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iPS Adenovirus Particles

Product DetailsApplicationCase StudyFAQ

Product Details

Somatic cells transform into induced pluripotent stem (iPS) cells using adenoviral vectors, avoiding ethical concerns of embryonic stem (ES) cell research. Unlike traditional methods using retrovirus or lentivirus, adenoviral vectors prevent integration into the host cell genome, mitigating mutation and transcription interference risks. Successful studies demonstrate adenoviral-produced iPS cells without viral or transgene integration into chromosomal DNA. Creative Biogene provides adenoviral vectors expressing various transcription factors that are commonly used in the development of iPS cells such as c-Myc, Klf4, Oct4, and Sox2.

Key Features of Our iPS Adenovirus Particles

  • Expressive Reprogramming: Our adenoviruses efficiently express transcription factors (Sox2, c-Myc, Klf4, Oct4) crucial for somatic cell reprogramming, ensuring robust and effective induction of iPSCs.
  • Integration-Free iPSCs: With our adenovirus vectors, we achieve the generation of induced pluripotent stem cells (iPSCs) without the concern of genomic integration, ensuring the safety and stability of resulting cells.
  • High-Titer Production: Benefit from high-titer adenovirus production, ensuring a substantial quantity of vectors for efficient and reproducible cell reprogramming experiments.
  • Safety Without Genomic Modification: Our adenovirus-based approach ensures safety by avoiding genomic modification, and minimizing the risk of unintended mutations or interference with host cell gene transcription.
  • Customized Adenovirus Services: Tailor our adenovirus services to meet your specific research needs, providing flexibility and personalized solutions for your iPSC generation experiments.

iPS Adenovirus Particles Product List

Application

Adenoviral reprogramming factors enable efficient pluripotency induction without genomic modification, ensuring safety through transient extrachromosomal vectors. The adenoviral approach, in contrast to integrative methods, produces safer integration-free iPSCs, making it ideal for downstream research and therapeutic applications. Explore the possibilities with our innovative products:

  • Cellular Processes and Gene Regulation Studies: Exploring the impact of KLF5, KLF4, and KLF14 genes on cellular processes, gene regulation, reprogramming, stem cell maintenance, and disease mechanisms.
  • Stem Cell Research and Reprogramming: Simultaneous expression of OCT4, Sox2, and KLF4 for iPSC generation and stem cell research. OCT4 gene expression studies in stem cell research and cellular reprogramming. NANOG gene introduction for studying its role in stem cell pluripotency, embryonic development, and cellular differentiation.
  • Cell Cycle Regulation and Cancer Research: c-Myc gene introduction for investigating cell cycle regulation, cellular transformation, and implications in cancer research.
  • Cellular Differentiation and Development: Sox2 gene modulation for exploring its roles in cellular differentiation, development, and reprogramming.

Case Study

Case Study 1

KLF14's role in liver fibrosis was explored using human, rat, and mouse fibrotic models. KLF14 overexpression inhibited HSC activation, inducing apoptosis and G2/M arrest. Mechanistically, KLF14 transactivated PPARγ promoter activity. EZH2-mediated histone modification regulated KLF14 expression. Adenovirus-mediated KLF14 overexpression alleviated TAA-induced rat liver fibrosis in a PPARγ-dependent manner. The EZH2 inhibitor EPZ-6438 showed therapeutic effects. KLF14 downregulation in human liver fibrosis correlated with EZH2 upregulation and PPARγ downregulation, suggesting the EZH2/KLF14/PPARγ axis as a potential therapeutic target.

Figure 1. In the investigation of KLF14 role in hepatic fibrogenesis in vivo, KLF14 expression was enforced in a TAA-induced rat liver fibrosis model using adenovirus injection via the tail vein.Figure 1. In the investigation of KLF14's role in hepatic fibrogenesis in vivo, KLF14 expression was enforced in a TAA-induced rat liver fibrosis model using adenovirus injection via the tail vein. (Du Z, et al., 2021)

Case Study 2

Researchers utilized adenovirus-mediated gene manipulation to investigate the role of Myc in pancreatic β-cell expansion during metabolic stress. Specifically, they induced insulin resistance in young mice through a short-term high-fat diet (HFD). β-cell-specific Myc knockout mice failed to adaptively expand, exhibiting impaired glucose tolerance and dysfunction. Key regulators, including PKCζ, ERK1/2, mTOR, and PP2A, were identified in the Myc response. DNA methylation analysis revealed hypomethylation of cell cycle genes targeted by Myc in islets from young mice on a short-term HFD. However, this epigenetic response was absent in aged mice, suggesting a resistance to Myc action with aging. The study highlights Myc's critical role in β-cell expansion during metabolic stress in young mice and unveils potential age-related epigenetic modifications affecting Myc function.

Figure 2. The researchers employed Myc-adenovirus to investigate its role in pancreatic β-cell replication, expansion during metabolic stress-induced insulin resistance, and the regulatory mechanisms involving PKC, ERK1/2, mTOR, and PP2A.Figure 2. The researchers employed Myc-adenovirus to investigate its role in pancreatic β-cell replication, expansion during metabolic stress-induced insulin resistance, and the regulatory mechanisms involving PKCζ, ERK1/2, mTOR, and PP2A. (Rosselot C, et al., 2019)

FAQ

Q: What is the primary function of iPS Adenovirus Particles in research?

A: iPS Adenovirus Particles are designed to deliver genes associated with induced pluripotent stem cells (iPSCs), allowing researchers to induce reprogramming in somatic cells.

Q: Which specific genes are typically delivered by iPS Adenovirus Particles?

A: iPS Adenovirus Particles commonly carry key pluripotency-associated genes such as Oct4, Sox2, Klf4, and c-Myc, essential for cellular reprogramming.

Q: What are the advantages of using iPS Adenovirus Particles for iPSC generation?

A: iPS Adenovirus Particles offer a robust and efficient method for inducing cellular reprogramming in somatic cells. Unlike some methods, adenovirus-based reprogramming avoids genomic integration of transgenes.

Q: Can iPS Adenovirus Particles be used for gene delivery in other cell types beyond iPSC generation?

A: While designed for iPSC generation, iPS Adenovirus Particles can be adapted for delivering specific genes in various cell types for functional studies beyond reprogramming.

* For research use only. Not intended for any clinical use.
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