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The student council idea is now widely accepted in secondary schools in the United States; its full potential in contributing to the education and lives of students has not been realized fully in a great many instances. The student council is a dynamic movement and because it is dynamic it is capable of change to meet new conditions. Hence, it cannot remain basically the same year in and year out. The changing dimensions of the student council can be realized only if students, faculty and principals work at it.

In recent years, counties in the Intermountain West (CO, ID, MT, UT, WY) have experienced rapid population growth and housing development, and much of this growth is occurring outside of urban areas. Residental development can have negative impacts on farmlands, farm viability, and environmental services provided by working landscapes. In this study, I use county-level data to explore the association between residential settlement patterns and trends in farm numbers, copland acres, and farm sales between 1997-2012 in this region. Results from traditional ordinary least-squares and spatial regression models demonstrate that population pressure (e.g. rural population density), socioeconomic structure (e.g. median household income), and biophysical resources (e.g. length of growing season) are related to different types of farm trends, but that accounting for the spatial pattern or arrangement of rural and exurban residential development can improve models to explain agricultural change. Since spatial dependencies are present among different variables, this study also demonstrates that spatial regression methods are appropriate and useful to use when modeling country-level processes of socioeconomic change.

Corn (Zea mays L.) hectarage has increased rapidly in Utah and Idaho in recent years due to expansion of the dairy industry, but little is known about corn production practices that optimize yield and quality of silage corn in semi-arid irrigated cropping systems. The objective of this study was to determine the dry matter yield and quality effects of corn hybrids grown in different plant densities and row widths in the Intermountain West. Field experiments were conducted under irrigation in 2015 and 2016 at locations near North Logan, Utah and Jerome, Idaho. The experimental design was a randomized complete block in a split-split plot arrangement with four replications. The whole plot treatment was hybrid (DKC 49-29, DKC 56-54, and DKC 61-88), the sub-plot treatment was row width (76 and 51-cm), and the sub-sub plot treatment was plant density (61,776 to 123,552 plants ha-1 at intervals of 12,355 plants ha-1). The 51-cm row width resulted in forage dry matter yield increases of 4-7% over corn in 76-cm rows. Hybrids differed in response to row width, with no difference detected for the 99-RM hybrid but a significant yield increase for the 106- and 111-RM hybrids by planting in narrow rows. Yield increased quadratically as plant population increased from 61,776 to 123,552 plants ha-1 for all hybrids. The only forage nutritive value that was influenced by row spacing was crude protein (CP), where the 76-cm row spacing showed a 4.5% advantage over the 51-cm row width. Starch increased approximately 3% from the lowest to highest plant densities tested. Net returns showed possible positive increases when comparing row width adjustments. Silage corn yield and quality in the Intermountain West appears to be optimized in 51-cm rows at a plant population between 86,487 and 98,842 plants ha-1.

Water quality continues to be threatened by human development activities such as stormwater runoff from urbanization. This study addresses the question of how stormwater Best Management Practice (BMP) system design choices affect pollutant removal efficiency, through the examination of 12 case study sites (across five states) that use three common BMP system design types (detention, retention, and wetland channel). Water quality information was obtained from the International Stormwater Database and site composite grab samples. Development conditions were inventoried by orthophotos and assessed using Geographic Information System (GIS) and AutoCAD data. This study relates Total Suspended Solid (TSS) load removal efficiency with a series of form-based design variables, which landscape architects can control through their scope of services. System design characteristics of age, size, form, and material selection, along with site-specific precipitation regimens and extent-of-development, were compared with use of TSS removal efficiency in order to determine possible design relationships. Primary removal efficiency methods of individual design types were then evaluated to prioritize conclusions for practical applications. Mixed findings from this study report that one material-based and two form-based design variables hold significant correlation with the TSS removal efficiency. However, site-contextual variables, especially the Natural Resource Conservation Service (NRCS) hydrologic weighted curve value, play an important role in BMP performance and may supersede possible design impacts. The study also reveals that for some BMP sites, a deviation from original design intent may jeopardize system removal efficiency.

Rangelands within the Great Basin are responsible for the provision of multiple resources that humans depend on for a variety of reasons. Ranchers in this region are dependent on public lands to remain economically viable in their cattle operations. As a majority of land in this region is publically owned, there are varying interests at play in what should and could be the focus of management. Ranchers are charged with implementing strategies aimed at conserving these landscapes and their motivations for what to manage may significantly influence resource provision from Intermountain West ecosystem. In this study, I sought to understand what resources ranchers manage and why ranchers manage for certain resources. I also sought to understand operational characteristics which allow or inhibit them from managing for a suite of resources. My study population was ranchers throughout the Intermountain West who depend on public lands to graze their cattle. I utilized interviews as well as mail-in surveys to broadly understand what ranchers value about rangelands. From both qualitative and quantitative data, I found that ranchers make management decisions to encourage productivity, maintain a ranching legacy and remain autonomous in their operation. Managing to encourage these three ideals could ensure that their operations remain viable for their family in the future. I also found that based on size of operation, how active ranchers are on their operation, and how income dependent they are on their operation contribute to managing for more and a certain type of resource. Overall, this research was designed to encourage management for a suite of resources on rangeland landscapes. Ranchers seem to manage most highly for resources directly beneficial to their operation. By educating and incentivizing ranchers to manage more broadly for resources that benefit a broader public on public lands which we all hold claim to, resilience of both human communities as well as the ecosystem itself will be enhanced.

Water shortages are a recurring problem in the western US. As much as 70% of yearly municipal water consumption may be used to irrigate urban landscapes. Significant water savings can be realized by installing low water landscapes, where turfgrass is replaced by low water trees, shrubs, grasses, and perennials. Intermountain West (IMW) native trees and shrubs are excellent candidates for low water landscaping. However, due to their slow initial growth, many native trees and shrubs are simply unavailable to consumers, as they are not cost effective for nursery growers to produce. In an effort to accelerate the yearly growth rates of two IMW native species, Pinus monophylla and Mahonia fremontii, the potential of two growing methods was evaluated. A 30% reduction in radiation by shading and stabilizing root-zone temperatures with potin- pot were employed in an effort to decrease the extreme environmental impacts of temperature and intense sunlight. Shading caused a significant increase in the growth of M. fremontii when grown aboveground. P. monophylla growth was not affected by the use of shade. Neither species showed improved growth when grown pot-in-pot. The use of shade is effective in accelerating some native plants and not others. However, for plants such as M. fremontii, shading is beneficial and can be used to significantly accelerate nursery production.

It is recognized by educators today that our young people are confronted with many problems during their school years. It is also recognized that these problems should be taken into consideration when formulating educational objectives and planning the curriculum for the school.

The United States Department of Agriculture (USDA) strives to use science-based research to both protect and enhance the management of natural resources. From this overarching goal, the USDA has a specific objective to protect the health and sustainability of forest and rangeland ecosystems. Based on this specific objective, an Advisory Board of natural resource scientists within the Quinney College of Natural Resources (QCNR) was awarded a National Institute of Food and Agricultural (NIFA) grant to train two PhD and two MS students. Their research would focus on managing for resilient forest ecosystem in the Intermountain West. With input from the advisory board and my PhD committee, my research focused on how to increase forest resilience at multiple scales. Locally, on the T.W. Daniel (TWD) Experimental Forest on the Logan Ranger District, three silvicultural trials were evaluated for resistance and resilience to the spruce beetle (partially funded by the TWD Forestry Fellowship). At the regional scale, a conceptual model was developed to classify forest communities based on structural features. The model was tested with data collected from 15 mountain ranges across the Intermountain West. Additionally, basic forest dynamics of limber pine (Pinus flexilis James.) were summarized across the Intermountain West. All three of these studies will aid in developing and implementing sound forest management practices to increase forest resilience.

The cattle industry is very competitive which is forcing cow-calf producers to strive for efficiency. Research has shown that as a cows mature weight increases, feed efficiency decreases, as well as reproductive efficiency and other production factors. The purpose of this paper is to (1) identify the economically optimum cow size when charging for grazing public lands on a true Animal Unit Equivalent (AUE) basis and (2) determine if the current practice of charging on a per head basis for grazing public lands has an effect on the optimal cow size. To simplify the complexity of this problem, three different resource bases common in the Intermountain West (resource base 1, time grazing = 100%; resource base 2, time grazing = 75%; and resource base 3 time grazing = 50%) were defined, as well as three different weights of cattle (small, medium and large). Grazing plans were created for each resource base and winter rations were balanced to ensure adequate nutrition and accurate budgeting. Linear programming was used to determine an optimal cow size for each resource base when charging on a per head basis and by a true AUE. When grazing on public land was charged on a true AUE basis, the small cows generated the highest net returns on all resources. Also, each resource base was able to maintain a larger number of the smaller cows than the medium or large cows under these conditions. When grazing on public lands was charge on a per head basis, as is typical, the large cow generated the greatest net returns on resource base 1 and 2. However, the small cow generated the greatest net return on resource base 3. These findings suggest that the current practice of charging for grazing public land on a per head basis does have an impact on cow size.