Mouse Footpad Inoculation
Mouse Footpad Inoculation - Related Videos
09:07
Mouse Footpad Inoculation Model to Study Viral-Induced Neuroinflammatory Responses
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Cited by 9 •
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The footpad inoculation model is a valuable tool for characterizing viral-induced neuroinflammatory responses in vivo. In particular, it provides a clear assessment of viral kinetics and associated immunopathological processes initiated in the peripheral nervous system.
07:57
Protocols for Vaginal Inoculation and Sample Collection in the Experimental Mouse Model of Candida vaginitis
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Key techniques to be used in the evaluation of Candida vaginitis in an experimental animal model are described. The methods will allow rapid collection of vaginal specimens and lymphocytes from draining lumbar lymph nodes. These techniques could give rise to mouse models of other diseases in the female lower genital tract.
09:20
Intradermal Inoculation of Mycobacterium avium in the Mouse Ear
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2025
Here we present a protocol for performing a low-dose intradermal inoculation of Mycobacterium avium in a mouse ear to reflect exposure-like conditions.
03:02
Orthotopic Inoculation of Thyroid Cancer Cells into Murine Thyroid: A Procedure to Establish Orthotopic Thyroid Cancer Mouse Model
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This video describes the procedure for orthotopic inoculation of thyroid cancer cells into the thyroid gland of mouse models, which may then serve as a valuable platform to assess carcinogenesis and discover potential treatment strategies.
02:00
Generating Virus-Induced Neuroinflammation in a Mouse Model
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2025
This video demonstrates the generation of neuroinflammation in a mouse model. An anesthetized mouse with micro-wounds is taken, and an inoculum of pseudorabies virus (PRV) is applied to the wounds. The virus infects the peripheral nerves, spreads to the dorsal root ganglia (DRG), and further infects the spinal cord and brain. Infection of neurons in the nervous system leads to an immune response that induces neuronal damage, leading to neuroinflammation.
FAQs
The paw provides a defined peripheral starting point, so investigators can compare local events with later findings in peripheral nerves, spinal cord, or brain. Evidence of agent replication and tissue responses at the inoculation site can be evaluated alongside neural changes over time. This arrangement helps distinguish events occurring near entry from patterns consistent with nervous-system involvement.
A localized plantar site separates the initial tissue response from changes that may appear elsewhere. That separation supports time-course analysis of replication, inflammation, and possible spread through peripheral nerves. It also gives researchers a consistent anatomical region for comparing behavioral observations with tissue and neural measurements, strengthening interpretation of peripheral versus nervous-system effects.
Because the agent begins in peripheral tissue, investigators can examine whether changes remain localized or appear along neural pathways. Axonal transport, the movement of material along nerve fibers, provides a mechanism to evaluate possible progression toward the spinal cord or brain. Comparing peripheral and central findings helps frame neuroinvasion within broader infection and host-defense responses.
Researchers can combine behavioral observations, tissue analysis, and measurements of neural or immune changes over time. This multi-level workflow links visible changes in the mouse to local pathology and nervous-system responses. Using more than one readout helps determine whether findings reflect replication, tissue response, neural involvement, or host defense rather than relying on a single type of evidence.
This model is useful when a study needs to connect a defined peripheral exposure with events in nervous tissue. It can support investigations of neuroinvasion, axonal transport, pain, neuroinflammation, and host defense. The same design also permits assessment of peripheral infection and local tissue responses, making it relevant beyond studies focused exclusively on the brain.
Behavioral observations can be paired with tissue analysis and measurements of neural or immune changes to examine pain-related responses after a localized peripheral challenge. This combination helps relate what the animal displays to biological changes at the paw, along neural routes, or in the central nervous system. It also allows pain to be considered alongside neuroinflammation and host defense.