-1::1
Simple Hit Counter
Skip to content

Products

Solutions

×
×
Sign In

EN

EN - EnglishCN - 简体中文DE - DeutschES - EspañolKR - 한국어IT - ItalianoFR - FrançaisPT - Português do BrasilPL - PolskiHE - עִבְרִיתRU - РусскийJA - 日本語TR - TürkçeAR - العربية
Sign In Start Free Trial

RESEARCH

JoVE Journal

Peer reviewed scientific video journal

Behavior
Biochemistry
Bioengineering
Biology
Cancer Research
Chemistry
Developmental Biology
View All
JoVE Encyclopedia of Experiments

Video encyclopedia of advanced research methods

Biological Techniques
Biology
Cancer Research
Immunology
Neuroscience
Microbiology
JoVE Visualize

Visualizing science through experiment videos

EDUCATION

JoVE Core

Video textbooks for undergraduate courses

Analytical Chemistry
Anatomy and Physiology
Biology
Cell Biology
Chemistry
Civil Engineering
Electrical Engineering
View All
JoVE Science Education

Visual demonstrations of key scientific experiments

Advanced Biology
Basic Biology
Chemistry
View All
JoVE Lab Manual

Videos of experiments for undergraduate lab courses

Biology
Chemistry

BUSINESS

JoVE Business

Video textbooks for business education

Accounting
Finance
Macroeconomics
Marketing
Microeconomics

OTHERS

JoVE Quiz

Interactive video based quizzes for formative assessments

Authors

Teaching Faculty

Librarians

K12 Schools

Products

RESEARCH

JoVE Journal

Peer reviewed scientific video journal

JoVE Encyclopedia of Experiments

Video encyclopedia of advanced research methods

JoVE Visualize

Visualizing science through experiment videos

EDUCATION

JoVE Core

Video textbooks for undergraduates

JoVE Science Education

Visual demonstrations of key scientific experiments

JoVE Lab Manual

Videos of experiments for undergraduate lab courses

BUSINESS

JoVE Business

Video textbooks for business education

OTHERS

JoVE Quiz

Interactive video based quizzes for formative assessments

Solutions

Authors
Teaching Faculty
Librarians
K12 Schools

Language

English

EN

English

CN

简体中文

DE

Deutsch

ES

Español

KR

한국어

IT

Italiano

FR

Français

PT

Português do Brasil

PL

Polski

HE

עִבְרִית

RU

Русский

JA

日本語

TR

Türkçe

AR

العربية

    Menu

    JoVE Journal

    Behavior

    Biochemistry

    Bioengineering

    Biology

    Cancer Research

    Chemistry

    Developmental Biology

    Engineering

    Environment

    Genetics

    Immunology and Infection

    Medicine

    Neuroscience

    Menu

    JoVE Encyclopedia of Experiments

    Biological Techniques

    Biology

    Cancer Research

    Immunology

    Neuroscience

    Microbiology

    Menu

    JoVE Core

    Analytical Chemistry

    Anatomy and Physiology

    Biology

    Cell Biology

    Chemistry

    Civil Engineering

    Electrical Engineering

    Introduction to Psychology

    Mechanical Engineering

    Medical-Surgical Nursing

    View All

    Menu

    JoVE Science Education

    Advanced Biology

    Basic Biology

    Chemistry

    Clinical Skills

    Engineering

    Environmental Sciences

    Physics

    Psychology

    View All

    Menu

    JoVE Lab Manual

    Biology

    Chemistry

    Menu

    JoVE Business

    Accounting

    Finance

    Macroeconomics

    Marketing

    Microeconomics

Start Free Trial
Loading...
Home
JoVE Journal
Immunology and Infection
Deep Vein Thrombosis Induced by Stasis in Mice Monitored by High Frequency Ultrasonography
Deep Vein Thrombosis Induced by Stasis in Mice Monitored by High Frequency Ultrasonography
JoVE Journal
Immunology and Infection
A subscription to JoVE is required to view this content.  Sign in or start your free trial.
JoVE Journal Immunology and Infection
Deep Vein Thrombosis Induced by Stasis in Mice Monitored by High Frequency Ultrasonography

Deep Vein Thrombosis Induced by Stasis in Mice Monitored by High Frequency Ultrasonography

Full Text
10,245 Views
06:44 min
April 13, 2018

DOI: 10.3791/57392-v

Ryan N. Rys1, Mark D. Blostein1,2, Catherine A. Lemarié1,2

1Lady Davis Institute for Medical Research, Jewish General Hospital,McGill University, 2Department of Medicine, Jewish General Hospital,McGill University

Summary

The present protocol describes the steps to obtain venous thrombosis using a stasis model. In addition, we are using a non-invasive method to measure thrombus formation and resolution over time.

Transcript

The overall goals of this procedure are to induce deep vein thrombosis in mice using the inferior vena cava stasis model, and to monitor the thrombi using high frequency ultrasound. This method can help answer key questions in the venous thrombosis field about how a pharmacological agent, gene, or cell type of interest can influence thrombus formation or resolution. The main advantage of this technique is that both thrombus formation and resolution can be non-invasively quantified in mice.

We first had the idea of this method when we were investigating how to denamicate and non-invasively monitor thrombus formation in the inferior vena cava of mice. To begin, use forceps to lift the lower abdominal skin of an eight to 10 week old C57 black six mouse. And use surgical scissors to make a vertical incision parallel to either side of the linea alba from the midline.

Make a horizontal incision at the top of the abdomen. Followed by repeat incisions through the abdominal muscle layer. Fold the skin and muscle away from the incision to expose the abdominal cavity.

And place moistened gauze onto both sides of the wound. Apply gentle pressure to both sides of the abdomen to externalize the intestines onto the gauze. And place a second layer of moistened gauze over the externalized tissue.

Under a dissecting microscope, move aside any peritoneal fat to expose the interior vena cava, or IVC, between the renal and iliac veins. And locate the IVC side branches. Using forceps, gently blunt dissect around each side branch to break through the fascia without damaging the surrounding vessels.

Next, carefully grasp the fat around one branch to lift the vein. And pass a piece of six dash zero silk suture under the vessel. Then use suture forceps and a standard surgical knot tying technique to make a surgical ligation with at least three throws around the side branch to completely occlude the the vessel.

Alternatively, use Hemoclips. To separate the aorta from the IVC, blunt dissect around and between both vessels immediately distal from the left renal vein without damaging either vessel. When a clear window has been created between the vessels, pass a section of six dash zero silk suture under the IVC and the abdominal aorta.

And use forceps to pull the suture through the window. Using suture forceps, ligate the IVC with three throws immediately distal to the left renal vein for full occlusion of the vessel. Confirm that the abdominal aorta has been left uninterrupted.

And that all of the side branches have been ligated. The IVC will appear dilated distal from the ligation site. And no blood flow will be visible.

Return the peritoneal fat and the intestines to the abdominal cavity. And use suture forceps and six dash zero silk sutures to separately close the muscle and skin layers with running stitches. Then place the animal in a 34 degree Celsius incubator for at least 30 minutes with monitoring until full recovery.

Place the ultrasound gel bottle through the coils of a water heating system to heat the gel to 37 degrees Celsius. 24 hours after the ligation, place the animal on the analysis platform. And apply electrode gel onto the four electrodes of the platform.

With the animal in the supine position, fix the paws to the electrodes. And insert a lubricated thermometer into the rectum. Place gauze to the side of the animal to catch any excess ultrasound gel.

Then apply the gel to the exposed skin. And image the IVC according to the standard ultrasound imaging protocols. Using a high frequency microimaging system, the IVC can be identified in the longitudinal view prior to ligation.

And the flow velocity can be determined by Pulsed wave Doppler imaging. Immediately after the ligation, a decrease in the blood flow is apparent. 24 hours after the ligation, dense thrombi can be visualized inside the IVC by ultrasonography.

Ultrasonography also allows quantification of the velocity of blood flow in the vessels. Using colored Doppler before, immediately after, and 24 hours after ligation. Once mastered, the thrombus can be induced in 30 to 45 minutes depending on the presence and number of side branches if the technique is performed properly.

While attempting this procedure, it's important to remember to take your time and to be precise yet gentle in your movements as it is relatively easy to rupture the vessels. Following this procedure, other methods like immunofluorescent, histological, or flow cytometric analysis can be performed to answer additional questions about the cellular content of thrombi or to quantify specific proteins of interest.

Explore More Videos

Deep Vein ThrombosisInferior Vena Cava StasisHigh Frequency UltrasoundMouse ModelThrombosis FormationThrombosis ResolutionVascular SurgeryLigationBlunt DissectionSuture Technique

Related Videos

Electrolytic Inferior Vena Cava Model (EIM) of Venous Thrombosis

06:03

Electrolytic Inferior Vena Cava Model (EIM) of Venous Thrombosis

Related Videos

17.5K Views

Mouse Complete Stasis Model of Inferior Vena Cava Thrombosis

04:34

Mouse Complete Stasis Model of Inferior Vena Cava Thrombosis

Related Videos

18.6K Views

Intravital Fluorescence Microscopy to Study Microvascular Thrombus Formation

05:54

Intravital Fluorescence Microscopy to Study Microvascular Thrombus Formation

Related Videos

763 Views

Visualization of a Cerebral Thrombus in a Mouse Using Micro-Computed Tomography Imaging

02:05

Visualization of a Cerebral Thrombus in a Mouse Using Micro-Computed Tomography Imaging

Related Videos

276 Views

Stenosis of the Inferior Vena Cava: A Murine Model of Deep Vein Thrombosis

05:37

Stenosis of the Inferior Vena Cava: A Murine Model of Deep Vein Thrombosis

Related Videos

25.2K Views

Murine Model of Central Venous Stenosis using Aortocaval Fistula with an Outflow Stenosis

06:17

Murine Model of Central Venous Stenosis using Aortocaval Fistula with an Outflow Stenosis

Related Videos

7.6K Views

Analysis of Cerebral Vasospasm in a Murine Model of Subarachnoid Hemorrhage with High Frequency Transcranial Duplex Ultrasound

10:41

Analysis of Cerebral Vasospasm in a Murine Model of Subarachnoid Hemorrhage with High Frequency Transcranial Duplex Ultrasound

Related Videos

3.9K Views

High-Resolution Three-Dimensional Imaging of the Footpad Vasculature in a Murine Hindlimb Gangrene Model

08:16

High-Resolution Three-Dimensional Imaging of the Footpad Vasculature in a Murine Hindlimb Gangrene Model

Related Videos

3.8K Views

Non-Invasive Ultrasound Assessment of Endometrial Cancer Progression in Pax8-Directed Deletion of the Tumor Suppressors Arid1a and Pten in Mice

07:44

Non-Invasive Ultrasound Assessment of Endometrial Cancer Progression in Pax8-Directed Deletion of the Tumor Suppressors Arid1a and Pten in Mice

Related Videos

1.8K Views

Venous Thrombosis Assay in a Mouse Model of Cancer

04:40

Venous Thrombosis Assay in a Mouse Model of Cancer

Related Videos

2.8K Views

JoVE logo
Contact Us Recommend to Library
Research
  • JoVE Journal
  • JoVE Encyclopedia of Experiments
  • JoVE Visualize
Business
  • JoVE Business
Education
  • JoVE Core
  • JoVE Science Education
  • JoVE Lab Manual
  • JoVE Quizzes
Solutions
  • Authors
  • Teaching Faculty
  • Librarians
  • K12 Schools
About JoVE
  • Overview
  • Leadership
Others
  • JoVE Newsletters
  • JoVE Help Center
  • Blogs
  • Site Maps
Contact Us Recommend to Library
JoVE logo

Copyright © 2025 MyJoVE Corporation. All rights reserved

Privacy Terms of Use Policies
WeChat QR code