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Delivering RNAi-based
Therapeutics & Diagnostics:
Challenges & Opportunities

July 1st 2009

226

£945 / $1655 / €1180

PDF

This new, cutting edge and insightful report can be used to interpret and assess the potential of RNAi-based medicines.

The market for RNAi-based therapeutics is forecast to grow from 2013 onwards, as the first products enter the marketplace, to generate sales in excess of US$2.9 billion by 2020. The first siRNA-based therapeutics will capitalise on the demand to treat viral infections and ocular conditions and, in the longer term, companies will be able to target niche areas of high unmet clinical need such as cancer, cardiovascular disease, metabolic disorders, plus inflammatory and neurological conditions.

Since the 1990s scientists across the world have begun to harness the power of RNA interference (RNAi) to silence genes in a multitude of diseases. However, many challenges face those aiming to develop RNAi-based therapies including targeted delivery, the design and efficacy of gene silencing agents and the minimization of off-target and immunogenic effects.

Today there are over 100 RNAi-based projects under investigation to treat autoimmune and inflammatory diseases, cancer, cardiovascular disease, CNS disorders, metabolic disorders, ocular conditions and viral infectious diseases. The majority of these projects are in the earliest discovery stages (36%) or in preclinical studies (54%). Of the projects that have reached clinical trials, only a handful have passed initial Phase I/II testing, with a total of three being investigated in Phase II studies.

For executives working in industry and commerce, the need to understand the issues, players and developers in this sector of high potential is essential. Delivering RNAi-Based Therapeutics & Diagnostics: Challenges & Opportunities is a 225+page report, published in July 2009 by UK pharma consultancy, PharmaVision, which is available from Espicom Business Intelligence.

About the Author
Dr Cheryl Lee Barton. Following a distinguished 16 year career in industry and banking, Dr Barton established consultancy firm PharmaVision.co.uk, in 2002, to provide independent, tailor-made, pharmaceutical thematic research to investment houses, competitive intelligence specialists and pharmaceutical companies. She has produced a number of research studies for Espicom Business Intelligence including the best-selling Cancer Drug Discoveries: what the future holds, Drug Delivery Technologies: Players, Products & Prospects to 2018 and Why Do Drugs Fail?

The report is packed with facts, figures, case histories and forecasts

Chapter 1 RNA Interference & Delivery
  • Key Findings
  • Introduction
  • RNAi: a natural phenomenon
  • Antisense technologies
  • RNAi silencing agents
  • RNAi silencing pathways
  • microRNAs and antagomirs
  • miRNA gene silencing
  • Pros & Cons of RNAi silencing agents
  • RNAi R&D
  • High throughput in vitro screening
  • RNAi in vivo screening
  • RNAi diagnostic markers
  • RNAi therapeutics
  • RNAi diagnostics
  • RNAi therapy – A Discovery Timeline
Major scientific challenges for the development of RNAi-based diagnostics & therapies
  • Report Structure

Chapter 2 RNAi-based Therapeutics: Pipeline Analysis
  • Key points
  • Key therapy areas covered by RNAi-based therapies
  • Product pipelines
  • RNAi for diagnostics
  • RNAi companies analysed in this report

Chapter 3 RNAi-based Therapies for Cancer
  • Key Findings
  • Introduction
  • RNAi delivery in cancer
  • RNAi-based Therapies - siRNA
  • Case study: ALN-VSP (Alnylam Pharmaceuticals)
  • Case study: CALAA-01 (Calando Pharmaceuticals)
  • Case study: Dicer substrate RNA (Dicerna Pharmaceuticals)
  • Case study: Intratumoral siRNA (Genesis Research & Development Corporation)
  • Case study: NPX delivery technology (Intradigm Corporation)
  • Case study: SNS-01 (Senesco Technologies)
  • Case study: Atu027 (Silence Therapeutics)
  • Case study: STP702 (Sirnaomics)
  • Case study: PLK SNALP (Tekmira Pharmaceutical Corporation)
  • RNAi-based therapies - shRNA
  • Case study: CEQ501 (Cequent pharmaceuticals)
  • Alternative RNA approaches to develop cancer therapies
  • miRNA in cancer
  • Case study: miRNAs (Mirna Therapeutics)
  • Case study: miRNAs (Regulus Therapeutics)
  • Case study: SPC2996 & EZN3042 (Santaris Pharma A/S/Enzon Pharmaceuticals)
  • MiRNA-based diagnostics
  • mRNA antagonists
  • Case study: LOR-2040 (Lorus Therapeutics)
  • Antisense
  • Case study: OGX-011 (Isis Pharmaceuticals/OncoGenex) & LY2181308 (Isis Pharmaceuticals/Eli Lilly)
  • Case study: TF siRNA (siRNAsense A/S/Polyplus Transfection)
  • Conclusions
  • Our opinion on RNAi-based therapies & diagnostics for cancer
  • Where the technology is now, its evolution, achievements and pitfalls
  • Competition
  • Potential future applications
  • Activity in the market, major players and winners

Chapter 4 RNAi-based Therapies for CNS Disorders
  • Key findings
  • Introduction
  • Neurodegenerative diseases
  • Amyotrophic lateral sclerosis
  • Case study: SOD1 siRNA (RXi Therapeutics)
  • Case study: SOD1 shRNA (Oxford BioMedica)
  • Huntington’s Disease
  • Case study: ALN-HTT (Alnylam Pharmaceuticals/Medtronic)
  • Case study: AVV-HTT (Targeted Genetics Corporation)
  • Parkinson’s Disease
  • Case study: SNCA-siRNA (Alnylam Pharmaceuticals)
  • Case study: biotinylated siRNA (ArmaGen Technologies)
  • Other CNS conditions
  • Conclusions
  • Our opinion on RNAi-based therapies for CNS disorders
  • Where the technology is now, its evolution, achievements and pitfalls
  • Competition
  • Potential future applications
  • Activity in the market, major players and winners
Chapter 5 RNAi-based Therapies for Viral Infectious Diseases
  • Key findings
  • Introduction
  • Respiratory Syncytial Virus
  • Case study: ALN-RSV01 (Alnylam Pharmaceuticals)
  • Hepatitis C
  • Case study:TT-033 (Oncolys BioPharma/Pfizer/Tacere Therapeutics)
  • Case study: miR-122 (Regulus Therapeutics)
  • Case study: SPC3649 (Santaris Pharma A/S)
  • Human Immunodeficiency Virus
  • Case study: rHIV7-shl-TAR-CCR5RZ (Benitec Ltd/City of Hope)
  • Pandemic Influenza
  • Bioterrorism
  • Other infectious diseases
  • Conclusions
  • Our opinion on RNAi-based Therapies for Viral Infectious Diseases
  • Where the technology is now, its evolution, achievements and pitfalls
  • Competition
  • Potential future applications
  • Activity in the market, major players and winners

Chapter 6 RNAi-based Therapies for Ocular Diseases
  • Key findings
  • Introduction
  • Age-Related Macular Degeneration
  • Case study: AGN-745 (Allergan/Sirna Therapeutics)
  • Case study: VEGF-A165b sparing siRNA & Bevasiranib (Opko Health)
  • Case study: PF-4523655 (Quark Pharmaceuticals/Pfizer)
  • Diabetic Retinopathy & Diabetic Macular Edema
  • Glaucoma
  • Conclusions
  • Our opinion on RNAi-based Therapies for Ocular Diseases
  • Where the technology is now, its evolution, achievements and pitfalls
  • Competition
  • Potential future applications
  • Activity in the market, major players and winners

Chapter 7 RNAi-based Therapies for Cardiovascular,
Metabolic & Other Conditions
  • Key findings
  • Introduction
  • RNAi-based therapeutics for Cardiovascular Diseases
  • Case study: miR-21 (Regulus Therapeutics)
  • Case Study: MHC miRNA inhibitors (MiRagen Therapeutics Inc)
  • RNAi-based Therapeutics for Metabolic Disorders
  • Case Study: ApoB SNALP (Tekmira Pharmaceutical Corporation)
  • Case study: MDR-04227 (MDRNA)
  • Case Study: PCSK9 siRNA (Alnylam Pharmaceuticals)
  • Case study: ApoB rxRNA and GeRP delivery (RXi Therapeutics)
  • RNAi-based Therapeutics in Other Therapeutic Areas
  • Case study: ALN-TTR siRNA (Alnylam Pharmaceuticals)
  • Case study: HSP47 siRNA (Nitto Denko Technical Corporation)
  • Case study: QPI-1002 (Silence Therapeutics/Quark Pharmaceuticals)
  • Conclusion
  • Our opinion on RNAi-based therapies for Cardiovascular, Metabolic & Other Diseases
  • Where the technology is now, its evolution, achievements and pitfalls
  • Competition
  • Potential future applications
  • Activity in the market, major players and winners


Chapter 8 Challenges & Opportunities for RNAi-based Therapeutics & Diagnostics
  • Key findings
  • Introduction
  • Stability & efficacy issues for RNAi research
  • Stability
  • Efficacy
  • Safety issues for RNAi research
  • Intellectual property
  • Delivering RNAi-based therapies
  • Challenges
  • Opportunities

Chapter 9 The Future of RNAi-based Therapeutics & Diagnostics: Market Trends
  • Key findings
  • Key RNAi companies
  • Leading RNAi-based therapeutic companies
  • Leading miRNA-based therapeutic companies
  • Leading RNAi-based diagnostic companies
  • Recent deals & alliances
  • The Global RNAi-based Therapy Market 2008-2014
  • Analysis parameters
  • Market forecast 2008-2014
  • Global RNAi-based Therapy Market in 2020
  • Drivers and market trends

Summary & Conclusions
Acknowledgements
Bibliography & Endnotes

This new report will enable you to...
  • Assess the commercial potential of RNAi-based therapies in all of the key therapeutic areas: cancer, CNS disorders, viral infectious diseases, ocular diseases, plus cardiovascular, metabolic and other conditions
  • Identify key pharma and delivery specialists advancing RNAi-based therapeutics and diagnostics
  • Gain an in-depth understanding of the technological and delivery issues that companies developing RNAi-based therapies face
  • Evaluate the options available for chemically and structurally modifying RNAi-silencing agents and delivering them to target tissues now and in the future
  • Discover which companies are tackling efficacy and safety issues, and are in a prime position to exploit new opportunities
  • Analyse how the market will evolve over the next decade, highlighting key trends, opportunities and challenges.

The report answers keys questions such as...

  • Which companies and academic institutes are actively involved in RNAi-based therapeutic research?
  • What are the key areas of therapeutic focus for RNAi-based therapeutics in the near and long-term?
  • What are the key obstacles companies and delivery technologists need to overcome to commercialize RNAi-derived therapies?
  • How will delivery technologies drive the development of innovative RNAi-based therapies in the future?
  • Which RNAi technologies and agents are likely to win in the near-term and long-term, and why?
  • Where are the market opportunities now and in the future?
  • When are RNAi-based medicines likely to reach the market?
  • What do we predict will be the value of the RNAi-based therapeutics by 2015 and 2020?