Cell Invasion Monitoring
Cell Invasion Monitoring - Related Videos
01:37
Non-invasive Monitoring and Imaging in Animal Research
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2026
All animal procedures described here must be conducted in accordance with institutional animal ethics guidelines and approved by IACUC. All procedures must follow the principles of the 3Rs—Replacement, Reduction, and Refinement—and must be performed by trained personnel. Non-invasive technologies support the principles of 3Rs by enabling repeated data collection from the same animal without the need for euthanasia at multiple time points. These approaches reduce the number of animals required...
07:44
Monitoring Cancer Cell Invasion and T-Cell Cytotoxicity in 3D Culture
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Cited by 24 •
2020
The presented approach simultaneously evaluates cancer cell invasion in 3D spheroid assays and T-cell cytotoxicity. Spheroids are generated in a scaffold-free agarose multi-microwell cast. Co-culture and embedding in type I collagen matrix are performed within the same device which allows to monitor cancer cell invasion and T-cell mediated cytotoxicity.
08:02
Fecal Glucocorticoid Analysis: Non-invasive Adrenal Monitoring in Equids
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Cited by 6 •
2016
Adrenal activity can be assessed in the equine species by analysis of feces for corticosterone metabolites. The method offers a non-invasive option to assess long term patterns in both domestic and free ranging horses. This protocol describes the enzyme linked immunoassay involved and the associated biochemical validation.
10:16
Chick Heart Invasion Assay for Testing the Invasiveness of Cancer Cells and the Activity of Potentially Anti-invasive Compounds
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Cited by 4 •
2015
Here, we present a protocol to study the invasion of tumor cells into living normal tissue fragments in three dimensions. This organ culture technique is mainly applied to test potentially anti-invasive drugs in vitro.
08:08
An in vivo Rodent Model of Contraction-induced Injury and Non-invasive Monitoring of Recovery
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Cited by 26 •
2011
An in vivo animal model of injury is described. The method takes advantage of the subcutaneous position of the fibular nerve. Velocity, timing of muscle activation, and arc of motion are all pre-determined and synchronized using commercial software. Post injury changes are monitored in vivo using MR imaging/spectroscopy.
FAQs
The surrounding tissue or three-dimensional extracellular matrix provides the physical context in which movement is measured. A porous membrane or matrix barrier creates a defined passage challenge, allowing investigators to assess whether cells can cross rather than simply change position. Because these environments differ from unrestricted surfaces, the selected model influences how invasion-related movement is interpreted.
Rate, distance, and direction capture different aspects of movement. Rate indicates how quickly invasion proceeds, distance shows how far cells travel, and direction describes the orientation of movement. Tracking these features over time can distinguish a treatment or condition that changes overall progression from one that primarily affects how far or where cells move.
Microscopy follows cellular movement over time and can preserve information about movement patterns, including distance and direction. Membrane-based assays instead quantify passage through pores and, when a matrix barrier is included, passage through a tissue-like obstacle. The two formats therefore provide complementary ways to assess invasion, depending on whether continuous movement or barrier crossing is the main endpoint.
Standardized measurements make invasion outcomes more comparable across experiments by applying consistent ways to assess movement or passage. This is especially relevant to drug screening, where researchers need to determine whether candidate treatments alter cellular mechanisms that enable movement through tissue-like environments. Consistency also supports interpretation of therapeutic response and disease-related changes.
An experiment begins by placing cells in a setting that represents the question being studied, such as a three-dimensional matrix or a porous membrane with a matrix barrier. Researchers then monitor movement with microscopy or quantify passage through the barrier over time. They report invasion-related measures such as rate, distance, or direction.
In medicine, the approach is useful for examining cancer cell dissemination and metastatic potential, as well as immune-cell trafficking and tissue repair. These applications connect cell movement with clinically relevant processes without treating invasion as a single disease-specific phenomenon. The same measurement framework can therefore support studies of disease progression and therapeutic response.
A candidate treatment can be assessed by examining whether invasion-related measurements change after exposure, including the rate, distance, direction, or amount of passage through a barrier. Such results indicate whether the treatment affects cellular mechanisms associated with movement in a tissue-like environment. This makes invasion monitoring a useful readout in therapeutic-response studies and drug screening.