Topics

Selected Publications: World-First Research (with TUAT Students) 世界初の技術開発と成果: 東京農工大学での代表的論文リスト

🌱 Bio-Systems & Sustainable Technologies (生物・環境技術)

  • 繭(まゆ)を使わないシルク生産技術: Non-Cocoon, Direct Silk Gland Extraction (DSGE) to Fibroin Powder, Adv. Powder Tech. (2025) (Patent)
  • 植物への100+ nmの粒子の導入法: Stem cutting: Transporting water-insoluble 100+ nm particles into seedlings, Plant Physiol. Biochem. (2024)
  • 煤コロイドは種子の発芽におよび幼苗の品質を向上させる: Soot Colloids Enhance Seed Germination and Seedling Quality, Discover Agric. (2024)
  • 植物の気孔から学ぶ多孔質体への粒子挿入技術: Insertion of colloidal particles in the pores of a honeycomb structure via an aerosol route, J. Soc. Powder Technol. Japan (2014) Best Poster Award, 9th Asian Aerosol Conference (2015)
  • 長期間の植物用、エアロゾル曝露システム 🔬: A plant growth chamber system equipped with aerosol generators, Particuology (2023) Best Poster Paper Award, 13th Asia Pacific Confederation of Chemical Engineering Congress (2010)
  • 土壌コーティングによる節水技術: Surface treatment of clayey soil particles for reducing water loss, Adv. Powder Tech. (2022)

⚡ Particle Transport, Synthesis, Immobilization, Functionalization (粒子輸送・合成・固定化・機能化)

  • 高分子繊維とエアロゾルの”気中混合”による太陽光蒸留膜: Candle burning–assisted electrospinning: Soot-in-membranes for solar distillation, Adv. Powder Tech. (2023) 22nd APT Distinguished Paper Award (Society of Powder Technology, Japan & Elsevier)
  • 回転×電気化学による粒子合成法(コスメ企業との特許): Rotary-electrochemical method for particle synthesis, JP Patent JP2019112668A (Co-filed with CBIC Co., Ltd.)
  • ロウソク一本から作る親水性・疎水性炭素系膜: Carbonaceous Layers from Candle Soot Particles, Aerosol Air Qual. Res. (2018)
  • 熱対流による滴の微粒化とナノ粒子合成: Fragmentation and decomposition of solution droplets by thermal convection, Adv. Powder Tech. (2018)
  • パルス型電気泳動法によるワイヤーへの水中コロイド粒子固定化: Electrophoretic-made structure (on a wire) from aqueous nanoparticle suspension, J. Ceram. Soc. Jpn (2009) (Patent)
  • ナノ多孔体(100nm)中への水中コロイド粒子固定化: Immobilization of colloidal particles into sub-100 nm porous in water, Coll. Surf. A (2014)

🔍 Advanced Analytics & Surface Sensing (計測・分析技術)

  • TOLTA: 加熱中の材料内における液体移動可視化技術 (OCT応用): Observation of Viscous Liquid Flow in Tobacco Substrate during Heating using Optical Coherence Tomography (OCT), R. Soc. Open Sci. (2023)
  • ラマン分光 x 微粒子集積による高感度表面分析: Probing organic molecules by spraying nanoparticles and surface-enhanced Raman scattering, RSC Adv. (2015)
  • 微小領域(μm)の表面電位計測(植物葉からの学び): Area-selective deposition of charged particles on a surface with different hydrophilic levels (Learning from plant leaves), J. Aerosol Sci. (2014)


“PLATFORM” INITIATIVES:


TOPICS in RESEARCH

TRANSPORT and DEPOSITION of particles

Understanding the effect of substrate properties on the deposition of gas-phase particles = 大気中に浮遊する微粒子がどのように沈着する?基板表面の影響を調べた研究。

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– A novel synthesis method for particle film: Thermal convections “break” the incoming mist. 熱対流がミストを微細化。ナノ・微粒子膜の新しい合成法

ENGINEERING in ASSEMBLY OF NANOMATERIALS :

Controlling morphology of nanoparticle structure by external force
  • Article: “Probing a layer of organic molecules by an nanoparticle sensor with sub-100 nm resolution (2015)”

ENGINEERING in FOOD PROCESSING

suryani-biotech-report2016

RISK in ENERGY GENERATION:

Modeling
– Simulating particle formation in the exhaust of thermal power station (based on combustion) >> 火力発電所(燃焼)由来の粒子生成の機構をモデル化。実験室内でもできる計測手法を考案。

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RISK and HEALTH :

Development of assessment technology
– Particles suspended in the gas-phase deposited in rat’s lung, 気中に浮遊する微粒子がモデル動物(ラット)の肺に沈着:工業的に製造された酸化物粒子のリスク評価

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RISK in AGRICULTURE:

Sensor and Detection Method
– Nanoparticle-structures for detecting molecules of pesticide, 現場(オンサイト)で農薬成分・分子を検出するため高感度センサーの製作と検出システムの設計
Article: “Probing a layer of organic molecules by an nanoparticle sensor with sub-100 nm resolution (2015)”

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Research areas // 植物と微粒子との関係:プロジェクト // Post 3.11.大震災後



Past research project : 1998-2007 (Lenggoro)

  • High crystalline particles 噴霧法における微粒子材料の結晶化と機能化(2005-2007)
  • Formation and measurement of particles, 2005-2007:微粒子とナノ粒子の形成、ナノ材料計測、ナノ粒子の評価技術
  • Size reduction of particle materials; Assembly and measurement method :2000-2005: 材料の微粒化、粒子の構造化、ナノ粒子の計測技術
  • Highlighted: 2003-2006, 注目された研究
  • Prepared materials: 1998-2006, 合成した材料

TOPICS on our university TUAT

From: https://www.rd.tuat.ac.jp/documents/sankangaku/results/jisseki2014.pdf