Global Science & Technology Trends Report: Gene and Cell Therapy R&D

With rapid advances in recombinant DNA and protein engineering technologies, therapeutic fusion proteins have emerged as a new option for biologics with improved pharmacokinetic stability and enhanced capability to act on molecular targets. Fusion proteins have also facilitated the development of new vaccines, and gene and cell therapy drugs to address other clinical challenges.

Global Science & Technology Trends Report - Therapeutic Fusion Protein R&D

With rapid advances in recombinant DNA and protein engineering technologies, therapeutic fusion proteins have emerged as a new option for biologics with improved pharmacokinetic stability and enhanced capability to act on molecular targets. Fusion proteins have also facilitated the development of new vaccines, and gene and cell therapy drugs to address other clinical challenges.

CAS COVID-19 Protein Target Thesaurus

This open source dataset contains over 290K structure-activity relationship (SAR) data directed at COVID-19 protein, virus and disease targets reported in the literature, patents, and other public sources for over 9K of the substances included in the CAS COVID-19 Antiviral Candidate Compounds Dataset.

Your CAS COVID-19 Thesaurus Request

This open source dataset contains over 290K structure-activity relationship (SAR) data directed at COVID-19 protein, virus and disease targets reported in the literature, patents, and other public sources for over 9K of the substances included in the CAS COVID-19 Antiviral Candidate Compounds Dataset.

CAS COVID-19 Antiviral Candidate SAR Dataset

This open source dataset contains over 290K structure-activity relationship (SAR) data directed at COVID-19 protein, virus and disease targets reported in the literature, patents, and other public sources for over 9K of the substances included in the CAS COVID-19 Antiviral Candidate Compounds Dataset.

CAS COVID-19 Dataset Properties

The dataset is in SD file format (.sdf) and contains connection tables for nearly 50,000 chemical substances, along with related metadata such as CAS Registry Number® and physical properties for each substance.

RNA medicines: what technologies are investors funding?

Gilles Georges , formerly served as Vice President and Chief Scientific Officer at CAS

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Earlier this year we shared a collection of insights on RNA medicines, generated by a review of the scientific and patent literature. Since that time, we’ve looked into market trends in this space and, by combining insights gained from examining the CAS Content CollectionTM with data from PitchBook and Pharmaprojects, have been able to track what technological approaches and indications investors are backing.

Here are seven key takeaways from our analysis.

1. Investment has been intensifying in the past few years

A potential consequence of the success of the mRNA COVID vaccines is that the amount of investor funding flowing into RNA therapeutics and vaccines has skyrocketed since 2020 (Figure 1). The total number of companies has also risen, although not as sharply as the increase in investment, likely signaling increased funding at existing companies rather than through the creation of new companies (Figure 1).

Investment into RNA therapeutics fig 1
Figure 1. Investment into RNA therapeutics has increased sharply since 2020 (blue columns) while the number of companies has increased more gradually (yellow trendline). Data from the CAS Content Collection and Pitchbook.

 

2. Most investment is flowing into cancer R&D

We looked at which indications are receiving the most funding and found that the top investor-funded categories include cancer, infectious diseases, and liver and metabolic diseases. Not surprisingly, cancer is the lead indication for recent investment (Figure 2), which is reflective of the larger therapeutic R&D market. This is a slight change from the previous time period of 2012-2016, which showed that most investment was directed towards infectious diseases and liver/metabolic diseases.

Fig 2
Figure 2. Most recent investment into RNA therapeutics focuses on discovery and development of cancer treatments. Data from the CAS Content Collection and PitchBook.

 

Interestingly, despite the large increase in investment between these two time periods, the number of patents has not experienced as dramatic a rise (Figure 3), likely suggesting that much of the investment is focused on the development of existing patents rather than on the discovery of novel intellectual property.

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Figure 3. Unlike investment, the number of patents published between the two different time periods (2012-2016 versus 2017-2021) increased only modestly.  Data from the CAS Content Collection.

 

3. Within cancer R&D, investment is split fairly evenly between mRNA, siRNA, and CRISPR approaches

Taking a closer look at the types of RNA being developed, we find that within cancer indications, funding is fairly evenly divided between mRNA, siRNAs, and CRISPR-based approaches (Figure 4). Note that we’ve included CRISPR under RNA therapeutics as the technology relies on guide RNA for targeting, even though some may consider it outside the category of RNA therapeutics.

fig 4
Figure 4. Between 2017 and 2021, funding within cancer is fairly evenly distributed between mRNAs, siRNAs, and CRISPR approaches, although within infectious diseases and liver/metabolic diseases, most of the funding supports development of mRNA-based therapeutics (2017-2021). Data from the CAS Content Collection and Pitchbook.

 

4. Within infectious disease and liver/metabolic disease programs, mRNA is the preferred molecule

In contrast to projects developing anti-cancer treatments, projects targeting infectious diseases are primarily developing mRNA vaccines (Figure 4). The recent success of the mRNA COVID vaccines has highlighted the strength and speed of this approach for vaccine development and is likely the driving force behind the focus of mRNA in infectious diseases.

In liver and metabolic diseases, mRNA is also the preferred molecule for investment, although as of the writing of this article, the four US FDA-approved siRNA therapeutics—patisiran, givosiran, lumasiran, and inclisiran—all target the production of enzymes in the liver.

5. Recent investment across all indications primarily supports mRNA and siRNA, with more siRNA than mRNA products in the pipeline

Across all indications, mRNA is receiving the most investment (Figure 5A) and, while there were more siRNA products in the pipeline between 2017-2021 (Figure 5B), the situation has changed in 2022 with the number of mRNA products in the pipeline far surpassing the number of siRNAs, according to Pharmaprojects data.

However, combining this information with a review of the literature shows that more newly described forms of RNA such as circRNA, lncRNA, and exosomal RNAs are experiencing a rapid growth of interest (Figure 6). It will be interesting to see how much impact, if any, these newer types of RNA will have and how quickly they will move into development.

 

A B
fig 5b fig 5a

Figure 5. Recent investment primarily supports mRNA (A) whereas there are more siRNA products in the pipeline (B). (Data in A from Pharmaprojects and data in from PitchBook)

fig 6
Figure 6. Newly described RNAs including circRNA, lncRNA, and exosomal RNA are experiencing the most rapid growth in terms of number of journal and patent publications. Data from the CAS Content Collection.2

6. Most companies developing RNA products focus on a single type of RNA and target multiple indications

We looked at the top companies developing RNA therapeutics and found that, with the exception of AstraZeneca, each company focuses on developing a single type of RNA (Table 1) and applies their key technology to a range of indications (Table 2).

Table 1. Most companies focus on a single type of RNA

mRNA AstraZeneca
BioNTech
Cartesian Therapeutics
Moderna
Stemirna Therapeutics
ASO AstraZeneca
Ionis Pharmaceuticals
Sarepta Therapeutics
siRNA Alnylam Pharmaceuticals
Arrowhead Pharmaceuticals
AstraZeneca
Dicerna Pharmaceuticals
Silence Therapeutics
Sirnaomics
Aptamer (RNA) TME Pharma (formerly NOXXON Pharma)
miRNA AstraZeneca
CRISPR Beam Therapeutics
CureVac

Table 2. Most companies apply their technology to multiple indications.

Alnylam Pharmaceuticals Infectious, Neurological, Liver, Cancer, Kidney, Blood
Arrowhead Pharmaceuticals Infectious, Neurological, Liver, Cancer
 
AstraZeneca Cardiovascular, Liver, Metabolic, Cancer
Beam Therapeutics Eye, Liver, Cancer, Blood
BioNTech Infectious, Cancer
Cartesian Therapeutics Neurological, Respiratory, Autoimmune, Cancer
CureVac Infectious, Cancer
Dicerna Pharmaceuticals Infectious, Liver, Alcohol Use Disorder, Kidney, Blood
Ionis Pharmaceuticals Eye, Infectious Disease, Neuro, Liver, Acromegaly, Autoimmune, Cancer, Kidney, Blood
Moderna Infectious, Cardiovascular, Liver, Autoimmune, Cancer
Sarepta Therapeutics
 
Neuromuscular
Silence Therapeutics Cardiovascular, Cancer, Blood
Sirnaomics Infectious, Respiratory, Liver, Cancer, Blood
Stemirna Therapeutics Infectious, Cancer
TME Pharma (formerly NOXXON Pharma) Transplantation, Autoimmune, Cancer, Kidney, Blood

7. Overall investment in RNA products was considerably reduced in 2022 compared to 2021

One interesting note about recent investment trends in RNA programs is that there was a significant reduction in overall investment in 2022 compared to 2021 (Figure 7). This reduction appears to be driven primarily by a decrease in the deal size of mergers and acquisitions (M&A), as the total number of M&As only decreased by about 2-fold.

fig 8
Figure 7. There was a significant reduction in investment in RNA programs in 2022 compared to 2021, primarily due to a decrease in the M&A deal size.

 

Dig deeper into the science of what’s being funded

Increasing investment into RNA therapeutics has tremendous potential to deliver new options for currently untreatable diseases, especially in cancer, infectious diseases, liver and metabolic diseases, and rare diseases. However, many challenges still need to be overcome, especially around RNA stability, bioavailability, and tissue targeting. Find out more about commercialization challenges and the strategies being employed to overcome them in our white paper filled with insights from the CAS Content Collection, “RNA-Derived Medicines: A review of the research trends and developments.

R&D Insights: exosomes in drug delivery and diagnostics

CAS Science Team

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For the R&D leader who needs to stay ahead of the curve, this brief executive summary showcases why exosomes will be reshaping the drug delivery, diagnostics, and therapeutic landscape of the future. This quickly highlights emerging trends and key takeaways for respective teams to stay aware of key players, significant clinical advancements, and new approaches to redefining the future of exosomes. 

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March 7, 2023

CAS SciFinder Discovery Platform: A Career Planning Tool (Chinese)

Learn how CAS SciFinder Discovery Platform can streamline the process of early scientific career for students, postdoctoral scholars or industry to achieve professional goals. Q&A with demonstration.

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