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Comparing the effects on physical performance when super oxygenated water is consumed vs regular bottled water /Willmert, Nancy R. January 2001 (has links)
Thesis (M.S.)--University of Wisconsin -- La Crosse, 2001. / Includes bibliographical references.
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The effect of extracellular osmolality on cell volume and resting muscle metabolismAntolić, AnaMaria. January 2006 (has links)
Thesis (M. Sc.)--Brock University, 2006. / Includes bibliographical references.
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The effect of extracellular osmolality on cell volume and resting skeletal muscle metabolismAntolić, AnaMaria. January 2006 (has links)
Thesis (M.S.)--Brock University, 2006. / Includes bibliographical references (leaves 88-111). Also available online (PDF file) by a subscription to the set or by purchasing the individual file.
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Triangle Water Index (TWI): An Advanced Approach for More Accurate Detection and Delineation ofWater Surfaces in Sentinel-2 DataNiu, Lifeng, Kaufmann, Hermann, Xu, Guochang, Zhang, Guangzong, Ji, Chaonan, He, Yufang, Sun, Mengfei 11 December 2024 (has links)
One of the most basic classification tasks in remote sensing is to distinguish between water
bodies and other surface types. Although there are numerous techniques for extracting surface
water from satellite imagery, there is still a need for research to more accurately identify water
bodies with a view to efficient water maintenance in the future. Delineation accuracy is limited by
varying amounts of suspended matter and different background land covers, especially those with
low albedo. Therefore, the objective of this study was to develop an advanced index that improves
the accuracy of extracting water bodies characterized by varying amounts of water constituents,
especially in mountainous regions with highly rugged terrain, urban areas with cast shadows, and
snow- and ice-covered areas. In this context, we propose a triangle water index (TWI) based on
Sentinel-2 data. The principle of the TWI is that it first analyzes the reflectance values of water
bodies in different wavelength bands to determine specific types. Then, triangles are constructed
in a cartesian coordinate system according to the reflectance values of different water bodies in the
respective wavelength bands. Finally, the TWI is achieved by using the triangle similarity theorem.
We tested the accuracy and robustness of the TWI method using Sentinel-2 data of several water
bodies in Mongolia, Canada, Sweden, the United States, and China and determined kappa coefficients
and the overall precision. The performance of the classifier was compared with methods such as
the normalized difference water index (NDWI), the modified normalized difference water index
(MNDWI), the enhanced water index (EWI), the automated water extraction index (AWEI), and the
land surface water index (LSWI). The classification accuracy of the TWI for all test sites is significantly
higher than that of these indices that are commonly used classification methods. The overall precision
of the TWI ranges between 95% and 97%. Moreover, the TWI is also effective in extracting flooded
areas. Hence, the TWI can automatically extract different water bodies from Sentinel-2 data with
high accuracy, which provides also a favorable analysis method for the study of droughts and flood disasters and for the general maintenance of water bodies in the future.
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A Dredging Knowledge-Base Expert System for Pipeline Dredges with Comparison to Field DataWilson, Derek Alan 2010 December 1900 (has links)
A Pipeline Analytical Program and Dredging Knowledge{Base Expert{System
(DKBES) determines a pipeline dredge's production and resulting cost and schedule.
Pipeline dredge engineering presents a complex and dynamic process necessary to
maintain navigable waterways. Dredge engineers use pipeline engineering and slurry
transport principles to determine the production rate of a pipeline dredge system.
Engineers then use cost engineering factors to determine the expense of the dredge
project.
Previous work in engineering incorporated an object{oriented expert{system to
determine cost and scheduling of mid{rise building construction where data objects
represent the fundamental elements of the construction process within the program
execution. A previously developed dredge cost estimating spreadsheet program which
uses hydraulic engineering and slurry transport principles determines the performance
metrics of a dredge pump and pipeline system. This study focuses on combining
hydraulic analysis with the functionality of an expert{system to determine the performance
metrics of a dredge pump and pipeline system and its resulting schedule.
Field data from the U.S. Army Corps of Engineers pipeline dredge, Goetz, and
several contract daily dredge reports show how accurately the DKBES can predict
pipeline dredge production. Real{time dredge instrumentation data from the Goetz compares the accuracy of the Pipeline Analytical Program to actual dredge operation.
Comparison of the Pipeline Analytical Program to pipeline daily dredge reports
shows how accurately the Pipeline Analytical Program can predict a dredge project's
schedule over several months. Both of these comparisons determine the accuracy
and validity of the Pipeline Analytical Program and DKBES as they calculate the
performance metrics of the pipeline dredge project.
The results of the study determined that the Pipeline Analytical Program compared
closely to the Goetz eld data where only pump and pipeline hydraulics a ected
the dredge production. Results from the dredge projects determined the Pipeline Analytical
Program underestimated actual long{term dredge production. Study results
identi ed key similarities and di erences between the DKBES and spreadsheet program
in terms of cost and scheduling. The study then draws conclusions based on
these ndings and o ers recommendations for further use.
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The Spatial Relationship Between Septic System Failure and Environmental Factors in Washington Township, Marion County, IndianaHanson, Brian L. 04 1900 (has links)
Indiana University-Purdue University Indianapolis (IUPUI) / Underground septic systems thrive or fail based on the relationship with their local environment. This paper explores ways environmental variables such as soil type, tree roots, degree of slope, and impervious surfaces affect on-site wastewater treatment systems. It also discusses the effects each of these variables may have on a septic system, and the resulting impact a compromised system may have on the surrounding environment. This research focuses on an approximately 20 square mile area of central Washington Township in Marion County, Indiana. This area of central Indiana contains a large septic system owning population in a sampling of different environments such as wooded areas, hilly areas, and a variety of different soil types.
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