搶嫗擾岺戝妛 岺妛晎 婡夿僔僗僥儉岺妛愱峌

壩嶳敋敪偺僟僀僫儈僋僗

乽壩嶳暚壩乣崅懍棳懱椡妛丒婥朅椡妛偲偺愙揰乿

搶嫗戝妛抧恔尋媶強丒巗尨旤宐弝嫵庼偺僌儖乕僾傜偲嫟摨偱壩嶳敋敪偺僟僀僫儈僋僗偵娭偡傞尋媶傪恑傔偰偄傑偡丏
嵍偺幨恀偼2013擭7寧22擔偵崙嵺壩嶳妛夛偺僣傾乕偱偨傑偨傑弌夛偭偰嶣塭偟偨嶗搰偺暚壩偺條巕偱偡丅 擔杮偵偼丆嶗搰傪偼偠傔妶壩嶳偲屇偽傟傞夁嫀侾枩擭埲撪偵暚壩偟偨偙偲偺偁傞嶳偑100埲忋偁傝丄 偙傟偼悽奅慡懱偺10亾偵憡摉偟傑偡丏擔杮偺崙搚偼丄悽奅偺棨抧偺0.25亾傪愯傔傞偵夁偓側偄偺偱丄憡摉側廤拞棪偱偡丅
暔棟揑側帇揰偱傒傞偲丄壩嶳暚壩偼敪朅偟偨儅僌儅偑暚弌偡傞夁掱偲懆偊傜傟傑偡丅偙偺夁掱偼丄杮尋媶幒偺愱栧暘栰偱偁傞丄崿憡棳丄崅懍棳偑枾愙偵偐偐傢傞尰徾偱偡丅

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乽媫尭埑偵偲傕側偆敪朅儅僌儅偺攋嵱乣幒撪幚尡乿

暚壩偺偒偭偐偗偱偁傞敪朅偼丄儅僌儅偺埑椡掅壓丆偁傞偄偼壏搙掅壓偵偲傕側偭偰惗偠傑偡丅 巹偨偪偺嫽枴偼丆敪朅偟偨儅僌儅偑偳偺傛偆側忦審偱敋敪乮攋嵱乯 偡傞偺偐丄偲偄偆偙偲傪柧傜偐偵偡傞偙偲偱偡丅
儅僌儅偼悈偵斾傋偰偼傞偐偵崅偄擲搙傪帩偮棳懱偱偡偑丆曄宍偵梫偡傞帪娫偵傛偭偰偼屌懱偲偟偰怳傞晳偆乽擲抏惈乿偲偄偆惈幙傪帩偭偰偄傑偡丏儅僌儅偑屌懱揑偵怳傞晳偆偲丄儅僌儅撪偵暵偠崬傔傜傟偰偄偨僈僗偑媫寖偵曻弌偝傟傞偨傔丄戝婯柾側敋敪偵偮側偑傞偲峫偊傜傟偰偄傑偡丏
偦偙偱巹偨偪偼丆壩嶳暚壩帪偵儅僌儅偑庴偗傞尭埑夁掱傪柾媅偱偒傞傛偆丆100婥埑傑偱壛埑偱偒丆100暘偺1昩埲壓偱戝婥埑傑偱堦婥偵尭埑偱偒傞憰抲傪惢嶌偟傑偟偨丏偦偺憰抲傪梡偄偰丆巁慺婥朅擖傝悈偁傔傪敪朅儅僌儅柾媅嵽椏偲偟偰梡偄偨儐僯乕僋側幒撪幚尡傪峴偭偰偄傑偡丏
偙傟傑偱偵峴偭偰偒偨幒撪幚尡傗夝愅傪捠偠偰暘偐偭偰偒偨偙偲偼丄寖偟偄敋敪偺偒偭偐偗偲側傞傛偆側儅僌儅偺屌懱揑側攋嵱偵偼丄攋夡偵昁梫側椡偑壛傢偭偰偄傞偙偲偵壛偊偰丄儅僌儅帺懱偵摥偔椡偺曄壔偑屌懱揑側惈幙傪帵偡帪娫撪偵惗偠傞偙偲偑昁梫偩丄偲偄偆偙偲偱偡 (Kameda et al. 2013)丅
偝傜偵丄変乆偺幚尡偐傜偼丄 攋夡偵昁梫側椡偑壛傢偭偰偄傞嵺偺儅僌儅偺嫇摦偼metastable偱丄敋敪揑側暚壩偵側傞偐斲偐偼丄敪朅儅僌儅偺晄嬒幙惈偵嫮偔埶懚偟偰偄傞傛偆偩丄偲偄偆偙偲偑暘偐傝偮偮偁傝傑偡(Kameda et al. 2017)丅

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杮尋媶偵娭偡傞嵟嬤(2013-)偺庡側榑暥丒夝愢丆尋媶彆惉

1. Takeda, S., Ohashi, M., Kuwano, O., Kameda, M. and Ichihara, M. (2020), 乬Rheological tests of polyurethane foam undergoing vesiculation-deformation-solidification as a magma analogue,乭 Journal of Volcanology and Geothermal Research, Vol. 393, 106771.
2. Ohashi, M., Ichihara, M., Takeda, T., Hirota, K., Sato, S., Kuwano, O., and Kameda, M. (2020), 乬Formation of tube-pumice structure under pure shear: insights from extension tests of solidifying foam,乭 Journal of Volcanology and Geothermal Research, Vol. 392, 106772.
3. 巗尨 旤宐, 婽揷 惓帯 (2018) "傾僫儘僌幚尡偵傛傞敋敪揑暚壩拞偺壩摴撪尰徾偺壜帇壔," 壜帇壔忣曬, Vol. 38, No. 149, pp. 1-5.
4. Kameda, M., Ichihara, M., Maruyama, S., Kurokawa, N., Aoki, Y., Okumura, S. and Uesugi, K. (2017), "Advancement of magma fragmentation by inhomogeneous bubble distribution," Scientific Reports, Vol. 7, 16755.
5. Kameda, M., Ichihara, M., Shimanuki, S., Okabe, W., and Shida, T. (2013), "Delayed brittle-like fragmentation of vesicular magma analogue by decompression," Journal of Volcanology and Geothermal Research, Vol. 258, pp. 113-125.
6. 壢尋旓丒婎斦尋媶(A)(2019-2022)乽棳懱偺攋夡椡妛乗攋夡偺帪娫敪揥儌僨儖峔抸偲棳摦棜楌埶懚惈偺専摙乿尋媶壽戣斣崋丗19H00713
7. 壢尋旓丒婎斦尋媶(B)(2016-2018)乽壛懍偡傞儅僌儅偼峝偔側傞偐擃傜偐偔側傞偐乗棳懱偺惼惈攋夡夁掱偺夝柧偲壩嶳傊偺墳梡乿尋媶壽戣斣崋丗16H04039
8. 壢尋旓丒挧愴揑朑夎尋媶(2014-2015)乽晄嬒堦偵婥朅偑暘晍偡傞擲抏惈懱偺棳懱乛屌懱慗堏椞堟偵偍偗傞攋嵱儊僇僯僘儉偺夝柧乿尋媶壽戣斣崋丗26630047
9. 壢尋旓丒挧愴揑朑夎尋媶(2012-2013)乽棳懱乛屌懱慗堏椞堟偵偍偗傞敪朅懱攋嵱儊僇僯僘儉偺夝柧乿尋媶壽戣斣崋丗24656119

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晽摯寁應媄弍

乽姶埑揾椏 (Pressure-sensitive paint)乿

姶埑揾椏(PSP)偼晽摯柾宆偵揾傝丄昞柺偺埑椡暘晍傪岝妛揑偵寁應偡傞傕偺偱偡丏 椺偊偽丄梼慡柺偵埑椡僙儞僒乕傪晅偗偰丄偦偙偵壛傢傞埑椡傪應傞偙偲偼偱偒傑偣傫偑丄姶埑揾椏傪巊偊偽丄慡昞柺埑椡傪寁應偡傞偙偲偑偱偒傑偡丅 尰嵼偼丆庡偵峲嬻婡偺晽摯幚尡偵梡偄傜傟偰偄傑偡偑丆帺摦幵柾宆傗夞揮梼乮僼傽儞乯側偳傊偺揔梡傕専摙偝傟偰偄傑偡丅
巹偨偪偼丆JAXA晽摯媄弍奐敪僙儞僞乕丆 戝嶃巗棫戝妛暋崌愭抂尋媶婡峔偺尋媶幰偲嫟摨偱丆 姶埑揾椏帺懱偺奐敪偐傜晽摯幚尡傊偺墳梡傑偱暆峀偄尋媶傪恑傔偰偄傑偡丅

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乽崅懍墳摎宆姶埑揾椏偵傛傞旕掕忢嬻椡尰徾寁應乿

杮尋媶僌儖乕僾偼丆摿偵丆帪娫揑偵埑椡偑曄摦偡傞尰徾傪懳徾偲偟偨崅懍墳摎宆PSP偺奐敪偲墳梡偵廳揰傪抲偄偰尋媶傪恑傔偰偄傑偡丅
塃恾偼崅懍墳摎PSP偺堦偮偱偁傞梲嬌巁壔傾儖儈PSP傪梡偄偨寁應椺偱偡丏 崅懍墳摎PSP傪巊偊偽1000暘偺1昩偱曄壔偡傞嶰妏梼昞柺偺埑椡傪偲傜偊傞偙偲偑壜擻偱偡丅
嵟嬤偼丆寁應惛搙岦忋偵昁梫側壏搙丒幖搙姶搙偺崅惛搙昡壙 (Kameda et al. 2015), 傛傝怳暆偑彫偝偄掅懍棳拞偵抲偐傟偨暔懱廃傝偺埑椡曄摦 (Noda et al. 2018) 傗夞揮梼乮僐儞僾儗僢僒丆僼傽儞乯昞柺偺埑椡暘晍寁應 (Kitamura et al. 2018) 偵傕挧愴偟偰偄傑偡丏

杮尋媶偵娭偡傞嵟嬤(2013-)偺庡側榑暥丆敪昞丆尋媶彆惉

1. Noda, T., Nakakita, K., Wakahara, M., and Kameda, M. (2018), "Detection of small-amplitude periodic surface pressure fluctuation by pressure-sensitive paint measurements using frequency-domain methods," Experiments in Fluids,Vol. 59, No. 94.
2. Kitamura, T., Kameda M., Watanabe, W., Horimoto, K., Akimoto, K. and Akahori, A. (2018) "Mesurement of unsteady pressure field in a turbocharger compressor using pressure-sensitive paint," ASME Turbo Expo 2018: Turbomachinery Technical Conference & Exposition (June 11-15, 2018, Oslo, Norway).
3. 栰梂 桟擇丆婽揷 惓帯丆拞杒 榓擵丆壛摗 桾擵丆彫抮 弐曘 (2015), "墌拰廃傝棳傟偺旕掕忢埑椡丆塓搙応偵懳偡傞 PSP/PIV暋崌寁應," 壜帇壔忣曬妛夛榑暥廤, Vol. 35, pp. 1-6.
4. Kameda, M., Yoshida, M., Sekiya, T. and Nakakita, K. (2015), "Humidity effects in the response of a porous pressure-sensitive paint," Sensors and Actuators B: Chemical Vol. 208, pp. 399-405.
5. 壢尋旓丒婎斦尋媶(B)(2019-2021)乽埑椡丒壏搙応旕怤廝僀儊乕僕儞僌朄偺怺壔偲堏摦曄宍暔懱丆崅壏崅埑応寁應傊偺揥奐乿尋媶壽戣斣崋丗19H02063
6. 壢尋旓丒婎斦尋媶(B)(2016-2018)乽岝妛揑埑椡僙儞僔儞僌朄偺旝埑丆堏摦懱丆塼懱棳傟寁應傊偺揥奐乿尋媶壽戣斣崋丗16H04265
7. 壢尋旓丒婎斦尋媶(B)(2013-2015)乽揾憰宆崅懍墳摎姶埑揾椏偵傛傞堏摦暔懱廃傝旕掕忢埑椡応寁應朄偺妋棫乿尋媶壽戣斣崋丗25289029

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峲嬻婡梫慺媄弍

乽師悽戙挻壒懍婡乿

JAXA師悽戙峲嬻僀僲儀乕僔儑儞僴僽丆悢抣夝愅儐僯僢僩偺尋媶幰偲嫟摨偱師悽戙峲嬻婡偵娭偡傞偝傑偞傑側梫慺尋媶傪恑傔偰偄傑偡丏
僐儞僐儖僪偵懼傢傞師悽戙SST偺幚尰偵偼丆僐儞僐儖僪偵斾傋偰埑搢揑偵娐嫬晧壸丆擱旓傪掅尭偡傞昁梫偑偁傝傑偡丅 擔杮偱偼JAXA偑宲懕偟偰師悽戙SST偺僾儘僕僃僋僩傪恑傔偰偍傝丆尰嵼偼丆乽惷弆挻壒懍婡乿幚尰偵岦偗偨乽僜僯僢僋僽乕儉傪掅尭庤朄乿幚徹帋尡乮D-SEND乯偑峴傢傟偰偄傑偡丅

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乽挻壒懍婡僄儞僕儞僀儞僥乕僋乿

挻壒懍婡僄儞僕儞僀儞僥乕僋偼丆挻壒懍偱偁傞庡棳傪僄儞僕儞偵揔崌偡傞傛偆尭懍丒埑弅偡傞偨傔偺憰抲偱偡丅 僀儞僥乕僋偼丆挻壒懍偐傜垷壒懍傑偱偺棳懍堟傪娷傒撪晹棳傟丆奜晹棳傟偑崿嵼偡傞丆棳懱椡妛尋媶幰偵偲偭偰偼暋嶨偱庤偛傢偄尋媶懳徾偱偁傝丆僐儞僐儖僪偺奐敪帪偵偼丆晽摯幚尡偺敿暘埲忋偑僀儞僥乕僋晹暘偺帋尡偵旓傗偝傟偨偲偝傟偰偄傑偡丏
杮尋媶僌儖乕僾偱偼丆摿偵丆僀儞僥乕僋慜曽偵懚嵼偡傞徴寕攇僔僗僥儉偺怳摦尰徾乮buzz乯偵拝栚偟丆嵟嬤丆偦偺敪惗儊僇僯僘儉偺悢棟儌僨儖峔抸偵惉岟偟丆晽摯幚尡偍傛傃CFD偵傛傞嵞尰壜擻惈傪幚徹偟傑偟偨(Yamamoto et al. 2020)丏
傑偨丆梼廃傝偵惗偠傞徴寕攇偺怳摦 (buffet) 傗憶壒乮TE僲僀僘乯傪懳徾偵嵟怴偺儌乕僪夝愅庤朄偵傛傞儊僇僯僘儉偺夝柧乮Kojima et al. 2020乯傗惂屼朄偺専摙傪恑傔偰偄傑偡丅

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杮尋媶偵娭偡傞嵟嬤(2013-)偺庡側榑暥丆尋媶彆惉

1. Kojima, Y., Yeh, C.-A., Taira, K. and Kameda, M. (2020), 乬Resolvent analysis on the origin of two-dimensional transonic buffet,乭 Journal of Fluid Mechanics, Vol. 885, R1.
2. Yamamoto, J., Kojima, Y., Kameda, M., Watanabe, Y., Hashimoto, A. and Aoyama, T. (2020), 乬Prediction of the onset of supersonic inlet buzz,乭 Aerospace Science and Technology, Vol. 96, 105523.
3. 彫搰 椙幚丆嫶杮 撝, 惵嶳 崉巎, 婽揷 惓帯 (2018), "嶰師尦梼偵偍偗傞慗壒懍僶僼僃僢僩摿惈偺僗僷儞曽岦曄壔," 擔杮峲嬻塅拡妛夛榑暥廤, Vol. 66, No. 1, pp. 39-45.
4. 壢尋旓丒挧愴揑尋媶(朑夎)(2020-2021)乽棳傟忣曬偺崅岠棪弅栺媄弍偵婎偯偔梼憶壒傾僋僥傿僽惂屼朄偺奐敪乿尋媶壽戣斣崋丗20K21043

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婥塼擇憡棳偺婎慴偲墳梡

乽婥朅椡妛丒擬暔幙桝憲乿

婥朅偺塣摦傪挷傋傞妛栤傪乽婥朅椡妛乿偲屇傃傑偡丏杮尋媶僌儖乕僾偱偼丆奣梫偱帵偟偨埑椡曄摦偵偲傕側偆婥朅塣摦丆擬暔幙桝憲偺尋媶偵壛偊偰丆 塃恾偺傛偆側彫岴偐傜偺婥朅敪惗丆婥朅暚棳拞偺婥朅偺梟夝夁掱丆崅擲搙塼懱拞偺婥朅曄宍側偳偺儊僇僯僘儉傪柧傜偐偵偡傞婎慴尋媶傪恑傔偰偒傑偟偨丅
嵟嬤偼丆婥塼擇憡棳慡斒偵懳徾傪峀偘丆壓婰偵婰偡惗暔僙儞僔儞僌傊偺墳梡傗丆揷愳媊擵尋媶幒偲偺嫤摥偵傛傞悈拞徴寕攇偵懳偡傞怴偟偄壜帇壔寁應朄偺揔梡丆塼枌攋抐僾儘僙僗偺夝柧傪恑傔偰偄傑偡丏

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乽旲岴傪柾媅偟偨VOC曔廤丒専弌媄弍乿

僥儘懳嶔傗屇婥偵傛傞昦婥恌抐側偳偺暘栰偱丄旝検婗敪惈桳婡壔崌暔乮VOC乯傪懳徾偲偟偨儕傾儖僞僀儉儌僯僞儕儞僌偑拲栚偝傟偰偄傑偡丅 摿偵丆惗暔娭楢暔幙傪棙梡偟偨崅姶搙僶僀僆僙儞僒偺幚梡壔偑婜懸偝傟偰偄傑偡丅
僙儞僒偺奐敪偲摨條偵廳梫側偺偑僒儞僾儕儞僌媄弍偺奐敪偱偡丅僶僀僆僙儞僒傪梡偄傞偨傔偵偼丆悈擄梟惈暔幙偱偁傞VOC傪悈偵崅岠棪偱曔廤偡傞曽朄傪妋棫偟側偗傟偽側傝傑偣傫丅
杮尋媶僌儖乕僾偱偼丆旲岴偺傛偆側墌摏撪偺塼枌偺拞偵乽擋偄寢崌僞儞僷僋幙(OBP)乿傪揧壛偡傞偙偲偱曔廤棪傪埑搢揑偵岦忋偝偣傞曽朄偺奐敪乮Kida et al. 2015乯傗丆暷崙Duke戝妛偺尋媶僌儖乕僾偲嫟摨偱丆恖岺嵶朎僙儞僒僷僱儖偵傛傞婥憡拞偺擋偄暔幙偺摨掕 (Kida et al. 2018)偵惉岟偟偰偄傑偡丅

杮尋媶偵娭偡傞嵟嬤(2013-)偺庡側榑暥丆尋媶彆惉

1. Kida, H., Fukutani, Y., Mainland, J., de March, C., Vihani, A., Li, Y. R., Chi, Q., Liu, L., Kameda, M., Yohda, M. and Matsunami, H. (2018), "Vapor detection and discrimination with a panel of odorant receptors," Nature Communications, Vol. 9, 4556.
2. Ishihara, S., Tagawa, Y. and Kameda, M. (2018), "Rupture of an air bubble on the solid surfaces," Journal of Fluid Science and Technology, Vol. 13, Issue 3, JFST0015.
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4. 戝妛堾儕乕僨傿儞僌僾儘僌儔儉乽僌儕乕儞僋儕乕儞怘椏惗嶻傪巟偊傞幚慔壢妛儕乕僨傿儞僌戝妛堾乿尋媶彆惉乮2014-2016)
5. 妛挿嵸検宱旓亀攷巑壽掱乮屻婜乯妛惗傪懳徾偲偟偨奀奜攈尛亁彆惉乮2016乯

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