Ryuji Yokokawa

Professor

Kyoto University

Japan

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Ryuji Yokokawa is a Professor at Kyoto University in Japan. His research focuses on the development and application of microphysiological systems, particularly in the areas of kidney organoids, airway and alveolar models, and tissue engineering. Recent articles from Professor Yokokawa explore innovative methodologies for studying innate immune responses and renal transport functions using induced pluripotent stem cells.

Ryuji Yokokawa

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Articles (19)

Isogenic induced-pluripotent-stem-cell-derived airway- and alveolus-on-chip models reveal specific innate immune responses

Protocol to develop a proximal tubule-on-chip model based on hiPSC-derived kidney organoids for functional analysis of renal transporters

Vascular microphysiological systems (MPS): biologically relevant and potent models

Human iPSC-derived nephron progenitor cells treat acute kidney injury and chronic kidney disease in mouse models

Deciphering potential vascularization factors of on-chip co-cultured hiPSC-derived cerebral organoids

Online monitoring of epithelial barrier kinetics and cell detachment during cisplatin-induced toxicity of renal proximal tubule cells

Efficient proximal tubule-on-chip model from hiPSC-derived kidney organoids for functional analysis of renal transporters

Mimicking angiogenic microenvironment of alveolar soft-part sarcoma in a microfluidic coculture vasculature chip

Opto-combinatorial indexing enables high-content transcriptomics by linking cell images and transcriptomes

Pericytes and shear stress each alter the shape of a self-assembled vascular network

Cells sorted off hiPSC-derived kidney organoids coupled with immortalized cells reliably model the proximal tubule

Relationship between Adsorption and Toxicity of Nephrotoxic Drugs in Microphysiological Systems (MPS)

Long-term effect of sodium selenite on the integrity and permeability of on-chip microvasculature

Durability of Aligned Microtubules Dependent on Persistence Length Determines Phase Transition and Pattern Formation in Collective Motion

Three-dimensional tissue model in direct contact with an on-chip vascular bed enabled by removable membranes

Disposition of E-selectin-targeting liposomes in tumor spheroids with a perfusable vascular network

Growth rate-dependent flexural rigidity of microtubules influences pattern formation in collective motion

Targeted permeabilization of the cell wall and extraction of charged molecules from single cells in intact plant clusters using a focused electric field

A new perfusion culture method with a self-organized capillary network

Collaborators (7)

Kei Sugihara

Kazuya Fujimoto

Mio Iwasaki

Akiyoshi Uemura

Yuriko Higuchi

Fumiyoshi Yamashita

Surachada Chuaychob

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