Changeset 5668
- Timestamp:
- Aug 19, 2008, 2:51:19 PM (15 years ago)
- Location:
- anuga_work/publications/anuga_2007
- Files:
-
- 4 added
- 2 edited
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- Unmodified
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anuga_work/publications/anuga_2007/anuga-bibliography.bib
r5599 r5668 419 419 JOURNAL = {Ocean Engineering}, 420 420 } 421 422 @ARTICLE{Kobayshi2000, 423 AUTHOR = {Kazuhiko Kobayashi and Moin Us Salam}, 424 TITLE = {Comparing Simulated and Measured Values Using Mean Squared Deviation and its Compenents}, 425 YEAR = {2000}, 426 volume = {92}, 427 pages = {345-352}, 428 JOURNAL = {Agronomy Journal}, 429 } -
anuga_work/publications/anuga_2007/anuga_validation.tex
r5667 r5668 566 566 were used, with each test being repeated once. 567 567 568 A variety of measurements were taken during the simulation. The wave 569 height at breaking, when present, were measured using a video 570 recorder. Mid-depth water velocity and wave height were measured on 571 the approach section. The water height at several points along the 572 flume were measured using pressure transducers. 568 A variety of measurements were taken during the simulation. Mid-depth 569 water velocity and wave height were measured on the approach section. 570 The water height at several points along the flume were measured using 571 pressure transducers. The wave profile was video recorded, this 572 determined the location of breaking waves. All the tests produced 4 to 573 7 waves. Generally the first wave did not break, with subsequent 574 waves breaking; accept for T2R1 and T2R2, for which the first 3 waves 575 did not break. 573 576 574 577 Details of the tests performed are given in Table \ref{tab:hinwoodSummary}. … … 582 585 Test Name & Beach slope nominal, \emph{degrees} & Water depth offshore, 583 586 \emph{mm } & Wave frequency nominal, \emph{Hz} \\ \hline 584 T1R3 & 3.5 & 400 & 0.200 \\ \hline 585 T1R5 & 3.5 & 400 & 0.200 \\ \hline 586 T2R7 & 3.5 & 400 & 0.125 \\ \hline 587 T2R8 & 3.5 & 400 & 0.125 \\ \hline 588 T3R28 & 1.5 & 336 & 0.200 \\ \hline 589 T3R29 & 1.5 & 336 & 0.200 \\ \hline 590 T4R31 & 1.5 & 336 & 0.125 \\ \hline 591 T4R32 & 1.5 & 336 & 0.125 \\ \hline 587 T1R1 & 3.5 & 400 & 0.200 \\ \hline 588 T1R2 & 3.5 & 400 & 0.200 \\ \hline 589 T2R1 & 3.5 & 400 & 0.125 \\ \hline 590 T2R2 & 3.5 & 400 & 0.125 \\ \hline 591 T3R1 & 1.5 & 336 & 0.200 \\ \hline 592 T3R2 & 1.5 & 336 & 0.200 \\ \hline 593 T4R1 & 1.5 & 336 & 0.125 \\ \hline 594 T4R2 & 1.5 & 336 & 0.125 \\ \hline 595 596 % Mapping of new names to old names 597 % T1R2 T1R3 598 % T1R1 T1R5 599 % T2R1 T2R7 600 % T2R2 T2R8 601 % T3R2 T3R28 602 % T3R1 T3R29 603 % T4R2 T4R31 604 % T4R1 T4R32 605 606 592 607 593 608 \end{tabular} … … 601 616 as boundary conditions for the ANUGA simulations. For both the 602 617 experimental and simulation results the zero data was the still water 603 line. To quantify the difference between the simulated stage and the604 experimental stage the Root Mean Square Deviation (RMSD) 605 (\cite{Kobayshi2000}) was used 618 line. A Manning's friction coefficient of zero was used. To quantify 619 the difference between the simulated stage and the experimental stage 620 the Root Mean Square Deviation (RMSD) (\cite{Kobayshi2000}) was used 606 621 607 622 \[ 608 623 RMSD =\sqrt {\frac{1 }{n} \displaystyle\sum_{i=1}^{n}{(x_i - y_i)}^2} 609 624 \] 625 626 Figures \ref{fig:} to \ref{fig:} show the RMSD of each sensor and the 627 location where each wave broke. 628 629 630 631 632 610 633 611 634
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