Kurihara, C., Kiyama, A., and Tagawa, Y.
Pressure fluctuations of liquids under short-time acceleration revisiting the stress-optic law
arXiv: 2403.09929, (2024). Open AccessLinkIcon.

Nakamine, K., Yokoyama, Y., Worby, W., Muto, M., and Tagawa, Y.
Flow birefringence of cellulose nanocrystal suspensions in
three-dimensional flow fields: revisiting the stress-optic law

arXiv: 2402.16351, (2024). Open AccessLinkIcon.

Igarashi, D., Kimura, K., Endo, N., Yokoyama, Y., Kusuno, H., and Tagawa, Y.
Optimal standoff distance for a highly focused microjet penetrating a soft material
arXiv: 2402.04543, (2024). Open AccessLinkIcon.

Igarashi, D., Yee, J., Yokoyama, Y., Kusuno, H. and Tagawa, Y.
The effects of cavitation position on the velocity of a laser-induced microjet extracted using explainable artificial intelligence
Physics of Fluids, 36, 013317, (2024). Open AccessLinkIcon.


Hosokawa, A., Kamamoto, K., Watanabe, H., Kusuno, H., Kobayashi, U. K., and Tagawa, Y.
A phase diagram of the pinch-off-type behavior of impulsively-induced viscoelastic liquid jets
arXiv: 2309.01364, (2023). Open AccessLinkIcon.

田川義之, 横山裕杜, 川口美沙
高速マイクロジェットの医工学応用と非定常レオロジー画像計測 [特集記事]
バイオマテリアル学会誌, 41巻, 3号, 2023年7月号

Worby, W., Nakamine, K., Yokoyama, Y., Muto, M., and Tagawa, Y.
Measurement of flow birefringence induced by the shear components along the optical axis using a parallel-plate-type rheometer
arXiv: 2308.09457, (2023). Open AccessLinkIcon.

Hirose, Y., Yamagishi, M., Udagawa, S., Inage, T., Tagawa, Y., and Ota, M.
Double-pass imaging background-oriented Schlieren technique for focusing on measurement target
Experiments in Fluids, 64,151 (2023)

Ren, Z., Han, H., Zeng, H., Sun, C., Tagawa, Y., Zuo, Z., and Liu, S.
Interactions of a collapsing laser-induced cavitation bubble with a hemispherical droplet attached to a rigid boundary
Journal of Fluid Mechanics, 976, A11 (2023). Open AccessLinkIcon

Yee, J., Igarashi, D., Miyatake, S., and Tagawa, Y.,
Prediction of the morphological evolution of a splashing drop using an encoder-decoder
Machine Learning: Science and Technology, (2023). Open AccessLinkIcon.

Ishikawa, T., Nishida, H., Tagawa, Y.,
Design Exploration of Initial Bubbles for Higher-Speed Lase-Induced Microjets
IEEE Access, 11, pp. 8258-8274, (2023). Open AccessLinkIcon.

Mitchell, B., Yokoyama, Y., Nassiri, A., Tagawa, Y., Korkolis, Y., Kinsey, B.,
An investigation of Hertzian contact in soft materials using photoelastic tomography
Journal of the Mechanics and Physics of Solids, 171, 105164, (2023). Preprint on arXivLinkIcon.

Yokoyama, Y., Mitchell, B. R., Nassiri, A., Kinsey, B. L., Korkolis, Y. P., Tagawa, Y.,
Integrated photoelasticity in a soft material: phase retardation, azimuthal angle, and stress-optic coefficient
Optics and Lasers in Engineering, 161, 107335 (2023). Open AccessLinkIcon.
SSRN Top Ten download paper May 2023

“力”を既知とする新しい流体科学 [特集記事]

渡部裕也,釜本恭多,Yee Jingzu,小林和也,田川義之
高粘度液体吐出装置における吐出安定性 [特集記事]


Ishikawa, T., Nishida, H., Tagawa, Y.,
Numerical Investigation on Influence of Number of Bubbles on Laser-Induced Microjet
Water, 14, 22, 3707, (2022). Open AccessLinkIcon.

Yamamoto, S., Shimazaki T., Franco-Gomez, A., Ichihara, S., Yee, J., Tagawa, Y.,
Contactless pressure measurement of an underwater shock wave in a microtube using a high-resolution background-oriented schlieren technique
Experiments in Fluids, 63, 142 (2022). Open AccessLinkIcon.

Shimazaki, T., Ichihara, S., Tagawa, Y.,
Background oriented schlieren technique with fast Fourier demodulation for measuring large density-gradient fields of fluids
Experimental Thermal and Fluid Science, 134, 110598, (2022). Open AccessLinkIcon.

Yee, J., Yamanaka, A., Tagawa, Y.,
Image features of a splashing drop on a solid surface extracted using a feedforward neural network
Physics of Fluids, 34, 013317, (2022). Open AccessLinkIcon.

べき乗則流体の伸長レオロジーとせん断レオロジーの関係 [特集記事]
流れ, 2022年3月号.

五十嵐大地,宮崎優太,鵜澤雅,河合脩真,YEE Jingzu,武藤真和,関口翔斗,田川義之,
集束ジェットによる無針注射時発生応力と機械学習によるジェット速度安定性調査 [特集記事]
流れ, 2022年2月号.


Kaneko, Y., Nishida, H., Tagawa, Y.,
Background-oriented-schlieren measurement of near-surface density field in surface dielectric-barrier-discharge
Measurement Science and Technology, 32, 125402 (2021). Open AccessLinkIcon

Miyazaki, Y., Usawa, M., Kawai, S., Yee, J., Muto, M., and Tagawa, Y.
Dynamic mechanical interaction between injection liquid and human tissue simulant induced by needle-free injection of a highly focused microjet
Scientific Reports, 11, 14544, (2021). Open AccessLinkIcon

Kiyama, A., Shimazaki, T., Gordillo, J.M., and Tagawa, Y.,
Direction of the microjet produced by the collapse of a cavitation bubble located in a corner of a wall and a free surface
Physical Review Fluids, 6, 083601, (2021). Open AccessLinkIcon.

Kamamoto, K., Onuki, H., Tagawa, Y.,
Drop-on-demand painting of highly viscous liquids
Flow, 1, E6, (2021), Open AccessLinkIcon.

Usawa, M., Fujita, Y., Tagawa, Y., Riboux, G., and Gordillo, J.M.,
Large impact velocities suppress the splashing of micron-sized droplets
Physical Review Fluids, 6, 023605, (2021), Open AccessLinkIcon

Kamamoto, K., Kiyama, A., Tagawa, Y., and Zhang, X.
Ouzo column under impact: formation of emulsion jet and oil-lubricated droplet
Langmuir, 37, 6, 2056-2064, (2021). Open AccessLinkIcon

Franco-Gomez, A., Onuki, H., Yokoyama, Y., Nagatsu, Y., and Tagawa, Y.,
Effect of liquid elasticity on the behaviour of high-speed focused jets
Experiments in Fluids, 62, 41, (2021), Open AccessLinkIcon

混相流, 35, No. 1, pp. 176-184, (2021). Open AccessLinkIcon

フローフォーカシングデバイスによるマイクロ液滴生成手法の開発 [特集記事]
流れ, 2021年4月号.


Yee, A., Onuki, H., Tagawa, Y., and Yoda, M.,
Determining timescales for directed assembly of particles into bands by shear flow and electric fields
Experiments in Fluids, 61:133, (2020).

Gordillo Arias de Saavedra, J.M., Onuki, H., and Tagawa, Y.,
Impulsive generation of jets by flow focusing
Journal of Fluid Mechanics, 894, (2020). Open AccessLinkIcon

Vo, Q., Fujita, Y., Tagawa, Y., and Tran, T.,
Anisotropic behaviours of droplets impacting on dielectrowetting substrates
Soft Matter, 16, pp. 2621-2628, (2020).

流体工学 (VI) ―次元解析とスケーリング則―(教育講座)[解説・総説]
日本画像学会誌,Vol. 59, 3, p.344-346, (2020).

流体工学 (V) ―液滴の蒸発とコーヒーステイン現象―(教育講座)[解説・総説]
日本画像学会誌,Vol. 59, 2, p. 255-258, (2020).

流体工学 (IV) ―空気薄膜内の潤滑圧力と液滴衝突―(教育講座)[解説・総説]
日本画像学会誌,Vol. 59, 1, p. 165-170, (2020).


Qian, J., Yamada, D., Wei, Z., Yukisada, R., Tagawa, Y., Shaw, J.,
and Zhang, X.,
One-Step Nanoextraction and Ultrafast Microanalysis Based on Nanodroplet Formation in an Evaporating Ternary Liquid Microfilm
Advanced Materials Technologies, 1900740, (2019). Open AccessLinkIcon

Hayasaka, K., and Tagawa, Y.,
Mobile visualization of density fields using smartphone background-oriented schlieren
Experiments in Fluids, 60:171, (2019). Open AccessLinkIcon

Hatakenaka, R., Breitenbach, J., Roisman, I. V., Tropea, C., and Tagawa, Y.,
Magic carpet breakup of a drop impacting onto a heated surface in a depressurized environment

International Journal of Heat and Mass Transfer,
145, 118729, (2019). Open AccessLinkIcon

Kiyama, A., Mansoor, M., Speirs, N., Tagawa, Y., and Truscott, T.,
Gelatine cavity dynamics of high-speed sphere impact
Journal of Fluid Mechanics, 880, pp. 707-722, (2019).
Open AccessLinkIcon

Rapet, J., Tagawa, Y., and Ohl, C.D.,
Shear-wave generation from cavitation in soft solids
Applied Physics Letters, 114, 123702, (2019).

Kiyama, A., Endo, N., Kawamoto, S., Katsuta, S., Oida, K., Tanaka, A., and Tagawa, Y.,
Visualization of penetration of a high-speed focused microjet into gel and animal skin
Journal of Visualization, 22, No. 3, pp. 449-457, (2019).
Open AccessLinkIcon

Sawaguchi, E., Matsuda, A., Hama, K., Saito, M., and Tagawa, Y.,

Droplet levitation over a moving wall with a steady air film
Journal of Fluid Mechanics, 862, pp. 261-282, (2019).
Open AccessLinkIcon

ながれ,Vol. 38, 6, pp. 419-422, (2019). Open AccessLinkIcon

日本画像学会誌, 58, No.1, p.19-27, (2019). Open AccessLinkIcon

流体工学 (III) ―液柱から液滴へ:表面張力の力学的基礎―(教育講座)[解説・総説]
日本画像学会誌,Vol. 58, 6, p. 668-676, (2019).

流体工学 (II) ―流体の粘性と撃力による高粘度流体の加速手法―(教育講座)[解説・総説]
日本画像学会誌,Vol. 58, 5, p. 565-571, (2019).

流体工学 (I) ―流体の運動方程式と無次元数―(教育講座)[解説・総説]
日本画像学会誌,Vol. 58, 4, p. 447-456, (2019).


Onuki, H., Oi, Y., and Tagawa, Y.,
Microjet generator for highly viscous fluids
Physical Review Applied, 9, 014035, (2018). Open AccessLinkIcon

Tagawa, Y., and Peters, I. R.,
Bubble collapse and jet formation in corner geometries
Physical Review Fluids, 3, 081601(R), (2018).

Yukisada, R., Kiyama, A., Zhang, X., and Tagawa, Y.,
Enhancement of focused liquid jets by surface bubbles
Langmuir, 34, pp. 4234-4240, (2018). Open AccessLinkIcon

Dyett, B., Kiyama, A., Rump, M., Tagawa, Y., Lohse, D., and Zhang, X.,
Growth dynamics of surface nanodroplets during solvent exchange at varying flow rates
Soft Matter, 14, pp. 5197-5204, (2018). Open AccessLinkIcon

Ishihara, S., Tagawa, Y., and Kameda, M.,
Rupture of an air bubble on the solid surfaces
Journal of Fluid Science and Technology, 13, JFST0015, (2018). Open AccessLinkIcon

蜂蜜のような高粘度液体を射出可能な装置 [解説・総説]
コンバーテック,542, No. 46, pp. 102-105, (2018).

混相流研究のながれ -気泡/液滴研究の動向と展望- [解説・総説]
ながれ,Vol. 37, 5, pp. 467-470, (2018). Open AccessLinkIcon


Pan, Z.*, Kiyama, A.*, Tagawa, Y.**, Daily, D.J.*, Thomson, S., Hurd, R., and Truscotta, T.**,  * Equally contributed to this work ** Corresponding author
Cavitation onset caused by acceleration
Proceedings of the National Academy of Science,

114, pp. 8470-8474, (2017). Open AccessLinkIcon

Hayasaka, K., Kiyama, A., and Tagawa, Y.,
Effects of pressure impulse and peak pressure of a shockwave on microjet velocity in a microchannel
Microfluidics and Nanofluidics, 21:166, (2017). Open AccessLinkIcon


Tagawa, Y., Yamamoto, S., Hayasaka, K., and Kameda, M.,
On pressure impulse of a laser-induced underwater shock wave
Journal of Fluid Mechanics, 808, pp. 5-18, (2016). Open AccessLinkIcon

Kiyama, A., Tagawa, Y., Ando, K., and Kameda, M.,
Effects of a water hammer and cavitation on jet formation in a test tube
Journal of Fluid Mechanics, 787, pp. 224-236, (2016).
Open AccessLinkIcon

Prakash, V., Martinez-Mercado, J., van Wijngaarden, L., Ramos, E.F.M., Tagawa, Y., Lohse, D., and Sun, C.,
Energy spectra in turbulent bubbly flows
Journal of Fluid Mechanics, 791, pp. 174-190, (2016).

Hayasaka, K., Tagawa,Y., Liu, T., and Kameda, M.,
Optical-flow-based background-oriented schlieren technique for measuring a laser-induced underwater shock wave
Experiments in Fluids, 57:179, (2016). Open AccessLinkIcon

日本機械学会論文集, 82, No. 838, pp. 16-00094, (2016). Open AccessLinkIcon

超音速マイクロジェットの発見 [解説・総説]
日本機械学会誌, 119, No. 1171, pp. 356-359, (2016).


Yamamoto, S., Tagawa, Y., and Kameda, M.,
Application of background-oriented schlieren (BOS) technique to a laser-induced underwater shock wave
Experiments in Fluids, 56, No. 5, 93, (2015). Open AccessLinkIcon

Lift force acting on a levitating drop over a moving wall

日本機械学会論文集, 81, No. 825, p. 15-00059, (2015). Open AccessLinkIcon

混相流, 29, No. 4, pp. 335-342, (2015). Open AccessLinkIcon

Kida, H., Tsukada, S., Tagawa, Y., Sato, R. and Kameda, M.,
Effective collection of volatile organic compounds in water using rimming flow with odorant-binding proteins
Mechanical Engineering Journal, 2, No. 4, 15-00244, (2015).
Open AccessLinkIcon

流動場中の粒子・気泡クラスターのラグランジュ的解析 [竜門賞受賞記念解説記事]
ながれ,Vol. 34, 3, pp. 209-215, (2015). Open AccessLinkIcon

先細形状の高粘度液体マイクロジェット・液滴射出装置 [特集記事]
ケミカルエンジニヤリング, 60, No. 12, pp. 921-925, (2015).

高粘度液滴および超音速マイクロジェット吐出装置の開発 [技術資料]
塗装工学, 50, No. 12, pp. 406-411, (2015).


Tagawa, Y., Takagi, S., and Matsumoto, Y.,
Surfactant effect on path instability of a rising bubble
Journal of Fluid Mechanics, 738, pp. 124-142, (2014).


Tagawa, Y., Oudalov, N., Ghalbzouri, A. El, Sun, C., and Lohse, D.,
Needle-free injection into skin and soft matter with highly focused microjets
Lab on a Chip, 13, pp. 1357-1363, (2013).
Picked up by Physics Today Blog and MIT Technology review

Tagawa, Y., Roghair, I., Prakash., V. N., Martin van Sint Annaland, Kuipers, H., Sun, C., and Lohse D.
The clustering morphology of freely rising deformable bubbles
Journal of Fluid Mechanics, 721, R2-1-13, (2013).

Lhuissier H., Tagawa, Y., Tran, T., and Sun, C.
Levitation of a drop over a moving surface
Journal of Fluid Mechanics, 733, R4-1-14, (2013).

Peters, I. R., Tagawa, Y., Oudalov, N., van der Meer, D., Sun, C., Prosperetti, A., and Lohse, D.
Highly focused supersonic microjets: numerical simulations
Journal of Fluid Mechanics, 719, pp. 587-605, (2013).

Tagawa, Y., van der Molen, J., van Wijngaarden, L., and Sun, C.
Wall forces on a sphere in a rotating liquid-filled cylinder
Physics of Fluids, 25, 063302, (2013).

2012 & BEFORE

Tagawa, Y., Martinez-Mercado, J., Prakash, V.N., Calzavarini, E., Sun, C., and Lohse, D.
Three-dimensional Lagrangian Voronoi analysis for clustering of particles and bubbles in turbulence
Journal of Fluid Mechanics, 693, pp.201-215, (2012).

Tagawa, Y., Oudalov, N., Visser, C.W., Peters, I.R., van der Meer, D., Sun, C., Prosperetti, A., and Lohse, D.
Highly focused supersonic microjets
Physical Review X, 2, 031002, (2012). Open AccessLinkIcon

田川義之, 舟久保亜美, 高木周, 松本洋一郎
界面活性剤溶液中を 3 次元運動する単一気泡の挙動: 第 2 報, 準定常運動する気泡に働く力とスリップ条件
日本機械学会論文集B編, 78, 788, pp.723-733, (2012). Open AccessLinkIcon

Prakash V.N., Tagawa, Y., Calzavarini, E., Martinez-Mercado, J., Toschi, F., Sun, C., and Lohse, D.
How gravity and size affect the acceleration statistics of bubbles in turbulence
New Journal of Physics, 14, 105017, (2012). Video abstract
Open AccessLinkIcon
Selected to be in the New Journal of Physics (NJP) Highlights of 2012 collection, which brings together some of the very best research published in NJP in 2012.

Martinez-Mercado, J., Prakash, V.N., Tagawa, Y., Sun, C., and Lohse, D.
Lagrangian statistics of light particles in turbulence
Physics of Fluids, 24, 055106, (2012). Open AccessLinkIcon

Visser, C.W., Tagawa, Y., Sun, C., and Lohse, D.
Microdroplet impact at very high velocity
Soft Matter, 8, pp.10732-10737, (2012).

Tagawa, Y., Ogasawara, T., Takagi, S., and Matsumoto, Y.,
Surfactant effects on single bubble motion and bubbly flow structure
AIP Conference Proceedings, 1207, 43, (2010).

田川義之, 舟久保亜美, 高木周, 松本洋一郎
界面活性剤溶液中を 3 次元運動する単一気泡の挙動: 第 1 報, 活性剤濃度と 3 次元軌跡の関係
日本機械学会論文集B編, 76, 771, pp.1785-1792, (2010). Open AccessLinkIcon

Percentage of Open Access (OA) (2023.04.18)

Percentage of WOS and Q1 (per WOS) (2023.04.18)

Number of yearly citations (Link to Google Scholar) (2023.04.18)