CRISPR and Cas Genes Market
CRISPR and Cas Genes Market Study by Vector-based Cas and DNA-free Cas for Genome Engineering, Disease Models, and Functional Genomes from 2023 to 2033
Analysis of CRISPR and Cas Genes Market Covering 30+ Countries Including Analysis of US, Canada, UK, Germany, France, Nordics, GCC countries, Japan, Korea and many more
CRISPR and Cas Genes Market Outlook (2023 to 2033)
Global demand for CRISPR and Cas genes is anticipated to surge at a stupendous CAGR of 20% from 2023 to 2033. At present, the global CRISPR and Cas genes market is valued at US$ 2.6 billion and is thus expected to reach a market size of US$ 16 billion by the end of 2033.
Biotechnology & pharmaceutical companies are using gene modification extensively for both research and business purposes. These companies are increasingly relying on CRISPR-Cas technologies to develop more accurate biological models for human diseases rapidly and to quickly identify and validate new therapeutic targets.
The genomes of prokaryotic species, such as bacteria and archaea, contain a DNA sequence family known as CRISPR (clustered regularly interspaced short palindromic repeats). Prokaryotes, including bacteria and archaea, have an adaptive defense system called CRISPR-Cas that shields them from viruses, phages, and other foreign genetic material.
As a quick and effective genome editing tool, CRISPR-Cas systems have been widely used in a range of species as well as in different human cell lines. It is a medical innovation that is used to both generate genetically enhanced species and treat many genetic diseases.
The CRISPR-Cas system is a bacterial immune mechanism that provides resistance to external genetic components, enabling acquired immunity. Compared to earlier DNA modification methods, it is quicker, more effective, and more accurate, and it has more applications.
Advancements in the field of genome editing have facilitated the increased adoption of CRISPR-Cas systems in diagnostics and the assessment of evolutionary analysis in prokaryotes. The technique is specifically used to understand the evolution of bacteria. Governments worldwide have encouraged investments in genome editing advancements, paving the way for the CRISPR and Cas genes market growth.
The most important development in this field is the introduction of the Cas-9 technique. This is a revolutionary step in the field of biomedical research. The application of CRISPR/Cas 9 focuses on somatic cell genome editing and aims to accelerate treatment for various genetic disorders. CRISPR-based tests provide more accurate test results compared to other techniques such as RT-PCR tests.
The widespread use of CRISPR Cas genes in the therapy of disease is a result of the prevalence of hereditary diseases in humans. Additionally, CRISPR-Cas technologies have been widely used in genome editing in molecular biology laboratories all over the world because of their simple design, low cost, high efficiency, great repeatability, and rapid cycle, which is expected to propel market growth.
CRISPR-Cas systems have been applied to the therapy of various hematologic disorders, including hemophilia B and sickle cell disease (SCD). It is not just restricted to treating genetic abnormalities; metastatic cancer has also been successfully treated with it. The CRISPR and Cas genes Industry is increasing as a result of its expanding applications, which have attracted numerous biotech companies to invest in the market and financial support from the government.
Report Attributes |
Details |
|
CRISPR and Cas Genes Market Size (2023) |
US$ 2.6 Billion |
|
Projected Market Value (2033) |
US$ 16 Billion |
|
Global Market Growth Rate (2023 to 2033) |
20% CAGR |
|
Market Share of Vector-based Cas |
60% |
|
Key Companies Profiled |
|
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Why is the Demand for CRISPR and Cas Genes Increasing Rapidly?
“Constant Advancements in CRISPR & Cas Gene systems”
Recently developed biotechnological research has made it possible for CRISPR & Cas gene systems to be widely used in ways that either directly or indirectly benefit human health. For instance, transthyretin amyloidosis, sickle cell disease, and HIV have all been treated through somatic gene editing, which entails altering an individual's DNA.
It is anticipated that the method will be one of several advanced therapy alternatives for different types of cancer. The field of cancer research and therapies has recently undergone a revolution due to new developments in CRISPR and Cas gene systems.
Demand for gene editing techniques such as CRISPR & Cas gene technology has increased as a result of innovative technologies, including karyotyping, newborn screening, virus screening, and others. Additionally, the biotechnology sector has seen a rise in the utilization of CRISPR & Cas gene technology to improve agricultural production through inventive breeding techniques.
The ability to add or remove genetic information from precise places in the genome is one advantage of using CRISPR technology. The study of human disorders, such as cystic fibrosis, the effects of Barth syndrome on the heart, hemophilia, and Duchenne muscular dystrophy, has increasingly used CRISPR technology.
“Growing Adoption of CRISPR Technology for Research on Genetic Diseases”
Genome editing is broadening the ability to elucidate the contribution of genetics to diagnostics by facilitating more accurate cellular and animal models of pathological processes. Genome editing techniques are being investigated as promising approaches to human gene therapy.
CRISPR technology is being increasingly used for research on genetic diseases. Global demand for CRISPR and Cas genes has been primarily driven by the use of CRISPR-Cas systems in bacterial activities, an increase in government spending on genome editing research and development, and the application of CRISPR technology to improve crop production.
The discovery and characterization of CRISPR and Cas genes have fueled the recent development of a flexible, democratized genome-engineering toolbox based on programmable targeting of CRISPR and Cas systems. The technology is being widely used in research to find treatment options for neurodegenerative diseases.
For instance, the technique is being applied to investigate possible treatment approaches for Huntington’s disease. The use of Cas9 nuclease provides safe and efficient means of targeting the Huntington gene by deletion of abnormal repetition along with inhibiting toxic protein synthesis.
Since its involvement in bacterial adaptive immunity was discovered a few years ago, CRISPR has evolved into a potent and widely used tool in genetics. Genome editing has advanced thanks to CRISPR technology in the fields of health, biotechnology, and agriculture, making it possible for researchers to study these areas more quickly and effectively. Due to easy, quick, and affordable access to vectors and the subsequent next-generation tools made available by the nonprofit plasmid repository Addgene, CRISPR technology is in more demand.
Immunization of cultured cells, self-targeted cell destruction, and metabolic pathway engineering for improved biochemical synthesis are some potential uses of CRISPR-Cas systems. CRISPR-Cas systems are already being used in fields, including the engineering of industrial microorganisms and the breeding of plants and animals, expanding their application beyond just research and therapeutic development.
What Barriers are Being Encountered by Key Market Participants?
“High Costs Associated with Using CRISPR Genes and Availability of Alternatives”
It is anticipated that the high costs associated with using CRISPR genes will restrain global market expansion, according to pricing trends. Market growth will be hampered by ethical concerns about human genome editing.
The development of the worldwide CRISPR and Cas genes business may be constrained by a lack of qualified professionals, and the availability of alternatives is also anticipated to constrain market expansion.
Which Region Accounts for a Leading Position in the Global Market?
“Increased Funding for Research Activities to Provide Modified Products in North America”
North America accounts for 50% share of the global market. Increased funding for research activities to provide modified products for preventing chronic diseases is anticipated to drive market growth. An increase in clinical trials, effective government initiatives, and a rise in the local supply of CRISPR-Cas products are anticipated to support market expansion.
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Country-wise Insights
Why is the United States the Leading Revenue Generator in North America?
“Favorable Healthcare Legislation in the Country”
The United States is poised to be at the vanguard of the global CRISPR and Cas genes market over the forecast period due to favorable healthcare legislation, a high prevalence of chronic disorders, and a developed healthcare system. Growing biopharmaceutical R&D as well as the active involvement of various pharmaceutical companies in the development of novel medications using genome editing methods are driving market growth.
What are the Demand Growth Prospects for CRISPR and Cas Genes in Germany?
“Presence of Major Pharmaceutical & Gene Therapy Companies”
The market in Germany is anticipated to rise due to an increase in research approvals, the demand for novel therapies, and the presence of major pharmaceutical and gene therapy companies. A few of the main variables responsible for market growth are rising funding for biotechnology and genomics programs and reassuring healthcare policies.
Why is Japan Set to Be a Lucrative Market for Providers of CRISPR and Cas Genes?
“Increasing Need for Genetically Engineered Treatment Options for Chronic Diseases”
The market in Japan is estimated to increase at a significant rate throughout the forecast period owing to ongoing clinical investigations and an increase in genome-editing method research projects. The need for genetically engineered treatment options for chronic diseases such as cancer is anticipated to improve the growth prospects of the market in Japan.
The growing popularity of CRISPR technology in many applications and the expansion of R&D by research institutions & companies are two additional factors boosting market expansion. The market is driven by the rising prevalence of various genetic disorders and higher government investments in R&D activities to find novel treatments.
Category-wise Insights
Which Product is Forecast to Gain a Prominent Market Share?
“Vector-based Cas Systems More Useful for Production of Stable Cell Lines”
Based on product, the market is divided into vector-based Cas and DNA-free Cas. Vector-based Cas systems account for 60% share of the global market. Researchers that concentrate on enriching Cas9-expressing cells or work to create a stable cell line can benefit from vector-based Cas expression platforms. It is also possible to create stable cell lines with little background expression using vector-based Cas with an inducible promoter or to regulate Cas9 expression for a variety of experimental uses.
Production of high-level expression of protein and RNA over several days, reduction in potential off-targets, and the possibility of finding correlations with human diseases in model systems will continue to push the demand for vector-based Cas systems. Growth in demand for DNA-free systems is attributed to rising awareness about multiple CRISPR-Cas applications across various fields such as drug discovery, biomedical research, non-transgenic bleeding, and clinical therapies.
Which Application Will Bring in High Revenue Streams?
“Genome Engineering Systems Widely Used for Therapeutic Development & Germline Alterations”
The market is bifurcated into genome engineering, disease models, functional genomes, knockdown/activation, and others based on application. Genome engineering is anticipated to find the leading application of CRISPR-Cas-based techniques over the forecast period, capturing more than half of the total market share attributed to the growing use of gene-editing techniques for therapeutic development and germline alterations.
Enabling programmable genetic, epigenetic, and transcriptomic engineering is anticipated to push the scope of application in genome engineering. Widespread usage in research projects is also poised to influence market prospects for genome engineering. Application of CRISPR-Cas systems in disease models is anticipated to surge on the back of immunology-focused applications such as the targeting of C-C chemokine receptor type 5 and programmed death-1 gene.
Competitive Landscape
Top companies are engaged in several strategic alliances, including supply chain management, acquisitions, quality control, and the introduction of advanced products following safety regulations to lower the environmental impact and maintain their position in the international market.
Key market players are enhancing product standards and forming alliances with research institutes to conduct R&D for the treatment of many diseases, including AIDS, cancer, and genetic diseases. The market is experiencing greater competition as a result of technological advancements and the expanding functional background.
For instance :
- Thermo Fisher Scientific has a broad range of CRISPR-Cas products such as the CRISPR-Cas9 101, CRISPR Protein, CRISPR gRNA, Cas9 Lentivirus, and CRISPR Plasmids among others. The company also partnered with Synthego to distribute synthetic Guide RNA products for CRISPR.
- In 2021, Casebia Therapeutics and Bayer AG, a CRISPR therapeutics and pharmaceutical business, engaged in a cooperative research effort to find, develop, and market novel therapeutics to treat blindness, blood diseases, and congenital heart disease.
Key Segments of CRISPR and Cas Genes Industry Research
-
By Product :
- Vector-based Cas
- DNA-free Cas
-
By Application :
- Genome Engineering
- Disease Models
- Functional Genomes
- Knockdown/Activation
- Others
-
By End User :
- Biotechnology & Pharmaceutical Companies
- Academic & Government Research Institutes
- Contract Research Organizations
-
By Region :
- North America
- Europe
- Asia Pacific
- Latin America
- Middle East & Africa
Table of Content
1. Preface 1.1. Market Definition and Scope 1.2. Market Segmentation 1.3. Key Research Objectives 1.4. Research Highlights 2. Assumptions and Research Methodology 3. Executive Summary: Global Market 4. Market Overview 4.1. Introduction 4.1.1. Product Definition 4.1.2. Industry Evolution / Developments 4.2. Overview 4.2.1. Global Market Size (US$ Mn) Forecast, 2023–2033 4.2.2. Global Market Outlook 4.2.3. Evolution of CRISPRs 4.2.4. Research institutes involved in CRISPR Research 4.2.5. CRISPR: Funding & Investment 4.2.6. Mergers and Acquisitions 4.3. Market Dynamics 4.3.1. Drivers 4.3.2. Restraints 4.3.3. Opportunities 5. Global Market Analysis and Forecasts, by Product 5.1. Introduction & Definition 5.2. Market Value Forecast, by Product, 2023–2033 5.2.1. Vector-based Cas 5.2.2. DNA-free Cas 5.3. Market Attractiveness, by Product 6. Global Market Analysis and Forecasts, by Application 6.1. Introduction & Definition 6.2. Market Value Forecast, by Application, 2023–2033 6.2.1. Genome Engineering 6.2.2. Disease Models 6.2.3. Functional Genomics 6.2.4. Knockdown/activation 6.2.5. Others 6.3. Market Attractiveness, by Application 7. Global Market Analysis and Forecasts, by End user 7.1. Introduction & Definition 7.2. Market Value Forecast, by End-user, 2023–2033 7.2.1. Biotechnology & Pharmaceutical Companies 7.2.2. Academic & Government Research Institutes 7.2.3. Contract Research Organizations 7.3. Market Attractiveness, by End-user 8. Global Market Analysis and Forecasts, by Region 8.1. Key Findings 8.2. Market Value Forecast, by Region 8.2.1. North America 8.2.2. Europe 8.2.3. Asia Pacific 8.2.4. Latin America 8.2.5. Middle East & Africa 8.3. Market Attractiveness, by Country/Region 9. North America Market Analysis and Forecast 9.1. Introduction 9.2. Market Value Forecast, by Product, 2023–2033 9.2.1. Vector-based Cas 9.2.2. DNA-free Cas 9.3. Market Value Forecast, by Application, 2023–2033 9.3.1. Genome Engineering 9.3.2. Disease Models 9.3.3. Functional Genomics 9.3.4. Knockdown/activation 9.3.5. Others 9.4. Market Value Forecast, by End-user, 2023–2033 9.4.1. Biotechnology & Pharmaceutical Companies 9.4.2. Academic & Government Research Institutes 9.4.3. Contract Research Organizations 9.5. Market Value Forecast, by Country, 2023–2033 9.5.1. U.S. 9.5.2. Canada 9.6. Market Attractiveness Analysis 9.6.1. By Product 9.6.2. By Application 9.6.3. By End-user 9.6.4. By Country 10. Europe Market Analysis and Forecast 10.1. Introduction 10.2. Market Value Forecast, by Product, 2023–2033 10.2.1. Vector-based Cas 10.2.2. DNA-free Cas 10.3. Market Value Forecast, by Application, 2023–2033 10.3.1. Genome Engineering 10.3.2. Disease Models 10.3.3. Functional Genomics 10.3.4. Knockdown/activation 10.3.5. Others 10.4. Market Value Forecast, by End-user, 2023–2033 10.4.1. Biotechnology & Pharmaceutical Companies 10.4.2. Academic & Government Research Institutes 10.4.3. Contract Research Organizations 10.5. Market Value Forecast, by Country/Sub-region, 2023–2033 10.5.1. Germany 10.5.2. U.K. 10.5.3. France 10.5.4. Spain 10.5.5. Italy 10.5.6. Rest of Europe 10.6. Market Attractiveness Analysis 10.6.1. By Product 10.6.2. By Application 10.6.3. By End-user 10.6.4. By Country/Sub-region 11. Asia Pacific Market Analysis and Forecast 11.1. Introduction 11.2. Market Value Forecast, by Product, 2023–2033 11.2.1. Vector-based Cas 11.2.2. DNA-free Cas 11.3. Market Value Forecast, by Application, 2023–2033 11.3.1. Genome Engineering 11.3.2. Disease Models 11.3.3. Functional Genomics 11.3.4. Knockdown/activation 11.3.5. Others 11.4. Market Value Forecast, by End-user, 2023–2033 11.4.1. Biotechnology & Pharmaceutical Companies 11.4.2. Academic & Government Research Institutes 11.4.3. Contract Research Organizations 11.5. Market Value Forecast, by Country/Sub-region, 2023–2033 11.5.1. Japan 11.5.2. China 11.5.3. India 11.5.4. Rest of Asia Pacific 11.6. Market Attractiveness Analysis 11.6.1. By Product 11.6.2. By Application 11.6.3. By End-user 11.6.4. By Country/Sub-region 12. Latin America Market Analysis and Forecast 12.1. Introduction 12.2. Market Value Forecast, by Product, 2023–2033 12.2.1. Vector-based Cas 12.2.2. DNA-free Cas 12.3. Market Value Forecast, by Application, 2023–2033 12.3.1. Genome Engineering 12.3.2. Disease Models 12.3.3. Functional Genomics 12.3.4. Knockdown/activation 12.3.5. Others 12.4. Market Value Forecast, by End-user, 2023–2033 12.4.1. Biotechnology & Pharmaceutical Companies 12.4.2. Academic & Government Research Institutes 12.4.3. Contract Research Organizations 12.5. Market Value Forecast, by Country/Sub-region, 2023–2033 12.5.1. Brazil 12.5.2. Mexico 12.5.3. Rest of Latin America 12.6. Market Attractiveness Analysis 12.6.1. By Product 12.6.2. By Application 12.6.3. By End-user 12.6.4. By Country/Sub-region 13. Middle East & Africa Market Analysis and Forecast 13.1. Introduction 13.2. Market Value Forecast, by Product, 2023–2033 13.2.1. Vector-based Cas 13.2.2. DNA-free Cas 13.3. Market Value Forecast, by Application, 2023–2033 13.3.1. Genome Engineering 13.3.2. Disease Models 13.3.3. Functional Genomics 13.3.4. Knockdown/activation 13.3.5. Others 13.4. Market Value Forecast, by End-user, 2023–2033 13.4.1. Biotechnology & Pharmaceutical Companies 13.4.2. Academic & Government Research Institutes 13.4.3. Contract Research Organizations 13.5. Market Value Forecast, by Country/Sub-region, 2023–2033 13.5.1. GCC Countries 13.5.2. South Africa 13.5.3. Rest of Middle East & Africa 13.6. Market Attractiveness Analysis 13.6.1. By Product 13.6.2. By Application 13.6.3. By End-user 13.6.4. By Country/Sub-region 14. Competition Landscape 14.1. Market Player - Competition Matrix (By Tier and Size of companies) 14.2. Market Share Analysis, by Company (2018) 14.3. Company Profiles (Details - Overview, Financials, Recent Developments, Strategy) 14.3.1. Synthego 14.3.1.1. Company Overview 14.3.1.2. Financial Overview 14.3.1.3. Product Portfolio 14.3.1.4. SWOT Analysis 14.3.1.5. Strategic Overview 14.3.2. Thermo Fisher Scientific, Inc. 14.3.2.1. Company Overview 14.3.2.2. Financial Overview 14.3.2.3. Product Portfolio 14.3.2.4. SWOT Analysis 14.3.2.5. Strategic Overview 14.3.3. GenScript 14.3.3.1. Company Overview 14.3.3.2. Financial Overview 14.3.3.3. Product Portfolio 14.3.3.4. SWOT Analysis 14.3.3.5. Strategic Overview 14.3.4. Addgene 14.3.4.1. Company Overview 14.3.4.2. Financial Overview 14.3.4.3. Product Portfolio 14.3.4.4. SWOT Analysis 14.3.4.5. Strategic Overview 14.3.5. Merck KGaA (Sigma-Aldrich) 14.3.5.1. Company Overview 14.3.5.2. Financial Overview 14.3.5.3. Product Portfolio 14.3.5.4. SWOT Analysis 14.3.5.5. Strategic Overview 14.3.6. Integrated DNA Technologies, Inc. 14.3.6.1. Company Overview 14.3.6.2. Financial Overview 14.3.6.3. Product Portfolio 14.3.6.4. SWOT Analysis 14.3.6.5. Strategic Overview 14.3.7. Transposagen Biopharmaceuticals, Inc. 14.3.7.1. Company Overview 14.3.7.2. Financial Overview 14.3.7.3. Product Portfolio 14.3.7.4. SWOT Analysis 14.3.7.5. Strategic Overview 14.3.8. OriGene Technologies, Inc. 14.3.8.1. Company Overview 14.3.8.2. Financial Overview 14.3.8.3. Product Portfolio 14.3.8.4. SWOT Analysis 14.3.8.5. Strategic Overview 14.3.9. New England Biolabs 14.3.9.1. Company Overview 14.3.9.2. Financial Overview 14.3.9.3. Product Portfolio 14.3.9.4. SWOT Analysis 14.3.9.5. Strategic Overview 14.3.10. Dharmacon, a Horizon Discovery Group Co. 14.3.10.1. Company Overview 14.3.10.2. Financial Overview 14.3.10.3. Product Portfolio 14.3.10.4. SWOT Analysis 14.3.10.5. Strategic Overview 14.3.11. Cellecta, Inc. 14.3.11.1. Company Overview 14.3.11.2. Financial Overview 14.3.11.3. Product Portfolio 14.3.11.4. SWOT Analysis 14.3.11.5. Strategic Overview 14.3.12. Agilent Technologies 14.3.12.1. Company Overview 14.3.12.2. Financial Overview 14.3.12.3. Product Portfolio 14.3.12.4. SWOT Analysis 14.3.12.5. Strategic Overview 14.3.13. Applied StemCell, Inc. 14.3.13.1. Company Overview 14.3.13.2. Financial Overview 14.3.13.3. Product Portfolio 14.3.13.4. SWOT Analysis 14.3.13.5. Strategic Overview
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List Of Table
Table 01: Global Market Size (US$ Mn) Forecast, by Product, 2023–2033
Table 02: Global Market Size (US$ Mn) Forecast, by Application, 2023–2033
Table 03: Global Market Size (US$ Mn) Forecast, by End-user, 2023–2033
Table 04: Global Market Size (US$ Mn) Forecast, by Region, 2023–2033
Table 05: North America Market Size (US$ Mn) Forecast, by Country, 2023–2033
Table 06: North America Market Size (US$ Mn) Forecast, by Product Type, 2023–2033
Table 07: North America Market Size (US$ Mn) Forecast, by Application Type, 2023–2033
Table 08: North America Market Size (US$ Mn) Forecast, by End-user, 2023–2033
Table 09: Europe Market Size (US$ Mn) Forecast, by Country/Sub-region, 2023–2033
Table 10: Europe Market Size (US$ Mn) Forecast, by Product Type, 2023–2033
Table 11: Europe Market Size (US$ Mn) Forecast, by Application, 2023–2033
Table 12: Europe Market Size (US$ Mn) Forecast, by End-user, 2023–2033
Table 13: Asia Pacific Market Size (US$ Mn) Forecast, by Country/Sub-region, 2023–2033
Table 14: Asia Pacific Market Size (US$ Mn) Forecast, by Product Type, 2023–2033
Table 15: Asia Pacific Market Size (US$ Mn) Forecast, by Application Type, 2023–2033
Table 16: Asia Pacific Market Size (US$ Mn) Forecast, by End-user, 2023–2033
Table 17: Latin America Market Size (US$ Mn) Forecast, by Country/Sub-region, 2023–2033
Table 18: Latin America Market Size (US$ Mn) Forecast, by Product Type, 2023–2033
Table 19: Latin America Market Size (US$ Mn) Forecast, by Application Type, 2023–2033
Table 20: Latin America Market Size (US$ Mn) Forecast, by End-user, 2023–2033
Table 21: Middle East & Africa Market Size (US$ Mn) Forecast, by Country/Sub-region, 2023–2033
Table 22: Middle East & Africa Market Size (US$ Mn) Forecast, by Product, 2023–2033
Table 23: Middle East & Africa Market Size (US$ Mn) Forecast, by Application, 2023–2033
Table 24: Middle East & Africa Market Size (US$ Mn) Forecast, by End-user, 2023–2033
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List Of Figures
Figure 01: Global Market Size (US$ Mn) and Distribution, by Region, 2023 and 2033
Figure 02: Market Snapshot
Figure 03: Opportunity Map, 2022
Figure 04: Opportunity Map, 2022
Figure 05: Opportunity Map, 2022
Figure 06: Global Market Size (US$ Mn) Forecast and Y-o-Y Growth (%) Projection, 2023–2033
Figure 07: Global Market Value Share, by Product, 2022
Figure 08: Global Market Value Share, by Application, 2022
Figure 09: Global Market Value Share, by End-user, 2022
Figure 10: Global Market Value Share, by Region, 2022
Figure 11: Global Market Value Share, by Product, 2023 and 2033
Figure 12: Global Market Revenue (US$ Mn) and Y-o-Y Growth (%), by Vector-based Cas, 2023–2033
Figure 13: Global Market Revenue (US$ Mn) and Y-o-Y Growth (%), by DNA-free Cas, 2023–2033
Figure 14: Global Market Attractiveness Analysis, by Product, 2023–2033
Figure 15: Global Market Value Share, by Application, 2023 and 2033
Figure 16: Global Market Revenue (US$ Mn) and Y-o-Y Growth (%), by Genome Engineering, 2023–2033
Figure 17: Global Market Revenue (US$ Mn) and Y-o-Y Growth (%), by Disease Models, 2023–2033
Figure 18: Global Market Revenue (US$ Mn) and Y-o-Y Growth (%), by Functional Genomics, 2023–2033
Figure 19: Global Market Revenue (US$ Mn) and Y-o-Y Growth (%), by Contract Research Organizations, 2023–2033
Figure 20: Global Market Revenue (US$ Mn) and Y-o-Y Growth (%), by Functional Genomics, 2023–2033
Figure 21: Global Market Attractiveness Analysis, by Application, 2023–2033
Figure 22: Global Market Value Share, by End-user, 2023 and 2033
Figure 23: Global Market Revenue (US$ Mn) and Y-o-Y Growth (%), by Biotechnology & Pharmaceutical Companies, 2023–2033
Figure 24: Global Market Revenue (US$ Mn) and Y-o-Y Growth (%), by Academic & Government Research Institutes, 2023–2033
Figure 25: Global Market Revenue (US$ Mn) and Y-o-Y Growth (%), by Contract Research Organizations, 2023–2033
Figure 26: Global Market Attractiveness Analysis, by End-user, 2023–2033
Figure 27: Global Market Value Share, by Region, 2023 and 2033
Figure 28: Global Market Attractiveness Analysis, by Region, 2023–2033
Figure 29: North America Market Size (US$ Mn) Forecast and Y-o-Y Growth (%) Projection, 2023–2033
Figure 30: North America Market Value Share, by Country, 2023 and 2033
Figure 31: North America Market Attractiveness, by Country, 2023–2033
Figure 32: North America Market Value Share, by Product Type, 2023 and 2033
Figure 33: North America Market Attractiveness, by Product Type, 2023–2033
Figure 34: North America Market Value Share, by Application Type, 2023 and 2033
Figure 35: North America Market Attractiveness, by Application Type, 2023–2033
Figure 36: North America Market Value Share, by End-user, 2023 and 2033
Figure 37: North America Market Attractiveness, by End-user, 2023–2033
Figure 38: Europe Market Size (US$ Mn) Forecast and Y-o-Y Growth (%) Projection, 2023–2033
Figure 39: Europe Market Value Share, by Country/Sub-region, 2023 and 2033
Figure 40: Europe Market Attractiveness, by Country/Sub-region, 2023–2033
Figure 41: Europe Market Value Share, by Product Type, 2023 and 2033
Figure 42: Europe Market Attractiveness, by Product Type, 2023–2033
Figure 43: Europe Market Value Share, by Application, 2023 and 2033
Figure 44: Europe Market Attractiveness, by Application, 2023–2033
Figure 45: Europe Market Value Share, by End-user, 2023 and 2033
Figure 46: Europe Market Attractiveness, by End-user, 2023–2033
Figure 47: Asia Pacific Market Size (US$ Mn) Forecast and Y-o-Y Growth (%) Projection, 2023–2033
Figure 48: Asia Pacific Market Value Share, by Country/Sub-region, 2023 and 2033
Figure 49: Asia Pacific Market Attractiveness, by Country/Sub-region, 2023–2033
Figure 50: Asia Pacific Market Value Share, by Product Type, 2023 and 2033
Figure 51: Asia Pacific Market Attractiveness, by Product Type, 2023–2033
Figure 52: Asia Pacific Market Value Share, by Application Type, 2023 and 2033
Figure 53: Asia Pacific Market Attractiveness, by Application Type, 2023–2033
Figure 54: Asia Pacific Market Value Share, by End-user, 2023 and 2033
Figure 55: Asia Pacific Market Attractiveness, by End-user, 2023–2033
Figure 56: Latin America Market Size (US$ Mn) Forecast and Y-o-Y Growth (%) Projection, 2023–2033
Figure 57: Latin America Market Value Share, by Country/Sub-region, 2023 and 2033
Figure 58: Latin America Market Attractiveness, by Country/Sub-region, 2023–2033
Figure 59: Latin America Market Value Share, by Product Type, 2023 and 2033
Figure 60: Latin America Market Attractiveness, by Product Type, 2023–2033
Figure 61: Latin America Market Value Share, by Application Type, 2023 and 2033
Figure 62: Latin America Market Attractiveness, by Application Type, 2023–2033
Figure 63: Latin America Market Value Share, by End-user, 2023 and 2033
Figure 64: Latin America Market Attractiveness, by End-user, 2023–2033
Figure 65: Middle East & Africa Market Size (US$ Mn) Forecast and Y-o-Y Growth (%) Projection, 2023–2033
Figure 66: Middle East & Africa Market Value Share, by Country/Sub-region, 2023 and 2033
Figure 67: Middle East & Africa Market Attractiveness, by Country/Sub-region, 2023–2033
Figure 68: Middle East & Africa Market Value Share, by Product, 2023 and 2033
Figure 69: Middle East & Africa Market Attractiveness, by Product, 2023–2033
Figure 70: Middle East & Africa Market Value Share, by Application, 2023 and 2033
Figure 71: Middle East & Africa Market Attractiveness, by Application, 2023–2033
Figure 72: Middle East & Africa Market Value Share, by End-user, 2023 and 2033
Figure 73: Middle East & Africa Market Attractiveness, by End-user, 2023–2033
Figure 74: Thermo Fisher Scientific Inc. Revenue (US$ Bn) and Y-o-Y Growth (%), 2018–2022
Figure 75: Thermo Fisher Scientific Inc. Breakdown of Net Sales, by Region, 2022
Figure 76: Thermo Fisher Scientific Inc. Breakdown of Net Sales, by Business Segment, 2022
Figure 77: Thermo Fisher Scientific Inc. R&D Expense (US$ Mn) and Y-o-Y Growth (%), 2018–2022
Figure 78: GenScript Revenue (US$ Mn) and Y-o-Y Growth (%), 2018–2022
Figure 79: GenScript Breakdown of Net Sales, by Region, 2022
Figure 80: GenScript Breakdown of Net Sales, by Business Segment, 2022
Figure 81: GenScript R&D Expense (US$ Mn) and Selling and Distribution (US$ Mn), 2018–2022
Figure 82: Merck KGaA (Sigma Aldrich) Revenue (US$ Bn) and Y-o-Y Growth (%), 2018–2022
Figure 83: Merck KGaA (Sigma Aldrich) Breakdown of Net Sales, by Region, 2022
Figure 84: Merck KGaA (Sigma Aldrich) Breakdown of Net Sales, by Business Segment, 2022
Figure 85: Merck KGaA (Sigma Aldrich) Research & Development Market Share (%), by Business Segment, 2022
Figure 86: Agilent Technologies Breakdown of Net Sales, by Region, 2022
Figure 87: Agilent Technologies Breakdown of Net Sales (US$ Mn), by Segment, 2022
Figure 88: Agilent Technologies Revenue (US$ Mn) and Y-o-Y Growth (%), 2018–2022
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- FAQs -
What is the predicted growth for the CRISPR and Cas genes market?
Demand for CRISPR and Cas genes is expected to surge at a CAGR of 20% through 2033.
What is the market value for CRISPR and Cas genes in 2023?
The global CRISPR and Cas genes market is valued at US$ 2.6 billion in 2023.
Which product accounts for a leading market share?
Vector-based Cas systems hold 60% share of the global market.
Who are the key providers of CRISPR and Cas genes?
Addgene, AstraZeneca plc, and Caribou Biosciences, Inc. are top suppliers of CRISPR and Cas genes.
How big will the market for CRISPR and Cas genes be by 2033?
The market for CRISPR and Cas genes is forecasted to reach US$ 16 billion by 2033.
CRISPR and Cas Genes Market