WEATHER and CIRCULATION of DECEMBER 1972 Record Cold in the West
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The Exchange of Water Between Prince William Sound and the Gulf of Alaska Recommended
The exchange of water between Prince William Sound and the Gulf of Alaska Item Type Thesis Authors Schmidt, George Michael Download date 27/09/2021 18:58:15 Link to Item http://hdl.handle.net/11122/5284 THE EXCHANGE OF WATER BETWEEN PRINCE WILLIAM SOUND AND THE GULF OF ALASKA RECOMMENDED: THE EXCHANGE OF WATER BETWEEN PRIMCE WILLIAM SOUND AND THE GULF OF ALASKA A THESIS Presented to the Faculty of the University of Alaska in partial fulfillment of the Requirements for the Degree of MASTER OF SCIENCE by George Michael Schmidt III, B.E.S. Fairbanks, Alaska May 197 7 ABSTRACT Prince William Sound is a complex fjord-type estuarine system bordering the northern Gulf of Alaska. This study is an analysis of exchange between Prince William Sound and the Gulf of Alaska. Warm, high salinity deep water appears outside the Sound during summer and early autumn. Exchange between this ocean water and fjord water is a combination of deep and intermediate advective intrusions plus deep diffusive mixing. Intermediate exchange appears to be an annual phen omenon occurring throughout the summer. During this season, medium scale parcels of ocean water centered on temperature and NO maxima appear in the intermediate depth fjord water. Deep advective exchange also occurs as a regular annual event through the late summer and early autumn. Deep diffusive exchange probably occurs throughout the year, being more evident during the winter in the absence of advective intrusions. ACKNOWLEDGMENTS Appreciation is extended to Dr. T. C. Royer, Dr. J. M. Colonell, Dr. R. T. Cooney, Dr. R. -
Cy Martin Collection
University of Oklahoma Libraries Western History Collections Cy Martin Collection Martin, Cy (1919–1980). Papers, 1966–1975. 2.33 feet. Author. Manuscripts (1968) of “Your Horoscope,” children’s stories, and books (1973–1975), all written by Martin; magazines (1966–1975), some containing stories by Martin; and biographical information on Cy Martin, who wrote under the pen name of William Stillman Keezer. _________________ Box 1 Real West: May 1966, January 1967, January 1968, April 1968, May 1968, June 1968, May 1969, June 1969, November 1969, May 1972, September 1972, December 1972, February 1973, March 1973, April 1973, June 1973. Real West (annual): 1970, 1972. Frontier West: February 1970, April 1970, June1970. True Frontier: December 1971. Outlaws of the Old West: October 1972. Mental Health and Human Behavior (3rd ed.) by William S. Keezer. The History of Astrology by Zolar. Box 2 Folder: 1. Workbook and experiments in physiological psychology. 2. Workbook for physiological psychology. 3. Cagliostro history. 4. Biographical notes on W.S. Keezer (pen name Cy Martin). 5. Miscellaneous stories (one by Venerable Ancestor Zerkee, others by Grandpa Doc). Real West: December 1969, February 1970, March 1970, May 1970, September 1970, October 1970, November 1970, December 1970, January 1971, May 1971, August 1971, December 1971, January 1972, February 1972. True Frontier: May 1969, September 1970, July 1971. Frontier Times: January 1969. Great West: December 1972. Real Frontier: April 1971. Box 3 Ford Times: February 1968. Popular Medicine: February 1968, December 1968, January 1971. Western Digest: November 1969 (2 copies). Golden West: March 1965, January 1965, May 1965 July 1965, September 1965, January 1966, March 1966, May 1966, September 1970, September 1970 (partial), July 1972, August 1972, November 1972, December 1972, December 1973. -
Bathymetry and Geomorphology of Shelikof Strait and the Western Gulf of Alaska
geosciences Article Bathymetry and Geomorphology of Shelikof Strait and the Western Gulf of Alaska Mark Zimmermann 1,* , Megan M. Prescott 2 and Peter J. Haeussler 3 1 National Marine Fisheries Service, Alaska Fisheries Science Center, National Oceanic and Atmospheric Administration (NOAA), Seattle, WA 98115, USA 2 Lynker Technologies, Under contract to Alaska Fisheries Science Center, Seattle, WA 98115, USA; [email protected] 3 U.S. Geological Survey, 4210 University Dr., Anchorage, AK 99058, USA; [email protected] * Correspondence: [email protected]; Tel.: +1-206-526-4119 Received: 22 May 2019; Accepted: 19 September 2019; Published: 21 September 2019 Abstract: We defined the bathymetry of Shelikof Strait and the western Gulf of Alaska (WGOA) from the edges of the land masses down to about 7000 m deep in the Aleutian Trench. This map was produced by combining soundings from historical National Ocean Service (NOS) smooth sheets (2.7 million soundings); shallow multibeam and LIDAR (light detection and ranging) data sets from the NOS and others (subsampled to 2.6 million soundings); and deep multibeam (subsampled to 3.3 million soundings), single-beam, and underway files from fisheries research cruises (9.1 million soundings). These legacy smooth sheet data, some over a century old, were the best descriptor of much of the shallower and inshore areas, but they are superseded by the newer multibeam and LIDAR, where available. Much of the offshore area is only mapped by non-hydrographic single-beam and underway files. We combined these disparate data sets by proofing them against their source files, where possible, in an attempt to preserve seafloor features for research purposes. -
Alaska OCS Socioeconomic Studies Program
Technical Report Number 36 Alaska OCS Socioeconomic Studies Program Sponsor: Bureau of Land Management Alaska Outer Northern Gulf of Alaska Petroleum Development Scenarios Sociocultural Impacts The United States Department of the Interior was designated by the Outer Continental Shelf (OCS) Lands Act of 1953 to carry out the majority of the Act’s provisions for administering the mineral leasing and develop- ment of offshore areas of the United States under federal jurisdiction. Within the Department, the Bureau of Land Management (BLM) has the responsibility to meet requirements of the National Environmental Policy Act of 1969 (NEPA) as well as other legislation and regulations dealing with the effects of offshore development. In Alaska, unique cultural differences and climatic conditions create a need for developing addi- tional socioeconomic and environmental information to improve OCS deci- sion making at all governmental levels. In fulfillment of its federal responsibilities and with an awareness of these additional information needs, the BLM has initiated several investigative programs, one of which is the Alaska OCS Socioeconomic Studies Program (SESP). The Alaska OCS Socioeconomic Studies Program is a multi-year research effort which attempts to predict and evaluate the effects of Alaska OCS Petroleum Development upon the physical, social, and economic environ- ments within the state. The overall methodology is divided into three broad research components. The first component identifies an alterna- tive set of assumptions regarding the location, the nature, and the timing of future petroleum events and related activities. In this component, the program takes into account the particular needs of the petroleum industry and projects the human, technological, economic, and environmental offshore and onshore development requirements of the regional petroleum industry. -
Spanning the Bering Strait
National Park service shared beringian heritage Program U.s. Department of the interior Spanning the Bering Strait 20 years of collaborative research s U b s i s t e N c e h UN t e r i N c h UK o t K a , r U s s i a i N t r o DU c t i o N cean Arctic O N O R T H E L A Chu a e S T kchi Se n R A LASKA a SIBERIA er U C h v u B R i k R S otk S a e i a P v I A en r e m in i n USA r y s M l u l g o a a S K S ew la c ard Peninsu r k t e e r Riv n a n z uko i i Y e t R i v e r ering Sea la B u s n i CANADA n e P la u a ns k ni t Pe a ka N h las c A lf of Alaska m u a G K W E 0 250 500 Pacific Ocean miles S USA The Shared Beringian Heritage Program has been fortunate enough to have had a sustained source of funds to support 3 community based projects and research since its creation in 1991. Presidents George H.W. Bush and Mikhail Gorbachev expanded their cooperation in the field of environmental protection and the study of global change to create the Shared Beringian Heritage Program. -
Flow of Pacific Water in the Western Chukchi
Deep-Sea Research I 105 (2015) 53–73 Contents lists available at ScienceDirect Deep-Sea Research I journal homepage: www.elsevier.com/locate/dsri Flow of pacific water in the western Chukchi Sea: Results from the 2009 RUSALCA expedition Maria N. Pisareva a,n, Robert S. Pickart b, M.A. Spall b, C. Nobre b, D.J. Torres b, G.W.K. Moore c, Terry E. Whitledge d a P.P. Shirshov Institute of Oceanology, 36, Nakhimovski Prospect, Moscow 117997, Russia b Woods Hole Oceanographic Institution, 266 Woods Hole Road, Woods Hole, MA 02543, USA c Department of Physics, University of Toronto, 60 St. George Street, Toronto, Ontario M5S 1A7, Canada d University of Alaska Fairbanks, 505 South Chandalar Drive, Fairbanks, AK 99775, USA article info abstract Article history: The distribution of water masses and their circulation on the western Chukchi Sea shelf are investigated Received 10 March 2015 using shipboard data from the 2009 Russian-American Long Term Census of the Arctic (RUSALCA) pro- Received in revised form gram. Eleven hydrographic/velocity transects were occupied during September of that year, including a 25 August 2015 number of sections in the vicinity of Wrangel Island and Herald canyon, an area with historically few Accepted 25 August 2015 measurements. We focus on four water masses: Alaskan coastal water (ACW), summer Bering Sea water Available online 31 August 2015 (BSW), Siberian coastal water (SCW), and remnant Pacific winter water (RWW). In some respects the Keywords: spatial distributions of these water masses were similar to the patterns found in the historical World Arctic Ocean Ocean Database, but there were significant differences. -
Geneva, 2 December 1972 .ENTRY INTO FORCE
15. CUSTOMS CONVENTION ON CONTAINERS, 1972 Geneva, 2 December 1972 ENTRY. INTO FORCE: 6 December 1975, in accordance with article 19. REGISTRATION: 6 December 1975, No. 14449. STATUS: Signatories: 15. Parties: 41.1 TEXT: United Nations, Treaty Series , vol. 988, p. 43 and depositary notifications C.N.358.1981.TREATIES-1 of 8 December 1981 (amendments to annexes 4 and 6); vol. 1407, p. 389 (amendments to annexes 1, 5, 6 and 7); vol. 1490, p. 531 (amendments to annex 6); vol. 1488, p. 345 (procès-verbal of rectification of the original French and Spanish texts); C.N.276.1988.TREATIES-1 of 1 December 1988 (amendments to article 1, paragraph c and annex 6); C.N.36.1994.TREATIES-1 of 10 March 1994 (amendments to the Convention and annexes 4 and 6); C.N.492.2007.TREATIES-1 of 20 April 2007 (proposal of amendments to Annexes 1 and 4); C.N.327.2008.TREATIES-1 of 22 April 2008 (amendments to Annexes 1 and 4); C.N.328.2019.TREATIES-XI.A.15 of 1 August 2019 (proposal of amendments to Annexes 1 and 4) and C.N.406.2020.TREATIES- XI.A.15 of 22 September 2020 (acceptance of amendments).2 Note: The Convention was adopted by the United Nations/IMCO Conference on Containers Traffic, held at Geneva from 13 November to 2 December 1972. The Conference was convened in pursuance of a decision taken by the Economic and Social Council on 22 May 19703 and Council resolutions 1568 (L)4 and 1725 (LIII)5. The Conference adopted a Final Act containing, inter alia , the texts of eight resolutions (see Doc. -
Identification and Mitigation of Geologic Hazards
AIPGprofessional geologists in all specialties of the science Identification and Mitigation of Geologic Hazards An important and practical application of and because earthquakes geology is identifying hazardous natural are of such a scale that phenomena and isolating their causes in they can affect several order to safeguard communities. According communities si-multane- to the USGS, the average economic toll ously, the risk to human life from natural hazards in the United States is is obvious.2 The largest approximately $52 billion per year, while recorded earthquake to hit the average annual death toll is approxi- the North American conti- mately 200.1 The primary causes are nent had a magnitude of earthquakes, landslides, and flooding, but 9.2, which occurred on other events, such as subsidence, volcanic March 27, 1964 in eruptions, and exposure to radon or asbes- Anchorage, Alaska. It dev- tos, also pose considerable danger. astated the town and sur- Awareness of the potential hazards that rounding area, and could persist in areas under consideration for be felt over an area of half Figure 2. Volcano Zones both private and community development a million square miles.2 is critical, and so geological consultants Land-slides caused most of the average global temperature by 2 and engineers are called in to survey land the damage, while a 30-foot high tsunami degrees Fahrenheit for 2 years.3 development sites and assist building con- generated by an underwater quake leveled tractors in designing structures that will coastal villages around the Gulf of Alaska, The role of geologists in mitigating such stand the test of time. -
Historical Timeline for Alaska Maritime National Wildlife Refuge
Historical Timeline Alaska Maritime National Wildlife Refuge Much of the refuge has been protected as a national wildlife refuge for over a century, and we recognize that refuge lands are the ancestral homelands of Alaska Native people. Development of sophisticated tools and the abundance of coastal and marine wildlife have made it possible for people to thrive here for thousands of years. So many facets of Alaska’s history happened on the lands and waters of the Alaska Maritime Refuge that the Refuge seems like a time-capsule story of the state and the conservation of island wildlife: • Pre 1800s – The first people come to the islands, the Russian voyages of discovery, the beginnings of the fur trade, first rats and fox introduced to islands, Steller sea cow goes extinct. • 1800s – Whaling, America buys Alaska, growth of the fox fur industry, beginnings of the refuge. • 1900 to 1945 – Wildlife Refuge System is born and more land put in the refuge, wildlife protection increases through treaties and legislation, World War II rolls over the refuge, rats and foxes spread to more islands. The Aleutian Islands WWII National Monument designation recognizes some of these significant events and places. • 1945 to the present – Cold War bases built on refuge, nuclear bombs on Amchitka, refuge expands and protections increase, Aleutian goose brought back from near extinction, marine mammals in trouble. Refuge History - Pre - 1800 A World without People Volcanoes push up from the sea. Ocean levels fluctuate. Animals arrive and adapt to dynamic marine conditions as they find niches along the forming continent’s miles of coastline. -
Northern Gulf of Alaska LTER
Northern Gulf of Alaska LTER Photo credit: Ana Anguilar-Islas The Northern Gulf of Alaska (NGA) LTER is based in the coastal Gulf of Alaska and mobilizes field expeditions from the Seward Marine Center of the University of Alaska, Fairbanks. The program seeks to understand how this subarctic shelf system generates the high productivity that sustains one of the world’s largest commercial fisheries, as well as iconic seabird and marine mammal species. Ocean physics in the Gulf of Alaska have been monitored for nearly 50 years, and chemistry and biology have been recorded for the last 20 years. Together, this provides At present: foundational information about the structure and function of this subarctic ecosystem. investigators Scientists in the region have developed a solid understanding of annual 15 cycles and are beginning to appreciate the scales and drivers of observed institutions interannual variability (i.e. ENSO, marine heat waves). Through sustained represented measurements, NGA LTER aims to determine how resiliency arises, how 6 emergent properties provide community level structure, and whether graduate longer term environmental changes will impact this resiliency. Findings students will inform biological resource management in the Gulf of Alaska. 9 Principal Investigator: Est. 2017 NSF Program: Russ Hopcroft Funding Cycle: Geosciences / Division of Ocean Sciences University of Alaska, Fairbanks LTER I Marine Key Findings Stratification is changing. The coastal Gulf of Anomalous warming in 2015-16 led to Alaska water column is becoming progressively profound reorganization of lower trophic more stratified — the entire water column levels. Reductions in primary producer average is warming, but more rapidly at the surface cell size and biomass followed than near the seafloor, while near surface the 2015-2016 warming, waters are becoming fresher. -
Gulf of Alaska Ocean and Climate Changes
Harbo Rick © Gulf of Alaska Changes Climate and Ocean [153] 86587_p153_176.indd 153 12/30/04 4:42:57 PM highlights ■ For decades, the depth of the surface mixed layer sharks, skates, several forage fi sh species, and had become increasingly shallow, reducing nutrient yellow Irish lord have signifi cantly increased in levels. A deepening of the mixed layer from 1999- abundance and/or frequency of occurrence since 2002 temporarily reduced this trend, but the winter 1990. of 2002/03 was the shallowest on record. abundance and recruitment of many salmon stocks ■ Phytoplankton blooms on the shelf were stronger in was above average for much of the 1980/90s, 1999 and 2000 than 1998 and 2001. while catches have decreased slightly over the past decade. Recruitment of all brood years ■ The seasonal peak of Neocalanus copepods at Ocean through at least the mid-1990s was strong. Station P was early in the 1980/90s and returned to the long-term average from 1999 – 2001. in spite of moderate declines in abundance and Ocean below-average recruitment of some commercial ■ After 1976/77, the groundfi sh community had stocks, most groundfi sh, salmon, and herring relatively stable species composition and abundance and fi sheries remained healthy throughout 2002 with of individual species but, several signifi cant changes no indications of overfi shing or “fi shing down the have occurred: Climate food web.” a general decline in walleye pollock biomass over king crab and shrimp stocks have not recovered the past decade, but with strong recruitment from a collapse in the early 1980s. -
General Agreement on Tariffs and Trade
RESTRICTED MTN/3E/W/S/Add.2 GENERAL AGREEMENT ON 5 July 1974 TARIFFS AND TRADE Special Distribution Mai t il.a. tera1 _Trad e_ _N egpt ia t i on s GROUP Xe J - WORK ON TASK 4 SOYA AND ÔILGAKÊ JTHEREOFj .addendum The following data have been received fron the delegations of Argentina, Austria, Czechoslovakia, the Republic of Korea, Turkey, Yugoslavia and Romania. Argentina Soya: (tons) \ Carry-over Total Carry-over Crop .apparent | stocks at Production availa Exports stocks at year Consumption ^^ 1 April bilities ^ 1~- 1968/69 1 31,800 31,801 31,739 S2 1969/70 62 26,800 26,862 26,354 2 1970/71 8 ^9,000 ,9,003 55,993 15 1971/72 1$ 78,000 73,015 77,981 34 1972/73 34 272,00G 272,034 1968/69 1969/70 1970/71 1971/72 1972/73 (Crop year) Official prices fixed by the State (In pesos per 100 kgs.on wagon or truck, port of Buenos xdres; in bags - for the season 1972/73: in bulk) Minimum price 27.00 28.00 Support price 30.00 30.00 30.00 54-85 110.00 MTN/3E/W/S/Add.2 Page 2 Average monthly and yearly quotations of the Chamber of Arbitration of the Cereals Exchange at Buenos Ai^es 1968 ar.d 1969: Argentine pesos; as from 1970: gold pesos, per 100 kgs. 196S 1969 1970 1971 1972 | 1973 ! January 2,309 2,956 29.75 35.17 50.00 140.00 February 2,655 2,936 29.75 38.50 50.00 125.00 March 2,652 | 2,901 30.66 38.50 51.36 125.75 April 2,787 , 2,875 29.75 .