Inkubationsschüttler
Multitron Standard
Inkubationsschüttler
Multitron Standard
Ihr bevorzugter Schüttler für mikrobielle Anwendungen
Die unübertroffene Benutzerfreundlichkeit und die zuverlässigen Wachstumsbedingungen des Multitron Standard Inkubationsschüttlers ermöglichen einen schnellen Einstieg in Screening und Scale-up .
Vorteile
Dieser Schüttler sorgt für eine gleichmäßige Temperaturverteilung über das gesamte Tablar und liefert reproduzierbare Ergebnisse vom ersten bis zum letzten Experiment.
Unser Team aus erfahrenen und engagierten Technikern bietet Ihnen die proaktiven Tools, mit denen Sie das Risiko von Ausfallzeiten in Ihrem Labor minimieren und Ihren Schüttler rund um die Uhr in Betrieb halten können.
Dieser Schüttler sorgt für eine gleichmäßige Temperaturverteilung über das gesamte Tablar und liefert reproduzierbare Ergebnisse vom ersten bis zum letzten Experiment.
Unser Team aus erfahrenen und engagierten Technikern bietet Ihnen die proaktiven Tools, mit denen Sie das Risiko von Ausfallzeiten in Ihrem Labor minimieren und Ihren Schüttler rund um die Uhr in Betrieb halten können.
Produktspezifikationen
- Erhältlich als einzeln, doppelt oder dreifach gestapeltes System. Jede Einheit ist individuell konfigurierbar.
- Bequeme Arbeitshöhe bei insgesamt geringer Stellfläche: 1070 x 860 x 1710 mm (dreifach gestapelte Einheiten mit niedrigem Sockel)
- Hohe Schüttelgeschwindigkeit und großer Schüttelhub: 20–400 rpm, 25 bzw. 50 mm, bei dreifacher Stapelung obere Einheit max. 350 rpm
Produkt Downloads
Ähnliche Publikationen
Alle PublikationenResearchers from the Laboratory of Process Technology (NeptunLab), Department of Microsystems Engineering (IMTEK), University of Freiburg (Germany) developed a new way to produce bioactive glass microscaffolds for tissue engineering using advanced 3D printing technology. During in vitro mineralization studies, samples were incubated in the INFORS HT Minitron incubator shaker, where the material demonstrated strong bioactivity. The scaffolds were also shown to be compatible with human mesenchymal stromal cells and supported osteogenic differentiation, providing a new platform for studying scaffold design in tissue engineering.
Researchers from the KTH Royal Institute of Technology (Sweden) used enzyme-constrained genome-scale models (ecGEMs) to redesign the anaerobic metabolism of Saccharomyces cerevisiae for the co-production of 2,3-butanediol and glycerol. Seed cultures were prepared using the INFORS HT Minitron incubator shaker before fermentation experiments, enabling validation of model predictions through bioreactor cultivation and proteomic analysis. The study demonstrated that engineered yeast cells could achieve high glucose uptake rates by reallocating cellular resources toward glycolysis, highlighting the potential of ecGEMs as a powerful tool for metabolic engineering and strain development.
Researchers from the Department of Chemical & Biomolecular Engineering and the Department of Electrical and Computer Engineering at the University of Delaware (USA) developed a transcriptomic workflow called MemorySeq to identify stress-responsive biomarkers in Chinese hamster ovary (CHO) cells exposed to manufacturing-related stress conditions. Using the INFORS HT Minitron incubator shaker for controlled CHO cell cultivation, the study identified 199 genes with heritable transcriptional variability linked to stress adaptation, apoptosis regulation, and metabolic pathways. These findings provide new insights into engineering more stress-tolerant CHO cell lines for improved biopharmaceutical manufacturing performance.
Researchers from the Laboratory of Process Technology (NeptunLab), Department of Microsystems Engineering (IMTEK), University of Freiburg (Germany) developed a new way to produce bioactive glass microscaffolds for tissue engineering using advanced 3D printing technology. During in vitro mineralization studies, samples were incubated in the INFORS HT Minitron incubator shaker, where the material demonstrated strong bioactivity. The scaffolds were also shown to be compatible with human mesenchymal stromal cells and supported osteogenic differentiation, providing a new platform for studying scaffold design in tissue engineering.
Researchers from the KTH Royal Institute of Technology (Sweden) used enzyme-constrained genome-scale models (ecGEMs) to redesign the anaerobic metabolism of Saccharomyces cerevisiae for the co-production of 2,3-butanediol and glycerol. Seed cultures were prepared using the INFORS HT Minitron incubator shaker before fermentation experiments, enabling validation of model predictions through bioreactor cultivation and proteomic analysis. The study demonstrated that engineered yeast cells could achieve high glucose uptake rates by reallocating cellular resources toward glycolysis, highlighting the potential of ecGEMs as a powerful tool for metabolic engineering and strain development.
Researchers from the Department of Chemical & Biomolecular Engineering and the Department of Electrical and Computer Engineering at the University of Delaware (USA) developed a transcriptomic workflow called MemorySeq to identify stress-responsive biomarkers in Chinese hamster ovary (CHO) cells exposed to manufacturing-related stress conditions. Using the INFORS HT Minitron incubator shaker for controlled CHO cell cultivation, the study identified 199 genes with heritable transcriptional variability linked to stress adaptation, apoptosis regulation, and metabolic pathways. These findings provide new insights into engineering more stress-tolerant CHO cell lines for improved biopharmaceutical manufacturing performance.
Ähnliche Artikel
BlogMoving a mammalian cell culture process from shake flask to bioreactor is more than a scale-up exercise. Each transition introduces new challenges in oxygen transfer, pH control, CO₂ management, mixing, and data reproducibility. This practical guide explores the key stages of cell culture process development, explains why process transfer often fails, and shows how integrated bioreactor control and data management help create scalable, reproducible processes from screening through scale-up.
Buying used laboratory equipment can reduce upfront costs and improve short-term flexibility. However, when evaluating a used incubator shaker, laboratories must consider contamination risk, service history, manufacturer support status, and long-term cost of ownership. A structured assessment ensures that short-term savings do not introduce long-term operational instability.
Contamination remains a persistent risk in incubation workflows, with the potential to compromise experimental results, delay timelines, and require costly repeat work. Even brief exposure during routine handling or access can introduce unwanted particles that affect culture integrity and reproducibility. The Multitron Incubator Shaker with the integrated HEPA filtration system is designed to help laboratories maintain consistent air quality throughout incubation. By providing continuous air purification and measurable performance, INFORS HT supports reliable cultivation conditions that reduce the risk of contamination-related interruptions and help keep research on track.
Moving a mammalian cell culture process from shake flask to bioreactor is more than a scale-up exercise. Each transition introduces new challenges in oxygen transfer, pH control, CO₂ management, mixing, and data reproducibility. This practical guide explores the key stages of cell culture process development, explains why process transfer often fails, and shows how integrated bioreactor control and data management help create scalable, reproducible processes from screening through scale-up.
Buying used laboratory equipment can reduce upfront costs and improve short-term flexibility. However, when evaluating a used incubator shaker, laboratories must consider contamination risk, service history, manufacturer support status, and long-term cost of ownership. A structured assessment ensures that short-term savings do not introduce long-term operational instability.
Contamination remains a persistent risk in incubation workflows, with the potential to compromise experimental results, delay timelines, and require costly repeat work. Even brief exposure during routine handling or access can introduce unwanted particles that affect culture integrity and reproducibility. The Multitron Incubator Shaker with the integrated HEPA filtration system is designed to help laboratories maintain consistent air quality throughout incubation. By providing continuous air purification and measurable performance, INFORS HT supports reliable cultivation conditions that reduce the risk of contamination-related interruptions and help keep research on track.
Angebote zur weiteren Optimierung Ihrer Bioprozessabläufe
Gesteigerte Leistung Ihres Schüttlers, minimale Ausfallzeiten und maximale Sicherheit.
Erweitern Sie Ihren Laborschüttler mit einer großen Auswahl an Tablaren, Haltern und Haftmatten.
Minimierung von Unterbrechungen und Gewährleistung optimaler Produktivität in jeder Phase Ihres Bioprozesses
Gesteigerte Leistung Ihres Schüttlers, minimale Ausfallzeiten und maximale Sicherheit.
Erweitern Sie Ihren Laborschüttler mit einer großen Auswahl an Tablaren, Haltern und Haftmatten.
Minimierung von Unterbrechungen und Gewährleistung optimaler Produktivität in jeder Phase Ihres Bioprozesses
Angebot anfragen
Wenden Sie sich noch heute an uns, wenn Sie ein Angebot oder weitere Informationen zu unserem Multitron Standard Inkubationsschüttler wünschen.