Researchers

OGATA Fumihiko

OGATA Fumihiko: Associate Professor

Faculty	Department of Pharmacy / Graduate School of Medicine
Researchmap	https://researchmap.jp/71362226

Education and Career

Academic & Professional Experience

Apr. 2021 - Today , 近畿大学付属高等学校・中学校学校薬剤師
Apr. 2021 - Today , Kindai University Faculty of Pharmacy Associate Professor
Apr. 2015 - Mar. 2021 , Kindai University Faculty of Pharmacy 講師
Nov. 2019 - Oct. 2020 , Chiang Mai University (Thailand) Faculty of Pharmacy Visiting Researcher
Apr. 2010 - Mar. 2015 , Kindai University Faculty of Pharmacy 助教
Apr. 2007 - Mar. 2010 , 近畿大学大学院薬学研究科薬学専攻博士後期課程
Apr. 2005 - Mar. 2007 , 近畿大学大学院薬学研究科薬学専攻博士前期課程
- Mar. 2005 , Kindai University Faculty of Pharmacy

Research Activities

Research Areas

Environmental science/Agricultural science, Environmental materials/recycling technology
Environmental science/Agricultural science, Environmental load reduction/restoration technology

Research Interests

環境技術, リン, リン酸, ベーマイト, リサイクル技術

Published Papers

Simultaneous Development and Validation of an HPLC Method for the Determination of Furosemide and Its Degraded Compound in Pediatric Extemporaneous Furosemide Oral Solution
Katsanee Srejomthong; Thanawat Pattananandecha; Sutasinee Apichai; Suporn Charumanee; Busaban Sirithunyalug; Fumihiko Ogata; Naohito Kawasaki; Chalermpong Saenjum
Molecules 9, Oct. 2025
Solid Tranilast Nanocrystal-Loaded Cationic Contact Lenses for Sustained Ocular Drug Delivery.
Shinichiro Kobayakawa; Toru Matsunaga; Hiroko Otake; Shiori Hino; Fumihiko Ogata; Manju Misra; Kazutaka Kanai; Naohito Kawasaki; Noriaki Nagai
Pharmaceutics 17 (10) 23, Sep. 2025
Perilla Seed Meal Extract Enriched with Rosmarinic Acid and Luteolin: Natural Active Pharmaceutical Ingredients (NAPIs) for Osteoprotective Effects
Thanawat Pattananandecha; Sutasinee Apichai; Treethip Sukkho; Jetsada Ruangsuriya; Fumihiko Ogata; Naohito Kawasaki; Chalermpong Saenjum
Antioxidants 8, Aug. 2025

新スタンダード薬学シリーズ第5巻衛生薬学 , Apr. 2025
コンパス衛生薬学 —健康と環境— , Mar. 2025
必携・衛生試験法 : 薬毒物試験法完全対応 , 日本薬学会 , 金原出版 , Dec. 2024

琵琶湖における造粒ベーマイトを用いたリン酸吸着能 , 緒方文彦; 冨永壽人; 藪谷仁志; 川﨑直人; 樺山峰明; 和田桂子 , Mar. 2011
大学生の肥満と朝食欠食およびやせ志向との関連性に関する研究 , 川﨑直人; 緒方文彦; 冨永壽人; 木下充弘; 掛樋一晃; 佐川和則 , Mar. 2011
大学生の朝食欠食と体格誤認に関する実態調査 , 冨永壽人; 緒方文彦; 掛樋一晃; 木下充弘; 川﨑直人; 佐川和則 , Mar. 2011

有害事象自発報告データベース(JADER)を用いた顕微鏡性大腸炎の有害事象プロファイルの評価 , 山城海渡; 山城海渡; 上田実加; 尾崎優; 平田敦士; 緒方文彦; 中村武浩; 川崎直人 , 日本医療薬学会年会講演要旨集(Web) , 32 , 2022
水質の環境基準に関する最近の話題について , 緒方文彦 , ファルマシア , 58 , 12 , 1150 , 1150 , 2022
Summary:本稿では，水質の環境基準に関する最近の話題として，底層溶存酸素量，六価クロムおよび大腸菌数について記載する。本内容は，教科書等の改訂においても重要な情報であると考えられる。
Adsorption Rate of Aromatic Hydrocarbons onto Activated Carbon in Gaseous Phase , KAWASAKI Naohito; YAMASHIRO Kaito; OGATA Fumihiko; NAKAMURA Takehiro , Annual Meeting of the Japanese Society of Toxicology , 49.1 , P-131 , 2022
Summary:Recently, air pollution due to volatile organic compounds has increased. It is suggested that these diffused chemical substance cause chemical substances allergies. As a result, many people have gotten the sick building syndrome due to aromatic hydrocarbons. The adsorption characterization of aromatic hydrocarbons onto activated carbon was investigated using the flow method. The removal efficiency of aromatic hydrocarbons in the gaseous phase was estimated based on the adsorption kinetic constants and the saturated amount adsorbed of aromatic hydrocarbons on the activated carbon. The saturated amount of benzene and toluene adsorbed was greater than that of xylene adsorbed because the molecular sizes of benzene and toluene are smaller than that of xylene. This result indicated that the aromatic hydrocarbons adsorbed to the pore in activated carbon, because the activated carbon has the hydrophobic surface and pore. Generally speaking, the adsorption rate in gaseous phase depends upon the surface polarity and porosity of adsorbent. The amount adsorbed of aromatic hydrocarbons onto the activated carbon with the elapsed time was measured. The adsorption kinetic constant increased in the order of xylene, toluene, and benzene. Those of the three xylene isomers were similar. These results indicated that the adsorption rate of benzene by the activated carbon was the fastest and the kinetic constant depended upon the different between the boiling point and the melting point and the molecular size of the aromatic hydrocarbons.