Reproducible Biofilm Growth: Our biofilm reactors are engineered to provide highly reproducible biofilm growth conditions, ensuring consistent and reliable research results.
Multiple Samples: Our biofilm reactors can accommodate multiple samples, streamlining your research process and allowing for comparative studies or investigations across different materials or conditions.
Diverse Coupon Materials: BioSurface Technologies offers a wide range of coupon materials, including plastics, metals, and ceramics, allowing you to select the model that matches your research requirements.
Versatility for Varied Shear and Operational Conditions: Our biofilm reactors are available in various shapes and sizes, each designed to operate under specific shear and operational conditions. This adaptability ensures that you can select the model that best suits your research goals.
Suitable for Time-Course Studies: Some of our biofilm reactors are ideal for time-course experiments, providing you with the tools to gain insights into biofilm dynamics.
Cited in ASTM and USEPA Standard Methods: Several of our biofilm reactors are referenced in ASTM and USEPA standard methods, aligning your research with established standards and ensuring consistency.
Autoclavable and Reusable: All of our biofilm reactors are autoclavable and reusable, offering sustainability and cost-effectiveness for your research.
Analyze Biofilm Formation on Multiple Materials: Our biofilm reactors enable you to assess biofilm formation on various materials, making them suitable for a wide range of research applications.
Statistically Relevant Testing: Achieving statistically relevant results is crucial in scientific research. Our biofilm reactors are designed to support statistically robust testing, ensuring meaningful and reliable data.
Suitable for Biocide and Antibiotic Development and Testing: Our biofilm reactors are well-suited for the development and testing of biocides and antibiotics, contributing to the development of breakthrough solutions to combat microbial threats.
Variable Shear Independent of Flow: Some of our biofilm reactors offer control over shear independent of flow, allowing you to investigate the impact of shear variations on biofilm behavior.
Continuous-Flow Through Systems: Continuous-flow systems are essential for studies that require a consistent flow of growth media. Our biofilm reactors are designed to provide this seamless flow.
Suitable for Aerobic and Anaerobic Cultures: We offer biofilm reactors that are adaptable to both aerobic and anaerobic cultures, offering flexibility for your diverse research needs.
BioSurface Technologies’ Reactors:
CDC Biofilm Reactor®
The CDC Biofilm Reactor® features eight polypropylene coupon holder rods suspended from a UHMW-polyethylene ported lid. Each holder rod can accommodate three 1/2-inch (12.7 mm) diameter coupons. These components are assembled within a 1-liter glass vessel, complete with a side-arm discharge port. Liquid growth media, biocides, and more can be efficiently circulated through the vessel, with mixing and shear generated by a magnetic stir bar/vane rotated by a magnetic stir plate.
Drip Flow Biofilm Reactor®
The Drip Flow Biofilm Reactor® is a versatile system designed for various research applications. It consists of four (4) or six (6) parallel test channels, each capable of holding one (1) standard glass microscope slide-sized coupon or a length of catheter or stint (after custom modification upon request).
Biofilm Annular Reactor
The BAR consists of two concentric cylinders: a stationary outer cylinder and a rotating inner cylinder. Process fluid moves in the region between the cylinders with biofilms accumulating on the internal surfaces. Rotational speed (30 to 500 RPM) is controlled by a variable-speed DC motor (100 to 240 VAC). Twenty removable slides are flush mounted on the internal, rotating cylinder. Slides (coupons) for obtaining deposit samples can be constructed from most relevant materials.
Bio-inLine® Biofilm Reactor
The IBR is uniquely designed to simulate the conditions prevalent in common fluid-based systems. Researchers can easily install the reactor within fluid piping systems, enabling on-demand biofilm testing within the system itself. This versatility allows for a broad spectrum of research applications and ensures that studies align with real-world scenarios, enhancing their relevance and impact.