*corresponding author(s), #co-first

2018-present

• Masahiro Noji, Yukihiko Sugita, Yosuke Yamazaki, Makito Miyazaki, and *Yuta Suzuki, "Protein design of two-component tubular assemblies like cytoskeletons", bioRxiv [Link].

• Yosuke Yamazaki, Yuuri Miyata, *Kenichi Morigaki, and *Makito Miyazaki, “Controlling physical and biochemical parameters of actin nucleation using a patterned model lipid membrane”, Nano Letters 24, 1825–1834 (2024). [Link | プレスリリース]

• *Ryota Sakamoto, Makito Miyazaki, and *Yusuke T. Maeda, “State transitions of a confined actomyosin system controlled through contractility and polymerization rate”, Physical Review Research 5, 013208 (2023). [Link]

• *Makito Miyazaki and *Takahiro Kosugi, “Uncovering the design principles of supramolecular assemblies through manipulation of the structures, dynamics, and functions”, Biophysics and Physicobiology 19, e190031 (2022). [Link]

• Makito Miyazaki, Yosuke Yamazaki, and *Yamato Hasegawa, “Analysis of Brownian motion by elementary school students”, The Physics Teacher 60, 478–483 (2022). [Link | arXiv]

• *Ryota Sakamoto, Ziane Izri, Yuta Shimamoto, Makito Miyazaki, and *Yusuke T. Maeda, “Geometric trade-off between contractile force and viscous drag determines the actomyosin-based motility of a cell-sized droplet”, PNAS 119, e2121147119 (2022). [Link | プレスリリース]

• #Hiroaki Kubota, #Hiroyuki Ogawa, #Makito Miyazaki, Shuya Ishii, Kotaro Oyama, Yuki Kawamura, *Shin’ichi Ishiwata, and *Madoka Suzuki, “Microscopic temperature control reveals cooperative regulation of actin–myosin interaction by drebrin E”, Nano Letters 21, 9526–9533 (2021). [Link | プレスリリース]

• #Ryota Sakamoto, #Masatoshi Tanabe, Tetsuya Hiraiwa, Kazuya Suzuki, Shin’ichi Ishiwata, Yusuke T. Maeda, and *Makito Miyazaki, “Tug-of-war between actomyosin-driven antagonistic forces determines the positioning symmetry in cell-sized confinement”, Nature Communications 11, 3063 (2020). [Link | プレスリリース]

• Hiroaki Kubota, *Makito Miyazaki, Taisaku Ogawa, Togo Shimozawa, Kazuhiko Kinosita Jr., and *Shin’ichi Ishiwata, “Processive nanostepping of formin mDia1 loosely coupled with actin polymerization”, Nano Letters 18, 6617–6624 (2018). [Link]

Before 2018

• Hiroaki Kubota, *Makito Miyazaki, Taisaku Ogawa, Togo Shimozawa, Kazuhiko Kinosita Jr., and *Shin’ichi Ishiwata, “Biphasic effect of profilin impacts the formin mDia1 force-sensing mechanism in actin polymerization”, Biophysical Journal 113, 461–471 (2017). [Link]

• *Shin’ichi Ishiwata, Makito Miyazaki, Katsuhiko Sato, Koutaro Nakagome, Seine A. Shintani, Fuyu Kobirumaki-Shimozawa, Norio Fukuda, Kazuya Suzuki, Jun Takagi, Yuta Shimamoto, and Takeshi Itabashi, “Dynamic properties of bio-motile systems with a liquid-crystalline structure”, Molecular Crystals and Liquid Crystals 647, 127–150 (2017). [Link]

• Kazuya Suzuki, *Makito Miyazaki, Jun Takagi, Takeshi Itabashi, and Shin’ichi Ishiwata, “Spatial confinement of active microtubule networks induces large-scale rotational cytoplasmic flow”, PNAS 114, 2922–2927 (2017). [Link]

• *#Kotaro Oyama, #Tomomi Arai, #Akira Isaka, Taku Sekiguchi, Hideki Itoh, Yusuke Seto, Makito Miyazaki, Takeshi Itabashi, Takashi Ohki, *Madoka Suzuki, and *Shin'ichi Ishiwata, “Directional bleb formation in spherical cells under temperature gradient”, Biophysical Journal 109, 355–364 (2015). [Link]

• Makito Miyazaki, Masataka Chiba, Hiroki Eguchi, Takashi Ohki, and *Shin’ichi Ishiwata, “Cell-sized spherical confinement induces the spontaneous formation of contractile actomyosin rings in vitro”, Nature Cell Biology 17, 480–489 (2015). [Link | プレスリリース | Science Portal]

• *Makito Miyazaki, Masataka Chiba, and Shin’ichi Ishiwata, “Preparation of cell-sized water-in-oil droplets for in vitro reconstitution of biological processes in cellular compartments”, Protocol Exchange doi: 10.1038/protex.2015.029. [Link]

• #Masataka Chiba, #Makito Miyazaki, and *Shin’ichi Ishiwata, “Quantitative analysis of the lamellarity of giant liposomes prepared by the inverted emulsion method”, Biophysical Journal 107, 346–354 (2014). [Link]

• Makito Miyazaki, Kazuhiko Kinosita Jr., and *Katsuyuki Shiroguchi, “Accurate polarity control and parallel alignment of actin filaments for myosin-powered transport systems”, RSC Advances 3, 8728–8733 (2013). [Link]

• *Makito Miyazaki and Takahiro Harada, “Go-and-Back method: Effective estimation of the hidden motion of proteins from single-molecule time series”, Journal of Chemical Physics 134, 135104 (2011). [Link]

• *Makito Miyazaki and Takahiro Harada, “Bayesian estimation of the internal structure of proteins from single-molecule measurements”, Journal of Chemical Physics 134, 085108 (2011). [Link]

2018-present

• 宮﨑 牧人，News & Hot Paper Digest「微小管の新しい修復メカニズム」実験医学 41, pp.2134-2135，羊土社 (2023).

• 宮﨑 牧人，「アクチン細胞骨格構造と機能の再構成」生体の科学 73, pp.327-332，医学書院 (2022).

• 馬渕 一誠，石渡 信一，宮﨑 牧人，村田 隆，「Chapter 2. 分身を作る『細胞分裂』Part 1. 細胞分裂」 Newton別冊「ゼロからわかる人体と細胞」pp.38–51，ニュートンプレス (2022).

• 坂本 遼太，前多 裕介，宮﨑 牧人，「細胞核はどこにあるか — アクティブ・ゲルと配置対称性の制御原理」日本物理学会誌  76巻9号, pp.595–600 (2021)．

• 馬渕 一誠，石渡 信一，宮﨑 牧人，村田 隆，「Chapter 2. 分身を作る『細胞分裂』Part 1. 細胞分裂」 Newton別冊「ゼロからわかる細胞と人体」pp.36–49，ニュートンプレス (2020).

• 宮﨑 牧人，「サイズ依存性から見えてきた細胞骨格の自己組織化原理〜人工細胞を用いた細胞分裂装置の再構成研究を通して〜」実験医学 特集「サイズ生物学」 36(13) 8月号，pp.2186–2192，羊土社 (2018).

Before 2018

• 馬渕 一誠，石渡 信一，宮﨑 牧人，村田 隆，「Chapter 2. 分身をつくる細胞分裂 Part 1. 細胞分裂」 Newton別冊「細胞と生命　〜生物を形づくる精緻な装置の神秘にせまる〜」，pp.68–79，ニュートンプレス (2017).

• 宮﨑 牧人，「『細胞質流動』の再現に成功！ — 人工細胞を作って，細胞の仕組みを解明する」academist Journal, academist (2017).

• 馬渕 一誠，石渡 信一，宮﨑 牧人，村田 隆，「細胞はいかにして二つに分裂するのか」 Newton 1月号，pp.82–95，ニュートンプレス (2017).

• 宮﨑 牧人，石渡 信一，「In vitro再構成による収縮環の形成機構の解明」，生物物理 56(3)，174–176，日本生物物理学会 (2016).

• 宮﨑 牧人，「人工細胞の可能性」，新鐘  第82号，pp. 38–39，早稲田大学学生部 (2016).

• アレキサンダー・ダン，アンドリュー・プライス著，宮﨑 牧人，石渡 信一 訳「細胞に働く力とエネルギー論」パリティ 31巻第2号，pp. 32-40，丸善出版 (2016).

• 宮﨑 牧人，「ランジュバン系に対するベイズ推定：１分子時系列からタンパク質の粗視化モデルを構築する」，日本数理生物学会ニュースレター 第64号別冊，日本数理生物学会 (2011).