Metagenomics is a molecular tool in genomics that analyses mixed genomic materials extracted from a community of organisms using metagenomics sequencing. Metagenomics allows researchers to study organisms that are difficult to culture in the lab. Because most microorganisms have never been cultured, including most of them. "metagenomic sequencing" refers to a thorough examination of all organisms recovered from the environment.
Microbes in various settings can be identified and quantified using metagenomics sequencing. It's also an opportunity to research unculturable microorganisms and learn about their biological potential. Advancements in metagenomics sequencing, significant applications of metagenomics in various fields, initiatives and funding from government and private bodies for large-scale sequencing projects, and a decrease in sequencing cost are driving the market growth.
Technological advancements have allowed metagenomic sequencing platforms to make significant progress in recent years. Due to various factors such as low input sample concentration requirements, lack of experimental bias in microarrays, and others, DNA sequencing is far more helpful and advantageous than traditional microarrays. The total number of produced sequence reads per run has skyrocketed with the advent of massive parallelization of sequencing reactions.
Experts worldwide are looking for a suitable platform that reduces the number of pre-sequencing steps, ensures authentic sequences with long reads (MB to GB) produced per run, works on a DNA molecule without pre-amplification and has high read accuracy. As a result, scientists are concentrating on creating advanced sequencing platforms. Because DNA sequencing is closely linked to metagenomics research, advancements in this area are expected to contribute to market growth.
With increased awareness in developing economies, the demand for metagenomic sequencing technologies has grown in scientific communities worldwide. On the other hand, cloud computing offers a tormenting option for on-demand access to computing resources for metagenomics sequencing. Furthermore, in bioinformatics and computational biology, an essential local alignment search tool (BLAST) on accurate metagenomics data in a cloud environment to assess the viability of metagenomic sequencing methods, BLAST is one of the most acceptable applications. It is assumed to consume the majority of resources in that area. As a result, opportunities such as cloud computing for data management are propelling the global metagenomic sequencing market forward.
North America dominated the market. It is estimated to reach an expected value of USD 2,035 million by 2030 at a CAGR of 17%. The United States, Canada, and Mexico are the three major countries studied in North America. Because of its stronghold on deoxyribonucleic acid (DNA) sequencing technologies, the Region accounted for the largest share in the global metagenomic sequencing market, owing to the Region's continuous improvement, availability, and accessibility of DNA sequencing.
In North America, several international manufacturers of DNA sequencing, platforms, equipment, and technologies are very active. Significant players attempt to introduce affordable DNA sequencing technologies in the North American market. This has given the global metagenomics market in this Region a boost, allowing researchers to dig deeper into the microbial ecology. Furthermore, the North American market has seen significant advancements in the use of metagenomics products and technologies in biotechnology, which are expected to open up new avenues and provide numerous opportunities for market expansion.
The Asia-Pacific region is expected to grow the fastest. With a CAGR of 19%, it will reach USD 1,270 million by 2030. Japan, China, Australia, India, and the rest of Asia-Pacific are all studied in this report. The surge in the focus of healthcare professionals toward drug discovery and growth in the biotechnology industry has given Asia-Pacific tremendous potential for metagenomics growth. Furthermore, the increased availability of novel advanced sequencing technologies across this Region's countries is expected to contribute to the highest growth rate during the forecast period.