstruction of stable isotope proxy records to the Holocene and Late Pleistocene. An opportunity to apply these stable isotope methods to older wood has been presented by recovery of remains of Mixed-Coniferous Boreal Vegetation, in Early Pliocene (4-5 Ma) deposits at Strathcona Fiord, Ellesmere Island, Canada (~79°N). An exceptionally well-preserved tree trunk, identified as Larix (larch) through wood anatomical characteristics, from this high Arctic site provided a 203-year tree-ring record, from which we present the first high-resolution, secular isotope record of Pliocene climate. ?18O, ?D, and ?13C isotope values indicate a variable climate with alternating intervals of cool/wet to warm/dry weather. These fluctuations in climate may be attributable to phase changes in climate cycles observed in the record. A growing season mean temperature of 14.4 °C was calculated from isotopic analysis of gastropod shells. Palaeoclimatic modeling of tree isotope values has revealed growing season temperatures of 11-15 °C, and estimated isotope values of precipitation of 18.3 (?18O) and 228 (?D). Both palaeotemperature estimates and source water calculations are comparable to those found in a modern Boreal Forest. Time-series wavelet analysis was applied to these data revealing prominent short (<10 years), intermediate (16-35 years) and long-term (~45-50 years) cyclicity. These are the highest resolution climate cycles recovered from the pre-Holocene terrestrial record, providing evidence for decadal scale cyclicity similar to the NAO and/or PDO 4-5 million years ago.

Since World War II, concern for the environmental impacts of human activities has grown. Agriculture plays a significant role in several impact categories including global warming. Governments, including the U.S., have recently begun or are considering the regulation of greenhouse gas (GHG) emission to mitigate the global warming effect. Because agriculture accounts for a large portion of anthropogenic greenhouse gas emissions, it is necessary to establish a baseline measure of the GHG emission of U.S. agriculture at the farm level. The objective of this research is to estimate the GHG emission levels for multicrop farms in the U.S. and identify the major sources of GHG emissions in their supply chains. To accomplish the objective, a partial life cycle assessment (LCA) methodology is used to establish a GHG baseline for the representative farms. LCA as defined by the International Organization for Standardization (ISO) includes four phases: goal and scope definition, inventory, impact assessment, and interpretation. It is a holistic approach that catalogues environmental impacts of all relevant processes at all stages of production, from raw material extraction to disposal. However, this study only catalogues impacts up to the farm gate. Partial LCAs are common in agriculture. Emissions of three GHGs, CO2, CH4, and N2O, are inventoried for 95 U.S. farms. The results are characterized using their 100-year global warming potentials into CO2 equivalents. The CO2 equivalents are then normalized over four functional units: enterprises, acres or head, harvest units, and pounds of production. The variation of GHG intensity between crops and farms is very large. However, it is clear that GHG intensity is affected by three characteristics: location, size, and irrigation practice. Crops grown in their associated regions tend to be more GHG efficient than those grown outside their associated regions. Also, crops grown on large farms tend to be more GHG efficient than the same crop grown on a small farm in the same area. Lastly, with the exceptions of cotton and soybeans, irrigated crops tend to be more GHG intensive than non-irrigated crops. These results combine to suggest that there may be a correlation between production efficiency and carbon efficiency.