Abstract
The ability to utilize the RNA interference (RNAi) machinery for silencing target-gene expression has created a lot of excitement in the research community. RNAi in mammalian cells is achieved through introduction or expression of 21-23 bp small interfering RNAs (siRNAs) in cells or animals. Currently, there are six ways of producing siRNAs. siRNAs can be produced by chemical synthesis, in vitro transcription, or RNase III/Dicer digestion of long dsRNAs. Alternatively, they can be expressed in vivo from plasmids, PCR cassettes, or viral vectors that include a CMV or polymerase III (pol III) transcription unit. So far, these approaches have been used to create siRNAs for use in loss-offunction studies. However, it is clear that siRNAs also hold great promise as therapeutic tools. First, their activity seems to be very sequence-specific. Moreover, siRNAs could be modified in order to increase their stability and potency in vivo. Here, we will review the issues and findings related to siRNA design and production. Moreover, we will summarize new findings on siRNA specificity, modification, and delivery, which are critical to their use as therapeutic agents.
Keywords: rna interference, double-stranded rna, small interfering rna, small hairpin rna, rna-induced silencing, complex, viral vectors, gene knockdown
Current Pharmaceutical Biotechnology
Title: The Ins and Outs of RNAi in Mammalian Cells
Volume: 5 Issue: 5
Author(s): M. Banan and N. Puri
Affiliation:
Keywords: rna interference, double-stranded rna, small interfering rna, small hairpin rna, rna-induced silencing, complex, viral vectors, gene knockdown
Abstract: The ability to utilize the RNA interference (RNAi) machinery for silencing target-gene expression has created a lot of excitement in the research community. RNAi in mammalian cells is achieved through introduction or expression of 21-23 bp small interfering RNAs (siRNAs) in cells or animals. Currently, there are six ways of producing siRNAs. siRNAs can be produced by chemical synthesis, in vitro transcription, or RNase III/Dicer digestion of long dsRNAs. Alternatively, they can be expressed in vivo from plasmids, PCR cassettes, or viral vectors that include a CMV or polymerase III (pol III) transcription unit. So far, these approaches have been used to create siRNAs for use in loss-offunction studies. However, it is clear that siRNAs also hold great promise as therapeutic tools. First, their activity seems to be very sequence-specific. Moreover, siRNAs could be modified in order to increase their stability and potency in vivo. Here, we will review the issues and findings related to siRNA design and production. Moreover, we will summarize new findings on siRNA specificity, modification, and delivery, which are critical to their use as therapeutic agents.
Export Options
About this article
Cite this article as:
Banan M. and Puri N., The Ins and Outs of RNAi in Mammalian Cells, Current Pharmaceutical Biotechnology 2004; 5 (5) . https://dx.doi.org/10.2174/1389201043376643
DOI https://dx.doi.org/10.2174/1389201043376643 |
Print ISSN 1389-2010 |
Publisher Name Bentham Science Publisher |
Online ISSN 1873-4316 |
- Author Guidelines
- Graphical Abstracts
- Fabricating and Stating False Information
- Research Misconduct
- Post Publication Discussions and Corrections
- Publishing Ethics and Rectitude
- Increase Visibility of Your Article
- Archiving Policies
- Peer Review Workflow
- Order Your Article Before Print
- Promote Your Article
- Manuscript Transfer Facility
- Editorial Policies
- Allegations from Whistleblowers
Related Articles
-
mTOR: A Novel Therapeutic Target for Diseases of Multiple Systems
Current Drug Targets Zinc, Metallothioneins and Longevity: Interrelationships with Niacin and Selenium
Current Pharmaceutical Design Glucocorticoid Excess Induces Accumulation of Cardiac Glycogen and Triglyceride: Suggested Role for AMPK
Current Pharmaceutical Design PDZ Structure and Implication in Selective Drug Design against Cystic Fibrosis
Current Drug Targets Interaction of Cell and Gene Therapy with the Immune System
Current Gene Therapy Tissue-Specific Targeting for Cardiovascular Gene Transfer. Potential Vectors and Future Challenges
Current Gene Therapy Angiotensin Converting Enzyme-2: A Doorway for SARS-CoV-2
Coronaviruses Molecular Pathogenesis of Pancreatic Cancer: Advances and Challenges
Current Molecular Medicine Polyphyllin D - A Potential Anti-Cancer Agent to Kill Hepatocarcinoma Cells with Multi-Drug Resistance
Current Chemical Biology Maintenance of Gastrointestinal Glucose Homeostasis by the Gut-Brain Axis
Current Protein & Peptide Science The Endocrine Regulation of Stem Cells: Physiological Importance and Pharmacological Potentials for Cell-Based Therapy
Current Stem Cell Research & Therapy Baicalein - An Intriguing Therapeutic Phytochemical in Pancreatic Cancer
Current Drug Targets Vascular and Metabolic Actions of the Green Tea Polyphenol Epigallocatechin Gallate
Current Medicinal Chemistry Alzheimer's Disease and Diabetes: New Insights and Unifying Therapies
Current Diabetes Reviews Correction of Murine Diabetic Hyperglycaemia With A Single Systemic Administration of An AAV2/8 Vector Containing A Novel Codon Optimized Human Insulin Gene
Current Gene Therapy Iodine in Mammary and Prostate Pathologies
Current Chemical Biology The Role of Microbiota and Intestinal Permeability in the Pathophysiology of Autoimmune and Neuroimmune Processes with an Emphasis on Inflammatory Bowel Disease Type 1 Diabetes and Chronic Fatigue Syndrome
Current Pharmaceutical Design Phage Display Applications for Molecular Imaging
Current Pharmaceutical Biotechnology Metastasis: Recent Discoveries and Novel Perioperative Treatment Strategies with Particular Interest in the Hemostatic Compound Desmopressin
Current Pharmaceutical Biotechnology Mammary Development and Breast Cancer: The Role of Stem Cells
Current Molecular Medicine