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231 results on '"Halverson, Mark"'

1. How can the Environmental Impact of Tourism be Reduced in the Coastal Community of Bangsaen Beach?

Author

Nakpathom, Parinya, Pitchayadejanant, Krittipat, Chewwasang, Krittiorn, Srithong, Nonthanadda, Authumphon, Chidapha, Halverson, Mark Edward, Bunsila, Wasana, Appolloni, Andrea, Series Editor, Caracciolo, Francesco, Series Editor, Ding, Zhuoqi, Series Editor, Gogas, Periklis, Series Editor, Huang, Gordon, Series Editor, Nartea, Gilbert, Series Editor, Ngo, Thanh, Series Editor, Striełkowski, Wadim, Series Editor, Rahmanita, Myrza, editor, Suprina, Rina, editor, and Arafah, Willy, editor

Published
2023
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10. Static and dynamic performance of the RBRargo3 CTD

Author

Dever, Mathieu, Owens, W. Brechner, Richards, Clark G., Wijffels, Susan E., Wong, Annie P. S., Shkvorets, Igor, Halverson, Mark, Johnson, Greg, Dever, Mathieu, Owens, W. Brechner, Richards, Clark G., Wijffels, Susan E., Wong, Annie P. S., Shkvorets, Igor, Halverson, Mark, and Johnson, Greg

Abstract

Author Posting. © American Meteorological Society, 2022. This article is posted here by permission of American Meteorological Society for personal use, not for redistribution. The definitive version was published in Journal of the Atmospheric and Oceanic Technology 39(10), (2022): 1525–1539, https://doi.org/10.1175/jtech-d-21-0186.1., The static and dynamic performances of the RBRargo3 are investigated using a combination of laboratory-based and in situ datasets from floats deployed as part of an Argo pilot program. Temperature and pressure measurements compare well to co-located reference data acquired from shipboard CTDs. Static accuracy of salinity measurements is significantly improved using 1) a time lag for temperature, 2) a quadratic pressure dependence, and 3) a unit-based calibration for each RBRargo3 over its full pressure range. Long-term deployments show no significant drift in the RBRargo3 accuracy. The dynamic response of the RBRargo3 demonstrates the presence of two different adjustment time scales: a long-term adjustment O(120) s, driven by the temperature difference between the interior of the conductivity cell and the water, and a short-term adjustment O(5–10) s, associated to the initial exchange of heat between the water and the inner ceramic. Corrections for these effects, including dependence on profiling speed, are developed.

Published
2023

22. Energy Savings Analysis: ANSI/ASHRAE/IES Standard 90.1-2016

Author

Athalye, Rahul, primary, Halverson, Mark, additional, Rosenberg, Michael, additional, Liu, Bing, additional, Zhang, Jian, additional, Hart, Reid, additional, Mendon, Vrushali, additional, Goel, Surpriya, additional, Chen, Yan, additional, Xie, YuLong, additional, and Zhao, Mingjie, additional

Published
2017
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31. Cephalohaematoma: Not always a benign bump

Author

Hung, Te‐Yu, primary, Coates, Erin, additional, McAlpine, Alastair, additional, Tam, Jennifer, additional, Goldfarb, David M, additional, McDonald, Patrick J, additional, Zelman, Mitchell, additional, Halverson, Mark, additional, and Seaton, Claire, additional

Published
2021
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32. Accuracy and long-term stability assessment of inductive conductivity cell measurements on Argo Floats

Author

Nezlin, Nikolay P., Dever, Mathieu, Halverson, Mark, Leconte, Jean-Michel, Maze, Guillaume, Richards, Clark G., Shkvorets, Igor, Zhang, Rui, Johnson, Greg, Nezlin, Nikolay P., Dever, Mathieu, Halverson, Mark, Leconte, Jean-Michel, Maze, Guillaume, Richards, Clark G., Shkvorets, Igor, Zhang, Rui, and Johnson, Greg

Abstract

Author Posting. © American Meteorological Society, 2020. This article is posted here by permission of American Meteorological Society for personal use, not for redistribution. The definitive version was published in Nezlin, N. P., Dever, M., Halverson, M., Leconte, J., Maze, G., Richards, C., Shkvorets, I., Zhang, R., & Johnson, G. Accuracy and long-term stability assessment of inductive conductivity cell measurements on Argo Floats. Journal of Atmospheric and Oceanic Technology, 37(12), (2020): 2209-2223, https://doi.org/10.1175/JTECH-D-20-0058.1., This study demonstrates the long-term stability of salinity measurements from Argo floats equipped with inductive conductivity cells, which have extended float lifetimes as compared to electrode-type cells. New Argo float sensor payloads must meet the demands of the Argo governance committees before they are implemented globally. Currently, the use of CTDs with inductive cells designed and manufactured by RBR, Ltd., has been approved as a Global Argo Pilot. One requirement for new sensors is to demonstrate stable measurements over the lifetime of a float. To demonstrate this, data from four Argo floats in the western Pacific Ocean equipped with the RBRargo CTD sensor package are analyzed using the same Owens–Wong–Cabanes (OWC) method and reference datasets as the Argo delayed-mode quality control (DMQC) operators. When run with default settings against the standard DMQC Argo and CTD databases, the OWC analysis reveals no drift in any of the four RBRargo datasets and, in one case, an offset exceeding the Argo target salinity limits. Being a statistical tool, the OWC method cannot strictly determine whether deviations in salinity measurements with respect to a reference hydrographic product (e.g., climatologies) are caused by oceanographic variability or sensor problems. So, this study furthermore investigates anomalous salinity measurements observed when compared with a reference product and demonstrates that anomalous values tend to occur in regions with a high degree of variability and can be better explained by imperfect reference data rather than sensor drift. This study concludes that the RBR inductive cell is a viable option for salinity measurements as part of the Argo program., Author Dr. G. Maze was supported by the EARISE project, a European Union’s Horizon 2020 research and innovation program under Grant Agreement 824131, Call INFRADEV-03-2018-2019: Individual support to ESFRI and other world-class research infrastructures. We acknowledge Susan Wijffels, who provided advice on reference climatologies, coordinated access to the data from Argo Australia float 5904925, and provided ship CTD data to evaluate the initial accuracy of the float. Toshio Suga and Shigeki Hosoda provided ship CTD data for assessing the initial accuracy of Japan Argo floats 2903005 and 2903327. We thank Zenghong Liu for coordinating access to ship CTD data and continued discussion regarding RBRargo CTD accuracy and stability. We thank IFREMER for providing us access to ADMT-CTD and ADMT-Argo reference datasets.

Published
2021

40. List of Contributors

Author

Adams, Gillian GW, Ali, Asim, Ali, Mohammad Javed, Ali, Nadeem, Almahmoudi, Faeeqah H, Aroichane, Maryam, Ashworth, Jane L, Avery, Robert A, Bartram, Jack, Beres, Shannon J, Bhat, Nita, Binenbaum, Gil, Biousse, Valérie, Birch, Eileen E, Biswas, Susmito, Black, Graeme CM, Black, Joanna Barham, Bowe, Theodore S, Bowman, Richard JC, Bradbury, John A, Bradfield, Yasmin, Brodsky, Michael C, Brosnahan, Donal, Camuglia, Jayne E, Carden, Susan Mary, Castano, Giovanni, Casteels, Ingele Katinka, Chang, Melinda Y, Chiang, Michael F, Chung, Yvonne HsiWei, Coats, David K, Crompton, John Lionel, de Alba Campomanes, Alejandra G, Debert, Iara, Demer, Joseph L, Dollfus, Helene, Dolman, Peter J, Donahue, Sean P, Edelsten, Clive, Erickson, Benjamin P, Ferreira de Sa, Luis Carlos, Flowers, Alexis M, Geloneck, Megan, Ghosh, Arko, Gilbert, Clare E, Giligson, Christy, Gole, Glen, Good, William V, Gottlob, Irene, Gregory-Evans, Cheryl Y, Gregory-Evans, Kevin, Grigg, John RB, Grossniklaus, Hans E, Halverson, Mark, Azzam, Shirin Hamed, Handler, Sheryl M, Handley, Sian E, Hanna, Nancy N, Hardy, Thomas G, Heidary, Gena, Hertle, Richard W, Hildebrand, Göran Darius, Holder, Graham E, Hoyt, Creig S, Hutchinson, Amy K, Hwang, Jeong-Min, Jamieson, Robyn V, Jensen, Hanne, Kekunnaya, Ramesh, Kelly, Krista R, Keunen, Jan EE, Khaw, Peng Tee, Kim, Chong Ae, Kim, Seung-Hyun, Kossler, Andrea Lora, Kushner, Burton J, Lambert, Scott R, Larkin, Daniel FP, LaRoche, G Robert, Lee, Andrew Go, Lenhart, Phoebe Dean, Liu, Grant T, Lloyd, I Christopher, Lyons, Christopher J, Marmoy, Oliver R, Martins, Alessandra, Matsuba, Carey A, McNab, Alan A, Mehta, Vaishali, Merabet, Lotfi B, Michaelides, Michel, Mireskandari, Kamiar, Moore, Anthony T, Morris, Andrew AM, Mulholland, Conor, Munier, Francis L, Murali, Sanjana, Newman, Nancy J, Nischal, Ken K, O'Connor, Anna R, Olitsky, Scott E, Ospina, Luis H, Oystreck, Darren T, Papadopoulos, Maria, Parulekar, Manoj V, Paysse, Evelyn A, Peragallo, Jason H, Pereira, Erika Mota, Philip, Swetha S, Pineles, Stacy, Prajna, Venkatesh, Proudlock, Frank Anthony, Quinn, Anthony G, Rahi, Jugnoo S, Repka, Michael X, Russell, Buddy, Sachdeva, Virender, Salchow, Daniel J, Sato, Miho, Schalij-Delfos, Nicoline E, Scruggs, Brittni A, Sears, Connie Martin, Self, Jay E, Sergouniotis, Panagiotis I, Shah, Ankoor S, Shields, Carol L, Shields, Jerry A, Silverstein, Evan, Slattery, James A, Smyth, Anna E, Snead, Martin P, Somner, John, Stathopoulos, Christina, Summers, C Gail, Tan, Kimberley, Thompson, Dorothy Ann, Tinley, Christopher, Tooke, Lloyd, Traboulsi, Elias I, Treacy, Maxwell P, Tuft, Stephen J, Uddin, Jimmy M, van Schooneveld, Mary J, Vijayalakshmi, Perumalsamy, Vivian, Anthony J, Walsh, Leah, Watts, Patrick, Weakley, David R, Wells, Jill Razor, and Wood, Edward H

Published
2023
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