White Paper: The evolution of immune cell killing assays using live-cell analysis

Download this white paper from Sartorius to discover how enhanced data analytics and translational models can provide new biological insights

25 May 2020
Sophie Ball
Publishing / Media

Industry news

In the ongoing battle to understand cancer and develop new therapeutic strategies, researchers are exploring the role of the patient’s own immune system in defending the body against tumors. A critical component of this anti-cancer response is the ability of certain immune cells, such as cytotoxic T and natural killer cells, to induce malignant cell death through the process of immune cell killing (ICK). Modeling ICK in vitro is therefore of paramount importance.

There are multiple techniques traditionally used to assess ICK, such as flow cytometry and biochemical readouts. While these are valuable tools, they derive measurements from single time point analyses and do not characterize dynamic cellular interactions, limiting the biological insights that can be gained. Therefore, to develop a more comprehensive understanding of ICK, researchers are seeking new assays that can provide complementary information to supplement current workflows.

Scientists have a particular need for methods that can capture, visualize and quantify the dynamic changes associated with ICK. Additionally, as increasingly translational models become more widely used, researchers require flexible ICK assays that can be applied to 3D tumor spheroids as well as adherent and non-adherent 2D co-cultures.

In this white paper, Sartorius illustrates how live-cell analysis has evolved to address the growing challenges of immuno-oncology research. It has also highlighted how the introduction of enhanced data analytics, coupled with the validation of this approach in more translational 3D culture models, has enabled live-cell analysis to become a flexible solution to meet the current and future requirements of this field.

Download the white paper here>>

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AntibodiesAntibodies are used in techniques such as confocal and fluorescence microscopy, flow cytometry, ELISA, ELISPOT, immunohistochemistry, western blotting and immunopreciptation. Select specific antigen reactivity, high specific affinity, low non-specific binding, monoclonal or polyclonal, primary or secondary antibodies and associated conjugates such as an enzyme or dye for visualization.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.ImmunologyImmunological techniques measure and characterize immune responses. Immunology kits and analysis systems often use techniques such as ELISA, radioimmunoassay (RIA) and immunodiffusion assays, Immunohistochemistry, and flow cytometry. Immunologists use equipment such as flow Cytometers, plate readers, plate washers and fluorescent microscopes.Cell AnalysisThe analysis of cells allows researchers to understand the factors which contribute to cell health and function. These influencing processes can then be predicted and altered, leading to the development of medication and disease treatments.Live Cell ImagingLive cell imaging is the study of living cells using microscopes and high-content imaging systems. This technique provides in-depth insight into fast and complex biological processes, by allowing dynamic imaging of living cells instead of acquiring an individual image at a single point in time.Cancer ResearchAlthough cancer is often referred to as a single condition, it actually consists of more than 100 different diseases. Microscopy, mass spectrometry, high throughput sequencing and flow cytometry are some of the most common techniques employed in cancer research labs.