Arctic Change in the Flow of Global Warming - Need for Long-term Monitoring Observations

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Monaco/UNESCO 3-6 March 2009 Arctic Change in the Flow of Global Warming - Need for Long-term Monitoring Observations Takashi YAMANOUCHI National Institute of Polar Research and Department of Polar Science, The Graduate University for Advanced Studies Japanese Station Rabben Ny-Alesund (79 N,12 E), Svalbard

Arctic change - abrupt decrease of sea ice extent Climate model and observation(stroeve et al., 2007) Satellite observation of sea ice extent, 24 September 2007, minimum. Sea ice area in the recent (IARC-JAXA)

Arctic change - temperature rise Annual surface temperature trends for 1950 to 1998 (Turner et al., 2007; after Hansen et al., 1999). Polar amplification Surface air temperature in the Arctic (Polyakov et al., 2003). Distribution of Arctic temperature rise (Serreze et al., 2000) 1920s - 40 warming and 1940-60 cooling!

CO 2 concentration in the Arctic and Antarctic North-south difference of amplitude of seasonal variation Annual increase rate (~1.5 ppmv/ a) North-south difference of inter annual variation North-south difference of absolute amount Comparison of CO 2 concentration at Ny-Ålesund, Svalbard (red) and Syowa, Antarctica (blue)

Partial pressure of CO 2 (pco 2 ) of the surface waters in Greenland and Barents Seas Area of shipborne observations(1992-2001) pco 2 = a(t)*sst + b(t) R/V Lance Seasonal variation of pco 2 at the center of Greenland Sea (75 N, 0 E; thick line), Anderson et al. (2000; thin line) and Weiss et al. (1999; ). Sudden decrease in spring is noticeable (Nakaoka et al., 2006).

CO2 increase to ocean acidification? Saturation state in 2100 Δ[CO32-]A (Orr et al., 2005, Nature) Total Alkalinity in surfaces waters of the Canada Basin (Yamamoto-Kawai, 2009)

Methane (CH 4 ) concentration Arctic Antarctic From measurements of CH 4 and δ 13 C in the Arctic, sources of CH 4 are assumed. Contribution of wetland is affecting year to year variation of increase rate (Morimoto et al., 2006). Comparison of CH 4 concentration at Ny-Ålesund, Svalbard (red) and Syowa, Antarctica (blue). 1750 Syowa Station, Antarctica CH 4 Concentration (ppbv) 1700 1650 1600 1986 1988 1990 1992 1994 1996 1998 2000 2002 2004 2006 Year Restart of increase in 2007, Syowa! 2008

Arctic haze at ASTAR 2000 airborne observation AWI Polar 4 (Dornier 228) Haze Background Extinction coefficient (sunphotometer, IN+PSAP); Arctic haze 7 6 Chemical composition of particles Soot abundant on haze days and internal mixture abundant on background days. height [km] 5 4 3 2 1 03/26/2000 (A=0.85) 03/23/2000 (A=0.19) 03/23/2000 (A=0.85) 0.0 0.1 0.2 0.3 0.4-1 solar heating rate anomalies [Kday ] Radiative effect of Arctic haze (Treffeisen, 2005)

Amplification of aerosol radiative forcing Snow albedo increase by black carbon Particle size Soot contamination Snow albedo dependence (Aoki, 2007) IPCC Radiative forcing (2007) Radiative forcing due to soot aerosols (Myhre et al., 1998, Tellus) Surface albedo change (%) by BC 1880-2002 (Hansen et al., 2005, JGR)

Black carbon from Greenland ice core Monthly (black) and annual (red) black carbon (BC) concentrations from 1788 through 2002 measured in the Greenland D4 ice core. 1920s increase! Winter and summer BC concentrations show that long-term changes in BC were greater in winter (red) than in summer (black) during the late 19th and 20th centuries. McConnell et al. (2007), Sci.

Early 20 th C warming concentrated in high latitude: observation and model Obs. AARI data, Alekseev et al. (1999) + α Modelled, GHGs only Annual mean SAT anomalies ( ), data from Jones et al. (2003), Serreze and Francis (2006) Modelled, GHGs+sulfate aerosols Modelled control run, variability Johannessen et al. (2004)

W/m**2 < 手 がかり> 200 180 160 140 120 100 80 Global radiation for Europe to 1987 60 1920 1930 1940 1950 1960 1970 1980 1990 By Ohmura, 2008 Davos Zurich Locarno Hohenpeissenberg Kloten Potsdam Braunlage Aberdeen Aberpoth Agen/Millau Ajaccio Trappe St. Quentin La Rochelle Sodankyla Stockholm Hamburg Braunschweig Kew Würzburg Rennes/Auxerre Salzburg Toravere St. Peterburg Bergen Tromso Taastrup Wageningen Increasing trend 1920s - 40s; by Yamanouchi

Early 20c warming Grant et al. (2009) Lomonosovfonna 1912-18 1919-29 1930-39 Longyearbyen 寒 気 移 流 暖 気 移 流 Surface air temperature in Spitsbergen and average for the Arctic north of the polar circle for the winter and annual (grey) Anomalous transport, winter (DJF)

International Polar Year (IPY) 1882-83 Inspired by Carl Weyprecht and proposed by Georg von Neumayer 12 Principal research stations established in the Arctic during the first IPY, 1881-84. Map of 12 stations 12 stations

IPY-2 (1932-33) Drifting Station North Pole (USSR/Russia) 1937~1991 and 1993~present

Ny-Alesund, Svalbard International Research Site Established in 1990s by Norwegian Polar Institute (NP) and operated by Kings Bay AS (originally, KBKC). Germany (AWI), China (CAAA), Italy (CNR), France (IPEV), Korea (KOPRI), Japan (NIPR), UK (NERC), Norway(NILU, NMA, NP, NSC, UNIS, UiT), Sweden (SU), Netherland (UoG) 北 極 観 測 の 活 発 化 <----- 冷 戦 構 造 の 崩 壊 (ゴルバチョフ 宣 言 1989) 我 が 国 も 観 測 基 地 設 置 (1991) Svalbad Treaty (1920) 第 一 次 大 戦 後 MySMAC: Ny-Alesund Science Managers Committee, 1994~ (78 55 N, 11 56 E) Coal mining was started at Ny-Alesund In 1926, R. Amundsen launched airship Norge from NA to the North Pole

International Polar Year(IPY)2007-2008 International Symposium Asian Collaboration in IPY 2007-2008 Science Council of Japan, Tokyo, 1 March 2007 Officially endorsed IPY projects (228) Asian collaboration among five countries, China, Japan, Korea, India and Malaysia

Observation stations network? 22 closed and 15 existing

Conclusion Abrupt changes are seen in the Arctic related to global warming; however, all are not well understood, especially for the atmosphere. It is indispensable to study early 20 C warming in order to understand the recent abrupt warming and to predict future change in the Arctic. Recommendations - Establish, enhance and maintain multidisciplinary sustained longterm observing systems in the Arctic - Establish and maintain drifting ice or ship stations in the central Arctic Ocean - Collect and analyze historical data archives in the Arctic, especially of early 20th century -Increase communication between scientists and politicians about the Arctic change and keep the Arctic safe, peaceful and free area for science (need for Arctic Treaty just similar as the Antarctic Treaty NP-35 Drifting station, courtesy of AWI