565 resultados para Sparks, Cliff
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This folder contains transcriptions of archival materials used in Lane's research for the article, published by the Colonial Society of Massachusetts in 1923. Included are two letters from the papers of Harvard President Jared Sparks (1849-1853) regarding the christening basin and the role of the College steward in the care of the silver collection; and a 1781 inventory (see also in folder 7) and 1829 Corporation vote excerpted from College records. There are also two notes containing citations.
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This layer is a georeferenced raster image of the United States Geological Survey 7.5 minute topographic sheet map entitled: New York and vicinity : Oyster Bay, N.Y.-Conn., 1955. It is part of an 8 sheet map set covering the metropolitan New York City area. It was published in 1961. Scale 1:24,000. The source map was prepared by the Geological Survey from 1:24,000-scale maps of Bayville 1954, Mamaroneck 1955, Sea Cliff 1954, and Hicksville 1954 7.5 minute quadrangles compiled by the Army Map Service. The Mamaroneck quadrangle was previously compiled by the Geological Survey in 1933 and 1934. Culture revised by the Geological Survey. Hydrography compiled from USC&GS charts 222 (1955), 223 (1954, 1955), and 224 (1954). The image inside the map neatline is georeferenced to the surface of the earth and fit to the Universal Transverse Mercator (UTM) Zone 18N NAD27 projection. All map collar and inset information is also available as part of the raster image, including any inset maps, profiles, statistical tables, directories, text, illustrations, index maps, legends, or other information associated with the principal map. USGS maps are typical topographic maps portraying both natural and manmade features. They show and name works of nature, such as mountains, valleys, lakes, rivers, vegetation, etc. They also identify the principal works of humans, such as roads, railroads, boundaries, transmission lines, major buildings, etc. Relief is shown with standard contour intervals of 10 and 20 feet; depths are shown with contours and soundings. Please pay close attention to map collar information on projections, spheroid, sources, dates, and keys to grid numbering and other numbers which appear inside the neatline. This layer is part of a selection of digitally scanned and georeferenced historic maps from The Harvard Map Collection as part of the Imaging the Urban Environment project. Maps selected for this project represent major urban areas and cities of the world, at various time periods. These maps typically portray both natural and manmade features at a large scale. The selection represents a range of regions, originators, ground condition dates, scales, and purposes.
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Introduction: Current physical activity levels among children and youth are alarmingly low; a mere 7% of children and youth are meeting the Canadian Physical Activity Guidelines (Colley et al., 2011), which means that the vast majority of this population is at risk of developing major health problems in adulthood (Janssen & Leblanc, 2010). These high inactivity rates may be related to suboptimal experiences in sport and physical activity stemming from a lack of competence and confidence (Lubans, Morgan, Cliff, Barnett, & Okely, 2010). Developing a foundation of physical literacy can encourage and maintain lifelong physical activity, yet this does not always occur naturally as a part of human growth (Hardman, 2011). An ideal setting to foster the growth and development of physical literacy is physical education class. Physical education class can offer all children and youth an equal opportunity to learn and practice the skills needed to be active for life (Hardman, 2011). Elementary school teachers are responsible for delivering the physical education curriculum, and it is important to understand their will and capacity as the implementing agents of physical literacy development curriculum (McLaughlin, 1987). Purpose: The purpose of this study was to explore the physical literacy component of the 2015 Ontario Health and Physical Education curriculum policy through the eyes of key informants, and to explore the resources available for the implementation of this new policy. Methods: Qualitative interviews were conducted with seven key informants of the curriculum policy development, including two teachers. In tandem with the interviews, a resource inventory and curriculum review were conducted to assess the content and availability of physical literacy resources. All data were analyzed through the lens of Hogwood and Gunn’s (1984) 10 preconditions for policy implementation. Results: Participants discussed how implementation is affected by: accountability, external capacity, internal capacity, awareness and understanding of physical literacy, implementation expertise, and policy climate. Discussion: Participants voiced similar opinions on most issues, and the overall lack of attention given to physical education programs in schools will continue to be a major dilemma when trying to combat such high physical inactivity levels.
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This paper proposes a three-step method of evaluating high performance coaches involving feedback from the athletes. First, data are collected using an instrument such as the Coaching Behavior Scale for Sport (CBS-S: Côté, Yardley, Hay, Sedgwick, & Baker, 1999). Second, a summary report is prepared with descriptive information regarding the frequency of behaviors demonstrated by the coach that can be compared to previous results or to a criterion measure. The third step involves appropriate personnel reviewing the report and subsequently providing guidance for individual coach development. This three-step appraisal method provides useful evaluative feedback to coaches and has been used in several sport programs in Canada, the United States, and Australia.
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The purpose of this research report is to present an overview of an ongoing, international project designed to chart the developmental paths and activities of sport coaches. This brief report includes three sections: (a) conceptual framework used to guide the project, (b) project design and methodology, and (c) results from pilot studies with a sample of 15 successful coaches working in different sport contexts in the United States Unlike the findings for athletic profiles, where several trends across coaching contexts were evident, only one trend was found in how these diverse groups of coaches invested their time in coach developmental activities. In relation to other coaching activities very little time was devoted to formal coach education on an annual basis. The results reinforce the need to consider the coaching context when examining coach development and when designing coach development initiatives.
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Introduction. The week following his reelection, President Obama traveled to Asia – Thailand, Myanmar, and Cambodia –, while facing at home a fiscal cliff, the need to select the next Secretaries of State, Defense, and Treasury, and the resignation of one of America’s most senior and respected generals and Director of the CIA, David Petraeus; all this at the moment wherein the Middle East is burning in flames due to another round of violence between Israel and Hamas. On the other side of the pond, the EU is currently trying to solve or at least contain several crises: the Eurozone, agreeing on the Multiannual Financial Framework 2014-2020, or MFF 2014-2020,2 and saving France.3 For both giants, the American and European priorities are domestic; they both need to do some ‘nation-building at home.’4 The threat of the fiscal cliff in the US and the one of the Eurocrisis in Europe are too important to be ignored and so visceral that they will affect the way both actors behave internationally and interact with one another. The big question since Obama’s reelection has been what will the EU-US relations look like under his second mandate? And will there be any differences from the first one?5 This paper argues that the US-EU relations will remain quite similar as it was under the first Obama presidency. Nevertheless, with the current shift to Asia, the ‘pivot,’ the EU will be required to increase its contributions to global politics and international security. This paper is structured in three parts. First, the economic and political climax of the EU and the US will be presented. In a second a part, the EU and US strategies and foreign policies will be laid out. Last but not least, several core issues facing the Euro-Atlantic community, such as the Asia pivot, Iran, climate change, and the economy will be addressed. Other issues such as Syria, Afghanistan, and the Middle East and North Africa will not be addressed in this paper.6
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Whole-core measurements of Wet Bulk Density (WBD), compressional (P)-wave velocity (Vp), and Magnetic Susceptibility were measured at a sampling interval of 1 or 2 centimetres (cm) throughout the AND-2A drill core for initial core characterisation and on-site correlation with seismic modeling to predict target-reflector depth. Measurements were made using a GEOTEK (Multi-Sensor-Core-Logger MSCL). Density and velocity standards were measured together with core runs of 3-6 metres (m) (and occasionally up to 18 m) throughout the entire depth range to monitor data quality. Drift of the magnetic susceptibility sensor was also monitored and corrected where necessary. These physical properties show a large range of values, reflecting the different nature of the various lithologies including extremely high velocity and density values in individual clasts, and the effects of cementation on porosity. A downcore increase in WBD and Vp occurs in the upper 200 m, however, no systematic trend exists at greater depths although large fluctuations on a m-decimetre- (dm) scale occur. Magnetic susceptibility is generally low (<100 x 10-5 SI), however, four intervals of high (>600 x 10-5 SI) susceptibility occur at 560, 800, 980 and 1 080 mbsf, indicating a relatively greater contribution of volcanic-derived material to the core site in the lower half of the AND-2A core.
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Pollen analyses and 14C-datings were carried out on two late glacial profiles from Ruegen Island, Mecklenburg-Vorpommern at the southwestern Baltic coast. The palaeoclimatic and palaeoecologic interpretations were supported by carpological investigations. The organogenic deposits of the 'Hoelle' outcrop near Dwasieden Park were chosen because of their unique stratigraphic position, which according to PANZIG (1989), lay under a m3m-Glacial Till of the Mecklenburg Advance (W3). The results indicated that the initial phase of the late glacial sedimentation in a relatively small and asymmetrical lake basin (in comparison with the larger Nieder- and Credner lake to the southwest), probably had its origin in the older Alleroed (II a) after FIRBAS (1949). The basal clastic sediments were rapidly followed by peat deposits and later, due to a rising water table, by muds rich in organic matter. The area was covered with sparse Betula-(Pinus) forests having heliophilous late-glacial elements typical of the surrounding areas during the younger Alleroed (II b). With the climatic change to colder and drier conditions at the beginning of the Younger Dryas (III), the vegetation decreased and enhanced erosional processes led to the fill up of the depression with fine clastic sediments. The intense relief differences of the surroundings coupled with high water saturation in the sediments led to solifluction in the m3m-Glacial Till and its placement discordantly over the organogenic sequence.
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Fifty samples of basalt recovered during ODP Leg 111 from the dikes (Layer 2C) of Hole 504B (1350.0-1562.3 m below seafloor) were analyzed by X-ray-fluorescence techniques. All of the samples are highly depleted in magmaphile elements relative to other mid-ocean ridge basalts, with TiO2 = 0.75-1.24 wt%, Na2O = 1.59-2.22 wt%, Zr = 38-64 ppm, Nb = 0.3-1.5 ppm, and Y = 20-30 ppm (for samples containing 0%-2% phenocrysts), but have ratios of highly incompatible elements similar to normal Type I mid-ocean ridge basalts (e.g., Zr/Nb > 30). Abundances of compatible elements are similar to those of typical mid-ocean ridge basalts, with MgO = 7.2-9.2 wt%, Fe2O3* = 9.3-12.5 wt%, Ni = 55-164 ppm, and Cr = 26-388 ppm. Approximately 2% of the samples recovered from the top part of Hole 504B are similar to normal Type I or Type II ocean floor basalts. However, all of the analyzed Leg 111 samples from Hole 504B are depleted basalts. Aphyric dike rocks from Leg 111 are virtually identical to the depleted aphyric samples recovered from the pillow lavas and dikes in the upper 1075 m of Hole 504B during DSDP Legs 69, 70, and 83, with the exception of elements readily altered by seawater (Sr, Rb, and K). These elements reach a maximum in both abundance and variability in the pillow lavas of the upper 571.5 m of Hole 504B and decline to more constant values in the dike system sampled on Legs 83 and 111, apparently as a result of a decrease in porosity and increase in alteration temperatures relative to the pillow lavas. Based on compositional similarities to the vast majority of the pillows and flows, the dikes sampled on Leg 111 appear to be the feeder system for the pillow lavas in the upper part of Hole 504B. The incompatible-element-depleted compositions of the Costa Rica Rift Zone basalts are consistent with multistage melting of a normal mid-ocean ridge source.
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Strontium concentrations and 87Sr/86Sr values were measured on pore-water and sedimentary carbonate samples from sediments recovered at Sites 1049-1053 on the Blake Spur during Ocean Drilling Program Leg 171B. These sites form a 40-km-long depth transect extending along the crest of the Blake Spur from near the upper edge of the Blake Escarpment (a steep cliff composed of Mesozoic carbonates) westward toward the interior of the Blake-Bahama Platform. Although these sites were selected for paleoceanographic purposes, they also form a hydrologic transect across the upper eastern flank of the Blake-Bahama Platform. Here, we use pore-water strontium concentrations and isotopes as a proxy to define patterns of fluid movement through the flanks of this platform. Pore-water strontium concentration increases with depth at all sites implying that strontium has been added during sediment burial and diagenesis. The isotopic values decrease from seawater-like values in the shallow samples (~0.70913) to values as low as 0.707342 in one of the deepest samples (~625 meters below seafloor). The change in pore-water strontium isotopic values is independent of the strontium isotopic compositions predicted from the host sediment age and measured on bulk carbonate in some samples. In most cases the difference between predicted sediment strontium isotopic composition and measured value is less than ±2 about the mean of the measured strontium value. Both the increase in concentration and the decrease in the strontium isotope values with increasing depth indicate that strontium was expelled from older carbonates. The strontium concentration and isotope profiles vary between sites according to their proximity to the Blake-Bahama Platform edge. Profiles from Site 1049 (nearest the platform edge) show the greatest amount of mixing with modern seawater, whereas the site most distal to the platform edge (Site 1052) shows the most significant influence of older, deeper carbonates on the pore-water strontium isotopic composition.
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The mineralogical compositions of 119 samples collected from throughout the San Francisco Bay coastal system, including bayfloor and seafloor, area beaches, cliff outcrops, and major drainages, were determined using X-ray diffraction (XRD). Comparison of the mineral concentrations and application of statistical cluster analysis of XRD spectra allowed for the determination of provenances and transport pathways. The use of XRD mineral identifications provides semi-quantitative compositions needed for comparisons of beach and offshore sands with potential cliff and river sources, but the innovative cluster analysis of XRD diffraction spectra provides a unique visualization of how groups of samples within the San Francisco Bay coastal system are related so that sand-sized sediment transport pathways can be inferred. The main vector for sediment transport as defined by the XRD analysis is from San Francisco Bay to the outer coast, where the sand then accumulates on the ebb tidal delta and also moves alongshore. This mineralogical link defines a critical pathway because large volumes of sediment have been removed from the Bay over the last century via channel dredging, aggregate mining, and borrow pit mining, with comparable volumes of erosion from the ebb tidal delta over the same period, in addition to high rates of shoreline retreat along the adjacent, open-coast beaches. Therefore, while previously only a temporal relationship was established, the transport pathway defined by mineralogical and geochemical tracers support the link between anthropogenic activities in the Bay and widespread erosion outside the Bay. The XRD results also establish the regional and local importance of sediment derived from cliff erosion, as well as both proximal and distal fluvial sources. This research is an important contribution to a broader provenance study aimed at identifying the driving forces for widespread geomorphic change in a heavily urbanized coastal-estuarine system.
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Back Row: James Brown, Jon Falk, Dave Garlow, Bill Sheridan, Tom Hassel, Reggie Mitchell, Sr. Mgr. Michael Drews, Bob Tait, Pete Wentworth, Russ Miller, Larry Barrows, John Ferens, Chuck Ritter
11th Row: Paul Alexander, Alex Agase, Bob Thornbladh, Tirrel Burton, Jerry Hanlon, Elliot Uzelac, Gary Moeller, Milan Vooletich, Jerry Meter, Lloyd Carr, Cam Cameron, Michael Trgovac
10th Row: Fritz Seyferth, Andy Johnson, John Althouse, Joel Boyden, Mike Gillette, Mike Edwards, Sean LaFountaine, Olatide Ogunfitidimi, Vincent Washington, Steve Woroniecki, Gulam Kahn, Mike Gittleson
9th Row: John Kolesar, David Weil, Scott Crawford, Chris Simmons, Brian Reid, John Plantz, Mike DePalma, Keith Mitchell, Keith Cooper, Joe Holland, Frank Petroff, Anthony Mitchell, Bob Hurst
8th Row: Mike Taylor, Demetrius Brown, Dave Arnold, Mike Jones, Brent White, Pat Olszewski, John Herrman, Jeff Brown, Bobby Abrams, Derrick Walker, J.J. Grant, Rick Hassel, Cliff Dochterman
7th Row: Ernie Bock, Kyle Anderson, Mike DeBoer, John Duerr, Scott Mandel, Dave Mandel, John Whitledge, Brad Burrows, Don Lessner, Pat Fitzgerald, Geoff Bissell, Rick Sutkiewicz, Phil Logas
6th Row: Ernie Holloway, Jamie Morris, John Zingales, Chuck Adams, Chris D'Esposito, Mark Erhardt, John Vitale, Dave Dever, John Willingham, Bob Cernak, Rick Stites, Bob Stites
5th Row: Gene Lawson, Ken Mouton, Erik Campbell, Dave Chester, Michael Dames, Mike Husar, Dave Herrick, Mark Hill, Dan Holloway, Mike Kovac, Mark Messner, Keith Evens
4th Row: Ed Hood, Tim Schulte, Ken Higgins, Steve Thibert, Phil Webb, Carlitos Bostic, David Folkertsma, Andy Borowski, Monte Robbins, Todd Schulte, Jack Walker, Russell Rein
3rd Row: Pat Moons, Marty Shimko, Andre McIntyre, Garland Rivers, Dan Rice, John Mihic, John Elliott, Gerald White, Chris Zurbrugg, Billy Harris, Keith Cowan, Doug Mallory
2nd Row: Ben Logue, Greg Randall, Mark Hammerstein, Dieter Heren, Gilvanni Johnson, Paul Jokisch, Mike Reinhold, Jerry Quaerna, Mike Krauss, Andy Moeller, Paul Schmerge, Thomas Wilcher, Coach Bo Schembechler
Front Row: Tony Gant, Bob Perryman, Bob Tabachino, Jeff Akers, Brad Cochran, Mike Mallory, Mike Hammerstein, Eric Kattus, Clay Miller, Jim Scarcelli, Jim Harbaugh, Ivan Hicks
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Back Row: Mgr. Keith Webster, Video Coordinator Dave Garlow, Head Trainer Russ Miller, g.a.'s: Paul Alexander, Bill Sheridan, Jim Herrmann, John Johnson, Randy Fichtner, Kevin Kalinich, Tr. Paul Schmidt, Tr. Rex Thompson, Equipment Mgr. Jon Falk, Assistant Denny Morgan, Graduate Assistant John Ferens
11th Row: Assistant coaches: Alex Agase, Cam Cameron, Jerry Meter, Tom Reed, Elliott Uzelac, Gary Moeller, Lloyd Carr, Bill Harris, Jerry Hanlon, Tirrel Burton, Mike Gittleson, Recruiting Coord. Fritz Seyferth, Admin. Ass't. Cliff Dochterman
10th Row: Geoff Bissell, Mark Gutzwiller, Steve Woroniecki, Dave Knight, Steve Zacharias, Todd Plate, Matt McCoy, Greg Zeigler, Byron Lawson, Sean Eastman, Scott Harrala, Joel Boyden, Doug Matton
9th Row: Chris Calloway, Chris Horn, Scott Smykowski, Trey Walker, Jeff Tubo, Curtis Feaster, Mike Kerr, Marc Ramirez, T.J. Osman, Mike Teeter, Doug Daugherty, Huemartin Robinson
8th Row: John Milligan, Tony Boles, Jarrod Bunch, Greg McMurtry, Marc Spencer, Tom Dohring, Warde Manuel, Timothy Williams, Leroy Hoard, Allen Jefferson, Tracy Williams, David Key
7th Row: Olatide Ogunfiditimi, Keith Cooper, Scott Crawford, Joe Holland, Frank Petroff, Pat Olszewski, John Plantz, Sean LaFountaine, Mike Edwards, Rick Hassel, Ted Harris, Gulam Khan
6th Row: Kyle Anderson, Mark Erhardt, Brian Reid, Keith Mitchell, John Herrmann, Brent White, Dave Weil, Derrick Walker, Michael Taylor, Anthony Mitchell, Pat Fitzgerald, Mike DeBoer, Vince Washington
5th Row: Rick Stites, Ernie Bock, Mike Gillette, Scott Mandel, Mike Kovak, John Willingham, Dave Mandel, John Duerr, J.J. Grant, Don Lessner, Bob Stites
4th Row: Ken Mouton, Ernie Holloway, David Arnold, Jeffrey Brown, Dave Dever, Dave Herrick, Michael Dames, Dave Chester, Bob Cernak, Rick Sutkiewicz, John Kolesar, Allen Bishop
3rd Row: Erik Campbell, Mike Husar, Mark Messner, Jack Walker, Steve Thibert, Andree McIntyre, Andy Borowski, Dave Folkertsma, Tim Schulte, John Vitale, Phil Webb, Phil Logas
2nd Row: Jamie Morris, Monte Robbins, Todd Schulte, Billy Harris, Mark Hammerstein, Paul Jokisch, Bob Perryman, Mike Reinhold, John Elliott, Jerry Quaerna, Carlitos Bostic, Chris Zurbrugg, Head Coach Bo Schembechler
Front Row: Ken Higgins, Pat Moons, Garland Rivers, Ivan Hicks, Andy Moeller, Tony Gant, Jim Harbaugh, Gerald White, Thomas Wilcher, Dieter Heren, Doug Mallory, Russell Rein
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Back Row: Chester Morrison, ?, Angus Goetz, Harold Cherry, ?, Abraham Cohn, ?, Eddy, Ward Culver, ?
Third Row: ?, Archie Weston, Oscar Cartwright, Skinner, trainer Harold Tuthill
Second Row: ?, J .Orton Goodsell, William Fortune, ?, Alan W. Boyd, Tad Wieman, Clifford Sparks
Front Row: Fred Hendershott, others unidentified
Others on team bur not identified in this picture:Charles Booth, Lee Bonar, William Cruse, Harold Froemke, Thomas Garrett, Lowell Genebach, Joseph Hanzlik, Oscar Lambert, L.O. Lindstom, Harold Rye, Richard F. Weske