992 resultados para Moore, Charles C. (Charles Chilton), 1837-1906.
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Mode of access: Internet.
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Mode of access: Internet.
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8th Row: Larry Martin, Phil Johnson, Paul Schmidt, Kevin Tolbert, Mike Gittleson, Mark Elder, Sam Sword, Ron English, Steve Stripling, Jim Herrmann, Scott Draper, Fred Jackson, Terry Malone, Andy Moeller, Erik Campbell, Scot Loeffler, Mike Debord, Terry Heffernan, Brad Labadie, Phil Bromley, Jon Falk.
7th Row: Ryan Krach, Dr. C. Daniel Hendrickson, Vahan Agbabian, Eric Boso, Andy Lewandowski, Brad Rosenwasser, Gene Skidmore, Jim Schneider, Dave Ablauf, Kevin Undeen, Brent Pantaleo, Dan Cetnar, Kyle Zink, Rick Brandt, Bob Bland.
6th Row: Eric Van Beek, Tim North, Brandon Harrison, Mister Simpson, Brandon Logan, Antonio Bass, Eugene Germany, David Moosman, Tim McAvoy, Cory Zirbel, Laterryal Savoy, Carson Butler, Andre Criswell, Jason Former, Mario Manningham, Chris Richards, Kevin Norris, Ohene Opong Owusu, Matt McCay, Ben Wright
5th Row: Jason Eldridge, Kevin Grady, James Bloomsburgh, Kyle Plummer, Terrance Taylor, Sean Griffin, Kyle Myers, Chris McLaurin, Justin Schifano, Mark Ortmann, Jon Saigh, Zoltan Mesko, Johnny Sears, James Mckinney, Tyrone Jordan, James Logan, Landon Smith, Craig Moore.
4th Row: Doug Dutch, Morgan Trent, Mark Spencer, Dan Moore, Charles Stewart, Chip Cartwright, Turner Booth, Brent Gallimore, Jeremy Ciulla, Grant Debenedictis, Alex Mitchell, Will Johnson, Tim Jamison, Mike Massey, Max Pollock, Ross Ryan, Marques Walton, John Thompson, Mike Carl
3rd Row: Garrett Rivas, Mike Hart, Chris Graham, Chad Henne, Adrian Arrington, Jeff Kastl, Brad Cischke, Pat Sharrow, Adam Kraus, Jake Long, Alan Branch, Will Paul, Paul Sarantos, Matt Wilde, Jamar Adams, Max Martin, Brandent Englemon, Anton Campbell, B.J. Opong Owusu.
2nd Row: Alijah Bradley, Darnell Hood, Ryan Mundy, Steve Breaston, Carl Tabb, LaMarr Woodley, Matt Gutierrez, Shawn Crable, Mike Kolodziej, Tyler Ecker, Jeremy Van Alstyne, Rondell Biggs, Prescott Burgess, Mark Bihl, Willis Barringer, Obi Oluigbo, Leon Hall, Jerome 'Jackson.
Front Row: Jason Avant, Brian Thompson, Dave Harris, Scott Mcclintock, Gabe Watson, Matt Lentz, Pat Massey, Lloyd Carr, Tim Massaquoi, Pierre Woods, Adam Stenavich, Leo Henige, Rueben Riley, David Schoonover, Grant Mason.
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Edited by C.A. Cutter.
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Amalgamation is a process in which precious metals are collected by mercury. The exact way in which the mercury holds the other metals is not positively known. It is probable that a series of intermetallic compounds form. Very little work has been done so far on the theory of amalgamation.
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Chinese scientists will start to drill a deep ice core at Kunlun station near Dome A in the near future. Recent work has predicted that Dome A is a location where ice older than 1 million years can be found. We model flow, temperature and the age of the ice by applying a three-dimensional, thermomechanically coupled full-Stokes model to a 70 × 70 km**2 domain around Kunlun station, using isotropic non-linear rheology and different prescribed anisotropic ice fabrics that vary the evolution from isotropic to single maximum at 1/3 or 2/3 depths. The variation in fabric is about as important as the uncertainties in geothermal heat flux in determining the vertical advection which in consequence controls both the basal temperature and the age profile. We find strongly variable basal ages across the domain since the ice varies greatly in thickness, and any basal melting effectively removes very old ice in the deepest parts of the subglacial valleys. Comparison with dated radar isochrones in the upper one third of the ice sheet cannot sufficiently constrain the age of the deeper ice, with uncertainties as large as 500 000 years in the basal age. We also assess basal age and thermal state sensitivities to geothermal heat flux and surface conditions. Despite expectations of modest changes in surface height over a glacial cycle at Dome A, even small variations in the evolution of surface conditions cause large variation in basal conditions, which is consistent with basal accretion features seen in radar surveys.
