Modelling apprach; canopy climate; plant water balance; photosynthesis; vegetative growth; organ initiation; furthet topics; performance of the model; model balidation; sensitivity analysis; realization of objectives: a first step; OPDICT: a dictionary of variable for potato; POTATO program; tables of sensitivity analysis; table listing; aberdeen input data listing.
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R. Collins, D. Lee, R. Griffith, J. Duncan, J. Edwards, J. McBride, C. Marshall, D. Woods, J. Kline, J. Cox, A. Greenwood, L. J. Suter, Schneider (M.), R. Heeter, R. Turner, E. Williams, B. Cohen, K. R. Manes, T. Hall, F. Weber, J. Murray, F. Cooper, T. James, P. Whitman, M. Monteil, R. Olson, S. Montelongo, R. Berger, P. Arnold, R. Bryant, J. Moody, C. Powell, P. Young, J. MacDonald, J. Neumann, K. Williams, E. Dodd, D. Bradley, J. Eggert, P. Celliers, D. Munro, S. Goldman, R. Saunders, K. Campbell, O. Jones, B. Thomas, S. Johnson, M. Bowers, A. Stephens, M. Singh, R. Rinnert, D. Montgomery, T. Perry, G. Ross, J. Kamperschroer, A. Lee, B. Young, J. Holder, T. McCarville, S. Gardner, J. Workman, J. Celeste, D. Hinkel, E. Ng, P. Watts, D. Pellinen, A. Ellis, M. Stevenson, L. J. Atherton, G. Erbert, C. Haynam, B. Felker, M. Rhodes, Hermann (M.), J. Kimbrough, M. Newton, S. Dixit, L. McGrew, J. Fernandez, I. Reinbachs, A. Mackinnon, P. Wegner, O. L. Landen, B. Riordan, D. Kalantar, K. Piston, S. Glenzer, E. Dewald, D. Braun, R. Costa, G. Heestand, A. E. Koniges, R. Shepherd, G. Glendinning, F. Hansen, S. Langer, M. Henesian, H. Baldis, R. Kirkwood, J. Menapace, S. Burkhart, B. Van Wonterghem, S. Weber, T. Parham, T. Kelleher, D. Latray, G. Magelssen, G. Tietbohl, S. Mahavandi, A. Nikitin, B. Langdon, R. Vidal, C. Gautier, B. Wilde, S. Buckman, J. Bourgade, D. Lund, D. Hargrove, P. Rosen, J. Emig, A. Warrick, S. Grace, M. Poole, P. Stry, M. Spaeth, S. Huber, G. Parrish, N. Lanier, E. Padilla, B. Hegelich, B. Kauffman, D. Bower, C. Constantin, R. Coker, E. Mertens, C. Niemann, B. Blue, S. Compton, D. Froula, G. Holtmeier, R. Bonanno, T. Kohut, F. Holdner, S. Shiromizu, D. Voloshin, G. Bardsley, J. Fornes, G. Frieders, T. Labiak, P. Opsahl, V. Robert, K. Winward, K. Work· 2005
A first set of laser-plasma interaction, hohlraum energetics and hydrodynamic experiments have been performed using the first 4 beams of the National Ignition Facility (NIF), in support of indirect drive Inertial Confinement Fusion (ICF) and High Energy Density Physics (HEDP). In parallel, a robust set of optical and x-ray spectrometers, interferometer, calorimeters and imagers have been activated. The experiments have been undertaken with laser powers and energies of up to 8 TW and 17 kJ in flattop and shaped 1-9 ns pulses focused with various beam smoothing options.
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University of Minnesota. Institute for Mathematics and Its Applications, J. R. Gilbert, E. G. Ng, Barry W. Peyton· 1992
Abstract: "Let an undirected graph G be given, along with a specified depth-first spanning tree T. We give almost-linear-time algorithms to solve the following two problems: First, for every vertex v, compute the number of descendants w of v for which some descendant of w is adjacent (in G) to v. Second, for every vertex v, compute the number of ancestors of v that are adjacent (in G) to at least one descendant of v. These problems arise in Cholesky and QR factorizations of sparse matrices. Our algorithms can be used to determine the number of nonzero entries in each row and column of the triangular factor of a matrix from the zero/nonzero structure of the matrix. Such a prediction makes storage allocation for sparse matrix factorizations more efficient. Our algorithms run in time linear in the size of the input times a slowly-growing inverse of Ackermann's function. The best previously known algorithms for these problems ran in time linear in the sum of the nonzero counts, which is usually much larger. We give experimental results demonstrating the practical efficiency of the new algorithms."