Glad to present our website! Please check https://t.co/rXGSZmtJfc. Thanks to all🤝🌹

🚨 New method alert! @ShanghaiTechUni researchers report a method to differentiate #hPSCs into 3D #NeuralOrganoids that resemble peripheral sympathetic ganglia, producing both neurons and glial cells of the ganglia in a self-organized manner: https://t.co/WsMWKN2v47

Online Now! Human PSC-derived organoids model sympathetic ganglion development and its functional crosstalk with the heart https://t.co/kj8tcCM5FL #stemcells

3/4 These models can facilitate future research into human sympathetic ganglia and cardiac innervation, encompassing studies on regulatory factors, risk factors, and potential interventions.

2/4 We also developed a system to reconstruct functional connections between the human sympathetic ganglion and the heart, and found that inter-tissue crosstalk promote the development of both human sympathetic and cardiac tissues.

1/4 In this study, we achieved self-organized and enriched production of human sympathetic lineages in 3D culture. Sympathetic neurons and satellite glial cells were generated robustly and exhibited long-term structural and functional development.

We are pleased to share our latest progress in human neural organoids, recently published in Cell Stem Cell @CellStemCell.

Looking forward to sharing our latest research progress at the conference.

ShanghaiTech University scientists describe the generation of 3D, neuromusculoskeletal tri-tissue #organoids from human #pluripotent stem cells through a co-development strategy. 🧫 🔗 Get the full story in @CellStemCell! https://t.co/yE1vpIjX30

Online Now! Generation of self-organized neuromusculoskeletal tri-tissue organoids from human pluripotent stem cells https://t.co/aAzJmmuINm #stemcells

Congratulations to my three PhD students (Yin Yao, Zhou Wei, and Zhu Jinkui). Thanks to all who have helped us in this process.

There is no need to separately differentiate and co-culture different lineages, which will facilitate future applications.

Excited to share that our recent research has been published in ⁦⁦⁦@CellStemCell⁩. This study has achieved simultaneous production and self-organized development of human neural, muscular and skeletal tissues within individual organoids.

I’m glad to share that our recent study on human SpV organoids has been featured on the cover of the October issue of @CellStemCell！

Wei Pang, Jinkui Zhu, and a team in the @Yangfei_Lab developed region-specific brain #organoids that recapitulate the development of the spinal trigeminal nucleus! 📌@CellStemCell: https://t.co/i5gDAZDEA4 🎧: https://t.co/lYVIeN5s58

Online Now! Generation of human region-specific brain organoids with medullary spinal trigeminal nuclei https://t.co/tbkekZwen1 #stemcells

Excited to share our latest research published in ⁦⁦⁦⁦@CellStemCell⁩ . In this study, we generated human brain organoids resembling the medullary spinal trigeminal nucleus and developed a model to study the trigeminothalamic connections.

Great to attend #CSOrganoids2024 in person to talk about our most recent research progress. Thanks @CellSymposia @CellStemCell @Dev_Cell for organizing this fantastic event. It’s always a honor to meet and chat with great scientists in the field.

Glad to share our latest work on ventralized human thalamic organoids ⁦@CellStemCell⁩. Congrats to ⁦@Kiral_Ridvan⁩ ⁦@bilal_cakirr⁩ ⁦@lab_tanaka⁩ ⁦@Inhyun_P⁩ and all who supported this.

Online Now! Generation of ventralized human thalamic organoids with thalamic reticular nucleus https://t.co/3i8yw5ypv6 #stemcells

Congrats to all👍