Human Diabetic Primary Pulmonary Artery Fibroblast Cells
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Product Overview
Description
Human Diabetic Primary Pulmonary Artery Fibroblast Cells are cryopreserved primary fibroblast cells intended for in vitro studies of diabetes-associated cellular dysfunction, tissue remodeling, signaling, and pharmacology. Early-passage use is recommended to reduce phenotype drift and preserve application-relevant behavior.
Guarantee expansion for a minimum of 2-6 population
doublings.
IMPORTANT: Quality warranty requires use of NeoBioPharma media. Biohazardous material despite negative pathogen testing. Quality claims must be reported within 1 month.
Key Features
Catalog Number: NBPDF015
Product Format: Frozen
Vial Cell Number: > 5x10[5] cells/vial
Passage:1(P1)
Storage: Liquid Nitrogen, Vapor Phase
Intended Use: Research use only (RUO)
Characterization Markers
- Characterized by spindle morphology under light microscopy.
- Negative for von Willebrand Factor (vWF) , Cytokeratin 18,
and alpha-smooth muscle actin .
- Isolated and characterized to ensure fibroblast purity
Quick Facts
Product Type
Human Type II Diabetes Endothelial Cells
Viability
>95% viable (Trypan Blue exclusion)
Applications
Research: - hDPPAFs are useful in studying the m…
Availability
In Stock • Global Shipping
Technical Specifications
Primary Applications
Applications & Use Cases
Primary Applications
Research: - hDPPAFs are useful in studying the mechanisms of pulmonary vascular disease in the context of diabetes. Therapeutics: - These cells can be utilized to test new therapeutic compounds aimed at reversing the effects of fibrosis and improving pulmonary vascular health. Modeling Disease: - They serve as valuable in vitro models for understanding diabetes-related vascular complications and screening potential drug candidates.
Suitable for research: - hdppafs are useful in studying the mechanisms of pulmonary vascular disease in the context of diabetes. therapeutics: - these cells can be utilized to test new therapeutic compounds aimed at reversing the effects of fibrosis and improving pulmonary vascular health. modeling disease: - they serve as valuable in vitro models for understanding diabetes-related vascular complications and screening potential drug candidates. studies and research applications
Research Areas
In Vitro Studies
Cell culture and screening applications
Molecular Biology
Gene expression & signaling studies
Drug Discovery
Screening & validation studies
Disease Modeling
Pathophysiology research
Support & Resources
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