千葉大学大学院工学研究科・工学部

氏名	山田　真澄
フリガナ	ヤマダ　マスミ
英名	Masumi Yamada
職名	准教授
大学院専攻	共生応用化学専攻
コース	共生応用化学コース
学部学科	共生応用化学科
研究室	バイオプロセス化学研究室
TEL	043-290-3398
FAX	043-290-3398
Eメール	m-yamada@ （@マーク以下にfaculty.chiba-u.jpと入力してください。）
URL	http://chem.tf.chiba-u.jp/gacb01/
経歴	2001.3 東京大学工学部化学生命工学科 2003.3 東京大学大学院工学系研究科　修士（工学） 2006.3 東京大学大学院工学系研究科　博士（工学）
職歴	2003.4 日本学術振興会特別研究員DC1 2006.4 日本学術振興会特別研究員SPD 2006.4 東京女子医科大学先端生命医科学研究所　博士研究員 2008.4 マサチューセッツ工科大学　Postdoctoral Affiliate 2009.2 千葉大学大学院工学研究科　テニュアトラック特任准教授 2013.4 現職
所属学会	化学工学会、化学とマイクロ・ナノシステム学会、日本生物工学会、日本バイオマテリアル学会、日本再生医療学会、電気学会
専門分野	生物化学工学、マイクロフルイディクス、微細加工、生体組織工学、分析化学
研究テーマ	マイクロ・ナノフルイディクスを利用した、新しい化学・生物プロセスの構築
発表論文等	(43) Patterned Hydrogel Microfibers Prepared by Using Multilayer Microfluidic Devices for Guiding Network Formation of Neural Cells， Biofabrication， 6 (3)， 035011 (2014). (42) Facile Fabrication Processes for Hydrogel-based Microfluidic Devices Made of Natural Biopolymers， Biomicrofluidics， 8 (2)， 024115 (2014). (41) One-step Synthesis of Spherical/nonspherical Polymeric Microparticles Using Non-equilibrium Microfluidic Droplets， RSC Advances， 4 (24)， 13557–13564 (2014). (40) Microfluidic Production of Single Micrometer-sized Hydrogel Beads Utilizing Droplet Dissolution in a Polar Solvent， Biomicrofluidics，7 (5)， 054120 (2013). (39) Magnetophoresis-integrated Hydrodynamic Filtration System for Size- and Surface marker-based Two-dimensional Cell Sorting Anal. Chem.， 7666–7673 (2013). (38) Preparation of Stripe-patterned Heterogeneous Hydrogel Sheets Using Microfluidic Devices for High-density Coculture of Hepatocytes and Fibroblasts J. Biosci. Bioeng.， 116 (6)， 761–767 (2013). (37) Automated Construction System for 3D Lattice Structure Based on Alginate Gel Fiber Containing Living Cells J. Robotics. Mechatronics， 25 (4)， 665–672 (2013). (36) Formation of Cell Aggregates Using Microfabricated Hydrogel Chambers for Assembly into Large Tissues J. Robotics Mechatronics， 25 (4)， 682–689 (2013). (35) A Droplet-based Microfluidic Process to Produce Yarn-ball-shaped Hydrogel Microbeads RSC Advances， 3 (30)， 12299–12306 (2013). (34) Microfluidic Counterflow Centrifugal Elutriation System for Sedimentation-based Cell Separation Tomoki Morijiri， Masumi Yamada， Toshikatsu Hikida， and Minoru Seki Microfluid. Nanofluid.， 14 (6)， 1049–1057 (2013). (33) Micropatterning of Hydrogels on Locally Hydrophilized Regions on PDMS by Stepwise Solution Dipping and in situ Gelation Langmuir， 28 (39)， 14073–14080 (2012). (32) Controlled Formation of Heterotypic Hepatic Micro-Organoids in Anisotropic Hydrogel Microfibers for Long-Term Preservation of Liver-Specific Functions Biomaterials， 33 (33)， 8304–8315 (2012). (31) Isolation of Cell Nuclei in Microchannels by Short-term Chemical Treatment via Two-Step Carrier Medium Exchange Biomed. Microdev.， 14 (4)， 751–757 (2012). (30) Microfluidic Synthesis of Chemically and Physically Anisotropic Hydrogel Microfibers for Guided Cell Growth and Networking Soft Matter， 8 (11)， 3122–3130 (2012). (29) Fluidic Shear-Assisted Formation of Actuating Multilamellar Lipid Tubes Using Microfabricated Nozzle Array Device Chem. Commun.， 47 (29)， 8433–8435 (2011). (28) Generation of Uniform-size Droplets by Multistep Hydrodynamic Droplet Division in Microfluidic Circuits Microfluid. Nanofluid.， 11 (5)， 601–610 (2011). (27) Observation of Non-spherical Particle Behaviors for Continuous Shape-based Separation Using Hydrodynamic Filtration Biomicrofluidics， 5 (2)， 024103 (2011). (26) Sedimentation Pinched-flow Fractionation for Size- and Density-based Particle Sorting in Microchannels Microfluid. Nanofluid.， 11 (1)， 105–110 (2011). (25) Sol-gel Based Fabrication of Hybrid Microfluidic Devices Composed of PDMS and Thermoplastic Substrates Sens. Actuators B: Chem.， 148 (1)， 323–329 (2010). (24) Rapid Quantification of Disease-marker Proteins Using Continuous-flow Immunoseparation in a Nano-sieve Fluidic Device Anal. Chem.， 81 (16)， 7067–7074 (2009). (23) In-channel Focusing of Flowing Microparticles Utilizing Hydrodynamic Filtration Microfluid. Nanofluid.， 6 (4)， 571–576 (2009). (22) Patterning Reactive Microdomains inside PDMS Microchannels by Trapping and Melting Functional Polymer Particles J. Am. Chem. Soc.， 130 (43)， 14044–14045 (2008). (21) Blood Cell Classification Utilizing Hydrodynamic Filtration IEEJ Transactions on Sensors and Micromachines， 128-E (10)， 396–401 (2008). Electronics and Communications in Japan， 94 (1)， 1-6 (2011). (20) Millisecond Treatment of Cells Using Microfluidic Devices via Two-step Carrier-medium Exchange Lab Chip， 8 (5)， 772–778 (2008). (19) Hydrodynamic Control of Droplet Division in Bifurcating Microchannel and Its Application for Particles Synthesis J. Colloid Interf. Sci.， 321 (2)， 401–407 (2008). (18) Continuous and Size-dependent Sorting of Emulsion Droplets Using Hydrodynamics in Pinched Microchannels Langmuir， 24 (8)， 4405–4410 (2008). (17) Continuous and Precise Particle Separation by Electroosmotic Flow Control in Microfluidic Devices Electrophoresis， 29 (7)， 1423–1430 (2008). (16) Development of a Micro-scale Cell Culture System for Strawberry Using Microfabricated Devices Funct. Plant Sci. Biotechnol.， 1 (2)， 355–360 (2007). (15) On-chip Cell Migration Assay Using Microfluidic Channels Biomaterials， 28 (27)， 4017–4022 (2007). (14) Microfluidic Devices for Size-dependent Separation of Liver Cells Biomed. Microdev.， 9 (5)， 637–645 (2007). (13) Rapid Quantification of Bacterial Cells in Potable Water Using a Simplified Microfluidic Device J. Microbiol. Methods， 68 (3)， 643–647 (2007). (12) Continuous Separation of Particles Using a Microfluidic Device Equipped with Flow Rate Control Valves J. Chromatogr. A， 1127 (1-2)， 214–220 (2006). (11) A Microfluidic Flow Distributor Generating Stepwise Concentrations for High-throughput Biochemical Processing Lab Chip， 6 (2)， 179–184 (2006). (10) Microfluidic Particle Sorter Employing Flow Splitting and Recombining Anal.Chem.， 78 (4)， 1357–1362 (2006). (9) Hydrodynamic Filtration for On-chip Particle Concentration and Classification Utilizing Microfluidics Lab Chip， 5 (11)， 1233–1239 (2005). (8) Development of a Passive Micromixer Adopting Repeated Fluid Twisting and Flattening， and Its Application to DNA Purification Anal. Bioanal. Chem.， 383 (5)， 776–782 (2005). (7) Separation of Cultured Strawberry Cells Producing Anthocyanins in Aqueous Two-Phase System J. Biosci. Bioeng.， 100 (4)， 449–454 (2005). (6) Continuous Particle Separation in a Microchannel Having Asymmetrically-Arranged Multiple Branches Lab Chip， 5 (7)， 778–784 (2005). (5) Control-free Air Vent System for Ultra-low Volume Sample Injection on a Microfabricated Device Anal. Sci.， 21 (4)， 465–468 (2005). (4) Continuous Cell Partitioning Using an Aqueous Two-phase Flow System in Microfluidic Devices Masumi Yamada， Vivi Kasim， Megumi Nakashima， Jun’ichi Edahiro， and Minoru Seki Biotechnol. Bioeng.， 88 (4)， 489–494 (2004). (3) Pinched Flow Fractionation: Continuous Size Separation of Particles Utilizing a Laminar Flow Profile in a Pinched Microchannel Anal. Chem.， 76 (18)， 5465–5471 (2004). (2) Pressure-driven Sample Injection with Quantitative Liquid Dispensing for On-chip Electrophoresis Anal. Sci.， 20 (3)， 483–487 (2004). (1) Nanoliter-sized Liquid Dispenser Array for Multiple Biochemical Analysis in Microfluidic Devices Anal. Chem.， 76 (4)， 895–899 (2004).
主な著書
担当講義	生体高分子化学、医用材料学（メディカル）、生物情報化学（大学院）、共生応用化学実験（高分子）
研究概要