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Kumamoto University


Molecular adlayer produced by dissolving water-insoluble nanographene in water

Researchers from Kumamoto University and Tokyo Institute of Technology developed a method to dissolve water-insoluble nanographene in water using molecular containers. The method successfully produced a highly ordered 2D molecular adlayer on a gold substrate, revealing its potential for next-generation functional nanomaterials.

SourceKumamoto University·JournalAngewandte Chemie International Edition·DateDec 5, 2018

Plant root hairs form outward due to shank hardening

Plant root hairs grow long by suppressing lateral cell expansion due to PI(3,5)P2 regulation. This allows for increased surface area absorption of water and nutrients from the soil. The discovery sheds light on plant cell morphogenesis and could lead to the development of more efficient nutrient-absorbing plants.

SourceKumamoto University·JournalNature Plants·DateNov 20, 2018

Reproducing pediatric kidney disease from human iPS cells

Researchers have successfully developed kidney tissue that exhibits the early stages of congenital kidney disease using iPS cells from a patient with a nephrin mutation. The study found that repairing the nephrin mutation can normalize abnormalities and may lead to the development of effective drugs for kidney disease.

SourceKumamoto University·JournalStem Cell Reports·DateOct 31, 2018

Assessing quantum dot photoemissions

Researchers at Kumamoto University developed a technique to assess quantum dot photoluminescence emission mechanisms using polyoxometalates. The study revealed previously unseen peak emissions at 410 nm due to bulk defects in the quantum dots.

SourceKumamoto University·JournalAdvanced Functional Materials·DateFeb 28, 2018

Ribosomes found to induce somatic cell pluripotency

A research team from Kumamoto University has discovered that ribosomes, the protein synthesizing organelle, can induce somatic cells to acquire pluripotency. This finding suggests a potential new approach for treating cancer and regenerating cells, as previously differentiated cells can be reprogrammed into multipotent stem cells.

SourceKumamoto University·JournalScientific Reports·DateFeb 4, 2018

Improving the sensitivity for ionic solutes analysis

Researchers from Kumamoto University developed a new electrodialytic ion transfer enrichment method to improve the sensitivity of analytical systems for various ionic solutes. This method enables fast and efficient detection in low-cost equipment, making it suitable for community health analysis in resource-limited areas.

SourceKumamoto University·JournalTalanta·DateJan 31, 2018

Bacterial infection stresses hematopoietic stem cells

Recent research reveals that bacterial infections activate hematopoietic stem cells in the bone marrow, inducing proliferation but also causing stress and reduced ability to produce blood. This finding suggests a link between bacterial infections and dysregulated hematopoiesis, highlighting potential prevention methods for blood diseases.

SourceKumamoto University·JournalCell Stem Cell·DateAug 23, 2017

Cheap and simple detection of neurotoxic chemicals

Researchers from Kumamoto University developed a novel electrochemical sensing technique for detecting neurotoxic agents, including Nereistoxin, which showed high sensitivity and specificity. The method uses gold electrodes with adsorbed NRT layers, achieving detection limits of 1-25 micro-grams per milliliter of human serum.

SourceKumamoto University·JournalAnalytical Chemistry·DateAug 1, 2017

Novel thermal ablation system for transdermal drug delivery

Researchers at Kumamoto University developed a photothermal ablation system to enhance transdermal delivery of protein-based drugs. The system, using gold nanorods and near-infrared light, increased skin permeability and successfully delivered proteins in both in vitro and in vivo experiments.

SourceKumamoto University·JournalEuropean Journal of Pharmaceutics and Biopharmaceutics·DateJul 26, 2017

Mitochondria targeting anti-tumor compound

A novel compound, FA-M-β-CyD, induces mitophagy-mediated antitumor activity by targeting FR-α-expressing tumor cells. It increases mitochondrial transmembrane potential and ROS production, leading to cancer cell death. The compound shows promise as an anticancer drug with minimal side effects.

SourceKumamoto University·JournalInternational Journal of Nanomedicine·DateJun 26, 2017

Epigenetic program leading to vessel differentiation

A collaborative research group found that histone code changes and a transcription factor group essential for blood vessel differentiation play key roles in vessel formation. They also discovered that the regulatory genomic region of the transcription factors has gradually switched from suppressing to activating transcription.

SourceKumamoto University·JournalNucleic Acids Research·DateMay 19, 2017