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市场调查报告书
商品编码
1423655
2030 年农业基因组学市场预测:按定序仪类型、目的、技术、应用和地区进行的全球分析Agrigenomics Market Forecasts to 2030 - Global Analysis By Sequencer Type, Objective, Technology (Real-Time PCR, Microarrays, Next Generation Sequencing, Capillary Electrophoresis and Other Technologies), Application and by Geography |
根据 Stratistics MRC 的数据,2023 年全球农业基因组市场规模为 41.2 亿美元,预计到 2030 年将达到 89.3 亿美元,预测期内复合年增长率为 11.7%。
农业基因组学的跨学科领域结合了基因组学、遗传学和资讯学来改善农业实践。农业基因组学专注于了解农作物和牲畜的基因组成,以提高其復原力、生产力和营养价值。此外,透过检查作物物种的遗传组合,研究人员可以识别影响生长、抗病性和环境适应性的重要特征。透过基因工程和选择性育种,农业基因组学对于开发更好的牲畜和作物品种至关重要。
联合国粮食及农业组织 (FAO) 表示,许多国家正在努力保护自然环境、粮食生产多样化、保护动植物健康、减少农业劳动力,同时养活不断增长的世界人口。开发永续谷物
世界各地对食品的需求不断增长
世界人口的不断增长导致对粮食的需求增加。农业基因组学利用遗传见解来创造具有更高生产力、营养状况和抗病性的作物和牲畜。此外,透过破解农业生物体的遗传密码,科学家可以选择性地培育出能够大幅提高粮食总产量的性状,以满足世界人口不断增长的需求。
初始投资高
农业基因组技术的实施需要对基础设施、机械和合格劳动力进行大量初始投资。这些高昂的初期成本对小农来说尤其具有挑战性,使其更难以采用和获得农业基因组创新的好处。此外,财政奖励和官民合作关係等策略对于缓解这些经济障碍可能很重要。
精密农业一体化
农业基因组学和精密农业的结合有许多好处。农民可以利用基因组资料结合即时主导讯息,做出有关作物管理的资料驱动决策,优化资源利用,最大限度地减少环境影响,并提高农业效率。此外,这种组合有可能改变农业实践并推动永续农业。
大众认知和道德问题
对基因改造作物和牲畜的道德担忧可能会导致公众抵制和不利的看法。对食用基因改造作物(GMO) 和未知的长期生态影响的担忧可能会导致监管障碍和市场困难。此外,管理这些道德问题需要弥合科学发现和公众认知之间的知识差距。
农业基因组学市场受到了 COVID-19 大流行的许多影响。儘管该行业最初受到劳动力短缺、供应链中断和物流挑战的阻碍,但这场危机也凸显了弹性和永续农业实践的重要性。此外,人们对粮食安全的认识不断增强,以及对提高作物恢復能力和生产力的最尖端科技的需求,正在加速农业基因组学解决方案的采用。疫情也让人们关注精密农业、数位农业和远端监控的重要性。
DNA提取和精製领域预计在预测期内将是最大的。
最大份额是在DNA提取和精製领域,它在许多下游应用中发挥基础作用。 DNA 萃取和精製是从农业生物体中获取优质遗传物质并促进进一步分析的重要步骤。此外,本节涵盖的技术和工具包括分离和清洗,以保持 DNA 完整性,以便进一步应用,例如基因基因型鉴定、基因表现、DNA/RNA定序和标记辅助选择。高效的 DNA 提取对于获得准确的基因组资讯并影响各种农业基因组学应用的结果至关重要。
下一代定序领域预计在预测期内复合年增长率最高
复合年增长率最高的细分市场是下一代定序(NGS)。次世代定序技术使 DNA 和 RNA 的高通量、大规模平行定序成为可能,彻底改变了基因组分析领域。由于能够快速且经济地产生大量序列资料,该市场正在经历显着成长。 NGS 对于农业基因组学至关重要,因为它提供了有关牛和作物的整个基因组组成的资讯。此外,各种应用也将成为可能,包括总体基因体学、标记辅助选择的标靶定序和全基因组定序。
欧洲地区预计将占据农业基因组学的最大市场占有率。经过英国、德国、法国等欧洲国家的努力,农业基因体学得到了长足的发展。该地区以精密农业和永续农业为重点,正大力投资研发。欧洲在利用农业基因组学技术来改良作物、饲养牲畜和应对农业环境挑战方面处于领先地位。此外,由于重要研究机构的存在、产学合作以及政府的支持政策,农业基因组学在欧洲市场越来越普及。
在农业基因组学市场中,中东和非洲(MEA)地区的复合年增长率最高。该地区,特别是南非和海湾国家,越来越有兴趣在农业应用中实施尖端基因组技术。由于粮食安全需求、水资源短缺问题以及永续农业的重视等因素,农业基因组学解决方案变得越来越昂贵。此外,在中东和非洲地区,公共和私人机构都在研究基因组学的应用,以改善牲畜品种、优化农业实践和改良作物品种。
According to Stratistics MRC, the Global Agrigenomics Market is accounted for $4.12 billion in 2023 and is expected to reach $8.93 billion by 2030 growing at a CAGR of 11.7% during the forecast period. In order to improve agricultural practices, the interdisciplinary field of agrigenomics combines genomics, genetics, and informatics. In order to improve the resilience, productivity, and nutritional value of crops and livestock, it focuses on comprehending their genetic makeup. Moreover, researchers can pinpoint important features that affect growth, disease resistance, and environmental adaptability by studying the complete set of genes in agricultural species. Through genetic engineering and selective breeding, agrigenomics is essential to the development of better livestock breeds and crop varieties.
According to the Food and Agriculture Organization (FAO), many countries are developing sustainable grains to feed the growing world population while safeguarding the natural environment, diversifying food production, protecting plant and animal health, and reducing the drudgery of farming.
Rising demand for food worldwide
The unrelenting increase in the world's population has led to an increased need for food. In order to create crops and livestock with improved productivity, nutritional profiles, and disease resistance, agrigenomics uses genetic insights. Additionally, scientists can selectively breed for traits that greatly increase overall food production to meet the ever-increasing needs of the global population by deciphering the genetic code of agricultural organisms.
Expensive initial outlay
Agrigenomic technology adoption necessitates large upfront expenditures for infrastructure, machinery, and qualified labor. These high upfront costs can be especially difficult for smaller farms, making it more difficult for them to implement and reap the benefits of agrigenomic innovations. Furthermore, to reduce these financial obstacles, tactics like financial incentives and public-private partnerships might be crucial.
Integration of precision agriculture
There are a lot of benefits associated with agrigenomics and precision agriculture combined. Farmers are able to optimize resource utilization, minimize environmental impact, and improve overall agricultural efficiency by utilizing genomic data in conjunction with real-time field information to make data-driven decisions regarding crop management. Moreover, there is a chance that this combination will transform agricultural methods and advance sustainable farming.
Public perception and ethical concerns
Public resistance and unfavorable perceptions can result from ethical concerns about genetically modifying crops and livestock. Concerns about eating genetically modified organisms (GMOs) and the unknown consequences for ecosystems in the long run could lead to obstacles in the way of regulations and difficulties in the market. Additionally, managing these ethical issues requires bridging the knowledge gap between scientific discoveries and general public perception.
The agrigenomics market has experienced a number of effects from the COVID-19 pandemic. Although the industry was initially hindered by labor shortages, supply chain disruptions, and logistical challenges, the crisis has also highlighted the significance of resilient and sustainable agricultural practices. Furthermore, the adoption of agrigenomic solutions has accelerated due to growing awareness of food security and the need for cutting-edge technologies to improve crop resilience and productivity. The pandemic has also brought attention to the importance of precision farming, digital agriculture, and remote monitoring.
The DNA Extraction & Purification segment is expected to be the largest during the forecast period
With its foundational role in numerous downstream applications, the DNA extraction and purification segment holds the largest share. To obtain genetic material of superior quality from agricultural organisms and facilitate further analyses, the extraction and purification of DNA are essential steps. Moreover, the techniques and tools covered in this section include separating and cleaning DNA in order to preserve its integrity for further uses such as genotyping, gene expression profiling, DNA/RNA sequencing, and marker-assisted selection. In order to obtain precise genomic information and impact the outcome of various agrigenomic applications, efficient DNA extraction is essential.
The Next Generation Sequencing segment is expected to have the highest CAGR during the forecast period
The segment with the highest CAGR has been Next Generation Sequencing (NGS). High-throughput, massively parallel sequencing of DNA and RNA was made possible by Next Generation Sequencing Technologies, which completely changed the field of genomic analysis. Due to its ability to quickly and affordably generate large volumes of sequence data, this market has experienced remarkable growth. NGS is essential to agrigenomics because it provides information about the whole genomic makeup of cattle and crops. Additionally, it makes a variety of applications possible, such as metagenomics, targeted sequencing for marker-assisted selection, and whole-genome sequencing.
The largest market share for agrigenomics is projected to be held by the European region. Agriculture genomics has advanced significantly, thanks in large part to the efforts of European nations like the UK, Germany, and France. With an emphasis on precision farming and sustainable agriculture, the area has seen significant investments in research and development. In terms of crop improvement, livestock breeding, and tackling environmental challenges in agriculture, Europe has led the way in the use of agrigenomic technologies. Furthermore, agrigenomics has become more popular in the European market due to the existence of important research institutions, industry-academia collaboration, and supportive government policies.
In the agrigenomics market, the Middle East and Africa (MEA) region has shown the highest CAGR. The region has demonstrated a growing interest in implementing cutting-edge genomic technologies for agricultural applications, especially in South Africa and some Gulf nations. Agrigenomic solutions have become more and more expensive due to factors like the need for food security, problems with water scarcity, and an emphasis on sustainable agriculture. Moreover, in the MEA region, both public and private organizations are investigating the application of genomics to enhance livestock breeds, optimize agricultural practices, and improve crop varieties.
Key players in the market
Some of the key players in Agrigenomics market include F.Hoffmann-La Roche Ltd., Agilent Technologies Inc., Illumina Inc., GalSeq Srl Via Itaia, Arbor Biosciences, LGC Limited, Eurofins Scientific SE, Abbott Laboratories, Tecan Genomics, Inc., Neogen Corporation, Agrigenomics Inc, Thermo Fisher Scientific Inc, Biogenetic Services, Inc., SciGenom Labs Pvt. Ltd. and Zoetis Inc.
In December 2023, F.Hoffmann-La Roche Ltd. announced today the entry into a definitive agreement to acquire select parts of the LumiraDx group related to LumiraDx's innovative Point of Care technology. Following closing of the transaction, which is expected by mid-2024, the acquired entities will be fully integrated into Roche Diagnostics.
In July 2023, Illumina Inc., a global leader in DNA sequencing and array-based technologies, and Pillar Biosciences Inc., the pioneers of Decision Medicine™, today announced a strategic partnership to make Pillar's suite of oncology assays commercially available globally as part of the Illumina portfolio of oncology products.
In March 2023, Agilent Technologies Inc. today announced a multi-year distribution agreement with Proscia® - a leader in digital pathology - to offer a comprehensive digital diagnostic pathology system. Combining Agilent's trusted pathology staining solutions with Proscia's Concentriq® Dx enterprise pathology platform will empower pathology labs to transform diagnostic efficiency and quality to improve patient health outcomes.