SANYO Introduces Industry’s First Stand-Alone Cell Processing Work Station Transforming the Biomedical Cleanroom

21 Oct 2010
Sarah Sarah
Marketing / Sales

Product news

SANYO North America Corporation announces that its Biomedical Solutions Division is moving to the forefront of the stem cell and cell therapy market with the introduction of the industry’s first integrated, stand-alone Cell Processing Work Station (CPWS).

Offering a turnkey and standalone solution, SANYO’s CPWS is an innovative, cost effective and space-saving solution for the GMP compliant processing and manufacture of regenerative stem cell and cell therapies. The CPWS lowers barriers to enter the cell therapeutics market, positively impacting both public and private institutions. The workstation provides the required class-100 aseptic environment, but in a compact and less expensive than a traditional costly and large footprint cleanroom.

The cell therapy market is increasingly playing an important role in the practice of medicine, and the number of companies and entities that are involved in cell therapy are on the rise, including academic institutions, and public and private companies. The market is expected to expand over the next decade, with applications for the technology to include cancer, cardiac and genetic disorders as well as wounds of the skin and soft tissues.

“SANYO is prepared to expand into this rapidly growing market with its new Cell Processing Work Station, which will provide a practical solution for its biotech and pharmaceutical customers to develop and manufacture advanced cell therapies and hospitals to develop cell therapies for use in clinical trials,” stated Ron Dudek, New Business Development Manager.

The CPWS is a stand-alone, alternative to a traditional cleanroom, and the station is a self-contained system with a small footprint that is quick and easy to install. Offering a highly efficient operational capacity and featuring a contamination-free design, the workstation includes cGMP compliant equipment for aseptic processing and provides user-friendly operation. The SANYO CPWS also saves approximately 35% of the operating costs usually required for conventional cleanrooms (open systems).

The CPWS significantly lowers barriers to entry to the cell therapeutics market, which will impact both the private and public institutions within the life science, clinical, biotechnology and pharmaceutical markets. Current and future applications of the CPWS include regenerative organ development, tissue regeneration such as skin, cartilage, alveolar bone, cornea, cardiac muscle, nerve, liver and pancreas.

Main Features of the CPWS
Self-Contained System, Small Footprint
The small footprint permits installation into existing or new lab spaces using conventional utilities and minimal site preparation. The CPWS individual docking incubators reduce product mix-up and cross-contamination errors. An optional built-in centrifuge and cell observation microscope/monitor further reduce laboratory space requirements as well as improve aseptic processing.

Higher Efficiency
By using a highly effective H2 O2 decontamination process, the CPWS can be completely sterilized without heat and prepared for the next protocol within two hours instead of the conventional cleanroom decontamination protocol that can take days or weeks.

Contamination-free Design
The four-port glove box delivers more than a conventional Class II, Type A2 biological safety cabinet typically installed within a cleanroom to achieve the same level of contamination or cross-contamination prevention. Centrifuge and incubator access from within the Class 100 work station environment enhances aseptic processing.

Other Key Features
- Approximately 35% less expensive to operate than a conventional cleanroom (open system).
- The barrier isolator creates a grade A or class 100 environment within the workstation. (When installed in a class 100,000 cleanroom).
- Gowning is not required, allowing for a significant improvement in user comfort and productivity upon entrance and exit from the aseptic environment.

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Cell / Tissue CultureCell culture or tissue culture is used to study the biology of cells or tissues and to isolate cellular products in an environment which can be manipulated and well defined. Accurately control your culture environment with bioreactors or culture incubators, bind your cells to a surface or together with an extracellular matrix. Distinguish cell types with differential media or proliferate cells with certain characteristics using selective media. Enrich your media with supplements such as growth factors, sera and vitamins. Find the best cell and tissue culture products, kits and equipment in our peer-reviewed product directory: compare products, check customer reviews and receive pricing direct from manufacturers.Cell Lines Stem Cells and Primary CellsPrimary cell cultures, established cell lines and stem cells are vital for <i>in vitro</i> and <i>ex vivo</i> experimentation. High-quality cells, optimized for your applications, alongside optimized cell substrates, growth medium and supplements, are critical for experimental success. Explore a range of cells suitable for your applications, including isogenic cell lines, competent cells, induced pluripotent stem cell (iPSC)-derived cell lines, fungal/bacterial/mammalian cell lines, stem cells and cancer cell lines. Find the best cells for your research in our peer-reviewed product directory: compare products, check customer reviews and receive pricing direct from manufacturers.Biopharmaceutical AdvancesBiopharmaceutical advances follow the development of pharmaceuticals derived from biotechnology, also known as biotechnology medicines. Biopharmaceuticals may be produced from cell lines, plants, or microbial cells. Important considerations of biopharmaceutical use include application, cost, production process and purification.Bioprocessing / FermentationBioprocessing is the use of biological materials to perform commercial, scientific or medical research processes. Biological materials used include cells, enzymes and organisms. Usually bioprocessing requires a batch or continuous bioreactor such as a fermentor or cell culture system. The advantages of using a reactor include high productivity, easy configuration, adjustable values and automation.