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Life Science

In the dynamic Life Sciences landscape, success extends beyond overcoming challenges; it's about pioneering the way forward. Organizations must excel by strategically acquiring top talent, embracing innovation, and adapting to industry-specific demands. A streamlined approach, from maintaining sterility to meeting rigorous regulatory standards, is vital for achieving high-purity standards and certifications. Proactive organizations that navigate hurdles, embrace trends, foster innovation, and ensure robust leadership position themselves not only to navigate complexities but also to lead in an industry addressing global challenges. This approach positions organizations for success in a dynamic and ever-evolving Life Sciences sector.

Life Science

Biopharmaceutical Manufacturing Areas


  • Media and Buffer Preparation: In the production of biopharmaceuticals, various media and buffers are required for cell culture. Flow control systems manage the precise mixing and delivery of these fluids.
  • Fermentation: Upstream processes often involve fermentation, where microorganisms are cultivated to produce therapeutic proteins. Control of nutrients, oxygen, and waste removal is essential for optimizing cell growth and protein expression.
  • Harvesting and Purification: Flow control is crucial during the harvesting and purification steps, ensuring the separation and collection of biomolecules with high purity.
  • Fill and Finish: In the final stages of biopharmaceutical manufacturing, precise flow control is essential for filling vials or other containers with the finished product.




Biotechnology Liquid Handling Research Areas


  • Liquid Handling in Laboratories: Biotechnology laboratories utilize automated liquid handling systems for tasks such as DNA sequencing, PCR, and assay development. Precise dispensing and aspiration of reagents are critical for reliable results.
  • Cell Culture: Flow control is vital in maintaining optimal conditions for cell culture in bioreactors, including the regulation of temperature, pH, and nutrient supply.
  • Microfluidics: Microfluidic systems in biotechnology research allow for the manipulation of small volumes of fluids, enabling high-throughput experimentation and precise control of biochemical reactions.




Medical Device Production Areas


  • Diagnostic Instrumentation: Flow control is integral in the production of diagnostic devices, including the precise dispensing of reagents and samples in medical testing equipment.
  • Drug Delivery Systems: Medical devices such as infusion pumps and drug delivery systems require accurate flow control to ensure the controlled release of medications.
  • Biocompatible Materials Handling: Materials used in medical device manufacturing must be handled with care. Flow control systems ensure the precise movement and dispensing of biocompatible fluids and materials.
  • Vacuum Packaging: Vacuum technology is used in the packaging of medical devices to remove air and create a sterile environment, preserving the integrity of sensitive medical equipment.
  • Analytical Instruments: Certain medical analytical instruments, such as mass spectrometers and electron microscopes, rely on vacuum conditions for accurate measurements.
  • Respiratory and Drug Delivery: Flow control technologies are crucial in respiratory devices such as ventilators, regulating airflow for precise patient support. In infusion pumps, these technologies ensure accurate drug delivery, enhancing the effectiveness of medical treatments.
  • Diagnostic Imaging and Surgical Equipment: In diagnostic imaging, flow control is vital for contrast injection systems, improving imaging accuracy. Surgical equipment, including laser and electrosurgery devices, relies on flow control for precise delivery of gases or liquids during procedures, contributing to optimal patient outcomes.




Hunter Davies Technology Expertise


  • Peristaltic Pumps: These pumps are commonly used in the life sciences industry due to their ability to provide precise and sterile fluid transfer without contamination.
  • Valves: valves are employed for control of fluid flow and are often used in biopharmaceutical upstream process’, diagnostic instruments, and other medical device OEM Applications.
  • Pressure Regulators: Maintaining consistent pressure is essential in various life science applications, and pressure regulators help achieve this.
  • Sensors and Meters: These devices are critical for monitoring, detection and controlling the rate of fluid flow, ensuring accuracy in dispensing and maintaining desired conditions.
  • Vacuum Components & Systems: These unique specialized technologies play a key role in achieving specific pressure environments, contamination free zones & removal of unwanted gases in various Upstream & Downstream Process’ such as Freeze Drying, Filtration, Laboratory, Biotechnology, Biopharma & Drug Manufacturing.
  • Single-Use Components & Instrumentation: single-use fluid management technologies provide numerous advantages, including increased operational flexibility, reduced cleaning and validation efforts, and enhanced sterility assurance, making them integral components in modern life sciences manufacturing processes such as Cell Culture, Media & Buffering, Storage & Transportation, Vaccines, DNA & Gene Sequencing and Virology.


Future Trends to stay ahead of the game

  • Automation and Robotics: Increasing integration of automation and robotics for precise and high-throughput fluid handling in laboratories and manufacturing.
  • Single-Use Systems: Growing adoption of single-use, disposable systems in biopharmaceutical manufacturing for easier sterilization and reduced risk of cross-contamination.
  • Data Integration: Enhanced data analytics and integration with other processes for improved monitoring, control, and overall efficiency.


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