Schüttler System
Celltron
Schüttler System
Celltron
Der perfekte Schüttler als Ergänzung zu Ihrem CO2-Inkubator
Nutzen Sie in Ihrem Labor die Vorteile der Schütteltechnologie, die das Risiko für Ihre Zellen in einem vorhandenen CO2-Inkubator verringert. Der Celltron ist ein kompakter, wirtschaftlicher und energieeffizienter Schüttler, der sich mühelos in Ihren bestehenden Laborraum integrieren lässt.
Vorteile
Der Magnetantrieb mit sanfter Beschleunigung sorgt für minimalen Energieverbrauch und geringe Wärmezufuhr in den statischen Inkubator.
Der Magnetantrieb mit sanfter Beschleunigung sorgt für minimalen Energieverbrauch und geringe Wärmezufuhr in den statischen Inkubator.
Produktspezifikationen
- Passt in Ihren vorhandenen CO2-Inkubator, wobei die Rotation innerhalb der folgenden Grundmaße (B x T x H) bleibt: 450 x 380 x 90 mm
- Externe Steuereinheit, die magnetisch an der Außenseite des Inkubators angebracht wird, mit intuitiver Bedienung, präziser Parametersteuerung und -überwachung sowie Alarmvorrichtungen.
- Mit Sticky Stuff, einer Haftmatte für Ihr Schütteltablar, lassen sich die verschiedensten Kulturgefäße mühelos befestigen.
- Dank verbessertem Sauerstofftransfer und homogener Verfügbarkeit der Nährstoffe im Kulturmedium wird im Vergleich zu statischen Zellkulturen ein deutlich stärkeres und skalierbares Wachstum erzielt.
Produkt Downloads
Ähnliche Publikationen
Alle PublikationenResearchers from the Institute of Bioprocess Engineering and Pharmaceutical Technology at the University of Applied Sciences Mittelhessen have made strides in chemoorganotrophic electrofermentation using Cupriavidus necator. By experimenting with different redox mediators, they identified ferricyanide as a key player in enhancing anodic respiration. With the INFORS HT Multitron providing precise environmental control, the team achieved remarkable current densities, offering a promising solution to the challenges of oxygen-driven fermentation systems.
Researchers from the University of São Paulo have developed an innovative two-stage anaerobic digestion process that enhances methane production from sugarcane vinasse. Their approach, which integrates a fermentative-sulfidogenic stage, boosts biogas quality, lowers costs, and eliminates the need for chemical additives. This promising solution could revolutionize bioenergy recovery in sugarcane biorefineries.
Researchers from the University of Delaware, Departments of Chemical and Biomolecular Engineering and Electrical and Computer Engineering have made strides in enhancing the resilience of Chinese hamster ovary (CHO) cells used in biopharmaceutical production. By employing the INFORS HT Multitron incubator shaker, they exposed CHO cells to stress conditions commonly encountered during manufacturing, such as elevated levels of ammonia, lactate, and osmolality. Through comprehensive transcriptomic analysis, the team identified 199 genes exhibiting bistable expression, with seven emerging as prime candidates for engineering stress-resistant cell lines. This research holds promise for optimizing cell health and boosting productivity in large-scale bioreactor operations.
Researchers from the Institute of Bioprocess Engineering and Pharmaceutical Technology at the University of Applied Sciences Mittelhessen have made strides in chemoorganotrophic electrofermentation using Cupriavidus necator. By experimenting with different redox mediators, they identified ferricyanide as a key player in enhancing anodic respiration. With the INFORS HT Multitron providing precise environmental control, the team achieved remarkable current densities, offering a promising solution to the challenges of oxygen-driven fermentation systems.
Researchers from the University of São Paulo have developed an innovative two-stage anaerobic digestion process that enhances methane production from sugarcane vinasse. Their approach, which integrates a fermentative-sulfidogenic stage, boosts biogas quality, lowers costs, and eliminates the need for chemical additives. This promising solution could revolutionize bioenergy recovery in sugarcane biorefineries.
Researchers from the University of Delaware, Departments of Chemical and Biomolecular Engineering and Electrical and Computer Engineering have made strides in enhancing the resilience of Chinese hamster ovary (CHO) cells used in biopharmaceutical production. By employing the INFORS HT Multitron incubator shaker, they exposed CHO cells to stress conditions commonly encountered during manufacturing, such as elevated levels of ammonia, lactate, and osmolality. Through comprehensive transcriptomic analysis, the team identified 199 genes exhibiting bistable expression, with seven emerging as prime candidates for engineering stress-resistant cell lines. This research holds promise for optimizing cell health and boosting productivity in large-scale bioreactor operations.
Kundenstimmen
Manfred Sander, Dipl.-Ing. (FH)Specialist Department of Equipment Management, Universitätsklinikum Erlangen
Ähnliche Artikel
In bioprocessing, selecting the right shaker parameters is essential for optimizing the growth and productivity of various organisms, including bacteria, yeast, and mammalian cells. By fine-tuning these parameters, scientists can create ideal environments for cultivation, maximizing process efficiency and reproducibility. In this installment of our Back to Basics blog series, we focus on how INFORS HT incubator shakers enable better control and flexibility to meet diverse cultivation needs.
Gene therapy is a promising approach for treating various genetic disorders and diseases. A critical component of gene therapy is the production of viral vectors, which serve as delivery vehicles for therapeutic genes. Human Embryonic Kidney 293 (HEK293) cells have become a widely used platform for viral vector production due to their efficiency in transfection and ability to support viral replication. However, optimizing HEK293 cell cultures for large-scale production of viral vectors remains a challenge in making gene therapies more accessible and cost-effective.
Selecting the correct orbital throw for your incubator shaker is critical for achieving optimal results in cell culture, bacterial growth, and other bioprocessing applications. In this installment of the Back to Basics series, we will explore what orbital throw is, why it matters, and how to make the best choice for your experiments.
In bioprocessing, selecting the right shaker parameters is essential for optimizing the growth and productivity of various organisms, including bacteria, yeast, and mammalian cells. By fine-tuning these parameters, scientists can create ideal environments for cultivation, maximizing process efficiency and reproducibility. In this installment of our Back to Basics blog series, we focus on how INFORS HT incubator shakers enable better control and flexibility to meet diverse cultivation needs.
Gene therapy is a promising approach for treating various genetic disorders and diseases. A critical component of gene therapy is the production of viral vectors, which serve as delivery vehicles for therapeutic genes. Human Embryonic Kidney 293 (HEK293) cells have become a widely used platform for viral vector production due to their efficiency in transfection and ability to support viral replication. However, optimizing HEK293 cell cultures for large-scale production of viral vectors remains a challenge in making gene therapies more accessible and cost-effective.
Selecting the correct orbital throw for your incubator shaker is critical for achieving optimal results in cell culture, bacterial growth, and other bioprocessing applications. In this installment of the Back to Basics series, we will explore what orbital throw is, why it matters, and how to make the best choice for your experiments.
Angebote zur weiteren Optimierung Ihrer Bioprozessabläufe
Unsere Laborschüttler zeichnen sich durch ein intelligentes, ergonomisches Design und den Einsatz modernster Technologien aus.
Gesteigerte Leistung Ihres Schüttlers, minimale Ausfallzeiten und maximale Sicherheit.
Erweitern Sie Ihren Laborschüttler mit einer großen Auswahl an Tablaren, Haltern und Haftmatten.
Unsere Laborschüttler zeichnen sich durch ein intelligentes, ergonomisches Design und den Einsatz modernster Technologien aus.
Gesteigerte Leistung Ihres Schüttlers, minimale Ausfallzeiten und maximale Sicherheit.
Erweitern Sie Ihren Laborschüttler mit einer großen Auswahl an Tablaren, Haltern und Haftmatten.