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  •  Sunspot Up Close.
    -
    Sunspot Up Close.

    Sunspot Up Close. The Sun‘s complex magnetic field creates this cool region by inhibiting hot material from entering the spot. Sunspots can be larger than the Earth and typically last for only a few days. This high-resolution picture also shows clearly that the Sun‘s face is a bubbling sea of separate cells of hot gas. These cells are known as granules. A solar granule is about 1000 kilometres across and lasts about 10 minutes. After that, many granules end up exploding.、クレジット:World History Archive/ニューズコム/共同通信イメージズ ※エディトリアル使用のみ。広告、プロモーション、商業目的での利用に関してはお問合せください。

    商品コード: 2019022103717

  •  Sunspot with streamers of super-hot
    -
    Sunspot with streamers of super-hot

    Sunspot with streamers of super-hot, electrically charged gas (plasma) arc from the surface of the Sun, revealing the structure of the solar magnetic field. Credit NASA.、クレジット:NASA/World History Archive/ニューズコム/共同通信イメージズ ※エディトリアル使用のみ。広告、プロモーション、商業目的での利用に関してはお問合せください。

    商品コード: 2019022103722

  •  Joseph Wilson Swan (1828-1914) British physicist and chemist.
    -
    Joseph Wilson Swan (1828-1914) British physicist and chemist.

    Joseph Wilson Swan (1828-1914) British physicist and chemist. Photography (bromide paper): Incandescent light bulb. Here a Royal Society Conversazione, 8 May 1889, demonstrating that metal ring wound with coil of wire rotates in Earth‘s magnetic field when small current applied. Engraving、クレジット:World History Archive/ニューズコム/共同通信イメージズ ※エディトリアル使用のみ。広告、プロモーション、商業目的での利用に関してはお問合せください。

    商品コード: 2019082902359

  •  Apparatus used by the Curies to investigate the deflection of the beta rays from radium
    1904年12月31日
    Apparatus used by the Curies to investigate the deflection of the beta rays from radium

    Apparatus used by the Curies to investigate the deflection of the beta rays from radium (R) in magnetic field. Engraving published Paris 1904、クレジット:World History Archive/ニューズコム/共同通信イメージズ ※エディトリアル使用のみ。広告、プロモーション、商業目的での利用に関してはお問合せください。

    商品コード: 2019073103073

  •  阪大、プラズマ閉じ込め装置
    1963年05月31日
    阪大、プラズマ閉じ込め装置

    公開された大阪大学工学部超高温工学研究室の「カスプ磁場プラズマ閉じ込め装置」=1963(昭和38)年5月31日、大阪府枚方市

    商品コード: 2011072600231

  •  Kurchatov Institute of Atomic Energy
    1963年09月09日
    Kurchatov Institute of Atomic Energy

    09.09.1963 The Kurchatov Institute of Atomic Energy, now the Kurchatov Institute. Photo: An upgraded PR-5 adiabatic trap with a combined magnetic field, developed by a team of Russian physicists. Dmitriy Kozlov、クレジット:Sputnik/共同通信イメージズ

    商品コード: 2019091101545

  •  Kurchatov Institute of Atomic Energy
    1963年09月09日
    Kurchatov Institute of Atomic Energy

    09.09.1963 Kurchatov Institute of Atomic Energy (now Kurchatov Institute). Soviet scientists Y. Baiborodov, M. Ioffe, V. Petrov and R. Sobolev conduct experiments with the use of the PR-5 unit, an adiabatic trap with the magnetic field increasing both longitudinally and radially. Dmitriy Kozlov、クレジット:Sputnik/共同通信イメージズ

    商品コード: 2019091201675

  •  Sailing-motor schooner Zarya on Neva River
    1965年07月01日
    Sailing-motor schooner Zarya on Neva River

    01.07.1965 The three-mast sailing-motor schooner Zarya on Neva River in the city of Leningrad. The ship was built in Finland in the shipyard of the port of Turku in 1952 at the order from the Academy of Sciences of the USSR. Zarya is the world‘s only non-magnetic vessel used to study Earth‘s magnetic field, with scientists of the Academy‘s Institute of Terrestrial Magnetism, Ionosphere and Radio Wave Propagation involved in the work. Boris Losin、クレジット:Sputnik/共同通信イメージズ

    商品コード: 2019100802563

  •  Zarya sailing-motor schoone
    1966年06月15日
    Zarya sailing-motor schoone

    15.06.1966 Latvian SSR. Non-magnetic sailing-motor schoone Zarya (Soviet scientific-research vessel for studying the Earth‘s magnetic field) in the Port of Liepaja.、クレジット:Sputnik/共同通信イメージズ

    商品コード: 2019052704314

  •  MAGNETOLOGIST ANTARCTICA
    1967年09月01日
    MAGNETOLOGIST ANTARCTICA

    01.09.1967 A magnetologist measuring the magnetic field inside an ice tunnel in Antarctica. G. Koposov / Sputnik、クレジット:Sputnik/共同通信イメージズ

    商品コード: 2022111602297

  •  Joint Institute for Nuclear Research
    1969年11月04日
    Joint Institute for Nuclear Research

    5720448 04.11.1969 Joint Institute for Nuclear Research in Dubna. Proton synchrotron accelerator in the high energies‘ laboratory. Georgij、クレジット:Sputnik/共同通信イメージズ

    商品コード: 2022071108967

  •  阪大核物理研センター完成
    1974年11月15日
    阪大核物理研センター完成

    完成した大阪大学核物理研究センターの高性能サイクロトロン(イオン加速装置)。日本初の大型AVF(周回方向変動磁場)型サイクロトロンと呼ばれ、陽子や重陽子などの軽いイオンの加速には非常に有効な加速器=1974(昭和49)年11月15日、大阪府吹田市

    商品コード: 2012052800132

  • 名大プラズマ研究所 プラズマ発生装置を試運転
    1976年07月16日
    名大プラズマ研究所 プラズマ発生装置を試運転

    試運転が始まった環状磁場系プラズマ発生装置「JIPP・T-II」。プラズマの青白い光がテレビの画面に-「人工太陽」と呼ばれる核融合炉の実現に向けて名古屋大学プラズマ研究所で実験装置の試運転が始まった=1976(昭和51)年7月16日、名古屋市千種区

    商品コード: 2013112100121

  • 磁場コイル 核融合臨界装置、日立に発注
    1978年01月29日
    磁場コイル 核融合臨界装置、日立に発注

    日立が試作した「JT60」用のトロイダル磁場コイル

    商品コード: 2015032400267

  •  Leipunsky Institute of Physics and Power Engineering
    1978年12月23日
    Leipunsky Institute of Physics and Power Engineering

    8147014 22.12.1978 The Leipunsky Institute of Physics and Power Engineering, now the Leipunsky National Research Center / Institute of Physics and Power Engineering. Photo: Nuclear physicists stand near a cyclotron, a unit for the cyclic acceleration of charged particles inside a magnetic field. Oleg Kuzmin、クレジット:Sputnik/共同通信イメージズ

    商品コード: 2022040211795

  •  MAGNETIC FIELD ELECTRON STREAM TOKAMAK-15
    1989年01月23日
    MAGNETIC FIELD ELECTRON STREAM TOKAMAK-15

    151317 23.01.1989 The Tokamak-15 thermonuclear facility at the Kurchatov Atomic Energy Institute. An electron stream (the bright horizontal line) along a magnetic field line. Prihodko / Sputnik、クレジット:Sputnik/共同通信イメージズ

    商品コード: 2022052111377

  • 「宙に浮くはさみ」 輪切り、縦切り自由自在
    1989年06月17日
    「宙に浮くはさみ」 輪切り、縦切り自由自在

    (4)「宙に浮くはさみ」MRI近くで発生する強力な磁力線は地球磁場の約5万倍。ひもでつるした鉄のはさみは宙に浮いたまま=京都府船井郡日吉町の明治鍼灸大付属病院

    商品コード: 2019122500519

  •  Ultraviolet image of an electric-blue aurora glowing on the giant planet Jupiter
    1990年04月24日
    Ultraviolet image of an electric-blue aurora glowing on the giant planet Jupiter

    Hubble Space Telescope, ultraviolet image of an electric-blue aurora glowing on the giant planet Jupiter. Auroras are curtains of light resulting from high-energy electrons racing along the planet‘s magnetic field into the upper atmosphere. The electrons excite atmospheric gases, causing them to glow. The image shows the main oval of the aurora, which is cantered on the magnetic north pole, plus more diffuse emissions inside the polar cap. Though the aurora resembles the same phenomenon that crowns Earth‘s polar regions, the Hubble image shows unique emissions from the magnetic ‘footprints‘ of three of Jupiter‘s largest moons. Auroral footprints can be seen in this image from Io (along the left-hand limb), Ganymede (near the centre), and Europa (just below and to the right of Ganymede‘s Auroral footprint). 、クレジット:World History Archive/ニューズコム/共同通信イメージズ ※エディトリアル使用のみ。広告、プロモーション、商業目的での利用に関してはお問合せください。

    商品コード: 2018111215800

  •  Artist‘s concept of the pulsar planet system discovered by Aleksander Wolszczan in 1992.
    1992年12月31日
    Artist‘s concept of the pulsar planet system discovered by Aleksander Wolszczan in 1992.

    Artist‘s concept of the pulsar planet system discovered by Aleksander Wolszczan in 1992. Wolszczan used the Arecibo radio telescope in Puerto Rico to find three planets - the first of any kind ever found outside our solar system - circling a pulsar called PSR B1257+12. Pulsars are rapidly rotating neutron stars, which are the collapsed cores of exploded massive stars. They spin and pulse with radiation, much like a lighthouse beacon. Here, the pulsar‘s twisted magnetic fields are highlighted by the blue glow.、クレジット:World History Archive/ニューズコム/共同通信イメージズ ※エディトリアル使用のみ。広告、プロモーション、商業目的での利用に関してはお問合せください。

    商品コード: 2019091002643

  • 磁場がないと一瞬広がり 微小重力でも炎燃え続ける
    1995年04月25日
    磁場がないと一瞬広がり 微小重力でも炎燃え続ける

    磁場がない微小重力下では炎は一瞬広がり、すぐ消えてしまう(カラーネガ)

    商品コード: 1995042500078

  • 磁場がないと一瞬広がり 微小重力でも炎燃え続ける
    1995年04月25日
    磁場がないと一瞬広がり 微小重力でも炎燃え続ける

    磁場がない微小重力下では炎は一瞬広がり、すぐ消えてしまう(カラーネガ)

    商品コード: 1995042500074

  • 磁場をかけて燃える 微小重力でも炎燃え続ける
    1995年04月25日
    磁場をかけて燃える 微小重力でも炎燃え続ける

    微小重力下でも磁場をかけると、酸素の対流が発生し、炎は明るく燃え続ける(カラーネガ)

    商品コード: 1995042500077

  • 磁場をかけて燃える 微小重力でも炎燃え続ける
    1995年04月25日
    磁場をかけて燃える 微小重力でも炎燃え続ける

    微小重力下でも磁場をかけると、酸素の対流が発生し、炎は明るく燃え続ける(カラーネガ)(北海道上砂川町の「地下無重力実験センター」で実験した)

    商品コード: 1995042500075

  • コンピューターアニメ ユリシーズ、太陽の両極に
    1995年06月24日
    コンピューターアニメ ユリシーズ、太陽の両極に

    米航空宇宙局(NASA)と欧州宇宙機関(ESA)が共同開発し、1990年10月に打ち上げた太陽探査機「ユリシーズ」が昨年9月、太陽の南極上空を飛行した際の様子を描いたコンピューターアニメ(想像図)。ユリシーズは太陽の両極の太陽風や磁場を観測する初の探査機で、今年7月31日にはいよいよ北極点の上空に到達する。(ロイター=共同)

    商品コード: 1995062400033

  • コンピューターアニメ ユリシーズ、太陽の両極に
    1995年06月24日
    コンピューターアニメ ユリシーズ、太陽の両極に

    米航空宇宙局(NASA)と欧州宇宙機関(ESA)が共同開発し、1990年10月に打ち上げた太陽探査機「ユリシーズ」が昨年9月、太陽の南極上空を飛行した際の様子を描いたコンピューターアニメ(想像図)。ユリシーズは太陽の両極の太陽風や磁場を観測する初の探査機で、今年7月31日にはいよいよ北極点の上空に到達する。(ロイター=共同)

    商品コード: 1995062400034

  •  辻尚子さん
    1997年12月22日
    辻尚子さん

    インドには聖地の磁場があると話す辻尚子さん(画家・つじたかこ)

    商品コード: 1997122200033

  •  みはし・まりさん
    1998年09月14日
    みはし・まりさん

    沖縄には磁場のようなものを感じると話すみはし・まりさん

    商品コード: 1998091400098

  • 浮いたガラス 強磁場無重力でガラス溶解
    1999年12月08日
    浮いたガラス 強磁場無重力でガラス溶解

    強磁場発生装置内の疑似無重力状態で浮いたガラス

    商品コード: 1999120800026

  • 真球になったガラス 強磁場無重力でガラス溶解
    1999年12月08日
    真球になったガラス 強磁場無重力でガラス溶解

    強磁場発生装置内の疑似無重力状態で溶解し真球になったガラス

    商品コード: 1999120800025

  • 回転磁場発生装置 がん組織内を動いて治療
    2001年02月28日
    回転磁場発生装置 がん組織内を動いて治療

    マイクロマシンにかける回転磁場発生装置を調整する東北大電気通信研究所の石山和志助手=6日、仙台市青葉区の同研究所

    商品コード: 2001022800008

  • マイクロマシン がん組織内を動いて治療
    2001年02月28日
    マイクロマシン がん組織内を動いて治療

    周囲から加えられた磁場で、回転しながら寒天の中を進み先端が飛び出したマイクロマシン(1目盛りは5ミリ)=6日、仙台市青葉区の東北大電気通信研究所

    商品コード: 2001022800007

  • 岡田主任研究員 新超電導物質の線材で磁場
    2002年03月22日
    岡田主任研究員 新超電導物質の線材で磁場

    日立製作所などが作製した二ホウ化マグネシウムの線材を持つ岡田道哉主任研究員=22日、東京都千代田区の日立製作所本社

    商品コード: 2002032200150

  • 日立が開発した心磁計 磁場で心疾患を早期発見
    2004年06月01日
    日立が開発した心磁計 磁場で心疾患を早期発見

    日立製作所が開発した移動可能な心臓磁場計測装置

    商品コード: 2004060100960

  •  地域に生まれる文化の磁場
    2005年06月13日
    地域に生まれる文化の磁場

    小島多恵子さん

    商品コード: 2005061300075

  • 日本総研の寺島会長 北ヤード「情報の磁場」に
    2009年09月22日
    日本総研の寺島会長 北ヤード「情報の磁場」に

    インタビューに答える日本総合研究所の寺島実郎会長

    商品コード: 2009092200085

  •  北ヤード「情報の磁場」に
    2009年09月22日
    北ヤード「情報の磁場」に

    大阪・梅田北ヤード再開発地域

    商品コード: 2009092200089

  •  北ヤード「情報の磁場」に
    2009年09月22日
    北ヤード「情報の磁場」に

    大阪・梅田北ヤード再開発地域

    商品コード: 2009092200090

  •  北ヤード「情報の磁場」に
    2009年09月22日
    北ヤード「情報の磁場」に

    大阪・梅田北ヤード再開発地域

    商品コード: 2009092200091

  •  北ヤード「情報の磁場」に
    2009年09月22日
    北ヤード「情報の磁場」に

    大阪・梅田北ヤード再開発地域

    商品コード: 2009092200092

  •  氷床の増減、磁場にも影響
    2013年09月11日
    氷床の増減、磁場にも影響

    地球磁場が変動する仕組み

    商品コード: 2013091100032

  •  氷床の増減、磁場にも影響
    2013年09月11日
    氷床の増減、磁場にも影響

    地球磁場が変動する仕組み

    商品コード: 2013091100035

  • 公開された試作部品 ITER主要部品を受注
    2013年10月10日
    公開された試作部品 ITER主要部品を受注

    三菱重工業が製作を始めた「トロイダル磁場コイル」の試作部品の一部=10日午後、兵庫県明石市

    商品コード: 2013101000474

  •  Northern lights, timelapse
    00:48.76
    2014年01月09日
    Northern lights, timelapse

    Timelapse footage of the Aurora Borealis, or northern lights. Auroral displays are caused by interactions between energetic charged particles from the Sun, and the Earth‘s atmosphere. Moving at 400-500 kilometres a second, the charged particles of the solar wind are drawn by Earth‘s magnetic field to the poles, where they collide with gas atoms and molecules, causing them to emit light. Green light is from oxygen atoms, purple light from nitrogen atoms. Filmed in Minnesota, USA, in summer.、クレジット:Bob Conzemius/WeatherVideoHD.TV/SCIENCE PHOTO LIBRARY/共同通信イメージズ

    商品コード: 2022061405848

  •  Northern lights, timelapse
    00:19.86
    2014年01月09日
    Northern lights, timelapse

    Timelapse footage of the Aurora Borealis, or northern lights, using a fish-eye lens. Auroral displays are caused by interactions between energetic charged particles from the Sun, and the Earth‘s atmosphere. Moving at 400-500 kilometres a second, the charged particles of the solar wind are drawn by Earth‘s magnetic field to the poles, where they collide with gas atoms and molecules, causing them to emit light. Green light is from oxygen atoms, purple light from nitrogen atoms. Filmed in Minnesota, USA, on 5th September.、クレジット:Bob Conzemius/WeatherVideoHD.TV/SCIENCE PHOTO LIBRARY/共同通信イメージズ

    商品コード: 2022061405850

  •  Northern lights, timelapse
    00:33.43
    2014年01月09日
    Northern lights, timelapse

    Timelapse footage of the Aurora Borealis, or northern lights, over a lake. Auroral displays are caused by interactions between energetic charged particles from the Sun, and the Earth‘s atmosphere. Moving at 400-500 kilometres a second, the charged particles of the solar wind are drawn by Earth‘s magnetic field to the poles, where they collide with gas atoms and molecules, causing them to emit light. Green light is from oxygen atoms, purple light from nitrogen atoms. Filmed in Minnesota, USA, on 23rd April 2012.、クレジット:Bob Conzemius/WeatherVideoHD.TV/SCIENCE PHOTO LIBRARY/共同通信イメージズ

    商品コード: 2022061405854

  •  Northern lights, timelapse
    00:31.26
    2014年01月09日
    Northern lights, timelapse

    Timelapse footage of the Sun setting followed by Aurora Borealis, or northern lights. Stratocumulus clouds partially obscure the view of the aurora. Auroral displays are caused by interactions between energetic charged particles from the Sun, and the Earth‘s atmosphere. Moving at 400-500 kilometres a second, the charged particles of the solar wind are drawn by Earth‘s magnetic field to the poles, where they collide with gas atoms and molecules, causing them to emit light. Green light is from oxygen atoms, purple light from nitrogen atoms. Filmed in Minnesota, USA, in summer.、クレジット:Bob Conzemius/WeatherVideoHD.TV/SCIENCE PHOTO LIBRARY/共同通信イメージズ

    商品コード: 2022061405855

  •  Northern lights, timelapse
    00:21.83
    2014年01月09日
    Northern lights, timelapse

    Timelapse footage of the Aurora Borealis, or northern lights, using a fish-eye lens. Auroral displays are caused by interactions between energetic charged particles from the Sun, and the Earth‘s atmosphere. Moving at 400-500 kilometres a second, the charged particles of the solar wind are drawn by Earth‘s magnetic field to the poles, where they collide with gas atoms and molecules, causing them to emit light. Green light is from oxygen atoms, purple light from nitrogen atoms. Filmed in Minnesota, USA.、クレジット:Bob Conzemius/WeatherVideoHD.TV/SCIENCE PHOTO LIBRARY/共同通信イメージズ

    商品コード: 2022061405859

  •  Northern lights, timelapse
    00:13.20
    2014年01月09日
    Northern lights, timelapse

    Timelapse footage of the Aurora Borealis, or northern lights, over a lake. The aurorae are partially obscured by altocumulus clouds. Auroral displays are caused by interactions between energetic charged particles from the Sun, and the Earth‘s atmosphere. Moving at 400-500 kilometres a second, the charged particles of the solar wind are drawn by Earth‘s magnetic field to the poles, where they collide with gas atoms and molecules, causing them to emit light. Green light is from oxygen atoms, purple light from nitrogen atoms. Filmed in Minnesota, USA, in spring.、クレジット:Bob Conzemius/WeatherVideoHD.TV/SCIENCE PHOTO LIBRARY/共同通信イメージズ

    商品コード: 2022061405887

  •  Northern lights, timelapse
    00:23.83
    2014年01月09日
    Northern lights, timelapse

    Timelapse footage of the Aurora Borealis, or northern lights, above a layer of stratocumulus clouds. Beneath the clouds is the glow from city lights. Auroral displays are caused by interactions between energetic charged particles from the Sun, and the Earth‘s atmosphere. Moving at 400-500 kilometres a second, the charged particles of the solar wind are drawn by Earth‘s magnetic field to the poles, where they collide with gas atoms and molecules, causing them to emit light. Green light is from oxygen atoms. Filmed in Minnesota, USA, in spring.、クレジット:Bob Conzemius/WeatherVideoHD.TV/SCIENCE PHOTO LIBRARY/共同通信イメージズ

    商品コード: 2022061405892

  •  Northern lights, timelapse
    00:15.70
    2014年01月09日
    Northern lights, timelapse

    Timelapse footage of the Aurora Borealis, or northern lights, over a lake. Auroral displays are caused by interactions between energetic charged particles from the Sun, and the Earth‘s atmosphere. Moving at 400-500 kilometres a second, the charged particles of the solar wind are drawn by Earth‘s magnetic field to the poles, where they collide with gas atoms and molecules, causing them to emit light. Green light is from oxygen atoms, purple light from nitrogen atoms. Filmed in Minnesota, USA, in spring.、クレジット:Bob Conzemius/WeatherVideoHD.TV/SCIENCE PHOTO LIBRARY/共同通信イメージズ

    商品コード: 2022061405897

  •  Northern lights, timelapse
    00:05.83
    2014年01月09日
    Northern lights, timelapse

    Timelapse footage of the Aurora Borealis, or northern lights. Auroral displays are caused by interactions between energetic charged particles from the Sun, and the Earth‘s atmosphere. Moving at 400-500 kilometres a second, the charged particles of the solar wind are drawn by Earth‘s magnetic field to the poles, where they collide with gas atoms and molecules, causing them to emit light. Green light is from oxygen atoms, purple light from nitrogen atoms. Filmed in Minnesota, USA.、クレジット:Bob Conzemius/WeatherVideoHD.TV/SCIENCE PHOTO LIBRARY/共同通信イメージズ

    商品コード: 2022061405899

  •  Northern lights, timelapse
    00:23.46
    2014年01月09日
    Northern lights, timelapse

    Timelapse footage of the Aurora Borealis, or northern lights. They are eventually blocked by dense cirrus clouds. Auroral displays are caused by interactions between energetic charged particles from the Sun, and the Earth‘s atmosphere. Moving at 400-500 kilometres a second, the charged particles of the solar wind are drawn by Earth‘s magnetic field to the poles, where they collide with gas atoms and molecules, causing them to emit light. Green light is from oxygen atoms, purple light from nitrogen atoms. Filmed in Minnesota, USA.、クレジット:Bob Conzemius/WeatherVideoHD.TV/SCIENCE PHOTO LIBRARY/共同通信イメージズ

    商品コード: 2022061405840

  •  Northern lights, timelapse
    00:17.33
    2014年01月09日
    Northern lights, timelapse

    Timelapse footage of the Aurora Borealis, or northern lights, in a moon-lit sky. Auroral displays are caused by interactions between energetic charged particles from the Sun, and the Earth‘s atmosphere. Moving at 400-500 kilometres a second, the charged particles of the solar wind are drawn by Earth‘s magnetic field to the poles, where they collide with gas atoms and molecules, causing them to emit light. Green light is from oxygen atoms, purple light from nitrogen atoms. Filmed in Minnesota, USA, in winter.、クレジット:Bob Conzemius/WeatherVideoHD.TV/SCIENCE PHOTO LIBRARY/共同通信イメージズ

    商品コード: 2022061405845

  •  Northern lights, timelapse
    00:22.26
    2014年01月09日
    Northern lights, timelapse

    Timelapse footage of the Aurora Borealis, or northern lights. Auroral displays are caused by interactions between energetic charged particles from the Sun, and the Earth‘s atmosphere. Moving at 400-500 kilometres a second, the charged particles of the solar wind are drawn by Earth‘s magnetic field to the poles, where they collide with gas atoms and molecules, causing them to emit light. Purple light is from nitrogen atoms. Filmed in Minnesota, USA, in November 2012.、クレジット:Bob Conzemius/WeatherVideoHD.TV/SCIENCE PHOTO LIBRARY/共同通信イメージズ

    商品コード: 2022061405846

  •  Northern lights, timelapse
    00:12.66
    2014年01月09日
    Northern lights, timelapse

    Timelapse footage of the Aurora Borealis, or northern lights, over a lake. Auroral displays are caused by interactions between energetic charged particles from the Sun, and the Earth‘s atmosphere. Moving at 400-500 kilometres a second, the charged particles of the solar wind are drawn by Earth‘s magnetic field to the poles, where they collide with gas atoms and molecules, causing them to emit light. Green light is from oxygen atoms, purple light from nitrogen atoms. Filmed in Minnesota, USA, in spring.、クレジット:Bob Conzemius/WeatherVideoHD.TV/SCIENCE PHOTO LIBRARY/共同通信イメージズ

    商品コード: 2022061405853

  •  Northern lights, timelapse
    00:20.13
    2014年01月09日
    Northern lights, timelapse

    Timelapse footage of the Aurora Borealis, or northern lights. Auroral displays are caused by interactions between energetic charged particles from the Sun, and the Earth‘s atmosphere. Moving at 400-500 kilometres a second, the charged particles of the solar wind are drawn by Earth‘s magnetic field to the poles, where they collide with gas atoms and molecules, causing them to emit light. Green light is from oxygen atoms, purple light from nitrogen atoms. Filmed in Minnesota, USA, in summer.、クレジット:Bob Conzemius/WeatherVideoHD.TV/SCIENCE PHOTO LIBRARY/共同通信イメージズ

    商品コード: 2022061405864

  •  Northern lights, timelapse
    00:20.53
    2014年01月09日
    Northern lights, timelapse

    Timelapse footage of the Aurora Borealis, or northern lights, over a lake. Auroral displays are caused by interactions between energetic charged particles from the Sun, and the Earth‘s atmosphere. Moving at 400-500 kilometres a second, the charged particles of the solar wind are drawn by Earth‘s magnetic field to the poles, where they collide with gas atoms and molecules, causing them to emit light. Green light is from oxygen atoms, purple light from nitrogen atoms. Filmed in Minnesota, USA.、クレジット:Bob Conzemius/WeatherVideoHD.TV/SCIENCE PHOTO LIBRARY/共同通信イメージズ

    商品コード: 2022061405867

  •  Northern lights, timelapse
    01:06.60
    2014年01月09日
    Northern lights, timelapse

    Timelapse footage of the Sun setting followed by Aurora Borealis, or northern lights. A fish-eye lens view is then seen, until the Sun rises. Auroral displays are caused by interactions between energetic charged particles from the Sun, and the Earth‘s atmosphere. Moving at 400-500 kilometres a second, the charged particles of the solar wind are drawn by Earth‘s magnetic field to the poles, where they collide with gas atoms and molecules, causing them to emit light. Green light is from oxygen atoms, purple light from nitrogen atoms. Filmed in Minnesota, USA, in spring.、クレジット:Bob Conzemius/WeatherVideoHD.TV/SCIENCE PHOTO LIBRARY/共同通信イメージズ

    商品コード: 2022061405872

  •  Northern lights, timelapse
    00:16.93
    2014年01月09日
    Northern lights, timelapse

    Timelapse footage of the Aurora Borealis, or northern lights, partly seen through thin cirrus clouds. Auroral displays are caused by interactions between energetic charged particles from the Sun, and the Earth‘s atmosphere. Moving at 400-500 kilometres a second, the charged particles of the solar wind are drawn by Earth‘s magnetic field to the poles, where they collide with gas atoms and molecules, causing them to emit light. Green light is from oxygen atoms, purple light from nitrogen atoms. Filmed in Minnesota, USA, on 13th April 2012.、クレジット:Bob Conzemius/WeatherVideoHD.TV/SCIENCE PHOTO LIBRARY/共同通信イメージズ

    商品コード: 2022061405889

  •  Northern lights, timelapse
    00:15.50
    2014年01月09日
    Northern lights, timelapse

    Timelapse footage of the Aurora Borealis, or northern lights, in a moon-lit sky. Auroral displays are caused by interactions between energetic charged particles from the Sun, and the Earth‘s atmosphere. Moving at 400-500 kilometres a second, the charged particles of the solar wind are drawn by Earth‘s magnetic field to the poles, where they collide with gas atoms and molecules, causing them to emit light. Green light is from oxygen atoms, purple light from nitrogen atoms. Filmed in Minnesota, USA, in winter.、クレジット:Bob Conzemius/WeatherVideoHD.TV/SCIENCE PHOTO LIBRARY/共同通信イメージズ

    商品コード: 2022061405880

  •  Northern lights, timelapse
    00:19.46
    2014年01月09日
    Northern lights, timelapse

    Timelapse footage of the Aurora Borealis, or northern lights. Auroral displays are caused by interactions between energetic charged particles from the Sun, and the Earth‘s atmosphere. Moving at 400-500 kilometres a second, the charged particles of the solar wind are drawn by Earth‘s magnetic field to the poles, where they collide with gas atoms and molecules, causing them to emit light. Green light is from oxygen atoms. Filmed in Minnesota, USA.、クレジット:Sky Fire/WeatherVideoHD.TV/SCIENCE PHOTO LIBRARY/共同通信イメージズ

    商品コード: 2022061405882

  •  Northern lights, timelapse
    00:11.20
    2014年01月09日
    Northern lights, timelapse

    Timelapse footage of the Aurora Borealis, or northern lights. Auroral displays are caused by interactions between energetic charged particles from the Sun, and the Earth‘s atmosphere. Moving at 400-500 kilometres a second, the charged particles of the solar wind are drawn by Earth‘s magnetic field to the poles, where they collide with gas atoms and molecules, causing them to emit light. Green light is from oxygen atoms, purple light from nitrogen atoms. Filmed in Minnesota, USA, in summer.、クレジット:Bob Conzemius/WeatherVideoHD.TV/SCIENCE PHOTO LIBRARY/共同通信イメージズ

    商品コード: 2022061405890

  •  Northern lights, timelapse
    00:17.66
    2014年01月09日
    Northern lights, timelapse

    Timelapse footage of the Aurora Borealis, or northern lights. Auroral displays are caused by interactions between energetic charged particles from the Sun, and the Earth‘s atmosphere. Moving at 400-500 kilometres a second, the charged particles of the solar wind are drawn by Earth‘s magnetic field to the poles, where they collide with gas atoms and molecules, causing them to emit light. Green light is from oxygen atoms, purple light from nitrogen atoms. Filmed in northern Minnesota, USA.、クレジット:Bob Conzemius/WeatherVideoHD.TV/SCIENCE PHOTO LIBRARY/共同通信イメージズ

    商品コード: 2022061405868

  •  Northern lights, timelapse
    01:19.96
    2014年01月09日
    Northern lights, timelapse

    Timelapse footage of the Aurora Borealis, or northern lights. Auroral displays are caused by interactions between energetic charged particles from the Sun, and the Earth‘s atmosphere. Moving at 400-500 kilometres a second, the charged particles of the solar wind are drawn by Earth‘s magnetic field to the poles, where they collide with gas atoms and molecules, causing them to emit light. Green light is from oxygen atoms, purple light from nitrogen atoms. Filmed in Minnesota, USA, in May 2012.、クレジット:Bob Conzemius/WeatherVideoHD.TV/SCIENCE PHOTO LIBRARY/共同通信イメージズ

    商品コード: 2022061405881

  •  Northern lights, timelapse
    00:16.53
    2014年01月09日
    Northern lights, timelapse

    Timelapse footage of the Aurora Borealis, or northern lights, over water. Auroral displays are caused by interactions between energetic charged particles from the Sun, and the Earth‘s atmosphere. Moving at 400-500 kilometres a second, the charged particles of the solar wind are drawn by Earth‘s magnetic field to the poles, where they collide with gas atoms and molecules, causing them to emit light. Green light is from oxygen atoms, purple light from nitrogen atoms. Filmed in Minnesota, USA, in spring.、クレジット:Bob Conzemius/WeatherVideoHD.TV/SCIENCE PHOTO LIBRARY/共同通信イメージズ

    商品コード: 2022061405857

  •  Northern lights, timelapse
    00:27.26
    2014年01月09日
    Northern lights, timelapse

    Timelapse footage of the Aurora Borealis, or northern lights, in a moon-lit sky. Auroral displays are caused by interactions between energetic charged particles from the Sun, and the Earth‘s atmosphere. Moving at 400-500 kilometres a second, the charged particles of the solar wind are drawn by Earth‘s magnetic field to the poles, where they collide with gas atoms and molecules, causing them to emit light. Green light is from oxygen atoms, purple light from nitrogen atoms. Filmed in Minnesota, USA, in winter.、クレジット:Bob Conzemius/WeatherVideoHD.TV/SCIENCE PHOTO LIBRARY/共同通信イメージズ

    商品コード: 2022061405871

  •  Northern lights, timelapse
    00:30.96
    2014年01月09日
    Northern lights, timelapse

    Timelapse footage of the Aurora Borealis, or northern lights, in a moon-lit sky. Auroral displays are caused by interactions between energetic charged particles from the Sun, and the Earth‘s atmosphere. Moving at 400-500 kilometres a second, the charged particles of the solar wind are drawn by Earth‘s magnetic field to the poles, where they collide with gas atoms and molecules, causing them to emit light. Green light is from oxygen atoms, purple light from nitrogen atoms. Filmed in Minnesota, USA, in winter.、クレジット:Bob Conzemius/WeatherVideoHD.TV/SCIENCE PHOTO LIBRARY/共同通信イメージズ

    商品コード: 2022061405877

  •  Northern lights, timelapse
    00:33.10
    2014年01月09日
    Northern lights, timelapse

    Timelapse footage of the Aurora Borealis, or northern lights, over a lake. Auroral displays are caused by interactions between energetic charged particles from the Sun, and the Earth‘s atmosphere. Moving at 400-500 kilometres a second, the charged particles of the solar wind are drawn by Earth‘s magnetic field to the poles, where they collide with gas atoms and molecules, causing them to emit light. Green light is from oxygen atoms, purple light from nitrogen atoms. Filmed in Minnesota, USA.、クレジット:Bob Conzemius/WeatherVideoHD.TV/SCIENCE PHOTO LIBRARY/共同通信イメージズ

    商品コード: 2022061405843

  •  Northern lights, timelapse
    00:10.00
    2014年01月09日
    Northern lights, timelapse

    Timelapse footage of the Aurora Borealis, or northern lights, in a moon-lit sky. Auroral displays are caused by interactions between energetic charged particles from the Sun, and the Earth‘s atmosphere. Moving at 400-500 kilometres a second, the charged particles of the solar wind are drawn by Earth‘s magnetic field to the poles, where they collide with gas atoms and molecules, causing them to emit light. Green light is from oxygen atoms, purple light from nitrogen atoms. Filmed in Minnesota, USA, in winter.、クレジット:Bob Conzemius/WeatherVideoHD.TV/SCIENCE PHOTO LIBRARY/共同通信イメージズ

    商品コード: 2022061405893

  •  Northern lights, timelapse
    00:28.06
    2014年01月09日
    Northern lights, timelapse

    Timelapse footage of the Aurora Borealis, or northern lights. Auroral displays are caused by interactions between energetic charged particles from the Sun, and the Earth‘s atmosphere. Moving at 400-500 kilometres a second, the charged particles of the solar wind are drawn by Earth‘s magnetic field to the poles, where they collide with gas atoms and molecules, causing them to emit light. Green light is from oxygen atoms, purple light from nitrogen atoms. It is very uncommon for aurorae to be nearly overhead at mid-latitudes. Filmed in Minnesota, USA, in summer.、クレジット:Bob Conzemius/WeatherVideoHD.TV/SCIENCE PHOTO LIBRARY/共同通信イメージズ

    商品コード: 2022061405898

  •  Northern lights, timelapse
    00:16.78
    2014年01月13日
    Northern lights, timelapse

    Timelapse footage of the Aurora Borealis, or northern lights, spanning the horizon. Auroral displays are caused by interactions between energetic charged particles from the Sun, and the Earth‘s atmosphere. Moving at 400-500 kilometres a second, the charged particles of the solar wind are drawn by Earth‘s magnetic field to the poles, where they collide with gas atoms and molecules, causing them to emit light. Green light is from oxygen atoms, purple light from nitrogen atoms. Filmed in the USA.、クレジット:Tom Warner/WeatherVideoHD.TV/SCIENCE PHOTO LIBRARY/共同通信イメージズ

    商品コード: 2022061405858

  • 公開された大型コンデンサー 国内最大の充電システム
    2014年05月20日
    公開された大型コンデンサー 国内最大の充電システム

    大阪大の先端強磁場科学研究センターで公開された、瞬間的に強い磁場を発生させる大型コンデンサーバンクシステム=20日午後、大阪府豊中市

    商品コード: 2014052000671

  • 大阪大の充電システム 国内最大の充電システム
    2014年05月20日
    大阪大の充電システム 国内最大の充電システム

    大阪大の先端強磁場科学研究センターで公開された、充電量が国内最大の大型コンデンサーバンクシステム=20日午後、大阪府豊中市

    商品コード: 2014052000672

  • MRIの手術室システム 高磁場MRI備えた手術室
    2014年10月28日
    MRIの手術室システム 高磁場MRI備えた手術室

    国内で初めて稼働する、京都大病院の高磁場のMRI(左奥)を備えた手術室システム=28日、京都市

    商品コード: 2014102800626

  •  地球の磁場、誕生直後から
    2017年02月22日
    地球の磁場、誕生直後から

    地球の核の対流

    商品コード: 2017022200901

  •  地球の磁場、誕生直後から
    2017年02月22日
    地球の磁場、誕生直後から

    地球の核の対流

    商品コード: 2017022200902

  •  分杭峠
    2017年05月17日
    分杭峠

    キーワード:屋外、自然、春、昼、日本、風景、無人、分杭峠、パワースポット、ゼロ磁場、風景メイン写真=2017(平成29)年5月17日、長野県伊那市、クレジット:TADAO YAMAMOTO/a.collectionRF/アマナイメージズ/共同通信イメージズ

    商品コード: 2020062904610

  •  Aurora borealis and weather station
    00:19.68
    2017年12月04日
    Aurora borealis and weather station

    Timelapse footage of aurora borealis lighting the sky above two photographers and a weather station. The aurora borealis, or northern lights, are formed when charged particles in the solar wind are attracted to the Earth‘s poles by its magnetic field. The particles collide with gas molecules in the upper atmosphere, ionising them, and they emit light as they recombine. Filmed by Hornsund fjord, in southern Spitsbergen, Norway.、クレジット:KRZYSZTOF GRABIEC/SCIENCE PHOTO LIBRARY/共同通信イメージズ

    商品コード: 2022061405891

  •  Aurora borealis, timelapse
    00:06.00
    2017年12月04日
    Aurora borealis, timelapse

    Timelapse footage of the aurora borealis in the night sky. The aurora are caused when charged particles in the solar wind are channeled to the poles by the Earth‘s magnetic field. Here they collide with gases in the atmosphere, exciting them. The gases emit light when they return to a non-excited state. Filmed from Spitsbergen island in the Norwegian Arctic.、クレジット:KRZYSZTOF GRABIEC/SCIENCE PHOTO LIBRARY/共同通信イメージズ

    商品コード: 2022061405876

  •  Aurora borealis, timelapse
    00:24.93
    2017年12月04日
    Aurora borealis, timelapse

    Timelapse footage of the aurora borealis in the night sky. The aurora are caused when charged particles in the solar wind are channeled to the poles by the Earth‘s magnetic field. Here they collide with gases in the atmosphere, exciting them. The gases emit light when they return to a non-excited state. Filmed from Spitsbergen island in the Norwegian Arctic.、クレジット:KRZYSZTOF GRABIEC/SCIENCE PHOTO LIBRARY/共同通信イメージズ

    商品コード: 2022061405896

  •  Aurora borealis, timelapse
    00:07.76
    2017年12月04日
    Aurora borealis, timelapse

    Timelapse footage of the aurora borealis in the night sky. The aurora are caused when charged particles in the solar wind are channeled to the poles by the Earth‘s magnetic field. Here they collide with gases in the atmosphere, exciting them. The gases emit light when they return to a non-excited state. Filmed from Spitsbergen island in the Norwegian Arctic.、クレジット:KRZYSZTOF GRABIEC/SCIENCE PHOTO LIBRARY/共同通信イメージズ

    商品コード: 2022061405883

  •  NASA Spacecraft ‘Touches‘ The Sun For First Time
    2018年10月28日
    NASA Spacecraft ‘Touches‘ The Sun For First Time

    December 15, 2021: Illustration of Parker Solar Probe approaching the Sun. For the first time in history, a spacecraft has “touched“ the sun, scientists announced. NASA‘s Parker Solar Probe has flown through the sun‘s upper atmosphere, the corona, and sampled particles and magnetic fields there. The news was announced during a meeting of the American Geophysical Union. Parker Solar Probe launched in 2018 to explore the mysteries of the sun by traveling closer to it than any spacecraft before. Three years after launch and decades after first conception, Parker has finally arrived. (Credit Image: © APL/NASA/ZUMA Wire)、クレジット:©APL/NASA/ZUMA Wire/共同通信イメージズ

    商品コード: 2021121606257

  •  「新華社」百年の屋敷が伝える家風、文化観光の新たな目玉に
    02:03.71
    2019年06月04日
    「新華社」百年の屋敷が伝える家風、文化観光の新たな目玉に

    中国江西省南昌市北部郊外の新建区に、歴史的建築物が立ち並ぶ「汪山土庫(おうさんどこ)」がある。この屋敷群に代々伝わる優れた家風が独特の「磁場」を形作り、每月万単位の観光客を引き寄せている。汪山土庫は新建程氏一族の居住地で、南昌市北部郊外の新建区大塘坪郷汪山崗に位置し、108ムー(約7ヘクタール)の敷地内に25棟の家屋が建ち、部屋数は全部で1443部屋、572の中庭がある。ここ200年の間に、汪山土庫からは百人以上に上る社会各界の著名人が輩出しており、輝かしい知の流れを脈々と伝えてきた。この5年間で汪山土庫の主だった建物が修理され、各種インフラ設備も日に日に整い、延べ30万人余りの観光客を迎えてきた。その名を慕って訪れ、程氏一族の物語に耳を傾ける人々がますます増えている。観光客を相手に昔の物語を語る合間を縫っては、程さんは小学校入学を控えた孫に「程氏家訓十条」の音読指導をしている。程氏一族の人々は現在、世界31の国や地域に散らばっている。郷里に残った一人として、程さんはこの先も生家を守り続け、より多くの観光客に自らよき家風を伝えていくつもりだ。(記者/黄浩然)<映像内容>「汪山土庫」の街並みなど風景、撮影日:撮影日不明、クレジット:新華社/共同通信イメージズ

    商品コード: 2019060404900

  • 天王星 天王・海王星の強磁場解明
    2019年07月12日
    天王星 天王・海王星の強磁場解明

    無人惑星探査機ボイジャー2号が1986年に撮影した天王星(NASA提供・共同)

    商品コード: 2019071201767

  •  NASA Unveil New Image Of Tycho Supernova ‘Seen By Shakespeare‘
    2019年09月09日
    NASA Unveil New Image Of Tycho Supernova ‘Seen By Shakespeare‘

    September 9, 2019, United States: This image shows: Using data from NASAââ¬â¢s Imaging X-ray Polarimetry Explorer (IXPE), international researchers have uncovered new information about the Tycho supernova remnant, an exploded star in the constellation Cassiopeia, the light from which was first seen on Earth in 1572. The results offer new clues about how shock waves created by these titanic stellar explosions accelerate particles to nearly the speed of light, and reveal, for the first time, the geometry of the magnetic fields close to the supernovaââ¬â¢s blast wave, which forms a boundary around the ejected material, as seen in this composite image. IXPE data (dark purple and white) have been combined with data from NASAââ¬â¢s Chandra X-ray Observatory (red and blue) and overlaid with the stars in the field of view as captured by the Digitized Sky Survey....An international team of scientists has uncovered new information about the remains of a star whose explosion was discovered 450 years ago - and poss...

    商品コード: 2023030204092

  •  ピエゾソニックの超音波モーター「PSM60N―ET」。モーター(手前)とドライバー(奥)
    2019年12月04日
    ピエゾソニックの超音波モーター「PSM60N―ET」。モーター(手前)とドライバー(奥)

    Piezo Sonic(ピエゾソニック、東京都世田谷区)は、高トルク超音波モーター「PSM60N」を発売した。超音波モーターは微小振動と摩擦力で回転する。コイルと磁石を用いないため磁気共鳴断層撮影装置(MRI)などの高磁場環境で利用できる。エンコーダー付きのモーターと制御ドライバーのセットで価格は消費税込みで20万3940円。1年間で500―1000セットの販売を目指す。同社の超音波モーターは、くし歯状のスリットが入ったリングを圧電素子で振動させる。リングにローター(回転体)を接触させると、くし歯の振動がローターに伝わり回転する。くし歯構造が振動を増幅する。摩擦の大きい材料を選び、トルクを高めた。最大トルクは1・2ニュートンメートルで、同サイズの直流モーターの5―10倍にあたるという。光学式のエンコーダーも搭載した。=2019(令和元)年12月4日、撮影場所不明、クレジット:日刊工業新聞/共同通信イメージズ

    商品コード: 2019121201187

  •  Brazil Admiral Vladimirsky Expedition
    2020年01月10日
    Brazil Admiral Vladimirsky Expedition

    10.01.2020 The ship “Admiral Vladimirsky“ arrives to the port of Rio de Janeiro, Brazil. In December of 2019 the research vessel Admiral Vladimirsky went on a round-the-world expedition to the shores of Antarctica, dedicated to the 200th anniversary of the continent’s opening by Russian naval sailors on the Vostok and Mirny sloops under the command of Thaddeus Bellingshausen and Mikhail Lazarev, as well as to 250th birth anniversary of Admiral Ivan Kruzenshtern. The aim of the expedition is to conduct complex oceanographic research in the Antarctic region and along the route, determining the location of the island of Peter the Great and studying the parameters of the earth‘s magnetic field in order to clarify the position of the South Magnetic Pole. Alexey Kudenko / Sputnik、クレジット:Sputnik/共同通信イメージズ

    商品コード: 2020050300535

  •  Brazil Admiral Vladimirsky Expedition
    2020年01月10日
    Brazil Admiral Vladimirsky Expedition

    10.01.2020 People take pictures of the ship “Admiral Vladimirsky“ in the port of Rio de Janeiro, Brazil. In December of 2019 the research vessel Admiral Vladimirsky went on a round-the-world expedition to the shores of Antarctica, dedicated to the 200th anniversary of the continent’s opening by Russian naval sailors on the Vostok and Mirny sloops under the command of Thaddeus Bellingshausen and Mikhail Lazarev, as well as to 250th birth anniversary of Admiral Ivan Kruzenshtern. The aim of the expedition is to conduct complex oceanographic research in the Antarctic region and along the route, determining the location of the island of Peter the Great and studying the parameters of the earth‘s magnetic field in order to clarify the position of the South Magnetic Pole. Alexey Kudenko / Sputnik、クレジット:Sputnik/共同通信イメージズ

    商品コード: 2020050300481

  •  Brazil Admiral Vladimirsky Expedition
    2020年01月10日
    Brazil Admiral Vladimirsky Expedition

    10.01.2020 The ship “Admiral Vladimirsky“ arrives to the port of Rio de Janeiro, Brazil. In December of 2019 the research vessel Admiral Vladimirsky went on a round-the-world expedition to the shores of Antarctica, dedicated to the 200th anniversary of the continent’s opening by Russian naval sailors on the Vostok and Mirny sloops under the command of Thaddeus Bellingshausen and Mikhail Lazarev, as well as to 250th birth anniversary of Admiral Ivan Kruzenshtern. The aim of the expedition is to conduct complex oceanographic research in the Antarctic region and along the route, determining the location of the island of Peter the Great and studying the parameters of the earth‘s magnetic field in order to clarify the position of the South Magnetic Pole. Alexey Kudenko / Sputnik、クレジット:Sputnik/共同通信イメージズ

    商品コード: 2020050300531

  •  Brazil Admiral Vladimirsky Expedition
    2020年01月10日
    Brazil Admiral Vladimirsky Expedition

    10.01.2020 The ship “Admiral Vladimirsky“ arrives to the port of Rio de Janeiro, Brazil. In December of 2019 the research vessel Admiral Vladimirsky went on a round-the-world expedition to the shores of Antarctica, dedicated to the 200th anniversary of the continent’s opening by Russian naval sailors on the Vostok and Mirny sloops under the command of Thaddeus Bellingshausen and Mikhail Lazarev, as well as to 250th birth anniversary of Admiral Ivan Kruzenshtern. The aim of the expedition is to conduct complex oceanographic research in the Antarctic region and along the route, determining the location of the island of Peter the Great and studying the parameters of the earth‘s magnetic field in order to clarify the position of the South Magnetic Pole. Alexey Kudenko / Sputnik、クレジット:Sputnik/共同通信イメージズ

    商品コード: 2020050300404

  •  Brazil Admiral Vladimirsky Expedition
    2020年01月10日
    Brazil Admiral Vladimirsky Expedition

    10.01.2020 The crew of the Admiral Vladimirsky vessel meets with the General Consul of the Russian Federation in Rio de Janeiro Vladimir Tokmakov, right, in the port of Rio de Janeiro, Brazil. In December of 2019 the research vessel Admiral Vladimirsky went on a round-the-world expedition to the shores of Antarctica, dedicated to the 200th anniversary of the continent’s opening by Russian naval sailors on the Vostok and Mirny sloops under the command of Thaddeus Bellingshausen and Mikhail Lazarev, as well as to 250th birth anniversary of Admiral Ivan Kruzenshtern. The aim of the expedition is to conduct complex oceanographic research in the Antarctic region and along the route, determining the location of the island of Peter the Great and studying the parameters of the earth‘s magnetic field in order to clarify the position of the South Magnetic Pole. Alexey Kudenko / Sputnik、クレジット:Sputnik/共同通信イメージズ

    商品コード: 2020050300421

  •  Brazil Admiral Vladimirsky Expedition
    2020年01月10日
    Brazil Admiral Vladimirsky Expedition

    10.01.2020 Sailors of Russian ship Admiral Vladimirsky stand on the deck as the ship arrives to the port of Rio de Janeiro, Brazil. In December of 2019 the research vessel Admiral Vladimirsky went on a round-the-world expedition to the shores of Antarctica, dedicated to the 200th anniversary of the continent’s opening by Russian naval sailors on the Vostok and Mirny sloops under the command of Thaddeus Bellingshausen and Mikhail Lazarev, as well as to 250th birth anniversary of Admiral Ivan Kruzenshtern. The aim of the expedition is to conduct complex oceanographic research in the Antarctic region and along the route, determining the location of the island of Peter the Great and studying the parameters of the earth‘s magnetic field in order to clarify the position of the South Magnetic Pole. Alexey Kudenko / Sputnik、クレジット:Sputnik/共同通信イメージズ

    商品コード: 2020050300503

  •  Brazil Admiral Vladimirsky Expedition
    2020年01月10日
    Brazil Admiral Vladimirsky Expedition

    10.01.2020 Senior ship officers meet representatives of the Russian consulate on board the Admiral Vladimirsky vessel in the port of Rio de Janeiro, Brazil. In December of 2019 the research vessel Admiral Vladimirsky went on a round-the-world expedition to the shores of Antarctica, dedicated to the 200th anniversary of the continent’s opening by Russian naval sailors on the Vostok and Mirny sloops under the command of Thaddeus Bellingshausen and Mikhail Lazarev, as well as to 250th birth anniversary of Admiral Ivan Kruzenshtern. The aim of the expedition is to conduct complex oceanographic research in the Antarctic region and along the route, determining the location of the island of Peter the Great and studying the parameters of the earth‘s magnetic field in order to clarify the position of the South Magnetic Pole. Alexey Kudenko / Sputnik、クレジット:Sputnik/共同通信イメージズ

    商品コード: 2020050300534

  •  Brazil Admiral Vladimirsky Expedition
    2020年01月14日
    Brazil Admiral Vladimirsky Expedition

    14.01.2020 A view of Rio de Janeiro from the deck of the Russian oceanographic research vessel Admiral Vladimirsky, Brazil. In December of 2019 the research vessel Admiral Vladimirsky went on a round-the-world expedition to the shores of Antarctica, dedicated to the 200th anniversary of the continent’s opening by Russian naval sailors on the Vostok and Mirny sloops under the command of Thaddeus Bellingshausen and Mikhail Lazarev, as well as to 250th birth anniversary of Admiral Ivan Kruzenshtern. The aim of the expedition is to conduct complex oceanographic research in the Antarctic region and along the route, determining the location of the island of Peter the Great and studying the parameters of the earth‘s magnetic field in order to clarify the position of the South Magnetic Pole. Alexey Kudenko / Sputnik、クレジット:Sputnik/共同通信イメージズ

    商品コード: 2020050300394

  •  Brazil Admiral Vladimirsky Expedition
    2020年01月14日
    Brazil Admiral Vladimirsky Expedition

    14.01.2020 Sailors of Russian oceanographic research vessel Admiral Vladimirsky work on a deck during ship‘s departure from port of Rio de Janeiro, Brazil. AIn December of 2019 the research vessel Admiral Vladimirsky went on a round-the-world expedition to the shores of Antarctica, dedicated to the 200th anniversary of the continent’s opening by Russian naval sailors on the Vostok and Mirny sloops under the command of Thaddeus Bellingshausen and Mikhail Lazarev, as well as to 250th birth anniversary of Admiral Ivan Kruzenshtern. The aim of the expedition is to conduct complex oceanographic research in the Antarctic region and along the route, determining the location of the island of Peter the Great and studying the parameters of the earth‘s magnetic field in order to clarify the position of the South Magnetic Pole. Alexey Kudenko / Sputnik、クレジット:Sputnik/共同通信イメージズ

    商品コード: 2020050300440

  •  Brazil Admiral Vladimirsky Expedition
    2020年01月15日
    Brazil Admiral Vladimirsky Expedition

    15.01.2020 Sailors of Russian oceanographic research vessel Admiral Vladimirsky swim in a pool during their expedition, Brazil. In December of 2019 the research vessel Admiral Vladimirsky went on a round-the-world expedition to the shores of Antarctica, dedicated to the 200th anniversary of the continent’s opening by Russian naval sailors on the Vostok and Mirny sloops under the command of Thaddeus Bellingshausen and Mikhail Lazarev, as well as to 250th birth anniversary of Admiral Ivan Kruzenshtern. The aim of the expedition is to conduct complex oceanographic research in the Antarctic region and along the route, determining the location of the island of Peter the Great and studying the parameters of the earth‘s magnetic field in order to clarify the position of the South Magnetic Pole. Alexey Kudenko / Sputnik、クレジット:Sputnik/共同通信イメージズ

    商品コード: 2020050300393

  •  Brazil Admiral Vladimirsky Expedition
    2020年01月15日
    Brazil Admiral Vladimirsky Expedition

    15.01.2020 A sailor of Russian oceanographic research vessel Admiral Vladimirsky work on a deck during an expedition to the shores of Antarctica, Brazil. In December of 2019 the research vessel Admiral Vladimirsky went on a round-the-world expedition to the shores of Antarctica, dedicated to the 200th anniversary of the continent’s opening by Russian naval sailors on the Vostok and Mirny sloops under the command of Thaddeus Bellingshausen and Mikhail Lazarev, as well as to 250th birth anniversary of Admiral Ivan Kruzenshtern. The aim of the expedition is to conduct complex oceanographic research in the Antarctic region and along the route, determining the location of the island of Peter the Great and studying the parameters of the earth‘s magnetic field in order to clarify the position of the South Magnetic Pole. Alexey Kudenko / Sputnik、クレジット:Sputnik/共同通信イメージズ

    商品コード: 2020050300418

  •  Brazil Admiral Vladimirsky Expedition
    2020年01月16日
    Brazil Admiral Vladimirsky Expedition

    16.01.2020 A sailor of Russian oceanographic research vessel Admiral Vladimirsky watches a sunset standing on a deck during an expedition to the shores of Antarctica, Brazil. In December of 2019 the research vessel Admiral Vladimirsky went on a round-the-world expedition to the shores of Antarctica, dedicated to the 200th anniversary of the continent’s opening by Russian naval sailors on the Vostok and Mirny sloops under the command of Thaddeus Bellingshausen and Mikhail Lazarev, as well as to 250th birth anniversary of Admiral Ivan Kruzenshtern. The aim of the expedition is to conduct complex oceanographic research in the Antarctic region and along the route, determining the location of the island of Peter the Great and studying the parameters of the earth‘s magnetic field in order to clarify the position of the South Magnetic Pole. Alexey Kudenko / Sputnik、クレジット:Sputnik/共同通信イメージズ

    商品コード: 2020050300400

  •  Brazil Admiral Vladimirsky Expedition
    2020年01月16日
    Brazil Admiral Vladimirsky Expedition

    16.01.2020 The cadets of the hydrographic Department work on the Russian oceanographic research vessel Admiral Vladimirsky during an expedition to the shores of Antarctica, Brazil. In December of 2019 the research vessel Admiral Vladimirsky went on a round-the-world expedition to the shores of Antarctica, dedicated to the 200th anniversary of the continent’s opening by Russian naval sailors on the Vostok and Mirny sloops under the command of Thaddeus Bellingshausen and Mikhail Lazarev, as well as to 250th birth anniversary of Admiral Ivan Kruzenshtern. The aim of the expedition is to conduct complex oceanographic research in the Antarctic region and along the route, determining the location of the island of Peter the Great and studying the parameters of the earth‘s magnetic field in order to clarify the position of the South Magnetic Pole. Alexey Kudenko / Sputnik、クレジット:Sputnik/共同通信イメージズ

    商品コード: 2020050300465

  •  Brazil Admiral Vladimirsky Expedition
    2020年01月16日
    Brazil Admiral Vladimirsky Expedition

    16.01.2020 A sailor measures the hydrophysical properties of water during an expedition to the shores of Antarctica, Brazil. In December of 2019 the research vessel Admiral Vladimirsky went on a round-the-world expedition to the shores of Antarctica, dedicated to the 200th anniversary of the continent’s opening by Russian naval sailors on the Vostok and Mirny sloops under the command of Thaddeus Bellingshausen and Mikhail Lazarev, as well as to 250th birth anniversary of Admiral Ivan Kruzenshtern. The aim of the expedition is to conduct complex oceanographic research in the Antarctic region and along the route, determining the location of the island of Peter the Great and studying the parameters of the earth‘s magnetic field in order to clarify the position of the South Magnetic Pole. Alexey Kudenko / Sputnik、クレジット:Sputnik/共同通信イメージズ

    商品コード: 2020050300420

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