Subscribe to our Newsletters !!
HiMedia Laboratories proudly earned NABL (National
Warehouse and laboratory operations encompass a wi
Dräger India is proud to announce the launch of t
In this special podc
Alembic Pharmaceuticals Limited (Alembic) today an
It is important to understand that natural remedie
Dear Readers, Welcome to the latest issue of Micr
Because it is always growing and changing, it is clear that bioprocessing—the use of biological systems or their derivatives for manufacturing and production—has not stalled.
Recent years have seen a number of technological and fashion developments in the bioprocessing industry, some of which include: Processing Biomaterials for a Single Use:
Applications in bioprocessing are starting to embrace single-use technologies. Reusable parts such as filters and bioreactors are useful for increasing production flexibility, lowering contamination concerns, and streamlining processes.
As an alternative to traditional batch processing, continuous bioprocessing is gaining popularity. Increased output, increased efficiency, and improved quality control are the outcomes. For continuous bioprocessing, this could mean lower costs due to shorter manufacturing times.
Examples of advanced analytics technologies that can be utilized for real-time process control and monitoring include artificial intelligence (AI) and machine learning (ML). Better understanding of the bioprocesses involved, early deviation detection, and production parameter optimization are all aided by this.
Novel medicines, like gene and cell therapies, are becoming increasingly common, and bioprocessing methods are evolving to meet their specific needs. Particular examples include novel downstream methods and bioreactors for these processes, which allow gene delivery systems.
Flexible manufacturing facilities are increasingly using modular designs because they simplify scaling up or down in response to changing production needs. Construction costs per unit area will be lower with this modular system because the building duration will be shortened.
These improved methods come from optimizing many bioprocessing steps to achieve higher activity rates and greater efficacy. Perhaps higher cell densities, better medium compositions, or even more advanced downstream processing techniques are needed.
Automation and robots are used in bioprocessing to boost output overall, lower mistake rates from humans, and improve accuracy. Equipment cleaning, monitoring, and sampling are tasks that automated systems can perform.
Small-scale or microfluidic bioreactor designs have been studied, among other novel bioreactor designs. These designs allow more precise in vivo condition simulations, better mass transfer rates, and enhanced scalability.
As vaccines and other medical applications are developed, the significance of VLPs has increased. It is being worked on to increase the efficiency or scalability of the bioprocessing methods used in the production of VLPs.
Environmentally friendly approaches are becoming more and more popular in the field of bioprocessing. Environmentally friendly operations are being implemented as a result, along with a reduction in waste output and reduced energy and water consumption.
Remember, though, that this is a dynamic sector, and since my last update, some new ideas might have been introduced. To learn about current trends in this subject, it is therefore imperative to keep up with industry conferences, credible publications, and scholarly research.
