Animal Transplantation Model
Animal Transplantation Model - Related Videos
05:36
Kidney Procurement in a Preclinical Large Animal Model
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2025
Here, we present a protocol that details a surgical model for kidney procurement in a preclinical swine model for subsequent machine perfusion or transplantation.
26:43
Computer-Generated Animal Model Stimuli
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Cited by 8 •
2007
Computer-generated stimuli using the Jacky dragon as a model.
10:32
Murine Cervical Heart Transplantation Model Using a Modified Cuff Technique
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Cited by 26 •
2014
The murine cervical heart transplantation model is well suited for immunological as well as ischemia reperfusion injury studies. We modified the procedure using a non-suture cuff technique and performed more than 1,000 successful transplants with this approach. Herein, we provide additional details of this technique to supplement the video.
11:00
Tissue Determination Using the Animal Cap Transplant (ACT) Assay in Xenopus laevis
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Cited by 8 •
2010
Animal caps overexpressing gene product(s) are transplanted to the flank of developing Xenopus laevis embryos in order to establish whether tissue is determined.
08:32
Orthotopic Aortic Transplantation: A Rat Model to Study the Development of Chronic Vasculopathy
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Cited by 7 •
2010
This video demonstrates the orthotopic aortic transplant model as a simple model to study the development of transplant vasculopathy (TVP) in rats.
FAQs
Using genetically matched and mismatched recipients lets investigators compare how donor material is recognized under different compatibility conditions. Those comparisons help separate responses associated with immune recognition from other influences on graft performance, such as inflammation or vascular integration. The resulting patterns can clarify why a graft survives or fails.
Immune recognition and inflammation are monitored together because they connect the recipient’s biological response with graft outcome. An animal transplantation model can reveal whether these responses accompany impaired graft survival or coexist with tissue repair. Tracking both provides a broader assessment than relying on survival alone and helps frame rejection mechanisms for therapeutic study.
Vascular integration is important because transplanted material must be assessed within a living recipient, alongside inflammation, survival, and repair. Monitoring these linked outcomes allows researchers to examine whether a procedure or treatment supports functional incorporation rather than merely short-term persistence. This makes vascular response a relevant measure when comparing transplantation strategies.
Researchers first establish a donor-recipient pairing, using either genetically matched or mismatched animals, and transfer the selected cells, tissue, or organ. They then maintain the experiment under controlled conditions while monitoring immune recognition, inflammation, vascular integration, graft survival, and tissue repair. These measurements connect the intervention with biological and physiological outcomes.
The system is used to evaluate immunosuppressive therapies, surgical procedures, preservation methods, and emerging transplantation strategies before clinical testing. Researchers can examine how each approach affects graft survival, immune responses, vascular integration, or tissue repair. This range makes the model useful for comparing interventions and identifying outcomes that warrant further investigation in medicine.
Results should be interpreted with attention to translation because animal biology does not fully reproduce human biology. Even when a model links molecular and physiological responses to graft outcomes, differences between species may affect how rejection, repair, or treatment effects appear. The model therefore informs clinical planning without guaranteeing identical results in human patients.