1377 Cleveland Ave., Santa Rosa, CA, United States of America, 95407
ETS’ automated method reports yeast viability and total cell count within hours, using 100 times the volume examined in standard microscopic methods, vastly increasing the accuracy of your results.
How It Works
Our automated analysis uses the widely accepted dye exclusion method to determine cellular viability. Live yeast cells have selective cell membranes that exclude dye compounds. When yeast cells die, their cell membranes become permeable, allowing the dye to seep in. The dead, or non-viable, cells become stained and appear darker than the viable cells.
Improved Speed & Consistency
Traditional methods using a microscope suffer from human error in preparation and the subjectivity of visual measurements using the human eye. ETS uses an automated method that couples standard staining methods with advanced optics and flow cytometry to report yeast viability more accurately and precisely. This real-time microscopic flow image analysis also examines 100 times the volume of standard microscopic methods, vastly increasing the accuracy of the results. The automated method gives winemakers rapid information on the status of yeast viability for each sample. In addition, the instrument provides greater consistency between samples by automating preparation.
Reports present the percentage of viable yeast and the total population size per milliliter of sample.
Advance Warning of 'Stuck' and 'Sluggish' Fermentations
Accurate viability staining, in coordination with standard wine chemical analyses, allows winemakers to generate historical profiles of fermentation performance and gives warning of potential problems.
Automated yeast viability testing gives winemakers up-to-the-minute information on the activity of a particular fermentation. Wines at risk of becoming “sluggish” or “stuck” can be monitored at any time, giving winemakers more information to help identify problematic fermentations.
Applications
Stay ahead of sluggish or stuck fermentations.
With ETS Labs’ automated yeast viability testing, you’ll get fast, highly accurate insights to monitor and optimize fermentation performance. Eliminate guesswork, track trends, and make timely decisions that protect wine quality.
In 1926 MATHESON Gas Products became the first company to offer a reliable source of high quality scientific gases and equipment. From the start, MATHESON asserted its leadership by understanding specialty gas applications and providing products specially designed for these applications. Some of MATHESON's more notable accomplishments include the development of the lecture bottle, now used by virtually every major college and university in the world, and the supply of ultra pure gases that served as standards for the first gas chromatographs.
MATHESON's gases also helped forge the most important tool of our era, the integrated circuit. From the early days of the transistor, MATHESON was there providing the arsine and phosphine that made production possible. As transistors gave way to complex semiconductor chips, MATHESON provided the world's first commercially produced silane, an accomplishment that earned the industry's prestigious "SEMMY" Award.
In 1999 MATHESON Gas Products merged with Tri-Gas, Inc., to form Matheson Tri-Gas, Inc. This merger combined the analytical and semiconductor strengths of MATHESON Gas Products with the liquid/bulk and industrial cylinder and equipment capabilities of Tri-Gas. As a member of the Tokyo based Taiyo Nippon Sanso Corporation (TNSC), MATHESON® is part of the world's fifth largest supplier of gases and gas handling equipment.
MATHESON Snapshot
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Locations | Address | State | Country | Zip Code |
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Matheson Gas | 1377 Cleveland Ave., Santa Rosa | CA | United States of America | 95407 |