Vein Injection
Vein Injection - Related Videos
05:15
Portal Vein Injection: A Method to Study Cancer Metastasis to the Liver
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2023
This video describes a surgical procedure to deliver mammary tumor cells to the murine liver via portal vein injection. This model permits the investigation of late stages of liver metastasis.
04:21
Quantifying Bacterial Load in the Mouse Heart Following Tail Vein Injection of Listeria monocytogenes
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2026
Source: McMullen, P. D., Freitag, N. E. Assessing Bacterial Invasion of Cardiac Cells in Culture and Heart Colonization in Infected Mice Using Listeria monocytogenes. J. Vis. Exp. (2015)This video demonstrates the injection of Listeria monocytogenes into the tail vein of a mouse to establish systemic infection. It shows bacterial circulation, organ colonization, and the quantification of bacterial load in the heart by homogenizing tissue, performing serial dilutions, and plating.
04:01
Tail Vein Injection: A Method to Administer Cancer Cells for Metastatic Studies in a Mouse Model
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2023
This video describes a technique of injecting labeled cancer cells using tail vein injection into a mouse model. We further monitor breast cancer metastasis formation, and growth using real-time in vivo live animal imaging.
04:39
A Neonatal Rodent Model of Retroorbital Vein Injection
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Cited by 2 •
2024
This protocol aims to demonstrate a reproducible venous administration route that can be used in rats and mice throughout the neonatal period. This procedure is important for preclinical rodent studies that wish to mirror drug administration in neonatal care units primarily using intravenous administration.
03:48
Hydrodynamic Gene Delivery: A Technique for In Vivo Transfection of Exogenous DNA in Murine Hepatocytes via Tail Vein Injection
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2025
This video describes the technique of genetic in vivo transfection of murine hepatocytes by hydrodynamic tail vein injection. This transfection system generates a long-term expression of the transgene in the hepatocytes.
FAQs
Its main mechanistic advantage is rapid systemic exposure because the administered substance enters circulating blood without first passing through an absorption phase in surrounding tissues. This timing can make the relationship between administration and subsequent biological responses easier to examine. In experiments, the direct bloodstream route is therefore relevant when investigators need to track distribution or pharmacokinetic behavior after delivery.
Injection site, solution volume, and delivery rate are central experimental variables. Controlling the site helps standardize where the vessel is accessed, while controlling volume and rate supports more consistent exposure between subjects or trials. Variation in any of these factors can complicate interpretation, because observed physiological responses may reflect differences in administration rather than differences in the substance being tested.
Unlike administration routes that require a substance to move through tissues before reaching blood, vein injection places it directly into circulation. This distinction matters when timing and systemic availability influence an experiment. It also means that investigators must treat injection conditions as important sources of variation, since the route can affect how consistently a compound reaches the body.
Vein injection can deliver drugs, contrast agents, cells, and experimental compounds, allowing researchers to examine how different materials behave after entering circulation. The choice of substance determines the biological question, such as tracking distribution, assessing a physiological response, or modeling a disease-related process. This flexibility makes the technique useful across both experimental and applied biological studies.
A basic biological workflow identifies the study's injection site, inserts a needle into the vessel, and delivers a controlled solution. The critical procedural variables are the injection site, volume, and rate, which should be selected and maintained consistently for the study design. Careful technique supports reproducible delivery and helps reduce tissue injury or other complications that could affect results.
Researchers use Vein Injection when they need to study how an administered substance distributes through the body or influences physiological function. It supports investigations involving drugs, contrast agents, cells, and experimental compounds. Because delivery occurs through circulating blood, the method is especially relevant for examining pharmacokinetics, systemic responses, and biological processes associated with disease.
Measurements collected after vein injection can reveal distribution patterns, pharmacokinetic behavior, physiological responses, or features of a disease process. Researchers interpret these outcomes in relation to the administered substance and the controlled delivery conditions. Consistent site, volume, and rate are important because they help distinguish biological effects from variation introduced during administration.