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Bota et al code

Yasunorihayashi — Wed, 06 May 2026 08:59:05 GMT

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	==MatLab Script==		==MatLab Script==
	*~~Test~~ [[http://glutamate.med.kyoto-u.ac.jp/Bota_et_al_code/~~test~~.~~txt~~]]		*ACC_create_singlelap_ratemaps [http://glutamate.med.kyoto-u.ac.jp/e/Bota_et_al_code/ACC_create_singlelap_ratemaps.m]
			*ACCandHPCTSNE [http://glutamate.med.kyoto-u.ac.jp/e/Bota_et_al_code/ACCandHPCTSNE.m]
			*ACCTSNE [http://glutamate.med.kyoto-u.ac.jp/e/Bota_et_al_code/ACCTSNE.m]
			*AnimalHeadingCode [http://glutamate.med.kyoto-u.ac.jp/e/Bota_et_al_code/AnimalHeadingCode.m]
			*ca_imag_to_ratemap_v3_directional [http://glutamate.med.kyoto-u.ac.jp/e/Bota_et_al_code/ca_imag_to_ratemap_v3_directional.m]
			*ContextDecodingSCcells [http://glutamate.med.kyoto-u.ac.jp/e/Bota_et_al_code/ContextDecodingSCcells.m]
			*create_cell_labels_new_version_basic_hpcacc [http://glutamate.med.kyoto-u.ac.jp/e/Bota_et_al_code/create_cell_labels_new_version_basic_hpcacc.m]
			*FractionofEnvironmentSCPCHPC [http://glutamate.med.kyoto-u.ac.jp/e/Bota_et_al_code/FractionofEnvironmentSCPCHPC.m]
			*OFmapswithzerooccupancy [http://glutamate.med.kyoto-u.ac.jp/e/Bota_et_al_code/OFmapswithzerooccupancy.m]
			*PositionDecoder [http://glutamate.med.kyoto-u.ac.jp/e/Bota_et_al_code/PositionDecoder.m]
			*SCCellMaps [http://glutamate.med.kyoto-u.ac.jp/e/Bota_et_al_code/SCCellMaps.m]
			*SynchronousFiringACCHPC [http://glutamate.med.kyoto-u.ac.jp/e/Bota_et_al_code/SynchronousFiringACCHPC.m]
			*SynchronousFiringACCHPCpermouse [http://glutamate.med.kyoto-u.ac.jp/e/Bota_et_al_code/SynchronousFiringACCHPCpermouse.m]
			*SynchronousFiringACCHPCpermouseShuffling [http://glutamate.med.kyoto-u.ac.jp/e/Bota_et_al_code/SynchronousFiringACCHPCpermouseShuffling.m]
			*ThreeContextDecoderSCcells [http://glutamate.med.kyoto-u.ac.jp/e/Bota_et_al_code/ThreeContextDecoderSCcells.m]

User:Steven Middleton

Yasunorihayashi — Tue, 05 May 2026 14:27:12 GMT

User account Steven Middleton was created by Yasunorihayashi

Bota et al code

Yasunorihayashi — Tue, 05 May 2026 13:36:42 GMT

← Older revision		Revision as of 13:36, 5 May 2026
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	==MatLab Script==		==MatLab Script==
	*Test [[http://glutamate.med.kyoto-u.ac.jp/Bota_et_al_code/~~text~~.txt]]		*Test [[http://glutamate.med.kyoto-u.ac.jp/Bota_et_al_code/test.txt]]

Bota et al code

Yasunorihayashi — Tue, 05 May 2026 13:35:57 GMT

Created page with "==MatLab Script== *Test http://glutamate.med.kyoto-u.ac.jp/Bota_et_al_code/text.txt"

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==MatLab Script==
*Test [[http://glutamate.med.kyoto-u.ac.jp/Bota_et_al_code/text.txt]]

Answering the mistery of memory

Yasunorihayashi — Mon, 13 Apr 2026 13:08:22 GMT

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	[[j:記憶の謎を解き明かす]]		[[j:記憶の謎を解き明かす]]
			[[file:Cajal Hippocampus.jpg\|thumbnail\|Original drawing of the hippocampus by Santiago Ramón y Cajal (Golgi staining).]]
			[[file:Thy1-hippocampus-merge.png\|thumbnail\|Mouse hippocampal section from a transgenic line expressing G-CaMP7 and DsRed2.]]
	In 1953, a young man who would later become known as patient H.M. underwent an experimental surgical procedure involving bilateral resection of the hippocampi as a treatment for intractable epilepsy. While the operation successfully alleviated his seizures, it resulted in a profound and unanticipated cognitive deficit. Although previously established memories remained largely intact, he was unable to form new declarative memories.		In 1953, a young man who would later become known as patient H.M. underwent an experimental surgical procedure involving bilateral resection of the hippocampi as a treatment for intractable epilepsy. While the operation successfully alleviated his seizures, it resulted in a profound and unanticipated cognitive deficit. Although previously established memories remained largely intact, he was unable to form new declarative memories.

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	* [[Projects#Molecular_Mechanisms_of_Structural_Plasticity_of_Dendritic_Spines\|Molecular Mechanisms of Structural Plasticity of Dendritic Spines]]		* [[Projects#Molecular_Mechanisms_of_Structural_Plasticity_of_Dendritic_Spines\|Molecular Mechanisms of Structural Plasticity of Dendritic Spines]]
	* [[Projects#Dynamic_Behavior_of_Cellular_Memory_Engram\|Dynamic Behavior of Cellular Memory Engram]]		* [[Projects#Dynamic_Behavior_of_Cellular_Memory_Engram\|Dynamic Behavior of Cellular Memory Engram]]

	~~Original drawing of the hippocampus by Santiago Ramón y Cajal (Golgi staining).~~

	~~Mouse hippocampal section from a transgenic line expressing G-CaMP7 and DsRed2.~~

	== Latest News ==		== Latest News ==

MediaWiki:Common.css

Yasunorihayashi — Mon, 13 Apr 2026 13:06:05 GMT

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	body.not-loggedin #ca-history {		body.not-loggedin #ca-history {
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Yasunorihayashi — Mon, 13 Apr 2026 13:03:06 GMT

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	* navigation		* navigation
	** mainpage\|~~mainpage-description~~		** mainpage\|Welcome to Hayashi Lab
	** Projects\|Projects		** Projects\|Projects
	** Publications\|Publications		** Publications\|Publications
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	** Contact\|Contact		** Contact\|Contact
	** Access\|Access		** Access\|Access
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File:Shinkansen N700 z15.jpg

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File:3 spines in one - time-25-360.mov

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Answering the mistery of memory

Yasunorihayashi — Mon, 13 Apr 2026 12:33:16 GMT

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	~~{{Language\|en=Answering the mistery of memory\|ja=~~記憶の謎を解き明かす}}		[[j:記憶の謎を解き明かす]]
	In 1953, a young man who would later become known as patient H.M. underwent an experimental surgical procedure involving bilateral resection of the hippocampi as a treatment for intractable epilepsy. While the operation successfully alleviated his seizures, it resulted in a profound and unanticipated cognitive deficit. Although previously established memories remained largely intact, he was unable to form new declarative memories.		In 1953, a young man who would later become known as patient H.M. underwent an experimental surgical procedure involving bilateral resection of the hippocampi as a treatment for intractable epilepsy. While the operation successfully alleviated his seizures, it resulted in a profound and unanticipated cognitive deficit. Although previously established memories remained largely intact, he was unable to form new declarative memories.

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	Our laboratory addresses this problem through an integrative, multi-scale approach spanning molecular, cellular, circuit, and behavioral levels:		Our laboratory addresses this problem through an integrative, multi-scale approach spanning molecular, cellular, circuit, and behavioral levels:

	Protein trafficking in long-term potentiation		* [[Projects#Protein_Trafficking_and_Long-term_Potentiation\|Protein trafficking in long-term potentiation]]
	~~Liquid–liquid~~ phase separation in synaptic plasticity		* [[Projects#Liquid-liquid_phase_separation_and_synaptic_plasticity\|Liquid-liquid phase separation and synaptic plasticity]]
	Molecular ~~mechanisms underlying structural plasticity~~ of ~~dendritic spines~~		* [[Projects#Molecular_Mechanisms_of_Structural_Plasticity_of_Dendritic_Spines\|Molecular Mechanisms of Structural Plasticity of Dendritic Spines]]
	Dynamic ~~properties~~ of ~~cellular memory engrams~~		* [[Projects#Dynamic_Behavior_of_Cellular_Memory_Engram\|Dynamic Behavior of Cellular Memory Engram]]

	Original drawing of the hippocampus by Santiago Ramón y Cajal (Golgi staining).		Original drawing of the hippocampus by Santiago Ramón y Cajal (Golgi staining).
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	== Latest News ==		== Latest News ==

	November 12, 2021: Work by Akihiro Goto published in Science. See “Erasing memory with light – understanding why sleep is necessary for memory.”<br>		* November 12, 2021: Work by Akihiro Goto published in Science. See “Erasing memory with light – understanding why sleep is necessary for memory.”<br>
	April 29, 2021: Work by Tomohisa Hosokawa and Pinwu Liu published in Nature Neuroscience. See “An oil–water relationship explains memory formation – a new protein segregation mechanism in the brain.”		* April 29, 2021: Work by Tomohisa Hosokawa and Pinwu Liu published in Nature Neuroscience. See “An oil–water relationship explains memory formation – a new protein segregation mechanism in the brain.”

Projects

Yasunorihayashi — Mon, 13 Apr 2026 04:41:25 GMT

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			[[j:プロジェクト]]
	[[File:LTP.png\|thumb\|LTP in hippocampal CA1 region. Unpublished data.]]		[[File:LTP.png\|thumb\|LTP in hippocampal CA1 region. Unpublished data.]]
	[[File:Ampa-trafficking.jpg\|thumb\|Activity-dependent synaptic translocation of AMPA receptor<ref name=ref1 />. AMPA receptors are visualized by GFP tagging.]]		[[File:Ampa-trafficking.jpg\|thumb\|Activity-dependent synaptic translocation of AMPA receptor<ref name=ref1 />. AMPA receptors are visualized by GFP tagging.]]

Publications

Yasunorihayashi — Mon, 13 Apr 2026 04:39:13 GMT

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	~~{{Language\|en=Publications\|ja=~~研究業績}}{{TOC limit\|2}}		[[j:研究業績]]{{TOC limit\|2}}
	==Original Publications==		==Original Publications==
	===2025===		===2025===

Answering the mistery of memory

Yasunorihayashi — Mon, 13 Apr 2026 04:29:11 GMT

← Older revision		Revision as of 04:29, 13 April 2026
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			{{Language\|en=Answering the mistery of memory\|ja=記憶の謎を解き明かす}}
	In 1953, a young man who would later become known as patient H.M. underwent an experimental surgical procedure involving bilateral resection of the hippocampi as a treatment for intractable epilepsy. While the operation successfully alleviated his seizures, it resulted in a profound and unanticipated cognitive deficit. Although previously established memories remained largely intact, he was unable to form new declarative memories.		In 1953, a young man who would later become known as patient H.M. underwent an experimental surgical procedure involving bilateral resection of the hippocampi as a treatment for intractable epilepsy. While the operation successfully alleviated his seizures, it resulted in a profound and unanticipated cognitive deficit. Although previously established memories remained largely intact, he was unable to form new declarative memories.

Publications

Yasunorihayashi — Mon, 13 Apr 2026 01:22:02 GMT

Original Publications

← Older revision		Revision as of 01:22, 13 April 2026
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	<ul>		<ul>
	<li>[[file:Saneyoshi_eNeuro_2025.pdf\|50px\|border\|right]]<pubmed>41249054</pubmed>		<li>[[file:Saneyoshi_eNeuro_2025.pdf\|50px\|border\|right]]<pubmed>41249054</pubmed>
	[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:~~qPeb~~-~~qHga9sC~~ Google Scholar]]</li>		[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:cB__R-XWw9UC Google Scholar]]</li>

	<li>[[file:Kuo_J_Neurosci_2025.pdf\|50px\|border\|right]]<pubmed>41102003</pubmed>		<li>[[file:Kuo_J_Neurosci_2025.pdf\|50px\|border\|right]]<pubmed>41102003</pubmed>
	[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:~~cB__R~~-~~XWw9UC~~ Google Scholar]]</li>		[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:qPeb-qHga9sC Google Scholar]]</li>

	<li>[[file:Liu_Neurosci_Res_2025.pdf\|50px\|border\|right]]<pubmed>40440255</pubmed>		<li>[[file:Liu_Neurosci_Res_2025.pdf\|50px\|border\|right]]<pubmed>40440255</pubmed>

File:Ghandour Nat Commun 2019.pdf

Yasunorihayashi — Mon, 13 Apr 2026 01:21:08 GMT

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Template:Language

Yasunorihayashi — Mon, 13 Apr 2026 01:03:44 GMT

Created page with "<div style="float:right; border:1px solid #ccc; padding:5px;"> [[:e:{{{en|}}}|English]] | [[:j:{{{ja|}}}|日本語]] </div>"

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[[:e:{{{en|}}}|English]] | [[:j:{{{ja|}}}|日本語]]
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Publications

Yasunorihayashi — Mon, 13 Apr 2026 01:03:16 GMT

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	{{TOC limit\|2}}		{{Language\|en=Publications\|ja=研究業績}}{{TOC limit\|2}}
	==Original Publications==		==Original Publications==
	===2025===		===2025===
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	[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:QaSi33NTfwYC Google Scholar]]</li>		[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:QaSi33NTfwYC Google Scholar]]</li>

	<li>[[~~file~~:Sato_Cell_Report_2020.pdf\|50px\|border\|right]]<pubmed>32640229</pubmed>		<li>[[File:Sato_Cell_Report_2020.pdf\|50px\|border\|right]]<pubmed>32640229</pubmed>
	[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:vVJNg6_NJEsC Google Scholar]]</li>		[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:vVJNg6_NJEsC Google Scholar]]</li>

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	* [http://orcid.org/0000-0002-7560-3004 ORCID]		* [http://orcid.org/0000-0002-7560-3004 ORCID]
	* [http://www.researcherid.com/rid/C-2249-2008 Researcher ID ]		* [http://www.researcherid.com/rid/C-2249-2008 Researcher ID ]

	~~[[ja:これまでの論文]]~~

	~~Reviews, Book Chapter, Commentary~~

File:Sato Cell Rep 2020.pdf

Yasunorihayashi — Sun, 12 Apr 2026 16:04:32 GMT

Yasunorihayashi moved page File:Sato Cell Rep 2020.pdf to File:Sato Cell Report 2020.pdf

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== Summary ==
Importing file

File:Sato Mizuta Cell Rep 2020.pdf

Yasunorihayashi — Sun, 12 Apr 2026 16:04:15 GMT

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== Summary ==
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Publications

Yasunorihayashi — Sun, 12 Apr 2026 16:03:00 GMT

2020

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	[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:PVqtIyvKoSUC Google Scholar]]</li>		[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:PVqtIyvKoSUC Google Scholar]]</li>

	<li>[[~~file~~:~~Kastian_Cell_Rep_2021~~.pdf\|50px\|border\|right]]<pubmed>34010643</pubmed>		<li>[[File:Kastian Cell Report 2021.pdf\|50px\|border\|right]]<pubmed>34010643</pubmed>
	[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:as0KMg8qHbkC Google Scholar]]</li>		[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:as0KMg8qHbkC Google Scholar]]</li>

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	[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:QaSi33NTfwYC Google Scholar]]</li>		[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:QaSi33NTfwYC Google Scholar]]</li>

	<li>[[file:~~Sato_Cell_Rep_2020~~.pdf\|50px\|border\|right]]<pubmed>32640229</pubmed>		<li>[[file:Sato_Cell_Report_2020.pdf\|50px\|border\|right]]<pubmed>32640229</pubmed>
	[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:vVJNg6_NJEsC Google Scholar]]</li>		[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:vVJNg6_NJEsC Google Scholar]]</li>

File:Hosokawa Liu Nat Neurosci 2021.pdf

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== Summary ==
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File:Takamura Mizuta J Neurosci 2021.pdf

Yasunorihayashi — Sun, 12 Apr 2026 16:00:03 GMT

Yasunorihayashi moved page File:Takamura Mizuta J Neurosci 2021.pdf to File:Takamura J Neurosci 2021.pdf

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== Summary ==
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File:Ripoli Sci Adv 2023.pdf

Yasunorihayashi — Sun, 12 Apr 2026 15:56:58 GMT

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Publications

Yasunorihayashi — Sun, 12 Apr 2026 15:55:27 GMT

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	===2023===		===2023===
	<ul>		<ul>
	<li>[[~~file~~:Ripoli_Sci_Adv_2023.pdf\|50px\|border\|right]]<pubmed>37967196</pubmed>		<li>[[File:Ripoli_Sci_Adv_2023.pdf\|50px\|border\|right]]<pubmed>37967196</pubmed>
	[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:gV6rEsy15s0C Google Scholar]]</li>		[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:gV6rEsy15s0C Google Scholar]]</li>
	</ul>		</ul>
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	===2022===		===2022===
	<ul>		<ul>
	<li>[[~~file~~:~~Ozden_Cell_Rep_2022~~.pdf\|50px\|border\|right]]<pubmed>35830796</pubmed>		<li>[[File:Ozden Cell Rep 2022.pdf\|50px\|border\|right]]<pubmed>35830796</pubmed>
	[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:lK9BDNCuzFgC Google Scholar]]</li>		[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:lK9BDNCuzFgC Google Scholar]]</li>
	</ul>		</ul>

File:Özden Cell Rep 2022.pdf

Yasunorihayashi — Sun, 12 Apr 2026 15:51:22 GMT

Yasunorihayashi moved page File:Özden Cell Rep 2022.pdf to File:Ozden Cell Rep 2022.pdf

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== Summary ==
Importing file

Test

Yasunorihayashi — Sun, 12 Apr 2026 15:29:04 GMT

2025

Show changes

Publications

Yasunorihayashi — Sun, 12 Apr 2026 15:08:19 GMT

Original Publications

← Older revision		Revision as of 15:08, 12 April 2026
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	===2024===		===2024===
	<ul>		<ul>
	<li>[[~~file~~:Kaizuka_PLoS_Biol_2024.pdf\|50px\|border\|right]]<pubmed>38452102</pubmed>		<li>[[File:Kaizuka_PLoS_Biol_2024.pdf\|50px\|border\|right]]<pubmed>38452102</pubmed>
	[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:rqnDXT1GswoC Google Scholar]]</li>		[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:rqnDXT1GswoC Google Scholar]]</li>
	</ul>		</ul>

File:Kaizuka PLoS Biology 2024.pdf

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Yasunorihayashi moved page File:Kaizuka PLoS Biology 2024.pdf to File:Kaizuka PLoS Biol 2024.pdf

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== Summary ==
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Publications

Yasunorihayashi — Sun, 12 Apr 2026 15:02:36 GMT

Original Publications

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	===2025===		===2025===
	<ul>		<ul>
	<li>[[file:Saneyoshi_eNeuro_2025.pdf\|50px\|border\|right]]<pubmed>41249054 </pubmed></li>		<li>[[file:Saneyoshi_eNeuro_2025.pdf\|50px\|border\|right]]<pubmed>41249054</pubmed>
	<li>[[file:Kuo_J_Neurosci_2025.pdf\|50px\|border\|right]]<pubmed> 41102003 </pubmed></li>		[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:qPeb-qHga9sC Google Scholar]]</li>
	<li>[[file:Liu_Neurosci_Res_2025.pdf\|50px\|border\|right]]<pubmed> 40440255 </pubmed></li>
	<li>[[file:Vikas_Cell_Rep_2025.pdf\|50px\|border\|right]]<pubmed> 40199325 </pubmed></li>		<li>[[file:Kuo_J_Neurosci_2025.pdf\|50px\|border\|right]]<pubmed>41102003</pubmed>
			[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:cB__R-XWw9UC Google Scholar]]</li>

			<li>[[file:Liu_Neurosci_Res_2025.pdf\|50px\|border\|right]]<pubmed>40440255</pubmed>
			[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:d4tt_xEv1X8C Google Scholar]]</li>

			<li>[[file:Vikas_Cell_Rep_2025.pdf\|50px\|border\|right]]<pubmed>40199325</pubmed>
			[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:yJjnfzR0HrkC Google Scholar]]</li>
	</ul>		</ul>

	===2024===		===2024===
	<ul>		<ul>
	<li>[[file:Kaizuka_PLoS_Biol_2024.pdf\|50px\|border\|right]]<pubmed>38452102</pubmed></li>		<li>[[file:Kaizuka_PLoS_Biol_2024.pdf\|50px\|border\|right]]<pubmed>38452102</pubmed>
			[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:rqnDXT1GswoC Google Scholar]]</li>
	</ul>		</ul>

	===2023===		===2023===
	<ul>		<ul>
	<li>[[file:Ripoli_Sci_Adv_2023.pdf\|50px\|border\|right]]<pubmed>37967196</pubmed>[Google Scholar]</li>		<li>[[file:Ripoli_Sci_Adv_2023.pdf\|50px\|border\|right]]<pubmed>37967196</pubmed>
			[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:gV6rEsy15s0C Google Scholar]]</li>
	</ul>		</ul>

	===2022===		===2022===
	<ul>		<ul>
	<li>[[file:Ozden_Cell_Rep_2022.pdf\|50px\|border\|right]]<pubmed>35830796</pubmed>[Google Scholar]</li>		<li>[[file:Ozden_Cell_Rep_2022.pdf\|50px\|border\|right]]<pubmed>35830796</pubmed>
			[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:lK9BDNCuzFgC Google Scholar]]</li>
	</ul>		</ul>

	===2021===		===2021===
	<ul>		<ul>
	<li>[[file:Goto_Science_2021.pdf\|50px\|border\|right]]<pubmed>34762472</pubmed>[Google Scholar]</li>		<li>[[file:Goto_Science_2021.pdf\|50px\|border\|right]]<pubmed>34762472</pubmed>
	<li>[[file:Cid_Cell_Rep_2021.pdf\|50px\|border\|right]]<pubmed>34107264</pubmed>[Google Scholar]</li>		[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:bXQfdp6S9ecC Google Scholar]]</li>
	<li>[[file:Takamura_J_Neurosci_2021.pdf\|50px\|border\|right]]<pubmed>33980545</pubmed>[Google Scholar]</li>
	<li>[[file:Hosokawa_Nat_Neurosci_2021.pdf\|50px\|border\|right]]<pubmed>33927400</pubmed>[Google Scholar]</li>		<li>[[file:Cid_Cell_Rep_2021.pdf\|50px\|border\|right]]<pubmed>34107264</pubmed>
	<li>[[file:Kastian_Cell_Rep_2021.pdf\|50px\|border\|right]]<pubmed>34010643</pubmed>[Google Scholar]</li>		[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:Ej9njvOgR2oC Google Scholar]]</li>
	<li>[[file:Mizuta_Hippocampus_2021.pdf\|50px\|border\|right]]<pubmed>33452849</pubmed>[Google Scholar]</li>
			<li>[[file:Takamura_J_Neurosci_2021.pdf\|50px\|border\|right]]<pubmed>33980545</pubmed>
			[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:X4-KO54GjGYC Google Scholar]]</li>

			<li>[[file:Hosokawa_Nat_Neurosci_2021.pdf\|50px\|border\|right]]<pubmed>33927400</pubmed>
			[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:PVqtIyvKoSUC Google Scholar]]</li>

			<li>[[file:Kastian_Cell_Rep_2021.pdf\|50px\|border\|right]]<pubmed>34010643</pubmed>
			[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:as0KMg8qHbkC Google Scholar]]</li>

			<li>[[file:Mizuta_Hippocampus_2021.pdf\|50px\|border\|right]]<pubmed>33452849</pubmed>
			[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:sbeIDTyQOFgC Google Scholar]]</li>
	</ul>		</ul>

	===2020===		===2020===
	<ul>		<ul>
	<li>[[file:Eriksen_FEBS_J_2020.pdf\|50px\|border\|right]]<pubmed>33175445</pubmed>[Google Scholar]</li>		<li>[[file:Eriksen_FEBS_J_2020.pdf\|50px\|border\|right]]<pubmed>33175445</pubmed>
	<li>[[file:Sato_Cell_Rep_2020.pdf\|50px\|border\|right]]<pubmed>32640229</pubmed>[Google Scholar]</li>		[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:QaSi33NTfwYC Google Scholar]]</li>
	<li>[[file:Luchetti_J_Neurosci_2020.pdf\|50px\|border\|right]]<pubmed>32414785</pubmed>[Google Scholar]</li>
	<li>[[file:Cai_Structure_2020.pdf\|50px\|border\|right]]<pubmed>31879129</pubmed>[Google Scholar]</li>		<li>[[file:Sato_Cell_Rep_2020.pdf\|50px\|border\|right]]<pubmed>32640229</pubmed>
			[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:vVJNg6_NJEsC Google Scholar]]</li>

			<li>[[file:Luchetti_J_Neurosci_2020.pdf\|50px\|border\|right]]<pubmed>32414785</pubmed>
			[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:TGkaJS32XoUC Google Scholar]]</li>

			<li>[[file:Cai_Structure_2020.pdf\|50px\|border\|right]]<pubmed>31879129</pubmed>
			[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:6ZzL7HXColQC Google Scholar]]</li>
	</ul>		</ul>

	===2019===		===2019===
	<ul>		<ul>
	<li>[[file:Kojima_Neurobiol_Learn_Mem_2019.pdf\|50px\|border\|right]]<pubmed>31445077</pubmed>[Google Scholar]</li>		<li>[[file:Kojima_Neurobiol_Learn_Mem_2019.pdf\|50px\|border\|right]]<pubmed>31445077</pubmed>
	<li>[[file:Saneyoshi_Neuron_2019.pdf\|50px\|border\|right]]<pubmed>31078368</pubmed>[Google Scholar]</li>		[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:kUhpeDhEZMUC Google Scholar]]</li>
	<li>[[file:Ghandour_Nat_Commun_2019.pdf\|50px\|border\|right]]<pubmed>31201332</pubmed>[Google Scholar]</li>
	<li>[[file:Kobayashi_Sci_Rep_2019.pdf\|50px\|border\|right]]<pubmed>31182818</pubmed>[Google Scholar]</li>		<li>[[file:Saneyoshi_Neuron_2019.pdf\|50px\|border\|right]]<pubmed>31078368</pubmed>
			[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:bVQMTfhMCi4C Google Scholar]]</li>

			<li>[[file:Ghandour_Nat_Commun_2019.pdf\|50px\|border\|right]]<pubmed>31201332</pubmed>
			[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:QoJ_w57xiyAC Google Scholar]]</li>

			<li>[[file:Kobayashi_Sci_Rep_2019.pdf\|50px\|border\|right]]<pubmed>31182818</pubmed>
			[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:1r-w4gtu6w8C Google Scholar]]</li>

	<li>[[File:Kim_Neurobiol_Learn_Mem_2019.pdf\|50px\|border\|right]]<pubmed>30528771</pubmed>		<li>[[File:Kim_Neurobiol_Learn_Mem_2019.pdf\|50px\|border\|right]]<pubmed>30528771</pubmed>
	[[https://scholar.google.~~com~~/citations?view_op=view_citation&hl=de&user=jK4VsLQAAAAJ~~&sortby=pubdate~~&citation_for_view=jK4VsLQAAAAJ:BmWJbWwHJAwC Google Scholar]]		[[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:BmWJbWwHJAwC Google Scholar]]</li>
	</li>
	</ul>		</ul>
	===2018===		===2018===

Test

Yasunorihayashi — Sun, 12 Apr 2026 14:57:45 GMT

← Older revision		Revision as of 14:57, 12 April 2026
Line 1:		Line 1:
	[[~~File~~:~~3 spines in one~~ - ~~time~~-25-~~360~~.~~mov~~\|~~thumb~~\|~~movie test~~]]		===2025===
			<ul>
			<li>[[file:Saneyoshi_eNeuro_2025.pdf\|50px\|border\|right]]<pubmed>41249054</pubmed>
			[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:qPeb-qHga9sC Google Scholar]</li>

			<li>[[file:Kuo_J_Neurosci_2025.pdf\|50px\|border\|right]]<pubmed>41102003</pubmed>
			[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:cB__R-XWw9UC Google Scholar]</li>

			<li>[[file:Liu_Neurosci_Res_2025.pdf\|50px\|border\|right]]<pubmed>40440255</pubmed>
			[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:d4tt_xEv1X8C Google Scholar]</li>

			<li>[[file:Vikas_Cell_Rep_2025.pdf\|50px\|border\|right]]<pubmed>40199325</pubmed>
			[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:yJjnfzR0HrkC Google Scholar]</li>
			</ul>

			===2024===
			<ul>
			<li>[[file:Kaizuka_PLoS_Biol_2024.pdf\|50px\|border\|right]]<pubmed>38452102</pubmed>
			[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:rqnDXT1GswoC Google Scholar]</li>
			</ul>

			===2023===
			<ul>
			<li>[[file:Ripoli_Sci_Adv_2023.pdf\|50px\|border\|right]]<pubmed>37967196</pubmed>
			[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:gV6rEsy15s0C Google Scholar]</li>
			</ul>

			===2022===
			<ul>
			<li>[[file:Ozden_Cell_Rep_2022.pdf\|50px\|border\|right]]<pubmed>35830796</pubmed>
			[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:lK9BDNCuzFgC Google Scholar]</li>
			</ul>

			===2021===
			<ul>
			<li>[[file:Goto_Science_2021.pdf\|50px\|border\|right]]<pubmed>34762472</pubmed>
			[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:bXQfdp6S9ecC Google Scholar]</li>

			<li>[[file:Cid_Cell_Rep_2021.pdf\|50px\|border\|right]]<pubmed>34107264</pubmed>
			[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:Ej9njvOgR2oC Google Scholar]</li>

			<li>[[file:Takamura_J_Neurosci_2021.pdf\|50px\|border\|right]]<pubmed>33980545</pubmed>
			[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:X4-KO54GjGYC Google Scholar]</li>

			<li>[[file:Hosokawa_Nat_Neurosci_2021.pdf\|50px\|border\|right]]<pubmed>33927400</pubmed>
			[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:PVqtIyvKoSUC Google Scholar]</li>

			<li>[[file:Kastian_Cell_Rep_2021.pdf\|50px\|border\|right]]<pubmed>34010643</pubmed>
			[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:as0KMg8qHbkC Google Scholar]</li>

			<li>[[file:Mizuta_Hippocampus_2021.pdf\|50px\|border\|right]]<pubmed>33452849</pubmed>
			[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:sbeIDTyQOFgC Google Scholar]</li>
			</ul>

			===2020===
			<ul>
			<li>[[file:Eriksen_FEBS_J_2020.pdf\|50px\|border\|right]]<pubmed>33175445</pubmed>
			[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:QaSi33NTfwYC Google Scholar]</li>

			<li>[[file:Sato_Cell_Rep_2020.pdf\|50px\|border\|right]]<pubmed>32640229</pubmed>
			[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:vVJNg6_NJEsC Google Scholar]</li>

			<li>[[file:Luchetti_J_Neurosci_2020.pdf\|50px\|border\|right]]<pubmed>32414785</pubmed>
			[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:TGkaJS32XoUC Google Scholar]</li>

			<li>[[file:Cai_Structure_2020.pdf\|50px\|border\|right]]<pubmed>31879129</pubmed>
			[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:6ZzL7HXColQC Google Scholar]</li>
			</ul>

			===2019===
			<ul>
			<li>[[file:Kojima_Neurobiol_Learn_Mem_2019.pdf\|50px\|border\|right]]<pubmed>31445077</pubmed>
			[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:kUhpeDhEZMUC Google Scholar]</li>

			<li>[[file:Saneyoshi_Neuron_2019.pdf\|50px\|border\|right]]<pubmed>31078368</pubmed>
			[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:bVQMTfhMCi4C Google Scholar]</li>

			<li>[[file:Ghandour_Nat_Commun_2019.pdf\|50px\|border\|right]]<pubmed>31201332</pubmed>
			[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:QoJ_w57xiyAC Google Scholar]</li>

			<li>[[file:Kobayashi_Sci_Rep_2019.pdf\|50px\|border\|right]]<pubmed>31182818</pubmed>
			[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:1r-w4gtu6w8C Google Scholar]</li>

			<li>[[File:Kim_Neurobiol_Learn_Mem_2019.pdf\|50px\|border\|right]]<pubmed>30528771</pubmed>
			[https://scholar.google.co.jp/citations?view_op=view_citation&hl=ja&user=jK4VsLQAAAAJ&citation_for_view=jK4VsLQAAAAJ:BmWJbWwHJAwC Google Scholar]</li>
			</ul>

Publications

Yasunorihayashi — Sun, 12 Apr 2026 14:32:18 GMT

Original Publications

← Older revision		Revision as of 14:32, 12 April 2026
Line 6:		Line 6:
	<li>[[file:Kuo_J_Neurosci_2025.pdf\|50px\|border\|right]]<pubmed> 41102003 </pubmed></li>		<li>[[file:Kuo_J_Neurosci_2025.pdf\|50px\|border\|right]]<pubmed> 41102003 </pubmed></li>
	<li>[[file:Liu_Neurosci_Res_2025.pdf\|50px\|border\|right]]<pubmed> 40440255 </pubmed></li>		<li>[[file:Liu_Neurosci_Res_2025.pdf\|50px\|border\|right]]<pubmed> 40440255 </pubmed></li>
	<li>[[file:~~Vikas Cell Rep 2025~~.pdf\|50px\|border\|right]]<pubmed> 40199325 </pubmed></li>		<li>[[file:Vikas_Cell_Rep_2025.pdf\|50px\|border\|right]]<pubmed> 40199325 </pubmed></li>
	</ul>		</ul>

	=== 2024 ===		===2024===
	<ul>		<ul>
	<li><~~PubMed~~>38452102</~~PubMed~~></li>		<li>[[file:Kaizuka_PLoS_Biol_2024.pdf\|50px\|border\|right]]<pubmed>38452102</pubmed></li>
	</ul>		</ul>

	===2023===		===2023===
	<ul>		<ul>
	<li><pubmed>37967196</pubmed>[Google Scholar]</li>		<li>[[file:Ripoli_Sci_Adv_2023.pdf\|50px\|border\|right]]<pubmed>37967196</pubmed>[Google Scholar]</li>
	</ul>		</ul>

	===2022===		===2022===
	<ul>		<ul>
	<li><pubmed>35830796</pubmed>[Google Scholar]</li>		<li>[[file:Ozden_Cell_Rep_2022.pdf\|50px\|border\|right]]<pubmed>35830796</pubmed>[Google Scholar]</li>
	</ul>		</ul>

	===2021===		===2021===
	<ul>		<ul>
	<li><pubmed>34762472</pubmed>[Google Scholar]</li>		<li>[[file:Goto_Science_2021.pdf\|50px\|border\|right]]<pubmed>34762472</pubmed>[Google Scholar]</li>
	<li><pubmed>34107264</pubmed>[Google Scholar]</li>		<li>[[file:Cid_Cell_Rep_2021.pdf\|50px\|border\|right]]<pubmed>34107264</pubmed>[Google Scholar]</li>
	<li><pubmed>33980545</pubmed>[Google Scholar]</li>		<li>[[file:Takamura_J_Neurosci_2021.pdf\|50px\|border\|right]]<pubmed>33980545</pubmed>[Google Scholar]</li>
	<li><pubmed>33927400</pubmed>[Google Scholar]</li>		<li>[[file:Hosokawa_Nat_Neurosci_2021.pdf\|50px\|border\|right]]<pubmed>33927400</pubmed>[Google Scholar]</li>
	<li><pubmed>34010643</pubmed>[Google Scholar]</li>		<li>[[file:Kastian_Cell_Rep_2021.pdf\|50px\|border\|right]]<pubmed>34010643</pubmed>[Google Scholar]</li>
	<li><pubmed>33452849</pubmed>[Google Scholar]</li>		<li>[[file:Mizuta_Hippocampus_2021.pdf\|50px\|border\|right]]<pubmed>33452849</pubmed>[Google Scholar]</li>
	</ul>		</ul>

	===2020===		===2020===
	<ul>		<ul>
	<li><pubmed>33175445</pubmed>[Google Scholar]</li>		<li>[[file:Eriksen_FEBS_J_2020.pdf\|50px\|border\|right]]<pubmed>33175445</pubmed>[Google Scholar]</li>
	<li><pubmed>32640229</pubmed>[Google Scholar]</li>		<li>[[file:Sato_Cell_Rep_2020.pdf\|50px\|border\|right]]<pubmed>32640229</pubmed>[Google Scholar]</li>
	<li><pubmed>32414785</pubmed>[Google Scholar]</li>		<li>[[file:Luchetti_J_Neurosci_2020.pdf\|50px\|border\|right]]<pubmed>32414785</pubmed>[Google Scholar]</li>
	<li><pubmed>31879129</pubmed>[Google Scholar]</li>		<li>[[file:Cai_Structure_2020.pdf\|50px\|border\|right]]<pubmed>31879129</pubmed>[Google Scholar]</li>
	</ul>		</ul>

	===2019===		===2019===
	<ul>		<ul>
	<li><pubmed>31445077</pubmed>[Google Scholar]</li>		<li>[[file:Kojima_Neurobiol_Learn_Mem_2019.pdf\|50px\|border\|right]]<pubmed>31445077</pubmed>[Google Scholar]</li>
	<li><pubmed>31078368</pubmed>[Google Scholar]</li>		<li>[[file:Saneyoshi_Neuron_2019.pdf\|50px\|border\|right]]<pubmed>31078368</pubmed>[Google Scholar]</li>
	<li><pubmed>31201332</pubmed>[Google Scholar]</li>		<li>[[file:Ghandour_Nat_Commun_2019.pdf\|50px\|border\|right]]<pubmed>31201332</pubmed>[Google Scholar]</li>
	<li><pubmed>31182818</pubmed>[Google Scholar]</li>		<li>[[file:Kobayashi_Sci_Rep_2019.pdf\|50px\|border\|right]]<pubmed>31182818</pubmed>[Google Scholar]</li>
	<li>[[File:~~Kim Neurobiol Learn Mem~~.pdf\|50px\|border\|right]]<pubmed> 30528771 </pubmed>		<li>[[File:Kim_Neurobiol_Learn_Mem_2019.pdf\|50px\|border\|right]]<pubmed>30528771</pubmed>
	[[https://scholar.google.com/citations?view_op=view_citation&hl=de&user=jK4VsLQAAAAJ&sortby=pubdate&citation_for_view=jK4VsLQAAAAJ:BmWJbWwHJAwC Google Scholar]]		[[https://scholar.google.com/citations?view_op=view_citation&hl=de&user=jK4VsLQAAAAJ&sortby=pubdate&citation_for_view=jK4VsLQAAAAJ:BmWJbWwHJAwC Google Scholar]]
	</li>		</li>

Yasunori Hayashi

Yasunorihayashi — Sun, 12 Apr 2026 14:17:53 GMT

Structural Framework of Postsynaptic Density

← Older revision		Revision as of 14:17, 12 April 2026
(7 intermediate revisions by the same user not shown)
Line 21:		Line 21:

	=== Regulation of Adrenal Tyrosine Hydroxylase under Hypoxic Condition ===		=== Regulation of Adrenal Tyrosine Hydroxylase under Hypoxic Condition ===
	The catecholamines dopamine, noradrenaline, and adrenaline are synthesized through a biosynthetic pathway whose rate-limiting step is catalyzed by tyrosine hydroxylase, converting tyrosine to DOPA in the presence of oxygen. In the adrenal medulla, catecholamines are released in response to stress. We therefore investigated how catecholamine synthesis is regulated under hypoxic stress~~[1- 1]~~. We found that catecholamine synthesis decreases in the brain but increases in the adrenal glands. This differential regulation likely reflects an adaptive response to increased demand under hypoxic conditions. A key question is how synthesis is maintained despite reduced oxygen availability. Our results indicate that increased affinity of tyrosine hydroxylase for its substrate, along with elevated tissue levels of tyrosine, compensates for reduced oxygen. These findings provide insight into how neurons adapt to hypoxic conditions such as cerebral ischemia.		The catecholamines dopamine, noradrenaline, and adrenaline are synthesized through a biosynthetic pathway whose rate-limiting step is catalyzed by tyrosine hydroxylase, converting tyrosine to DOPA in the presence of oxygen. In the adrenal medulla, catecholamines are released in response to stress. We therefore investigated how catecholamine synthesis is regulated under hypoxic stress<ref group="group1"><pubmed>1968954</pubmed></ref>. We found that catecholamine synthesis decreases in the brain but increases in the adrenal glands. This differential regulation likely reflects an adaptive response to increased demand under hypoxic conditions. A key question is how synthesis is maintained despite reduced oxygen availability. Our results indicate that increased affinity of tyrosine hydroxylase for its substrate, along with elevated tissue levels of tyrosine, compensates for reduced oxygen. These findings provide insight into how neurons adapt to hypoxic conditions such as cerebral ischemia.

	~~# <pubmed>1968954~~</~~pubmed~~>		<references group="group1" />

	=== Cloning and Functional Analysis of Prostanoid Receptor ===		=== Cloning and Functional Analysis of Prostanoid Receptor ===
	Prostanoids include prostaglandins and other metabolites of arachidonic acid. Based on the partial amino acid sequence of the thromboxane A2 receptor protein purified in the Narumiya laboratory at Kyoto University, we cloned the full-length cDNA from a human placental cDNA library[2~~- 1][~~2~~- 2]~~. The receptor was functionally expressed in a Xenopus oocyte system. Using this sequence as a probe, we further identified and cloned additional receptor subtypes, including the EP3 subtype of the prostaglandin E2 receptor, contributing to their functional characterization[2~~- 3][2- 4][2- 5].~~		Prostanoids include prostaglandins and other metabolites of arachidonic acid. Based on the partial amino acid sequence of the thromboxane A2 receptor protein purified in the Narumiya laboratory at Kyoto University, we cloned the full-length cDNA from a human placental cDNA library<ref group="2"><pubmed>1825698</pubmed></ref><ref group="2"><pubmed>1375456</pubmed></ref>. The receptor was functionally expressed in a Xenopus oocyte system. Using this sequence as a probe, we further identified and cloned additional receptor subtypes, including the EP3 subtype of the prostaglandin E2 receptor, contributing to their functional characterization<ref group="2"><pubmed>8382086</pubmed></ref><ref group="2"><pubmed>1372606</pubmed></ref><ref group="2"><pubmed>8381413</pubmed></ref>.
			<references group="2" />
	# <pubmed>~~1825698~~</pubmed>

	# <~~pubmed~~>~~1375456~~<~~/pubmed~~>

	# <pubmed>~~8382086~~</pubmed>

	# <~~pubmed~~>~~1372606~~<~~/pubmed~~>

	# <pubmed>8381413</pubmed>

	=== Pharmacological Analyses of Metabotropic Glutamate Receptor ===		=== Pharmacological Analyses of Metabotropic Glutamate Receptor ===
	Metabotropic glutamate receptors (mGluRs) were first cloned in the Nakanishi laboratory, revealing a diverse family of structurally and functionally distinct receptors. Understanding the physiological roles of each subtype required subtype-specific pharmacological tools, which were not initially available. To address this, we established stable CHO cell lines expressing cloned mGluRs and performed pharmacological screening. We identified L-CCG-I and DCG-IV, both carboxycyclopropylglycine derivatives, as selective agonists for group II mGluRs[3~~- 1][~~3~~- 2]~~, and MCPG, a phenylglycine derivative, as an antagonist for group I and II mGluRs[3~~- 3][3- 4].~~		Metabotropic glutamate receptors (mGluRs) were first cloned in the Nakanishi laboratory, revealing a diverse family of structurally and functionally distinct receptors. Understanding the physiological roles of each subtype required subtype-specific pharmacological tools, which were not initially available. To address this, we established stable CHO cell lines expressing cloned mGluRs and performed pharmacological screening. We identified L-CCG-I and DCG-IV, both carboxycyclopropylglycine derivatives, as selective agonists for group II mGluRs<ref group="3"><pubmed>1330184</pubmed></ref><ref group="3"><pubmed>7903116</pubmed></ref>, and MCPG, a phenylglycine derivative, as an antagonist for group I and II mGluRs<ref group="3"><pubmed>8182479</pubmed></ref><ref group="3"><pubmed>8730745</pubmed></ref>.

	We then examined the role of mGluR2 in the accessory olfactory bulb. Mitral cells form reciprocal dendrodendritic synapses with granule cells, where glutamate release excites granule cells, and GABA release from granule cells inhibits mitral cells. Histological analysis revealed localization of mGluR2 on granule cells. Activation of mGluR2 by DCG-IV suppressed GABA release from granule cells, thereby reducing inhibition of mitral cells and enhancing their excitability[3~~- 2]. This mechanism likely contributes to lateral inhibition and improves the signal-to-noise ratio in olfactory processing~~.

	We ~~further investigated~~ mGluR2 ~~function~~ in ~~behavior using~~ the ~~Bruce effect~~, ~~in which female mice terminate pregnancy upon exposure to an unfamiliar male~~. Activation of mGluR2 ~~in the accessory olfactory bulb~~ by DCG-IV ~~affected memory formation associated with this behavior[~~3- ~~5]. These results suggest that mGluR2~~-~~mediated modulation of inhibitory circuits plays a key role~~ in olfactory ~~memory~~ processing.		We then examined the role of mGluR2 in the accessory olfactory bulb. Mitral cells form reciprocal dendrodendritic synapses with granule cells, where glutamate release excites granule cells, and GABA release from granule cells inhibits mitral cells. Histological analysis revealed localization of mGluR2 on granule cells. Activation of mGluR2 by DCG-IV suppressed GABA release from granule cells, thereby reducing inhibition of mitral cells and enhancing their excitability<ref group="3"><pubmed>7903116</pubmed></ref>. This mechanism likely contributes to lateral inhibition and improves the signal-to-noise ratio in olfactory processing.

	# <pubmed>~~1330184~~</pubmed>		We further investigated mGluR2 function in behavior using the Bruce effect, in which female mice terminate pregnancy upon exposure to an unfamiliar male. Activation of mGluR2 in the accessory olfactory bulb by DCG-IV affected memory formation associated with this behavior<ref group="3"><pubmed>8023145</pubmed></ref>. These results suggest that mGluR2-mediated modulation of inhibitory circuits plays a key role in olfactory memory processing.

	~~# <pubmed>7903116</pubmed>~~		<references group="3" />

	~~# <pubmed>8182479</pubmed>~~

	~~# <pubmed>8730745</pubmed>~~

	~~# <pubmed>8023145~~</~~pubmed~~>

	~~Model of Homer-Shank complex[4- 1]~~

	===Structural Framework of Postsynaptic Density===		===Structural Framework of Postsynaptic Density===
	The postsynaptic density (PSD) is an electron-dense structure located beneath excitatory synapses, yet the mechanisms underlying its structural organization have remained unclear. We found that long splice variants of Homer form tetramers via their coiled-coil domains and cross-link Shank proteins, thereby generating a mesh-like scaffold[4~~- 2][~~4~~- 1]~~. In contrast, short Homer isoforms are translated in an activity-dependent manner and function as dominant-negative regulators that disrupt this scaffold[4~~- 3]~~. This dynamic regulation provides a mechanism for homeostatic control of synaptic transmission[4~~- 4].~~		The postsynaptic density (PSD) is an electron-dense structure located beneath excitatory synapses, yet the mechanisms underlying its structural organization have remained unclear. We found that long splice variants of Homer form tetramers via their coiled-coil domains and cross-link Shank proteins, thereby generating a mesh-like scaffold<ref group="4"><pubmed>16914674</pubmed></ref><ref group="4"><pubmed>19345194</pubmed></ref>. In contrast, short Homer isoforms are translated in an activity-dependent manner and function as dominant-negative regulators that disrupt this scaffold<ref group="4"><pubmed>12867517</pubmed></ref>. This dynamic regulation provides a mechanism for homeostatic control of synaptic transmission<ref group="4"><pubmed>22351063</pubmed></ref>.
			<references group="4" />
	~~# <pubmed~~>~~19345194~~</pubmed>

	~~# <pubmed>16914674~~</pubmed>

	~~# <pubmed>12867517~~</~~pubmed~~>

	~~# <pubmed>22351063~~</~~pubmed~~>

	== Awards and Honors ==		== Awards and Honors ==