Life science research and development
Life science research and development
Advancing bioprocess workflows in life science research
Enhancing bioprocess workflows with superior products and services empowers researchers to focus on their core scientific mission. This commitment drives innovation and progress in biotechnology, microbiology, and pharmaceutical development, fostering advancements in life science research.
Life science research challenges
Enhancing process efficiency
Achieving optimal performance across various processes entails balancing critical parameters such as oxygen levels, pH, and agitation. Leading solutions in the market provide advanced monitoring and control features, enhancing process efficiency to ensure ideal conditions for consistent outcomes in bioprocessing endeavors.
Efficient data management
Handling and analyzing extensive experimental data present significant hurdles in life science research. Advanced software solutions offer robust tools for data management and analysis, empowering researchers to organize, visualize, and interpret data effectively. This streamlined approach is crucial for enhancing research productivity and achieving successful outcomes.
Scalability and reproducibility
Scaling experiments while maintaining reproducibility is critical in all stages of life science research. Advanced systems and software solutions facilitate seamless scale-up processes, ensuring consistency and reproducibility across different experimental scales. This capability is essential for addressing the fundamental challenge of scaling in life science research.
Enhancing process efficiency
Achieving optimal performance across various processes entails balancing critical parameters such as oxygen levels, pH, and agitation. Leading solutions in the market provide advanced monitoring and control features, enhancing process efficiency to ensure ideal conditions for consistent outcomes in bioprocessing endeavors.
Efficient data management
Handling and analyzing extensive experimental data present significant hurdles in life science research. Advanced software solutions offer robust tools for data management and analysis, empowering researchers to organize, visualize, and interpret data effectively. This streamlined approach is crucial for enhancing research productivity and achieving successful outcomes.
Scalability and reproducibility
Scaling experiments while maintaining reproducibility is critical in all stages of life science research. Advanced systems and software solutions facilitate seamless scale-up processes, ensuring consistency and reproducibility across different experimental scales. This capability is essential for addressing the fundamental challenge of scaling in life science research.
Research and development product offerings
INFORS HT is a bioprocess equipment and automation provider, offering bioreactors, incubator shakers, and bioprocess software. Our solutions support drug discovery and process development with a focus on efficiency, scalability, and reproducibility, helping to ensure optimal growth conditions and reliable research outcomes.
Incubator shakers
Discover improved efficiency and performance with INFORS HT incubator shakers. Engineered for optimal space utilization and equipped with precise temperature control, these shakers provide consistent and reproducible outcomes—setting a new standard in excellence for growth conditions.
Bioreactors
Experience groundbreaking advancements in bioprocessing with INFORS HT Bioreactors. Our cutting-edge technology introduces precision, scalability, and control to your process, optimizing productivity for life science researches. Discover how our bioreactors empower you to achieve optimal results in your bioprocess applications.
Bioprocess platform software
Explore how our software innovation is tailored for the life sciences industry. Our eve® bioprocess platform software seamlessly integrates advanced monitoring and control features into cultivation systems, offering real-time assessment of culture parameters and responsive adjustments. With online sensors and intelligent automation, life science researchers can optimize growth conditions throughout their bioprocess operations while ensuring process stability.
A guide for life science beginners
Download this eBook for basic concepts, recipes, and strategies for bioprocesses involving cell culture and microorganisms.
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See allResearchers from The Walter and Eliza Hall Institute of Medical Research and the University of Melbourne (Australia) developed stabilized versions of the malaria protein PvRBP2b, a promising biomarker for recent Plasmodium vivax infections. During recombinant protein production, cultures were grown using the INFORS HT Multitron incubator shaker. The redesigned proteins showed improved production yields and greater thermal stability while maintaining their ability to detect antibodies associated with recent malaria infections, supporting the development of more practical diagnostic tools for regions where malaria remains a major public health challenge.
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 Chair of Nutrition and Immunology, ZIEL - Institute for Food and Health, and the Data Science in Systems Biology group at the Technical University of Munich (Germany) investigated how diet influences the development of the infant gut microbiome during the first year of life. While age was found to be the primary driver of microbiota assembly, formula composition influenced metabolite profiles and the development of bacterial circadian rhythms. Using the INFORS HT Multifors 2 bioreactor as an ex vivo gut chemostat model, the team confirmed that rhythmic behavior in dominant gut bacteria can be maintained under controlled laboratory conditions, providing new insights into the relationship between nutrition, microbiome development, and circadian biology.
Researchers from The Walter and Eliza Hall Institute of Medical Research and the University of Melbourne (Australia) developed stabilized versions of the malaria protein PvRBP2b, a promising biomarker for recent Plasmodium vivax infections. During recombinant protein production, cultures were grown using the INFORS HT Multitron incubator shaker. The redesigned proteins showed improved production yields and greater thermal stability while maintaining their ability to detect antibodies associated with recent malaria infections, supporting the development of more practical diagnostic tools for regions where malaria remains a major public health challenge.
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 Chair of Nutrition and Immunology, ZIEL - Institute for Food and Health, and the Data Science in Systems Biology group at the Technical University of Munich (Germany) investigated how diet influences the development of the infant gut microbiome during the first year of life. While age was found to be the primary driver of microbiota assembly, formula composition influenced metabolite profiles and the development of bacterial circadian rhythms. Using the INFORS HT Multifors 2 bioreactor as an ex vivo gut chemostat model, the team confirmed that rhythmic behavior in dominant gut bacteria can be maintained under controlled laboratory conditions, providing new insights into the relationship between nutrition, microbiome development, and circadian biology.