KO Hamster Model

The KO Hamster Model is a genetically modified Golden Syrian hamster that allows researchers to study human diseases more accurately. This saves researchers time as it makes the results of their studies more accurate, reducing the number of trials and studies that need to be conducted.

Problem

Small animal models, such as mice and rat models, are the primary models used to study human disease treatment, but these models have limited effectiveness as they do not closely reflect humans’ responses to diseases and treatments.

Solution

The KO Hamster Model is a proprietary genetic engineering technology that allows researchers to more accurately study human diseases. Gene targeting is not naturally possible in hamsters, so researchers used CRISPR/Cas9 genetic engineering technologies to develop this model. Researchers established the first piggyBac-mediated transgenic technologies in the species. This technique allows researchers to create various gene knockout models (KO), a model that makes one of the hamster’s genes inoperative so the gene can be studied more in depth. There are several versions of this model so researchers can study several diseases.

Benefits

Hamster models demonstrate human reactions better than other small animal models, so this technology will save researchers time and money because they will be able to more accurately produce and verify results in fewer studies. Golden Syrian hamster models have an advantage over other small animal models as hamsters and humans have a similar physiology and lipid metabolism. This allows researchers to improve their understanding of how diseases affect genes. Hamsters are also highly sensitive to western diet-induced obesity and can develop insulin resistance, allowing researchers to more accurately model human treatment methods.

Applications

Researchers hope to use this genetic engineering technology to study additional diseases, such as type II diabetes, to improve insulin resistance, beta cell function and arrhythmia. The model is a better way to study human stem cells, infectious diseases caused by human-specific pathogens, gene therapy for blood diseases, human cancer and drug testing.

Researchers developed this model to study various diseases including colorectal cancer, LQTS and metabolic syndromes that are caused by a loss of function of the KCNQ1 gene. Other genes, including LIMD1, OP2, OPN4, OPN5, hTfR1 (Junin virus infection), RAG1 and RAG2, and IL2-Rcg, can also be studied using this model.

Two USU Researchers developing hamster models

 

Contact

Questions about this technology including licensing availability can be directed to:

Christian S. Iverson, MBA
Executive Director, Technology Transfer Services
(435) 797-9620 christian.iverson@usu.edu

USU ID
C18049

 

Hamster Model Status Applications
STAT2 KO Available Model of viral infections: AdV, EBOV, DENV, HRTV, SFTSV, RSV, CCHFV, USUV, Kyasanur Forest disease virus (KFDV), Alkhurma virus (ALKV), Mayaro virus, and ZIKV
RAG1 KO In development Model of VDJ recombination and its associated disease, viral and bacterial infection, cancer, and human stem cell transplantation (HSCT)
RAG2 KO Line lost; being regenerated Model of VDJ recombination and its associated disease, viral and bacterial infection, cancer, and human stem cell transplantation (HSCT)
IL-2Rcg KO Line lost; being regenerated Model of viral infection; cancer; human stem cell transplantation(HSCT)
P53 KO Available Model of cancer
hDPP4 KI Available Model of MERS-CoV infection, type 2 diabetes, and cardiovascular diseases
Per2:luc KI Available Model of circadian rhythm(CR)
Bmal1:luc KI In development Model of circadian rhythm(CR)
IFNLR1 KO In development Model of viral infection
KCNQ1 KO Available Model of colorectal cancer, LQTS, and metabolic syndromes
SMPD1 KO In development Model of inflammation and atherosclerosis
LIMD1 Available Model of cancer
Melanopsin OPN 3 Available Model of light responses, circadian rhythm and neuroendocrinology
OPN 4 Available Model of light responses, circadian rhythm and neuroendocrinology
OPN 5 Available Model of light responses, circadian rhythm and neuroendocrinology
hTfR1 Available Model of Junin virus infection

Inventors


Zhongde Wang, Ph.D.

Rong Li, B.S.
Animal, Dairy and Veterinary Sciences Dept.

Development Stage


TRL 4
Component validation in a laboratory environment.