Global In situ Hybridization Market Assessment, By Product Type [Consumables, Instruments, Software], By Technology [Fluorescent in situ hybridization, Chromogenic in situ hybridization], By Probe Type [DNA, RNA], By Application [Oncology, Neurology, Cytology, Immunology, Infectious Diseases, Developmental Biology, Others], By End-Users [Hospitals and Diagnostic Organizations, Clinical Research Organizations, Academics and Research Institutions, Pharmaceutical and Biotechnology Companies, Others], By Region, Opportunities and Forecast, 2017-2031F

The global in situ hybridization market is anticipated to be positively impacted by increasing cancer cases, genetic disorders, and developing research environment.

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Global in situ hybridization market size was valued at USD 1.64 billion in 2023 and is expected to reach USD 3.53 billion in 2031, with a CAGR of 10.04% for the forecast period between 2024 and 2031F. The global in situ hybridization market is highly dynamic and promising, with a robust product and favorable market tactics. The in-situ hybridization market is expected to be driven by factors such as the increasing prevalence of cancer cases and genetic disorders, the growing use of in-situ hybridization techniques in research and development, and advancements in molecular biology and genomics.

The proven efficacy of in situ hybridization techniques in diagnosing and managing diseases like cancer led to their growing adoption by healthcare professionals. Several research organizations have spent the last few years conducting extensive research to explore possibilities around in situ hybridization. It has enhanced the research and development scenario and led to significant growth in demand for such products. Hence, growing cancer cases across the globe is a major factor driving the demand for in situ hybridization techniques as it is highly efficient in detecting cancerous cells and genetic mutations. However, the high cost associated with products, lack of highly skilled professionals, and interpretation of complicated data are some hindrances in the growth of the global in situ hybridization market.

In May 2023, Bio-Techne announced the expansion of the Advanced Cell Diagnostics (ACD)-branded RNAscope in situ hybridization (ISH) portfolio with the commercialization of RNAscope multi-omic workflow for the Standard BioTools Hyperion Imaging System.

Bio-Techne is an international life sciences firm providing innovative tools and bioactive reagents for research and clinical diagnostics. The RNAscope is considered the gold standard for in situ hybridization and is trusted by biotechnological researchers worldwide, with a rapidly growing list of over 8,000 peer-reviewed publications.

Increasing Prevalence of Cancer Cases and Genetic Disorders

In situ hybridization techniques are used in genetic testing for cancers. These techniques help to detect chromosomal changes in patients and help healthcare professionals to identify the type of cancer, based on which the treatment is designed. Due to vast applications of in situ hybridization, techniques in the diagnosis of cancers and other genetic diseases are further driving the demand in the market. Besides cancers, in situ hybridization techniques are extensively utilized to diagnose other indications like infectious, viral, and immunological diseases. The American Society of Cancer estimates that 1,958,310 new cancer cases and 609,820 cancer deaths in the United States. Cancer Research UK estimates that there will be 28 million cancer cases per year by 2040. It states that the United Kingdom’s incidence is ranked higher than 90% of the world.

Growing Research and Development

The global in situ hybridization market is positively impacted by increased research and development surrounding genome exploration, diagnostic research, and its other healthcare and life sciences applications. Over the past few decades, the human genome project has significantly contributed to the growing body of research concerning genetic explorations and life sciences research. The market is anticipated to rise significantly with the growing acceptance and application of in situ hybridization in diagnostic centers, hospitals, and institutional and academic research projects. To increase their worldwide presence, major companies in the market are pursuing tactics including new launches, mergers and acquisitions, and partnerships.

In February 2023, Molecular Instruments (MI), which is a biotech firm under the umbrella of the California Institute of Technology, launched HCR RNA-CISH. The product is expected to stimulate automated chromogenic in situ hybridization (ISH) workflows that depend on Bio-Techne’s RNAscope. According to the company, HCR RNA-CISH kits offer twice the turnaround time and half the cost of any current chromogenic in situ hybridization (CISH) method, while delivering superior performance. HCR RNA-CISH has native support for IHC codetection and is fully compatible with all popular automation platforms.

Fluorescent in Situ Hybridization (FISH) is Expected to Dominate During Forecast Period

The fluorescent in situ hybridization (FISH) technique finds a vast range of usage in the diagnosis of congenital disorders like Down’s syndrome and other genetic diseases including cancer detection and identification. The growing application areas of fluorescent in situ hybridization (FISH) and its growing demand due to the rising burden of cancers and other genetic diseases is expected to make the fluorescent in situ hybridization (FISH) segment dominate the in situ hybridization market. The COVID-19 pandemic significantly boosted in situ hybridization and several research was done on it. For instance, in September 2023, a group of researchers published a protocol in STAR protocol, for the detection of infectious SARS-CoV-2 virus at low levels through in situ hybridization techniques.

North America to Lead the Global In situ Hybridization Market

North America is anticipated to dominate the market with the highest value share regarding its significant investment in research and development, technical breakthroughs made by major companies, highly developed healthcare infrastructure, and well-established research environment in North American nations like the United States and Canada. The government's actions and initiatives to assist medication development, genetic exploration, and cancer treatment contribute to the market's growth.

Report Scope

“In situ Hybridization Market Assessment, Opportunities and Forecast, 2017-2031F”, is a comprehensive report by Markets and Data, providing in-depth analysis and qualitative and quantitative assessment of the current state of global in situ hybridization market, industry dynamics, and challenges. The report includes market size, segmental shares, growth trends, opportunities, and forecast between 2024 and 2031F. Additionally, the report profiles the leading players in the industry mentioning their respective market share, business model, competitive intelligence, etc.

Report Attribute

Details

Base Year of the Analysis

2023

Historical Period

2017-2022

Forecast Period

2024-2031F

Projected Growth Rate

CAGR of 10.04% between 2024 and 2031F

Revenue Forecast in 2031

USD 3.53 billion

Units

Revenue in USD billion

Segments Covered

Product Type, Technology, Probe Type, Application, End-user

Regions Covered

North America, Europe, Asia-Pacific, Middle East, and Africa, South America

Key Companies Profiled

Illumina, Inc., Thermo Fisher Scientific Inc., Bio-Techne Corporation, Agilent Technologies Inc., Qiagen NV, F. Hoffmann-La Roche Ltd, Merck KGaA, PerkinElmer Inc., Myriad Genetics Inc., Leica Biosystems Nussloch GmbH, Genemed Biotechnologies, Inc.

Customization Scope

15% free report customization with purchase

Pricing and Purchase Options

Avail the customized purchase options to fulfill your precise research needs

Delivery Format

PDF and Excel through email (subject to the license purchased)

In this report, global in situ hybridization market has been segmented into the following categories: 

·         By Product Type

o   Consumables

o   Instruments

o   Software

·         By Technology

o   Fluorescent in situ hybridization (FISH)

o   Chromogenic in situ hybridization (CISH)

·         By Probe Type

o   DNA

o   RNA

·         By Application

o   Oncology

o   Neurology

o   Cytology

o   Immunology

o   Infectious Diseases

o   Developmental Biology

o   Others

·         By End-Users

o   Hospitals and Diagnostic Organizations

o   Clinical Research Organizations

o   Academics and Research Institutions

o   Pharmaceutical and Biotechnology Companies

o   Others

·         By Region

o    North America

o    Europe

o    Asia Pacific

o    South America

o    Middle East & Africa

Key Players Landscape and Outlook

Market players are expanding their product offerings and giving their customers access to a wide range of cutting-edge and novel products using a variety of tactics. Companies are expanding the range of products they offer to gain market share. Industry participants are using a variety of growth methods, including collaborations, mergers and acquisitions, partnerships, product launches, and development of new solutions, to bolster their position in the market.

In October 2023, Ikonisys SA partnered with Biocare Medical to expand the FISH diagnostic product portfolio. Biocare Medical is a leading firm providing immunohistochemistry (IHC) and Fluorescent in situ hybridization (FISH) tools and reagents while Ikonisys SA specializes in early and accurate detection of cancer through its unique fully automated solution for medical diagnostic labs. This partnership focuses on expanding the global distribution of products of Ikonisys SA, especially, the low-volume Ikoniscope20 and high-volume Ikoniscope20max. Earlier, Biocare Medical acquired Empire Genomics to expand its offering to include over 1 million FISH probes.

Key Players Operating in Global In Situ Hybridization Market are:

·         Illumina, Inc.,

·         Thermo Fisher Scientific Inc.

·         Bio-Techne Corporation

·         Agilent Technologies Inc.

·         Qiagen NV

·         F. Hoffmann-La Roche Ltd

·         Merck KGaA

·         PerkinElmer Inc.

·         Myriad Genetics Inc.

·         Leica Biosystems Nussloch GmbH

·         Genemed Biotechnologies, Inc.

Markets and Data’s report answers the following questions:

·         What is the current and future market size of the product/service in question globally or specific to different countries?

·         How are the markets divided into different product/service segments and the market size and growth of each segment?

·         What is the market potential of different product segments and their investment case?

·         How are the markets predicted to develop in the future and what factors will drive or inhibit growth?

·         What is the business environment and regulatory landscape specific to the product/service?

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Table of Contents

1.       Research Methodology

2.       Project Scope & Definitions

3.       Executive Summary

4.       Global In Situ Hybridization Market Outlook, 2017-2031F

4.1.    Market Size & Forecast

4.1.1.By Value

4.1.2.By Volume

4.2.    By Product Type

4.2.1.Consumables

4.2.2.Instruments

4.2.3.Software

4.3.    By Technology

4.3.1.Fluorescent in situ hybridization (FISH)

4.3.2.Chromogenic in situ hybridization (CISH)

4.4.    By Probe Type

4.4.1.DNA

4.4.2.RNA

4.5.    By Application

4.5.1.Oncology

4.5.2.Neurology

4.5.3.Cytology

4.5.4.Immunology

4.5.5.Infectious Diseases

4.5.6.Developmental Biology

4.5.7.Others

4.6.    By End-Users

4.6.1.Hospitals and Diagnostic Organizations

4.6.2.Clinical Research Organizations

4.6.3.Academics and Research Institutions

4.6.4.Pharmaceutical and Biotechnology Companies

4.6.5.Others

4.7.    By Region

4.7.1.North America

4.7.2.Europe

4.7.3.Asia Pacific

4.7.4.South America

4.7.5.Middle East & Africa

4.8.    By Company Market Share (%), 2023

5.       Global In situ Hybridization Market Outlook, 2017-2031F

5.1.   North America

5.1.1.Market Size & Forecast

5.1.1.1.              By Value

5.1.1.2.              By Volume

5.1.2.By Product Type

5.1.2.1.              Consumables

5.1.2.2.              Instruments

5.1.2.3.              Software

5.1.3.By Technology

5.1.3.1.              Fluorescent in situ hybridization (FISH)

5.1.3.2.              Chromogenic in situ hybridization (CISH)

5.1.4.By Probe Type

5.1.4.1.              DNA

5.1.4.2.              RNA

5.1.5.By Application

5.1.5.1.              Oncology

5.1.5.2.              Neurology

5.1.5.3.              Cytology

5.1.5.4.              Immunology

5.1.5.5.              Infectious Diseases

5.1.5.6.              Developmental Biology

5.1.5.7.              Others

5.1.6.By End-Users

5.1.6.1.              Hospitals and Diagnostic Organizations

5.1.6.2.              Clinical Research Organizations

5.1.6.3.              Academics and Research Institutions

5.1.6.4.              Pharmaceutical and Biotechnology Companies

5.1.6.5.              Others

5.1.7.United States*

5.1.7.1.              Market Size & Forecast

5.1.7.1.1.                    By Value

5.1.7.1.2.                    By Volume

5.1.7.2.              By Product Type

5.1.7.2.1.                    Consumables

5.1.7.2.2.                    Instruments

5.1.7.2.3.                    Software

5.1.7.3.              By Technology

5.1.7.3.1.                    Fluorescent in situ hybridization (FISH)

5.1.7.3.2.                    Chromogenic in situ hybridization (CISH)

5.1.7.4.              By Probe Type

5.1.7.4.1.                    DNA

5.1.7.4.2.                    RNA

5.1.7.5.              By Application

5.1.7.5.1.                    Oncology

5.1.7.5.2.                    Neurology

5.1.7.5.3.                    Cytology

5.1.7.5.4.                    Immunology

5.1.7.5.5.                    Infectious Diseases

5.1.7.5.6.                    Developmental Biology

5.1.7.5.7.                    Others

5.1.7.6.              By End-Users

5.1.7.6.1.                    Hospitals and Diagnostic Organizations

5.1.7.6.2.                    Clinical Research Organizations

5.1.7.6.3.                    Academics and Research Institutions

5.1.7.6.4.                    Pharmaceutical and Biotechnology Companies

5.1.7.6.5.                    Others

5.1.8.Canada

5.1.9.Mexico

*All segments will be provided for all regions and countries covered

5.2.   Europe

5.2.1.Germany

5.2.2.France

5.2.3.Italy

5.2.4.United Kingdom

5.2.5.Russia

5.2.6.Netherlands

5.2.7.Spain

5.2.8.Turkey

5.2.9.Poland

5.3.   South America

5.3.1.Brazil

5.3.2.Argentina

5.4.   Asia-Pacific

5.4.1.India

5.4.2.China

5.4.3.Japan

5.4.4.Australia

5.4.5.Vietnam

5.4.6.South Korea

5.4.7.Indonesia

5.4.8.Philippines

5.5.   Middle East & Africa

5.5.1.Saudi Arabia

5.5.2.UAE

5.5.3.South Africa

6.       Market Mapping, 2023

6.1.    By Type

6.2.    By Technology

6.3.    By Probe Type

6.4.    By Application

6.5.    By End-user

6.6.    By Region

7.       Macro Environment and Industry Structure

7.1.    Supply Demand Analysis

7.2.    Import Export Analysis – Volume and Value

7.3.    Supply/Value Chain Analysis

7.4.    PESTEL Analysis

7.4.1.Political Factors

7.4.2.Economic System

7.4.3.Social Implications

7.4.4.Technological Advancements

7.4.5.Environmental Impacts

7.4.6.Legal Compliances and Regulatory Policies (Statutory Bodies Included)

7.5.    Porter’s Five Forces Analysis

7.5.1.Supplier Power

7.5.2.Buyer Power

7.5.3.Substitution Threat

7.5.4.Threat from New Entrant

7.5.5.Competitive Rivalry

8.       Market Dynamics

8.1.    Growth Drivers

8.2.    Growth Inhibitors (Challenges, Restraints)

9.       Regulatory Framework and Innovation

9.1.    Clinical Trial

9.2.    Patent Landscape

9.3.    Regulatory Approvals

9.4.    Innovations/Emerging Technologies

10.   Key Players Landscape

10.1.                     Competition Matrix of Top Five Market Leaders

10.2.                     Market Revenue Analysis of Top Five Market Leaders (in %, 2023)

10.3.                     Mergers and Acquisitions/Joint Ventures (If Applicable)

10.4.                     SWOT Analysis (For Five Market Players)

10.5.                     Patent Analysis (If Applicable)

11.   Pricing Analysis

12.   Case Studies

13.   Key Players Outlook

13.1.Illumina, Inc.,

13.1.1.    Company Details

13.1.2.    Key Management Personnel

13.1.3.    Products & Services

13.1.4.    Financials (As reported)

13.1.5.    Key Market Focus & Geographical Presence

13.1.6.    Recent Developments

13.2.Thermo Fisher Scientific Inc.

13.3.Bio-Techne Corporation

13.4.Agilent Technologies Inc.

13.5.Qiagen NV

13.6.F. Hoffmann-La Roche Ltd

13.7.Merck KGaA

13.8.PerkinElmer Inc.

13.9.Myriad Genetics Inc.

13.10.                  Leica Biosystems Nussloch GmbH

13.11.                  Genemed Biotechnologies, Inc.

*Companies mentioned above DO NOT hold any order as per market share and can be changed as per information available during research work

14.      Strategic Recommendations

15.      About Us & Disclaimer

List of Figures

Figure 1. Global In situ Hybridization Market, By Value, In USD Billion, 2017-2031F

Figure 2. Global In situ Hybridization Market, By Volume, In Million Units, 2017-2031F

Figure 3. Global In situ Hybridization Market Share (%), By Product Type, 2017-2031F

Figure 4. Global In situ Hybridization Market Share (%), By Technology, 2017-2031F

Figure 5. Global In situ Hybridization Market Share (%), By Probe Type, 2017-2031F

Figure 6. Global In situ Hybridization Market Share (%), By Application, 2017-2031F

Figure 7. Global In situ Hybridization Market Share (%), By End-users, 2017-2031F

Figure 8. Global In situ Hybridization Market Share (%), By Region, 2017-2031F

Figure 9. North America In situ Hybridization Market, By Value, In USD Billion, 2017-2031F

Figure 10. North America In situ Hybridization Market, By Volume, In Million Units, 2017-2031F

Figure 11. North America In situ Hybridization Market Share (%), By Product Type, 2017-2031F

Figure 12. North America In situ Hybridization Market Share (%), By Technology, 2017-2031F

Figure 13. North America In situ Hybridization Market Share (%), By Probe Type, 2017-2031F

Figure 14. North America In situ Hybridization Market Share (%), By Application, 2017-2031F

Figure 15. North America In situ Hybridization Market Share (%), By End-users, 2017-2031F

Figure 16. North America In situ Hybridization Market Share (%), By Country, 2017-2031F

Figure 17. United States In situ Hybridization Market, By Value, In USD Billion, 2017-2031F

Figure 18. United States In situ Hybridization Market, By Volume, In Million Units, 2017-2031F

Figure 19. United States In situ Hybridization Market Share (%), By Product Type, 2017-2031F

Figure 20. United States In situ Hybridization Market Share (%), By Technology, 2017-2031F

Figure 21. United States In situ Hybridization Market Share (%), By Probe Type, 2017-2031F

Figure 22. United States In situ Hybridization Market Share (%), By Application, 2017-2031F

Figure 23. United States In situ Hybridization Market Share (%), By End-users, 2017-2031F

Figure 24. Canada In situ Hybridization Market, By Value, In USD Billion, 2017-2031F

Figure 25. Canada In situ Hybridization Market, By Volume, In Million Units, 2017-2031F

Figure 26. Canada In situ Hybridization Market Share (%), By Product Type, 2017-2031F

Figure 27. Canada In situ Hybridization Market Share (%), By Technology, 2017-2031F

Figure 28. Canada In situ Hybridization Market Share (%), By Probe Type, 2017-2031F

Figure 29. Canada In situ Hybridization Market Share (%), By Application, 2017-2031F

Figure 30. Canada In situ Hybridization Market Share (%), By End-users, 2017-2031F

Figure 31. Mexico In situ Hybridization Market, By Value, In USD Billion, 2017-2031F

Figure 32. Mexico In situ Hybridization Market, By Volume, In Million Units, 2017-2031F

Figure 33. Mexico In situ Hybridization Market Share (%), By Product Type, 2017-2031F

Figure 34. Mexico In situ Hybridization Market Share (%), By Technology, 2017-2031F

Figure 35. Mexico In situ Hybridization Market Share (%), By Probe Type, 2017-2031F

Figure 36. Mexico In situ Hybridization Market Share (%), By Application, 2017-2031F

Figure 37. Mexico In situ Hybridization Market Share (%), By End-users, 2017-2031F

Figure 38. Europe In situ Hybridization Market, By Value, In USD Billion, 2017-2031F

Figure 39. Europe In situ Hybridization Market, By Volume, In Million Units, 2017-2031F

Figure 40. Europe In situ Hybridization Market Share (%), By Product Type, 2017-2031F

Figure 41. Europe In situ Hybridization Market Share (%), By Technology, 2017-2031F

Figure 42. Europe In situ Hybridization Market Share (%), By Probe Type, 2017-2031F

Figure 43. Europe In situ Hybridization Market Share (%), By Application, 2017-2031F

Figure 44. Europe In situ Hybridization Market Share (%), By End-users, 2017-2031F

Figure 45. Europe In situ Hybridization Market Share (%), By Country, 2017-2031F

Figure 46. Germany In situ Hybridization Market, By Value, In USD Billion, 2017-2031F

Figure 47. Germany In situ Hybridization Market, By Volume, In Million Units, 2017-2031F

Figure 48. Germany In situ Hybridization Market Share (%), By Product Type, 2017-2031F

Figure 49. Germany In situ Hybridization Market Share (%), By Technology, 2017-2031F

Figure 50. Germany In situ Hybridization Market Share (%), By Probe Type, 2017-2031F

Figure 51. Germany In situ Hybridization Market Share (%), By Application, 2017-2031F

Figure 52. Germany In situ Hybridization Market Share (%), By End-users, 2017-2031F

Figure 53. France In situ Hybridization Market, By Value, In USD Billion, 2017-2031F

Figure 54. France In situ Hybridization Market, By Volume, In Million Units, 2017-2031F

Figure 55. France In situ Hybridization Market Share (%), By Product Type, 2017-2031F

Figure 56. France In situ Hybridization Market Share (%), By Technology, 2017-2031F

Figure 57. France In situ Hybridization Market Share (%), By Probe Type, 2017-2031F

Figure 58. France In situ Hybridization Market Share (%), By Application, 2017-2031F

Figure 59. France In situ Hybridization Market Share (%), By End-users, 2017-2031F

Figure 60. Italy In situ Hybridization Market, By Value, In USD Billion, 2017-2031F

Figure 61. Italy In situ Hybridization Market, By Volume, In Million Units, 2017-2031F

Figure 62. Italy In situ Hybridization Market Share (%), By Product Type, 2017-2031F

Figure 63. Italy In situ Hybridization Market Share (%), By Technology, 2017-2031F

Figure 64. Italy In situ Hybridization Market Share (%), By Probe Type, 2017-2031F

Figure 65. Italy In situ Hybridization Market Share (%), By Application, 2017-2031F

Figure 66. Italy In situ Hybridization Market Share (%), By End-users, 2017-2031F

Figure 67. United Kingdom In situ Hybridization Market, By Value, In USD Billion, 2017-2031F

Figure 68. United Kingdom In situ Hybridization Market, By Volume, In Million Units, 2017-2031F

Figure 69. United Kingdom In situ Hybridization Market Share (%), By Product Type, 2017-2031F

Figure 70. United Kingdom In situ Hybridization Market Share (%), By Technology, 2017-2031F

Figure 71. United Kingdom In situ Hybridization Market Share (%), By Probe Type, 2017-2031F

Figure 72. United Kingdom In situ Hybridization Market Share (%), By Application, 2017-2031F

Figure 73. United Kingdom In situ Hybridization Market Share (%), By End-users, 2017-2031F

Figure 74. Russia In situ Hybridization Market, By Value, In USD Billion, 2017-2031F

Figure 75. Russia In situ Hybridization Market, By Volume, In Million Units, 2017-2031F

Figure 76. Russia In situ Hybridization Market Share (%), By Product Type, 2017-2031F

Figure 77. Russia In situ Hybridization Market Share (%), By Technology, 2017-2031F

Figure 78. Russia In situ Hybridization Market Share (%), By Probe Type, 2017-2031F

Figure 79. Russia In situ Hybridization Market Share (%), By Application, 2017-2031F

Figure 80. Russia In situ Hybridization Market Share (%), By End-users, 2017-2031F

Figure 81. Netherlands In situ Hybridization Market, By Value, In USD Billion, 2017-2031F

Figure 82. Netherlands In situ Hybridization Market, By Volume, In Million Units, 2017-2031F

Figure 83. Netherlands In situ Hybridization Market Share (%), By Product Type, 2017-2031F

Figure 84. Netherlands In situ Hybridization Market Share (%), By Technology, 2017-2031F

Figure 85. Netherlands In situ Hybridization Market Share (%), By Probe Type, 2017-2031F

Figure 86. Netherlands In situ Hybridization Market Share (%), By Application, 2017-2031F

Figure 87. Netherlands In situ Hybridization Market Share (%), By End-users, 2017-2031F

Figure 88. Spain In situ Hybridization Market, By Value, In USD Billion, 2017-2031F

Figure 89. Spain In situ Hybridization Market, By Volume, In Million Units, 2017-2031F

Figure 90. Spain In situ Hybridization Market Share (%), By Product Type, 2017-2031F

Figure 91. Spain In situ Hybridization Market Share (%), By Technology, 2017-2031F

Figure 92. Spain In situ Hybridization Market Share (%), By Probe Type, 2017-2031F

Figure 93. Spain In situ Hybridization Market Share (%), By Application, 2017-2031F

Figure 94. Spain In situ Hybridization Market Share (%), By End-users, 2017-2031F

Figure 95. Turkey In situ Hybridization Market, By Value, In USD Billion, 2017-2031F

Figure 96. Turkey In situ Hybridization Market, By Volume, In Million Units, 2017-2031F

Figure 97. Turkey In situ Hybridization Market Share (%), By Product Type, 2017-2031F

Figure 98. Turkey In situ Hybridization Market Share (%), By Technology, 2017-2031F

Figure 99. Turkey In situ Hybridization Market Share (%), By Probe Type, 2017-2031F

Figure 100. Turkey In situ Hybridization Market Share (%), By Application, 2017-2031F

Figure 101. Turkey In situ Hybridization Market Share (%), By End-users, 2017-2031F

Figure 102. Poland In situ Hybridization Market, By Value, In USD Billion, 2017-2031F

Figure 103. Poland In situ Hybridization Market, By Volume, In Million Units, 2017-2031F

Figure 104. Poland In situ Hybridization Market Share (%), By Product Type, 2017-2031F

Figure 105. Poland In situ Hybridization Market Share (%), By Technology, 2017-2031F

Figure 106. Poland In situ Hybridization Market Share (%), By Probe Type, 2017-2031F

Figure 107. Poland In situ Hybridization Market Share (%), By Application, 2017-2031F

Figure 108. Poland In situ Hybridization Market Share (%), By End-users, 2017-2031F

Figure 109. South America In situ Hybridization Market, By Value, In USD Billion, 2017-2031F

Figure 110. South America In situ Hybridization Market, By Volume, In Million Units, 2017-2031F

Figure 111. South America In situ Hybridization Market Share (%), By Product Type, 2017-2031F

Figure 112. South America In situ Hybridization Market Share (%), By Technology, 2017-2031F

Figure 113. South America In situ Hybridization Market Share (%), By Probe Type, 2017-2031F

Figure 114. South America In situ Hybridization Market Share (%), By Application, 2017-2031F

Figure 115. South America In situ Hybridization Market Share (%), By End-users, 2017-2031F

Figure 116. South America In situ Hybridization Market Share (%), By Country, 2017-2031F

Figure 117. Brazil In situ Hybridization Market, By Value, In USD Billion, 2017-2031F

Figure 118. Brazil In situ Hybridization Market, By Volume, In Million Units, 2017-2031F

Figure 119. Brazil In situ Hybridization Market Share (%), By Product Type, 2017-2031F

Figure 120. Brazil In situ Hybridization Market Share (%), By Technology, 2017-2031F

Figure 121. Brazil In situ Hybridization Market Share (%), By Probe Type, 2017-2031F

Figure 122. Brazil In situ Hybridization Market Share (%), By Application, 2017-2031F

Figure 123. Brazil In situ Hybridization Market Share (%), By End-users, 2017-2031F

Figure 124. Argentina In situ Hybridization Market, By Value, In USD Billion, 2017-2031F

Figure 125. Argentina In situ Hybridization Market, By Volume, In Million Units, 2017-2031F

Figure 126. Argentina In situ Hybridization Market Share (%), By Product Type, 2017-2031F

Figure 127. Argentina In situ Hybridization Market Share (%), By Technology, 2017-2031F

Figure 128. Argentina In situ Hybridization Market Share (%), By Probe Type, 2017-2031F

Figure 129. Argentina In situ Hybridization Market Share (%), By Application, 2017-2031F

Figure 130. Argentina In situ Hybridization Market Share (%), By End-users, 2017-2031F

Figure 131. Asia-Pacific In situ Hybridization Market, By Value, In USD Billion, 2017-2031F

Figure 132. Asia-Pacific In situ Hybridization Market, By Volume, In Million Units, 2017-2031F

Figure 133. Asia-Pacific In situ Hybridization Market Share (%), By Product Type, 2017-2031F

Figure 134. Asia-Pacific In situ Hybridization Market Share (%), By Technology, 2017-2031F

Figure 135. Asia-Pacific In situ Hybridization Market Share (%), By Probe Type, 2017-2031F

Figure 136. Asia-Pacific In situ Hybridization Market Share (%), By Application, 2017-2031F

Figure 137. Asia- Pacific In situ Hybridization Market Share (%), By End-users, 2017-2031F

Figure 138. Asia-Pacific In situ Hybridization Market Share (%), By Country, 2017-2031F

Figure 139. India In situ Hybridization Market, By Value, In USD Billion, 2017-2031F

Figure 140. India In situ Hybridization Market, By Volume, In Million Units, 2017-2031F

Figure 141. India In situ Hybridization Market Share (%), By Product Type, 2017-2031F

Figure 142. India In situ Hybridization Market Share (%), By Technology, 2017-2031F

Figure 143. India In situ Hybridization Market Share (%), By Probe Type, 2017-2031F

Figure 144. India In situ Hybridization Market Share (%), By Application, 2017-2031F

Figure 145. India In situ Hybridization Market Share (%), By End-users, 2017-2031F

Figure 146. China In situ Hybridization Market, By Value, In USD Billion, 2017-2031F

Figure 147. China In situ Hybridization Market, By Volume, In Million Units, 2017-2031F

Figure 148. China In situ Hybridization Market Share (%), By Product Type, 2017-2031F

Figure 149. China In situ Hybridization Market Share (%), By Technology, 2017-2031F

Figure 150. China In situ Hybridization Market Share (%), By Probe Type, 2017-2031F

Figure 151. China In situ Hybridization Market Share (%), By Application, 2017-2031F

Figure 152. China In situ Hybridization Market Share (%), By End-users, 2017-2031F

Figure 153. Japan In situ Hybridization Market, By Value, In USD Billion, 2017-2031F

Figure 154. Japan In situ Hybridization Market, By Volume, In Million Units, 2017-2031F

Figure 155. Japan In situ Hybridization Market Share (%), By Product Type, 2017-2031F

Figure 156. Japan In situ Hybridization Market Share (%), By Technology, 2017-2031F

Figure 157. Japan In situ Hybridization Market Share (%), By Probe Type, 2017-2031F

Figure 158. Japan In situ Hybridization Market Share (%), By Application, 2017-2031F

Figure 159. Japan In situ Hybridization Market Share (%), By End-users, 2017-2031F

Figure 160. Australia In situ Hybridization Market, By Value, In USD Billion, 2017-2031F

Figure 161. Australia In situ Hybridization Market, By Volume, In Million Units, 2017-2031F

Figure 162. Australia In situ Hybridization Market Share (%), By Product Type, 2017-2031F

Figure 163. Australia In situ Hybridization Market Share (%), By Technology, 2017-2031F

Figure 164. Australia In situ Hybridization Market Share (%), By Probe Type, 2017-2031F

Figure 165. Australia In situ Hybridization Market Share (%), By Application, 2017-2031F

Figure 166. Australia In situ Hybridization Market Share (%), By End-users, 2017-2031F

Figure 167. Vietnam In situ Hybridization Market, By Value, In USD Billion, 2017-2031F

Figure 168. Vietnam In situ Hybridization Market, By Volume, In Million Units, 2017-2031F

Figure 169. Vietnam In situ Hybridization Market Share (%), By Product Type, 2017-2031F

Figure 170. Vietnam In situ Hybridization Market Share (%), By Technology, 2017-2031F

Figure 171. Vietnam In situ Hybridization Market Share (%), By Probe Type, 2017-2031F

Figure 172. Vietnam In situ Hybridization Market Share (%), By Application, 2017-2031F

Figure 173. Vietnam In situ Hybridization Market Share (%), By End-users, 2017-2031F

Figure 174. South Korea In situ Hybridization Market, By Value, In USD Billion, 2017-2031F

Figure 175. South Korea In situ Hybridization Market, By Volume, In Million Units, 2017-2031F

Figure 176. South Korea In situ Hybridization Market Share (%), By Product Type, 2017-2031F

Figure 177. South Korea In situ Hybridization Market Share (%), By Technology, 2017-2031F

Figure 178. South Korea In situ Hybridization Market Share (%), By Probe Type, 2017-2031F

Figure 179. South Korea In situ Hybridization Market Share (%), By Application, 2017-2031F

Figure 180. South Korea In situ Hybridization Market Share (%), By End-users, 2017-2031F

Figure 181. Indonesia In situ Hybridization Market, By Value, In USD Billion, 2017-2031F

Figure 182. Indonesia In situ Hybridization Market, By Volume, In Million Units, 2017-2031F

Figure 183. Indonesia In situ Hybridization Market Share (%), By Product Type, 2017-2031F

Figure 184. Indonesia In situ Hybridization Market Share (%), By Technology, 2017-2031F

Figure 185. Indonesia In situ Hybridization Market Share (%), By Probe Type, 2017-2031F

Figure 186. Indonesia In situ Hybridization Market Share (%), By Application, 2017-2031F

Figure 187. Indonesia In situ Hybridization Market Share (%), By End-users, 2017-2031F

Figure 188. Philippines In situ Hybridization Market, By Value, In USD Billion, 2017-2031F

Figure 189. Philippines In situ Hybridization Market, By Volume, In Million Units, 2017-2031F

Figure 190. Philippines In situ Hybridization Market Share (%), By Product Type, 2017-2031F

Figure 191. Philippines In situ Hybridization Market Share (%), By Technology, 2017-2031F

Figure 192. Philippines In situ Hybridization Market Share (%), By Probe Type, 2017-2031F

Figure 193. Philippines In situ Hybridization Market Share (%), By Application, 2017-2031F

Figure 194. Philippines In situ Hybridization Market Share (%), By End-users, 2017-2031F

Figure 195. Middle East & Africa In situ Hybridization Market, By Value, In USD Billion, 2017-2031F

Figure 196. Middle East & Africa In situ Hybridization Market, By Volume, In Million Units, 2017-2031F

Figure 197. Middle East & Africa In situ Hybridization Market Share (%), By Product Type, 2017-2031F

Figure 198. Middle East & Africa In situ Hybridization Market Share (%), By Technology, 2017-2031F

Figure 199. Middle East & Africa In situ Hybridization Market Share (%), By Probe Type, 2017-2031F

Figure 200. Middle East & Africa In situ Hybridization Market Share (%), By Application, 2017-2031F

Figure 201. Middle East & Africa In situ Hybridization Market Share (%), By End-users, 2017-2031F

Figure 202. Middle East & Africa In situ Hybridization Market Share (%), By Country, 2017-2031F

Figure 203. Saudi Arabia In situ Hybridization Market, By Value, In USD Billion, 2017-2031F

Figure 204. Saudi Arabia In situ Hybridization Market, By Volume, In Million Units, 2017-2031F

Figure 205. Saudi Arabia In situ Hybridization Market Share (%), By Product Type, 2017-2031F

Figure 206. Saudi Arabia In situ Hybridization Market Share (%), By Technology, 2017-2031F

Figure 207. Saudi Arabia In situ Hybridization Market Share (%), By Probe Type, 2017-2031F

Figure 208. Saudi Arabia In situ Hybridization Market Share (%), By Application, 2017-2031F

Figure 209. Saudi Arabia In situ Hybridization Market Share (%), By End-users, 2017-2031F

Figure 210. UAE In situ Hybridization Market, By Value, In USD Billion, 2017-2031F

Figure 211. UAE In situ Hybridization Market, By Volume, In Million Units, 2017-2031F

Figure 212. UAE In situ Hybridization Market Share (%), By Product Type, 2017-2031F

Figure 213. UAE In situ Hybridization Market Share (%), By Technology, 2017-2031F

Figure 214. UAE In situ Hybridization Market Share (%), By Probe Type, 2017-2031F

Figure 215. UAE In situ Hybridization Market Share (%), By Application, 2017-2031F

Figure 216. UAE In situ Hybridization Market Share (%), By End-users, 2017-2031F

Figure 217. South Africa In situ Hybridization Market, By Value, In USD Billion, 2017-2031F

Figure 218. South Africa In situ Hybridization Market, By Volume, In Million Units, 2017-2031F

Figure 219. South Africa In situ Hybridization Market Share (%), By Product Type, 2017-2031F

Figure 220. South Africa In situ Hybridization Market Share (%), By Technology, 2017-2031F

Figure 221. South Africa In situ Hybridization Market Share (%), By Probe Type, 2017-2031F

Figure 222. South Africa In situ Hybridization Market Share (%), By Application, 2017-2031F

Figure 223. South Africa In situ Hybridization Market Share (%), By End-users, 2017-2031F

Figure 224. By Product Type Map-Market Size (USD Billion) & Growth Rate (%), 2023

Figure 225. By Technology Map-Market Size (USD Billion) & Growth Rate (%), 2023

Figure 226. By Probe Type Map-Market Size (USD Billion) & Growth Rate (%), 2023

Figure 227. By Application Map-Market Size (USD Billion) & Growth Rate (%), 2023

Figure 228. By End-users Map-Market Size (USD Billion) & Growth Rate (%), 2023

Figure 229. By Region Map-Market Size (USD Billion) & Growth Rate (%), 2023 

List of Tables

Table 1. Pricing Analysis of Products from Key Players

Table 2. Competition Matrix of Top 5 Market Leaders

Table 3. Mergers & Acquisitions/ Joint Ventures (If Applicable)

Table 4. About Us - Regions and Countries Where We Have Executed Client Projects

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