Technology ID
TAB-4832

Replicative-Defective Mutant Human Cytomegalovirus: Potential Applications in Vaccinology and Cancer Immunotherapy

E-Numbers
E-006-2012-0
Lead Inventor
Cohen, Jeffrey (National Institute of Allergy and Infectious Diseases (NIAID/NIH))
Co-Inventors
Bowman, John
Applications
Vaccines­­­
Therapeutics
Diagnostics
Development Stages
Clinical Phase III
Research Products
Computational models/software
Lead IC
NIAID

The potential applications of a replicative-defective mutant form of human cytomegalovirus (HCMV) are significant in the fields of vaccinology and cancer immunotherapy. This innovative approach involves engineering a mutant HCMV that can selectively target specific cells. Firstly, it holds promise as a vaccine candidate for protecting against HCMV infection, given the success of a similar strategy against herpes simplex virus in animal models. Secondly, as an immunotherapeutic agent for cancer treatment, the mutant HCMV could stimulate the immune system to recognize and combat cancer cells, analogous to its success in treating cancer in mice. While these prospects are exciting, extensive research, safety evaluations, and clinical trials will be imperative to determine the viability and safety of these applications in human medicine.

Commercial Applications
A replicative-defective mutant human cytomegalovirus (HCMV) holds potential in two key areas. Firstly, as a safer vaccine against HCMV infection, and secondly, as a precision tool in cancer immunotherapy, offering targeted treatment with minimized side effects. These applications align with emerging trends in healthcare, but extensive research and clinical trials are necessary for validation.

Competitive Advantages
The competitive advantages of using a replicative-defective mutant human cytomegalovirus (HCMV) stem from its safety and precision. As a potential HCMV vaccine, it offers a safer option compared to live attenuated vaccines, preserving immune stimulation without disease risk. In cancer immunotherapy, the mutant HCMV's ability to target cancer cells directly holds promise for reducing collateral damage and enhancing treatment efficacy. The successful application of similar strategies against herpes simplex virus and cancer in mice further supports its potential in human medicine, pending rigorous testing and regulatory approval.
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