April 16, 2013
/PRNewswire/ -- Santaris Pharma A/S, a privately held biopharmaceutical company focused on developing medicines targeted to disease-related mRNAs and microRNAs, today announced a worldwide strategic alliance with Bristol-Myers Squibb (NYSE: BMY) to discover and develop novel medicines using Santaris Pharma's proprietary Locked Nucleic Acid (LNA) Drug Platform.
Under the terms of the agreement, Santaris Pharma will receive an upfront payment of
, up to
in potential milestone payments per product and funding of ongoing discovery and research activities. In addition, Santaris Pharma will be eligible to receive royalties on the worldwide sales of all medicines arising from the alliance.
Announcing the alliance, President and CEO of Santaris Pharma,
, said: "We are delighted to welcome Bristol-Myers Squibb as a new partner. This strategic alliance further consolidates Santaris Pharma's leadership in the field of oligonucleotide therapeutics."
, Santaris Pharma's Chief Scientific Officer and VP Business Development commented: "We are proud and honored that Bristol-Myers Squibb has chosen Santaris Pharma as their partner. We are confident that the unique features of the LNA Drug platform can achieve clinical breakthroughs and look forward to working closely with the Bristol-Myers Squibb team."
About Locked Nucleic Acid (LNA) Drug Platform
The LNA Drug Platform and Drug Discovery Engine developed by Santaris Pharma A/S combines the company's proprietary LNA chemistry with its highly specialized and targeted drug development capabilities to rapidly deliver LNA-based drug candidates against RNA targets, both mRNA and microRNA, for a range of diseases including infectious and inflammatory diseases, cardiometabolic disorders, cancer and rare genetic disorders. LNA-based drugs are a promising new class of therapeutics that are enabling scientists to develop drug candidates that target previously inaccessible clinical pathways. The LNA Drug Platform overcomes the limitations of earlier antisense and siRNA technologies to deliver potent single-stranded LNA-based drug candidates across a multitude of disease states. The unique combination of small size and very high affinity allows this new class of drug candidates to potently and specifically inhibit RNA targets in many different tissues without the need for complex delivery vehicles. The most important features of LNA-based drugs include excellent specificity providing optimal targeting; increased affinity to targets providing improved potency; and favorable pharmacokinetic and tissue-penetrating properties that allow systemic delivery of these drugs without complex and potentially troublesome delivery vehicles.