Next-Generation ATP-Independent Luciferases, Luciferins, and Bioluminescent Calcium Indicators
Project Number5R01EB035430-02
Contact PI/Project LeaderAI, HUIWANG
Awardee OrganizationUNIVERSITY OF VIRGINIA
Description
Abstract Text
Abstract:
In 2012, Promega introduced NanoLuc, an ATP-independent marine luciferase mutant exhibiting a high photon
production rate in the presence of a synthetic luciferin analog, furimazine. However, NanoLuc has several
unfavorable features, including low tissue penetration of its blue emission, and limited substrate solubility and
stability. Recent studies (including our efforts) have partially addressed these issues, but there are remaining
key hurdles that prevent a broader adoption of NanoLuc-derived bioluminescence systems for in vivo animal
imaging.
The overall objective of this 4-year R01 project is to develop next-generation ATP-independent luciferases,
luciferins, and bioluminescent calcium indicators to greatly facilitate imaging experiments in small animals.
Leveraging our strong preliminary results and sustained research interests and expertise in the relevant areas,
we will pursue the following three Specific Aims:
1. Develop shelf-stable and water-soluble luciferins.
2. Develop further red-shifted luciferase-luciferin pairs.
3. Engineer next-generation bioluminescent calcium indicators with enhanced physiological responsiveness.
The outcomes of this project will be bioluminescent tools to facilitate imaging studies in animal models. These
fundamental research tools will further catalyze an extensive array of biological and biomedical studies.
Public Health Relevance Statement
PUBLIC HEALTH RELEVANCE STATEMENT
Luciferases and luciferins are essential reagents for bioluminescence assays and imaging, which have broad
applications in fundamental and preclinical biological and biomedical studies. In addition, this project will derive
bioluminescence imaging tools for calcium, a ubiquitous second messenger. The new tools and reagents from
this study can be used to develop new drugs, monitor bioactivities, understand new biology, and track disease
progression in animal models.
National Institute of Biomedical Imaging and Bioengineering
CFDA Code
286
DUNS Number
065391526
UEI
JJG6HU8PA4S5
Project Start Date
05-February-2024
Project End Date
31-January-2028
Budget Start Date
01-February-2025
Budget End Date
31-January-2026
Project Funding Information for 2025
Total Funding
$415,166
Direct Costs
$257,069
Indirect Costs
$158,097
Year
Funding IC
FY Total Cost by IC
2025
National Institute of Biomedical Imaging and Bioengineering
$415,166
Year
Funding IC
FY Total Cost by IC
Sub Projects
No Sub Projects information available for 5R01EB035430-02
Publications
Publications are associated with projects, but cannot be identified with any particular year of the project or fiscal year of funding. This is due to the continuous and cumulative nature of knowledge generation across the life of a project and the sometimes long and variable publishing timeline. Similarly, for multi-component projects, publications are associated with the parent core project and not with individual sub-projects.
No Publications available for 5R01EB035430-02
Patents
No Patents information available for 5R01EB035430-02
Outcomes
The Project Outcomes shown here are displayed verbatim as submitted by the Principal Investigator (PI) for this award. Any opinions, findings, and conclusions or recommendations expressed are those of the PI and do not necessarily reflect the views of the National Institutes of Health. NIH has not endorsed the content below.
No Outcomes available for 5R01EB035430-02
Clinical Studies
No Clinical Studies information available for 5R01EB035430-02
News and More
Related News Releases
No news release information available for 5R01EB035430-02
History
No Historical information available for 5R01EB035430-02
Similar Projects
No Similar Projects information available for 5R01EB035430-02