ePoster

<SUB>​</SUB>DIFFERENTIATION OF HUMAN OLFACTORY MUCOSAL ECTOMESYNCHYMAL STEM CELLS INTO MOTOR NEURON SUBTYPES AFTER EX VIVO EXPANSION

Hatef Ghasemi Hamidabadiand 2 co-authors

Department of Anatomy, Faculty of Medicine, Mazandaran University of Medical Sciences

FENS Forum 2026 (2026)
Barcelona, Spain
Board PS03-08AM-657

Presentation

Date TBA

Board: PS03-08AM-657

Poster preview

<SUB>​</SUB>DIFFERENTIATION OF HUMAN OLFACTORY MUCOSAL ECTOMESYNCHYMAL STEM CELLS INTO MOTOR NEURON SUBTYPES AFTER EX VIVO EXPANSION poster preview

Event Information

Poster Board

PS03-08AM-657

Abstract

The Human Olfactory ecto-mesenchymsl stem cells (hOEMSCS) are regareded as a suitable source for neural revitalization studies due to comparitive accessibility. The current study aimed to induce differentiation of the hOEMSCS into functional motor neuron like cells MNLCS) using the neurosphere technique and promote neurodegeneration by stimulating local neurogenesis in the adult spinal cord slice culture.
The isolated cells were cultured in serum-free medium supplementedwith 2% B27 to stimulate the formation of floating neurospheres. To motor neuron induction, the neurospheres were induced in two steps first by Shh and RA and, then with GDNF and BDNF administration. Tbe functional properties of MNLCs were evaluated by examining synaptic vesicle release and calcium signaling using a co-culture system , FM1-43 dye staining, a d the calcium indicator FLUO-2. Statistical analysis was performed using SPSS software.
The olfactory-derived stem cells exhibited high expression levels of neural progenitor markers following neuroshere culture. Im.unocytochemistery findings confirmed the ChAT positive cells was ​observed at the end of the induction stage in the treated vroup. The functionality of MNLCs was xemonstrated by FM1-43, intracellular calcium ion shift
and co-culture with C2Cl2. We co-cultivaged hOEMSCS with adult rat organotype spinal cord slice culture in vitro.
The fingings proved the hOEMSCs, following proper isolation, can successfully diffefentiate into functional motor neurons under nereospbere culture conditions and in the presence of appropriate neurotrophic factors. Tbese cells may therefore relresent a promising candidate for neuronal tissue engineering and cell-based therapeutic approache.

Recommended posters

AN IN VITRO GLIAL SCAR MODEL TO ASSESS SURVIVAL AND INTERACTIONS OF SCHWANN-LIKE CELLS WITH NEURITES FOR NEURAL REGENERATION

Gabriela Reyes-Gutierrez, Nidia Jannette Carrillo-González, Gabriela Escobar-Camberos, Graciela Gudiño-Cabrera

HISTOLOGICAL AND ELECTROPHYSIOLOGICAL CHARACTERIZATION OF NEURAL-PRECONDITIONED HUMAN DENTAL PULP STEM CELLS AFTER THEIR GRAFT INTO C57BL/6J HIPPOCAMPUS

Beatriz Pardo Rodríguez, Irene Manero-Roig, Jone Salvador-Moya, Ruth Basanta-Torres, Daniel Martín-Aragón, Sandra Hernández-Sánchez, Jon Luzuriaga, Aurélie Lampin-Saint-Amaux, Frédéric Lanore, Fernando Unda, Gaskon Ibarretxe, José Ramón Pineda

APPLICATION OF PHYSIOLOGICAL COMPOUNDS TO DIFFERENTIATE WHARTON'S JELLY-DERIVED HUMAN MESENCHYMAL STEM/STROMAL CELLS INTO NEURAL LINEAGE

Weronika Maksymiuk, Justyna Gargas, Monika Rytel, Anna Sarnowska, Joanna Sypecka

SURVIVAL AND MATURATION OF HUMAN NEURONAL PROGENITOR CELLS IN HUMAN CORTICAL ORGANOTYPIC SLICE CULTURES

Rebeka Stelcz, Vera Deli, Katalin Zs. Tóth, Eszter Juhász, Orsolya Farkas, Hanga Dormán, Attila Bagó, Loránd Erőss, Boglárka Hajnal, István Ulbert, Ágota Apáti, Lucia Wittner

FUNCTIONAL CHARACTERIZATION AND ORGAN-ON-CHIP INTEGRATION OF HUMAN IPSC-DERIVED SYMPATHETIC NEURONS

Susanna Narkilahti, Oskari Kulta, Lotta Isosaari, Vilhelmiina Hännikäinen, Promise Emeh, Hanna Mäkelä, Siiri Sihvonen, Ahmed Majeed, Tanja Hyvärinen, Andrey Vinogradov

BIOENGINEERING THE NICHE: A BIOMIMETIC APPROACH TO MODEL HUMAN OLIGODENDROCYTE PHYSIOLOGY AND MYELINATION EX VIVO

Cristina Ulecia-Morón, Giorgio Scordo, Miguel Esteban-Lucía, Jenny Emnéus, Juan C. Leza, Marta P. Pereira

Cookies

We use essential cookies to run the site. Analytics cookies are optional and help us improve World Wide. Learn more.