Biggest changeWe use these models to identify gene targets responsible for driving the disease and intend to initiate drug discovery programs around these validated targets. We are initially focusing on the intestine and have ongoing 3D tissue development efforts in ulcerative colitis (“UC”) and Crohn’s disease (“CD”). We intend to add additional tissues/diseases/targets to our portfolio over time.
Biggest changeAs with the clinical development program, we are initially focusing on the intestine and have ongoing 3D tissue development efforts in human tissue models of UC and CD. We use these models to identify new molecular targets responsible for driving the disease and to explore the mechanism of action of known drugs including FXR314 and related molecules.
The NovoGen Bioprinter® Platform Our NovoGen Bioprinters ® are automated devices that enable the fabrication of 3D living tissues comprised of mammalian cells. A custom graphic user interface (“GUI”) facilitates the 3D design and execution of scripts that direct precision movement of multiple 2 dispensing heads to deposit defined cellular building blocks called bio-ink.
The NovoGen Bioprinter® Platform Our NovoGen Bioprinters ® are automated devices that enable the fabrication of 3D living tissues comprised of mammalian cells. A custom graphic user interface (“GUI”) facilitates the 3D design and execution of scripts that direct precision movement of multiple dispensing heads to deposit defined cellular building blocks called bio-ink.
Vineyard Professor of Biophysics at MU, was one of the co-inventors of all of these works (collectively, the “Forgacs Intellectual Property”). The Forgacs Intellectual Property provides us with intellectual property rights relating to cellular aggregates, the use of cellular aggregates to create engineered tissues, and the use of cellular aggregates to 3 create engineered tissue with no scaffold present.
Vineyard Professor of Biophysics at MU, was one of the co-inventors of all of these works (collectively, the “Forgacs Intellectual Property”). The Forgacs Intellectual Property provides us with intellectual property rights relating to cellular aggregates, the use of cellular aggregates to create engineered tissues, and the use of cellular aggregates to create engineered tissue with no scaffold present.
Patent Nos. 9,481,868, 10,094,821 and 10,962,526; Australian Patent No. 2015328173, Canadian Patent No. 2,962,778, European Patent No. 3204488 and Japan Patent No. 7021177. These issued patents and pending patent applications carry remaining patent terms ranging from over 14 years to just over 11 years.
Patent Nos. 9,481,868, 10,094,821 and 10,962,526; Australian Patent No. 2015328173, Canadian Patent No. 2,962,778, European Patent No. 3204488 and Japan Patent No. 7021177. These issued patents and pending patent applications carry remaining patent terms ranging from over 11 years to just over 9 years.
Research Collaborations We continue to collaborate with several academic institutions by providing them with access to our NovoGen Bioprinters ® for research purposes, including: Yale School of Medicine, Knight Cancer Institute at Oregon Health & Science University, and the University of Virginia.
Research Collaborations We continue to collaborate with several academic institutions by providing them with access to our NovoGen Bioprinters ® for research purposes, including: Yale School of Medicine, Knight Cancer Institute at Oregon Health & Science University, and the 3 University of Virginia.
For additional information regarding our royalty obligations see “Note 5. Collaborative Research, Development, and License Agreements” in the Notes to the Consolidated Financial Statements included in this Annual Report. Company Owned Intellectual Property In addition to the intellectual property we have in-licensed, we have historically innovated and grown our intellectual property portfolio.
For additional information regarding our royalty obligations see “Note 6. Collaborative Research, Development, and License Agreements” in the Notes to the Consolidated Financial Statements included in this Annual Report. 4 Company Owned Intellectual Property In addition to the intellectual property we have in-licensed, we have historically innovated and grown our intellectual property portfolio.
With respect to our bioprinting platform, we have 8 issued U.S. patents and 14 issued foreign patents directed to our NovoGen Bioprinter ® and methods of bioprinting: U.S. Patent Nos. 8,931,880; 9,149,952; 9,227,339; 9,315,043; 9,499,779; 9,855,369; 10,174,276, 10,967,560, 11,577,450, 11,577,451 and 11,413,805 ; Australia Patent Nos. 2011318437, 2015202836, 2016253591, 2013249569, and 2014296246; Canada Patent No. 2,812,766; China Patent Nos.
With respect to our bioprinting platform, we have 11 issued U.S. patents and 13 issued foreign patents directed to our NovoGen Bioprinter ® and methods of bioprinting: U.S. Patent Nos. 8,931,880; 9,149,952; 9,227,339; 9,315,043; 9,499,779; 9,855,369; 10,174,276, 10,967,560, 11,577,450, 11,577,451 and 11,413,805 ; Australia Patent Nos. 2015202836, and 2014296246; Canada Patent No. 2,812,766; China Patent Nos.
With respect to our FXR agonist program covering FXR314 and FXR125, we have 6 issued U.S. patents and 14 issued foreign patents directed to composition of matter protection (generic and specific) for FXR314 and FXR125, as well claims directed to methods of treatment of GI diseases, formulations of FXR314 and polymorphs of the FXR314 molecule including United States Patent Nos.11,214,538, 10,705,712, 10,927,082, 10,961,198, 11,136,071 and 11,084,817, granted Australian Patent Nos. 2016323992 and 2018236275, Chinese Patent Nos. 201680066917 and 269065, Eurasian Patent Nos. 040003 and 040704, Israeli Patent Nos. 258011, 296068 and 296065, Indian Patent No. 380510, Japanese Patent Nos. 6905530 and 717709, Mexican Patent Nos. 386,752 and 397265 and South African Patent No. 2018/01750.
With respect to our FXR agonist program covering FXR314 and FXR125, we have 7 issued U.S. patents and 15 issued foreign patents directed to composition of matter protection (generic and specific) for FXR314 and FXR125, as well claims directed to methods of treatment of GI diseases, formulations of FXR314 and polymorphs of the FXR314 molecule including United States Patent Nos.11,214,538, 10,703,712, 10,927,082, 10,961,198, 11,236,071 and 11,084,817, granted Australian Patent Nos. 2016323992 and 2018236275, Chinese Patent Nos. 201680066917 and 269065, Eurasian Patent Nos. 040003 and 040704, Israeli Patent Nos. 258011, 296068 and 296065, Indian Patent No. 380510, Japanese Patent Nos. 6905530 and 717709, Mexican Patent Nos. 386,752 and 397265 and South African Patent No. 2018/01750.
This includes filings on the lead candidate, FXR314, and selected filings on the prior candidate (no longer in development), FXR125. With respect to this FXR portfolio, we solely own 6 issued patents and 14 international patents in jurisdictions, including Australia, China, Eurasia, India, Israel, Mexico, Japan and South Africa.
This includes filings on the lead candidate, FXR314, and selected filings on the prior candidate (no longer in development), FXR125. With respect to this FXR portfolio, we solely own 7 issued patents and 15 international patents in jurisdictions, including Australia, China, Eurasia, India, Israel, Mexico, Japan and South Africa.
Patent Application Nos. 18/156,069, 17/532,618, 18/174,393, 17/349,757, 17/276,787, 17/906,580, 17/906,582 and 17/906,585 and over 50 pending international patent applications in a number of countries including, Australia, Brazil, Canada, Chile, China, the Eurasian Patent Office, the European Patent Office, Israel, India, Japan, South Korea, Mexico, Singapore, 4 Philippines and Hong Kong.
Patent Application Nos. 18/156,069, 18/174,393, 17/349,757, 17/906,580, 17/906,582 and 17/906,585 and over 50 pending international patent applications in a number of countries including, Australia, Brazil, Canada, Chile, China, the Eurasian Patent Office, the European Patent Office, Israel, India, Japan, South Korea, Mexico, Singapore, Philippines and Hong Kong.
We solely own or hold exclusive licenses to 32 issued U.S. patents and more than 115 issued international patents in foreign jurisdictions including Australia, Canada, China, Denmark, France, Great Britain, Germany, Ireland, Japan, South Korea, Sweden, the Netherlands and Switzerland.
We solely own or hold exclusive licenses to 34 issued U.S. patents and more than 45 issued international patents in foreign jurisdictions including Australia, Canada, China, Denmark, France, Great Britain, Germany, Ireland, Japan, South Korea, Sweden, the Netherlands and Switzerland.
ZL201180050831.4 and ZL201480054148.1; European Patent Nos. 2838985, 2629975, and 3028042; Japan Patent Nos. 6333231, 6566426 and 6842918, and Russian Patent No. 2560393. These issued patents and pending patent applications carry remaining patent terms ranging from over 12 years to just over 6 years.
ZL201180050831.4 and ZL201480054148.1; European Patent Nos. 2838985, 2629975, and 3028042; Japan Patent Nos. 6333231, 6566426 and 6842918, and Russian Patent No. 2560393. These issued patents and pending patent applications carry remaining patent terms ranging from over 20 years to just over 7 years.
Our Platform Technology Our 3D human tissue platform is multifaceted. We approach each tissue agnostic to specific technologies, and intend to apply the best 3D technology to a given disease. We are developing novel disease models using high throughput systems, bioprinted and flow/stretch capable 3D systems as appropriate.
We approach each tissue agnostic to specific technologies, and intend to apply the best 3D technology to a given disease. We are developing novel disease models using high throughput systems, bioprinted and flow/stretch capable 3D systems as appropriate.
Using these disease models, we intend to identify and validate novel therapeutic targets. After finding therapeutic drug targets, we will focus on developing novel small molecule, antibody, or other therapeutic drug candidates to treat the disease, and advance these drug candidates towards an Investigational New Drug (“IND”) filing and potential future clinical trials.
After finding therapeutic drug targets, we intend to focus on developing novel small molecule, antibody, or other therapeutic drug candidates to treat the disease, and advance these novel drug candidates towards an Investigational New Drug filing and potential future clinical trials.
These issued patents and pending patent applications carry remaining patent terms ranging from over 18 years to just over 15 years. Employees and Human Capital As of June 1, 2023, we had 24 employees, of which 15 are full-time.
These issued patents and pending patent applications carry remaining patent terms ranging from over 18 years to just over 15 years. Employees and Human Capital As of May 1, 2024, we had 20 employees, of which 12 are full-time.
In line with these plans, we are building upon both our external and in-house scientific expertise, which will be essential to our drug development effort. We use our proprietary technology to build functional 3D human tissues that mimic key aspects of native human tissue composition, architecture, function and disease.
In line with these plans, we are building upon both our external and in house scientific expertise, which will be essential to our drug development effort.
In our work to identify the areas of interest, we evaluate areas that might be better served with 3D disease models than currently available models as well as the commercial opportunity. We hold a large and diverse patent portfolio related to our bioprinting platform and complementary 3D technologies.
We expect to broaden our work into additional therapeutic areas over time and are currently exploring specific tissues for development. In our work to identify the areas of interest, we evaluate areas that might be better served with 3D disease models than currently available models as well as the potential commercial opportunity.
Bioprinted 3D Primary Human Intestinal Tissues Model Aspects of Native Physiology and ADME/Tox Functions. iScience. 2018 Apr 27;2:156-167. doi: 10.1016/j.isci.2018.03.015.) Our current understanding of intestinal tissue models and IBD disease models leads us to believe that we can create models that provide greater insight into the biology of these diseases than are generally currently available.
Bioprinted 3D Primary Human Intestinal Tissues Model Aspects of Native Physiology and ADME/Tox Functions. iScience. 2018 Apr 27;2:156-167. doi: 10.1016/j.isci.2018.03.015.) Our advances include cell type-specific compartments, prevalent intercellular tight junctions, and the formation of microvascular structures. Using these disease models, we intend to identify and validate novel therapeutic targets.
Item 1. Bu siness. Overview Organovo Holdings, Inc. (“Organovo Holdings,” “we,” “us,” “our,” the “Company” and “our Company”) is a biotechnology company that focuses on building high fidelity, 3D tissues that recapitulate key aspects of human disease.
Item 1. Bu siness. Overview Organovo Holdings, Inc. (“Organovo,” “we,” “us,” “our,” the “Company” and “our Company”) is a clinical stage biotechnology company that is focused on developing FXR314 in inflammatory bowel disease (“IBD”), including ulcerative colitis (“UC”), based on demonstration of clinical promise in three-dimensional (“3D”) human tissues as well as strong preclinical data.
FXR agonism has been tested in a variety of preclinical models of IBD. The acquired program contains two clinically tested compounds and over 2,000 discovery or preclinical compounds. We expect to broaden our work into additional therapeutic areas over time and are currently exploring specific tissues for development.
FXR is a mediator of gastrointestinal and liver diseases. FXR agonism has been tested in a variety of preclinical models of IBD. FXR314 is the lead compound in our established FXR program containing two clinically tested compounds (including FXR314) and over 2,000 discovery or preclinical compounds.
Our advances include cell type-specific compartments, prevalent intercellular tight junctions, and the formation of microvascular structures. We believe these attributes can enable critical complex, multicellular disease models that can be used to develop clinically effective drugs across multiple therapeutic areas. Our NovoGen Bioprinters ® are automated devices that enable the fabrication of 3D living tissues comprised of mammalian cells.
We use our proprietary technology to build functional 3D human tissues that mimic key aspects of native human tissue composition, architecture, function, and disease. We believe these attributes can enable critical complex, multicellular disease models that can be used to develop clinically effective drugs across multiple therapeutic areas.