MesenCult™-ACF Plus Medium
Animal component-free medium for human mesenchymal stem cells
Required Products
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Animal Component-Free Cell Dissociation KitDissociation kit for human stem and progenitor cells
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L-GlutamineCell culture supplement
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D-PBS (Without Ca++ and Mg++)Dulbecco’s phosphate-buffered saline without calcium and magnesium
Overview
Reduce variability in your human mesenchymal stromal cell (MSC; also known as mesenchymal stem cell) cultures and improve experimental reproducibility by using this animal component-free (ACF) and extracellular vesicle (EV)-free medium. MesenCult™-ACF Plus Medium is optimized so you can derive human MSCs from multiple sources, such as bone marrow or adipose tissue, without serum.
Compared to serum-containing or EV-depleted serum-containing media, MSCs cultured with this kit expand more efficiently (rate and cumulative cell total) and without compromising function. The cultured cells exhibit characteristic MSC surface marker expression and retain robust expansion rate and trilineage differentiation capacities.
This kit is part of a complete ACF workflow—for deriving, expanding, and cryopreserving MSCs, as well as differentiating human pluripotent stem cells into mesenchymal progenitors—that is optimized for efficient and consistent MSC cultures.
For animal component-free and optimized cryopreservation, MesenCult™-ACF Freezing Medium (Catalog #05490) is recommended for human MSCs previously cultured in MesenCult™ media, including MesenCult™-ACF Plus. For a complete list of related products, including available differentiation media, explore our MSC area of interest page or contact us at techsupport@stemcell.com.
NOTE: Complete MesenCult™-ACF Plus Medium must be supplemented with L-Glutamine (Catalog #07100).
Compared to serum-containing or EV-depleted serum-containing media, MSCs cultured with this kit expand more efficiently (rate and cumulative cell total) and without compromising function. The cultured cells exhibit characteristic MSC surface marker expression and retain robust expansion rate and trilineage differentiation capacities.
This kit is part of a complete ACF workflow—for deriving, expanding, and cryopreserving MSCs, as well as differentiating human pluripotent stem cells into mesenchymal progenitors—that is optimized for efficient and consistent MSC cultures.
For animal component-free and optimized cryopreservation, MesenCult™-ACF Freezing Medium (Catalog #05490) is recommended for human MSCs previously cultured in MesenCult™ media, including MesenCult™-ACF Plus. For a complete list of related products, including available differentiation media, explore our MSC area of interest page or contact us at techsupport@stemcell.com.
NOTE: Complete MesenCult™-ACF Plus Medium must be supplemented with L-Glutamine (Catalog #07100).
Advantages
• Animal component-free formulation improves experimental reproducibility.
• Superior cell expansion compared to serum-containing media.
• Cultured MSCs retain robust expansion and tri-lineage differentiation capacities at early and late passages.
• Supports MSC derivation directly from primary human tissue.
• Superior cell expansion compared to serum-containing media.
• Cultured MSCs retain robust expansion and tri-lineage differentiation capacities at early and late passages.
• Supports MSC derivation directly from primary human tissue.
Components
MesenCult™-ACF Plus Medium Kit (Catalog #05445)
• MesenCult™-ACF Plus Medium, 500 mL
• MesenCult™-ACF Plus 500X Supplement, 1 mL
MesenCult™-ACF Plus Culture Kit (Catalog #05448)
• MesenCult™-ACF Plus Medium, 500 mL
• MesenCult™-ACF Plus 500X Supplement, 1 mL
• Animal Component-Free Cell Attachment Substrate, 1 mL
Subtype
Specialized Media
Cell Type
Mesenchymal Cells, PSC-Derived, Mesenchymal Stem and Progenitor Cells
Species
Human
Application
Cell Culture, Expansion, Maintenance
Brand
MesenCult
Area of Interest
Extracellular Vesicle Research, Stem Cell Biology
Formulation
Animal Component-Free, Serum-Free
Related Products
Related Products
Scientific Resources
Product Documentation
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Document Type
Product Information Sheet
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Product Name
MesenCult™-ACF Plus Culture Kit
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Catalog # 05448 |
Lot # All |
Language English |
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Document Type
Product Information Sheet
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Product Name
MesenCult™-ACF Plus Medium Kit
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Catalog # 05445 |
Lot # All |
Language English |
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Document Type
Safety Data Sheet
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Product Name
MesenCult™-ACF Plus Culture Kit
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Catalog # 05448 |
Lot # All |
Language English |
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Document Type
Safety Data Sheet 1
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Product Name
MesenCult™-ACF Plus Medium Kit
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Catalog # 05445 |
Lot # All |
Language English |
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Document Type
Safety Data Sheet 2
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Product Name
MesenCult™-ACF Plus Medium Kit
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Catalog # 05445 |
Lot # All |
Language English |
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Document Type
Safety Data Sheet 3
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Product Name
MesenCult™-ACF Plus Medium Kit
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Catalog # 05445 |
Lot # All |
Language English |
Educational Materials(12)
Brochure
Products for Your Mesenchymal Stromal Cell Research
Brochure
qPCR Arrays for Cell Characterization
Brochure
MesenCult™-ACF Plus
Technical Bulletin
Extracellular Vesicle Generation from Mesenchymal Stromal Cells Using MesenCult™-ACF Plus
Wallchart
SnapShot: Adipocyte Life Cycle
Wallchart
Mesenchymal Stromal Cell-Derived Exosomes: Biogenesis and Cargoes
Wallchart
The Identity and Properties of Mesenchymal Stem Cells
Video
1:51
MesenCult™ for Mesenchymal Stromal Cell Derivation, Culture & Differentiation
Video
13:45
Isolation of Umbilical Cord Mesenchymal Stromal Cells Using Explant Method
Webinar
58:00
The Secret In Vivo Life of "Mesenchymal Stem Cells"
Webinar
17:18
The Impact of Ancillary Materials on Your Translational Research
Mini Review
Mesenchymal Stromal Cells: Markers, Isolation and Culture, Differentiation, and Therapeutic Potential
Product Applications
This product is designed for use in the following research area(s) as part of the highlighted workflow stage(s). Explore these workflows to learn more about the other products we offer to support each research area.
Research Area
Workflow Stages
Workflow Stages for
Mesenchymal Stem and Progenitor Cell Research
Workflow Stages for
Mesenchymal Stromal Cell Therapy Research
Data and Publications
Data
Figure 1. CFU-F Assay of Human BM-Derived MSCs Expanded in MesenCult™-ACF Plus Medium and Commercial Media.
(A) An average of 45 CFU-Fs per million cells were observed when BM mononuclear cells were seeded in MesenCult™-ACF Plus (n = 4). An average of 47 and 25 CFU-Fs per million cells were observed when cells were seeded in Commercial Medium 1 (n = 3) and Medium 2 (n = 4), respectively. Vertical lines indicate Standard Error of Mean (SEM). Representative image of CFU-F colonies expanded in (B) MesenCult™-ACF Plus Medium (9 days of culture), (C) Commercial Medium 1 (10 days of culture) and (D) Commercial Medium 2 (10 days of culture). Commercial Medium 1 and Medium 2 were supplemented with 2.5% human AB serum to derive MSCs from BM, as per their protocols for derivation. No addition of serum is required when using MesenCult™-ACF Plus Medium.
Figure 2. Human BM-Derived MSCs Cultured in MesenCult™-ACF Plus Medium Expand Faster than MSCs Cultured in Commercial Xeno-Free and Serum-Free Media.
(A) A greater number of BM-derived MSCs were generated per passage using MesenCult™-ACF Plus Medium (n=4) compared to Commercial Medium 1 (n=3) and Commercial Medium 2 (n=2). (B) Rates of BM-derived MSC expansion were compared between MesenCult™-ACF Plus Medium, Commercial Medium 1, and Commercial Medium 2. The time required to double the number of MSCs using MesenCult™ -ACF Plus Medium (n=4) was shorter than when MSCs were cultured in Commercial Medium 1 (n=3) and Commercial Medium 2 (n=4). Vertical lines indicate Standard Error of Mean (SEM).
Figure 3. Human BM-Derived MSCs Expanded in MesenCult™-ACF Plus Medium Display Multi-Lineage Differentiation Potential.
(A) Human BM-derived MSCs expanded in MesenCult™-ACF Plus Medium differentiated into (B) adipocytes (Oil Red O staining; passage 5), (C) chondrocytes (Alcian Blue staining; passage 4) and (D) osteoblasts (Alizarin Red S staining; passage 5).
Figure 4. Flow Cytometric Analysis of MSCs Cultured in MesenCult™-ACF Plus Medium.
BM-derived MSCs were cultured and expanded in MesenCult™-ACF Plus Medium. At passage 8 MSCs were stained for mesenchymal surface markers (CD73, CD90, CD105,), pericyte marker (CD146) and hematopoietic marker (CD45). MSCs expressed high levels of CD73, CD90, CD105 and CD146 and lacked expression of CD45.
Publications (8)
Cell 2020 jun
CD81 Controls Beige Fat Progenitor Cell Growth and Energy Balance via FAK Signaling.
Abstract
Abstract
Adipose tissues dynamically remodel their cellular composition in response to external cues by stimulating beige adipocyte biogenesis; however, the developmental origin and pathways regulating this process remain insufficiently understood owing to adipose tissue heterogeneity. Here, we employed single-cell RNA-seq and identified a unique subset of adipocyte progenitor cells (APCs) that possessed the cell-intrinsic plasticity to give rise to beige fat. This beige APC population is proliferative and marked by cell-surface proteins, including PDGFR$\alpha$, Sca1, and CD81. Notably, CD81 is not only a beige APC marker but also required for de novo beige fat biogenesis following cold exposure. CD81 forms a complex with $\alpha$V/$\beta$1 and $\alpha$V/$\beta$5 integrins and mediates the activation of integrin-FAK signaling in response to irisin. Importantly, CD81 loss causes diet-induced obesity, insulin resistance, and adipose tissue inflammation. These results suggest that CD81 functions as a key sensor of external inputs and controls beige APC proliferation and whole-body energy homeostasis.
Leukemia 2020 jun
Despite mutation acquisition in hematopoietic stem cells, JMML-propagating cells are not always restricted to this compartment.
Abstract
Abstract
Juvenile myelomonocytic leukemia (JMML) is a rare aggressive myelodysplastic/myeloproliferative neoplasm of early childhood, initiated by RAS-activating mutations. Genomic analyses have recently described JMML mutational landscape; however, the nature of JMML-propagating cells (JMML-PCs) and the clonal architecture of the disease remained until now elusive. Combining genomic (exome, RNA-seq), Colony forming assay and xenograft studies, we detect the presence of JMML-PCs that faithfully reproduce JMML features including the complex/nonlinear organization of dominant/minor clones, both at diagnosis and relapse. Further integrated analysis also reveals that although the mutations are acquired in hematopoietic stem cells, JMML-PCs are not always restricted to this compartment, highlighting the heterogeneity of the disease during the initiation steps. We show that the hematopoietic stem/progenitor cell phenotype is globally maintained in JMML despite overexpression of CD90/THY-1 in a subset of patients. This study shed new lights into the ontogeny of JMML, and the identity of JMML-PCs, and provides robust models to monitor the disease and test novel therapeutic approaches.
Stem cells translational medicine 2020 jul
Precision installation of a highly efficient suicide gene safety switch in human induced pluripotent stem cells.
Abstract
Abstract
Human pluripotent stem cells including induced pluripotent stem cells (iPSCs) and embryonic stem cells hold great promise for cell-based therapies, but safety concerns that complicate consideration for routine clinical use remain. Installing a safety switch" based on the inducible caspase-9 (iCASP9) suicide gene system should offer added control over undesirable cell replication or activity. Previous studies utilized lentiviral vectors to integrate the iCASP9 system into T cells and iPSCs. This method results in random genomic insertion of the suicide switch and inefficient killing of the cells after the switch is "turned on" with a small molecule (eg AP1903). To improve the safety and efficiency of the iCASP9 system for use in iPSC-based therapy we precisely installed the system into a genomic safe harbor the AAVS1 locus in the PPP1R12C gene. We then evaluated the efficiencies of different promoters to drive iCASP9 expression in human iPSCs. We report that the commonly used EF1$\alpha$ promoter is silenced in iPSCs and that the endogenous promoter of the PPP1R12C gene is not strong enough to drive high levels of iCASP9 expression. However the CAG promoter induces strong and stable iCASP9 expression in iPSCs and activation of this system with AP1903 leads to rapid killing and complete elimination of iPSCs and their derivatives including MSCs and chondrocytes in vitro. Furthermore iPSC-derived teratomas shrank dramatically or were completely eliminated after administration of AP1903 in mice. Our data suggest significant improvements on existing iCASP9 suicide switch technologies and may serve as a guide to other groups seeking to improve the safety of stem cell-based therapies."
International journal of nanomedicine 2020
Topical Application of Exosomes Derived from Human Umbilical Cord Mesenchymal Stem Cells in Combination with Sponge Spicules for Treatment of Photoaging.
Abstract
Abstract
Purpose The topical application of exosomes secreted by mesenchymal stem cells (MSC-Exos) on the skin is a very new and interesting topic in the medical field. In this study, we aimed to investigate whether marine sponge Haliclona sp. spicules (SHSs) could effectively enhance the skin delivery of human umbilical cord-derived MSC-Exos (hucMSC-Exos), and further evaluate the topical application of hucMSC-Exos combined with SHSs in rejuvenating photoaged mouse skin. Materials and Methods SHSs were isolated from the explants of sponge Haliclona sp. with our proprietary method, and hucMSC-Exos were prepared from the conditioned medium of hucMSCs using ultracentrifugation. The effects of SHSs on the skin penetration of fluorescently labeled hucMSC-Exos were determined using confocal microscopy in vitro (porcine skin) and in vivo (mouse skin). The therapeutic effects of hucMSC-Exos coupled with SHSs against UV-induced photoaging in mice were assessed by using microwrinkles analysis, pathohistological examination and real-time RT-PCR. We also tested the skin irritation caused by the combination of hucMSC-Exos and SHSs in guinea pigs. Results In vitro results showed that hucMSC-Exos could not readily penetrate through porcine skin by themselves. However, SHSs increased the skin absorption of exosomes by a factor of 5.87 through creating microchannels. Similar penetration enhancement of hucMSC-Exos was observed after SHSs treatment in mice. The combined use of hucMSC-Exos and SHSs showed significant anti-photoaging effects in mice, including reducing microwrinkles, alleviating histopathological changes, and promoting the expression of extracellular matrix constituents, whereas hucMSC-Exos alone produced considerably weaker effects. Skin irritation test showed that the combination of hucMSC-Exos and SHSs caused slight irritation, and the skin recovered shortly. Conclusion SHSs provide a safe and effective way to enhance the skin delivery of MSC-Exos. Moreover, the combination of MSC-Exos and SHSs may be of much use in the treatment of photoaging.
Blood advances 2019 nov
Human models of NUP98-KDM5A megakaryocytic leukemia in mice contribute to uncovering new biomarkers and therapeutic vulnerabilities.
Abstract
Abstract
Acute megakaryoblastic leukemia (AMKL) represents ∼10{\%} of pediatric acute myeloid leukemia cases and typically affects young children ({\textless}3 years of age). It remains plagued with extremely poor treatment outcomes ({\textless}40{\%} cure rates), mostly due to primary chemotherapy refractory disease and/or early relapse. Recurrent and mutually exclusive chimeric fusion oncogenes have been detected in 60{\%} to 70{\%} of cases and include nucleoporin 98 (NUP98) gene rearrangements, most commonly NUP98-KDM5A. Human models of NUP98-KDM5A-driven AMKL capable of faithfully recapitulating the disease have been lacking, and patient samples are rare, further limiting biomarkers and drug discovery. To overcome these impediments, we overexpressed NUP98-KDM5A in human cord blood hematopoietic stem and progenitor cells using a lentiviral-based approach to create physiopathologically relevant disease models. The NUP98-KDM5A fusion oncogene was a potent inducer of maturation arrest, sustaining long-term proliferative and progenitor capacities of engineered cells in optimized culture conditions. Adoptive transfer of NUP98-KDM5A-transformed cells into immunodeficient mice led to multiple subtypes of leukemia, including AMKL, that phenocopy human disease phenotypically and molecularly. The integrative molecular characterization of synthetic and patient NUP98-KDM5A AMKL samples revealed SELP, MPIG6B, and NEO1 as distinctive and novel disease biomarkers. Transcriptomic and proteomic analyses pointed to upregulation of the JAK-STAT signaling pathway in the model AMKL. Both synthetic models and patient-derived xenografts of NUP98-rearranged AMKL showed in vitro therapeutic vulnerability to ruxolitinib, a clinically approved JAK2 inhibitor. Overall, synthetic human AMKL models contribute to defining functional dependencies of rare genotypes of high-fatality pediatric leukemia, which lack effective and rationally designed treatments.
Stem cells international 2019
Gestational Tissue-Derived Human Mesenchymal Stem Cells Use Distinct Combinations of Bioactive Molecules to Suppress the Proliferation of Human Hepatoblastoma and Colorectal Cancer Cells.
Abstract
Abstract
Background Cancer has been considered a serious global health problem and a leading cause of morbidity and mortality worldwide. Despite recent advances in cancer therapy, treatments of advance stage cancers are mostly ineffective resulting in poor survival of patients. Recent evidences suggest that multipotent human mesenchymal stem cells (hMSCs) play important roles in growth and metastasis of several cancers by enhancing their engraftment and inducing tumor neovascularization. However, the effect of hMSCs on cancer cells is still controversial because there are also evidences demonstrating that hMSCs inhibited growth and metastasis of some cancers. Methods In this study, we investigated the effects of bioactive molecules released from bone marrow and gestational tissue-derived hMSCs on the proliferation of various human cancer cells, including C3A, HT29, A549, Saos-2, and U251. We also characterized the hMSC-derived factors that inhibit cancer cell proliferation by protein fractionation and mass spectrometry analysis. Results We herein make a direct comparison and show that the effects of hMSCs on cancer cell proliferation and migration depend on both hMSC sources and cancer cell types and cancer-derived bioactive molecules did not affect the cancer suppressive capacity of hMSCs. Moreover, hMSCs use distinct combination of bioactive molecules to suppress the proliferation of human hepatoblastoma and colorectal cancer cells. Using protein fractionation and mass spectrometry analysis, we have identified several novel hMSC-derived factors that might be able to suppress cancer cell proliferation. Conclusion We believe that the procedure developed in this study could be used to discover other therapeutically useful molecules released by various hMSC sources for a future in vivo study.
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