Cancer biotech BIND Therapeutics sets terms for $71 million IPO By Renaissance Capital, September 05, 2013, 04:24:59 PM EDT Vote up
BIND Therapeutics, a clinical-stage biotech developing a platform of targeted and programmable therapeutics, announced terms for its IPO on Thursday. The Cambridge, MA-based company plans to raise $71 million by offering 4.7 million shares at a price range of $14 to $16. At the midpoint of the proposed range, BIND Therapeutics would command a market value of $237 million.
BIND Therapeutics, which was founded in 2006 and booked $5 million in sales for the 12 months ended June 30, 2013, plans to list on the NASDAQ under the symbol BIND. BIND Therapeutics initially filed confidentially on June 28, 2013. Credit Suisse and Cowen & Company are the joint bookrunners on the deal.
Overview We are a clinical-stage nanomedicine platform company developing Accurins, our novel targeted and programmable therapeutics. Accurins are designed with specified physical and chemical characteristics to target specific cells or tissues and concentrate a therapeutic payload at the site of disease to enhance efficacy while minimizing adverse effects on healthy tissues. Our strategy is to leverage our medicinal nanoengineering platform to develop our own pipeline of Accurins, initially in oncology, as well as Accurins in collaboration with biopharmaceutical companies. Our lead drug candidate, BIND-014, is in Phase 2 clinical trials for non-small cell lung cancer, or NSCLC, and metastatic castrate-resistant prostate cancer, or mCRPC. To date in 2013, we have announced collaborations with Amgen, Pfizer and AstraZeneca to develop Accurins based on therapeutic payloads from their product pipelines, with the potential to achieve a total of over $1 billion in upfront and future milestone payments, including over $450 million in pre-commercial milestones.
Our management team has extensive experience in the development, regulatory approval and commercialization of nanotechnology drugs. Currently, the two leading nanotechnology cancer drugs are Doxil, a liposomal doxorubicin, and Abraxane, an albumin nanoparticle paclitaxel. Our chief executive officer was the president and chief operating officer of SEQUUS Pharmaceuticals, Inc., the company that developed and commercialized Doxil. Both our chief medical officer and our head of regulatory affairs served in those roles at Abraxis Bioscience, Inc., the company that developed Abraxane. Our platform originated from the pioneering nanotechnology research at the Massachusetts Institute of Technology and Brigham and Women’s Hospital/Harvard Medical School of our scientific founders and directors Dr. Robert Langer and Dr. Omid Farokhzad. Our scientists and engineers continue to advance this technology to produce the next generation of targeted nanomedicines. The challenge for all drugs is to maximize the net clinical benefit by increasing the desired therapeutic effect and reducing adverse effects. This is especially difficult in cancer, where the goal is to destroy or inhibit growth of cancer cells without damaging similar healthy cells. The first generation of cancer drugs were cytotoxic chemotherapies, such as Taxotere, which achieved limited selectivity by targeting mechanisms responsible for cell proliferation, a key characteristic of cancer cells. The mechanisms responsible for cell proliferation are also a property of healthy cells, which can lead to significant adverse effects when healthy cells are destroyed. Biopharmaceutical companies have developed more selective drugs, which we refer to as targeted therapies, such as Herceptin and Gleevec by targeting proteins found at higher levels on the surface of cancer cells or by inhibiting dysregulated biochemical pathways inside cancer cells. More recently, drugs such as Kadcyla have increased efficacy by linking toxins and antibodies to deliver targeted cytotoxicity. While these newer drugs were an improvement in targeting cancer cells relative to normal tissue, there continues to be a need to develop drugs with increased net clinical benefit. We believe Accurins represent the next stage in the evolution of cancer therapy. Accurins are nanoparticles containing a therapeutic payload and are designed to target tumors at three levels: tissue, cellular and molecular. They combine this triple targeting with a prolonged circulation time to concentrate the therapeutic payload at the targeted disease site, where it is then released in a controlled and timely manner. Accurins have the potential to significantly increase the net clinical benefit of the therapeutic payload and result in efficacy and safety not currently achievable through other therapeutic approaches.
Our lead Accurin drug candidate, BIND-014, is a prostate-specific membrane antigen, or PSMA, targeted Accurin that contains docetaxel. PSMA is a clinically-validated tumor marker expressed on prostate cancer cells and the blood vessels of many types of non-prostate solid tumors, including NSCLC. Docetaxel, marketed as Taxotere, is one of the most commonly used cancer chemotherapy drugs. It is approved by the U.S. Food and Drug Administration, or FDA, for the treatment of breast cancer, NSCLC, mCRPC, head and neck cancer, and gastric cancer. Taxotere achieved global sales of approximately $3 billion in 2009, the year prior to its loss of marketing exclusivity in the United States, and generic docetaxel continues to be a mainstay in cancer treatment despite its significant side effects. These side effects include neutropenia, anemia, infection, fluid retention and edema, neuropathy, rash, mucositis, fatigue, muscle weakness, nail loss, hair loss and even death.
We are in Phase 2 clinical trials to evaluate the level of clinical activity of BIND-014 in NSCLC and mCRPC and expect to report data from these studies in the second half of 2014. To date, we have clinically tested BIND-014 in over 45 patients with advanced or metastatic cancer who failed prior therapies. In our Phase 1 clinical trial, of the 28 patients who received BIND-014 once every three weeks, there have been one complete response in a patient with cervical cancer and three partial responses in patients with NSCLC, mCRPC and ampullary cancer. A complete response generally refers to the disappearance of all signs of cancer in response to treatment, while a partial response generally refers to a decrease in the size of the tumor or in the extent of cancer in the body. Five additional patients had stable disease lasting longer than 12 weeks. In our preclinical studies, BIND-014 has demonstrated that its ability to destroy tumor cells is differentiated from, and superior to, Taxotere.
In addition to our internal development programs, we also consider opportunities to collaborate with recognized biopharmaceutical companies to develop Accurins incorporating therapeutic payloads from their proprietary product portfolios. Our collaborations with industry leaders, including announced agreements with Amgen, Pfizer and AstraZeneca, provide us with the opportunity to develop Accurins with a broader range of therapeutic payloads than we could on our own. Our collaboration agreements generally require the collaborator to pay all the development costs associated with the Accurin, including those incurred by us. In addition, the upfront and potential milestone payments under these agreements provide us with additional capital resources to develop our own proprietary pipeline of Accurins. We expect that at least one of our collaborations will advance an Accurin into the clinic by the end of 2014.
Accurins We believe Accurins represent the next stage in the evolution of targeted therapies and nanomedicine.
Accurins are polymeric nanoparticles that incorporate a therapeutic payload and are designed to have prolonged circulation within the bloodstream, enable targeting of the diseased tissue or cells, and provide for the controlled and timely release of the therapeutic payload. To achieve this, they have four key components:
Targeting ligands—To facilitate targeting, Accurins utilize targeting ligands on the surface of the Accurin that bind to specific cell-surface or tissue markers. Targeting ligands may include small molecules, peptides, antibodies and antibody fragments.
Stealth and protective layer—Using polyethylene glycol, or PEG, this layer is engineered to protect the Accurin from the body’s immune detection and clearance mechanisms.
Controlled-release polymer matrix—The polymer matrix entraps the therapeutic payload and mediates its release at the disease site and is engineered, or programmed, to control the release of the therapeutic payload at a predetermined rate.
Therapeutic payload—Our Accurins are designed to utilize a broad range of therapeutic payloads, including small molecules, peptides, proteins and nucleic acids, such as siRNA and mRNA.
In addition, the PEG and polymers used in our Accurins have been used in other medical products that have been approved by the FDA and other regulatory agencies.