Motoki Ueda

Dr. Motoki Ueda

orcid

Research Focus & Metrics

Academic Career Length

17Years (2010-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 June 2020 in Journal of Controlled Release
Verified
Journal Article
Closed access
KSKon Son
Kon Son
MUMotoki Ueda
Motoki Ueda
KTKazuaki Taguchi
Kazuaki Taguchi
TMToru Maruyama
Toru Maruyama
シタシンジ タケオカ
シンジ タケオカ
YIYoshihiro Ito
Yoshihiro Ito

3 December 2020 in Journal of the American Chemical Society
Verified
Journal Article
Closed access
ANAvanashiappan Nandakumar
Avanashiappan Nandakumar
YIYoshihiro Ito
Yoshihiro Ito
MUMotoki Ueda
Motoki Ueda

1 February 2011 in Chemical Communications
Verified
Journal Article
Closed access
PDF file
MUMotoki Ueda
Motoki Ueda
AMAkira Makino
Akira Makino
TITomoya Imai
Tomoya Imai
JSJunji Sugiyama
Junji Sugiyama
SKShunsaku Kimura
Shunsaku Kimura
Two types of peptide nanotubes, one is prepared from an amphiphilic peptide having a right-handed helix segment and the other from that having a left-handed helix segment, are shown to transform the morphology into a vesicle by membrane fusion due to stereo-complex formation between these helical segments.

18 May 2023 in Journal of Materials Chemistry B
Verified
Journal Article
Closed access
PDF file
Xiaoyu GuanXiaoyu Guan
Xiaoyu Guan
BZBingyuan Zhang
Bingyuan Zhang
ZWZequn Wang
Zequn Wang
Qingxin HanQingxin Han
Qingxin Han
MAMeng An
Meng An
YIYoshihiro Ito
Yoshihiro Ito
Tannins, which are natural plant polyphenols, are widely used in different fields, especially in biomedical applications due to their unique properties, including high abundance, low cost, structural diversity, protein precipitation, biocompatibility, and biodegradability. However, they fail to satisfy the requirements in some specific applications (e.g., environmental remediation) on account of their water solubility, making their separation and regeneration difficult. Inspired by the design of composite materials, tannin-immobilized composites have emerged as promising and novel materials and combine or even surpass the advantages of each of their components. This strategy can endow tannin-immobilized composites with efficient manufacturing properties, high strength, good stability, easy chelating/coordinating ability, excellent antibacterial property, biological compatibility, bioactivity, chemical/corrosion resistance, and strong adhesive performance, which significantly expand their application in various fields. In this review, initially we summarize the design strategy of tannin-immobilized composites, mainly concentrating on the choice of immobilized substrate (e.g., natural polymers, synthetic polymers, and inorganic materials) as well as the binding interaction (e.g., Mannich reaction, Schiff base reaction, graft copolymerization, oxidation coupling, electrostatic interaction, and hydrogen bonding) between them. Further, the application of tannin-immobilized composites in the biomedical (tissue engineering, wound healing, cancer therapy, and biosensors) and other (leather materials, environmental remediation, and functional food packaging) fields is highlighted. Finally, we conclude with some thoughts on the open challenges and future perspectives of tannin composites. It can be anticipated that tannin-immobilized composites will continuously draw attention from more and more researchers, and further promising applications of tannin composites will be explored.

27 May 2014 in Journal of Peptide Science
Verified
Journal Article
Closed access
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EHEri Hara
Eri Hara
MUMotoki Ueda
Motoki Ueda
CKCheol Joo Kim
Cheol Joo Kim
AMAkira Makino
Akira Makino
IHIsao Hara
Isao Hara
SKShunsaku Kimura
Shunsaku Kimura

17 January 2014 in Langmuir
Verified
Journal Article
Closed access
AUAkihiro Uesaka
Akihiro Uesaka
MUMotoki Ueda
Motoki Ueda
AMAkira Makino
Akira Makino
TITomoya Imai
Tomoya Imai
JSJunji Sugiyama
Junji Sugiyama
SKShunsaku Kimura
Shunsaku Kimura