CytRx to Present Data at the European Society for Medical Oncology 2016 Congress from Aldoxorubicin Plus Ifosfamide/Mesna Combination Clinical Trial

On September 12, 2016 CytRx Corporation (NASDAQ: CYTR), a biopharmaceutical research and development company specializing in oncology, reported that results from its on-going Phase 1b/2 trial of aldoxorubicin in combination with ifosfamide/mesna in patients with advanced sarcomas will be presented at the European Society for Medical Oncology (ESMO) (Free ESMO Whitepaper) 2016 Congress being held in Copenhagen, Denmark, from October 7-11, 2016 (Press release, CytRx, SEP 12, 2016, View Source;p=RssLanding&cat=news&id=2201143 [SID:SID1234515090]).

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"Presenting the results from this trial at the ESMO (Free ESMO Whitepaper) Congress underscores the continued anti-tumor activity of aldoxorubicin across a variety of treatment settings for patients with advanced sarcomas," said Sant Chawla, M.D., F.R.A.C.P., the trial’s principal investigator and Director of the Sarcoma Oncology Center in Santa Monica, California. "The data show that aldoxorubicin can successfully be combined with ifosfamide and mesna, which are regularly given with doxorubicin to patients with first-line soft tissue sarcomas. Based on encouraging results, the trial was expanded to 50 patients and continues to enroll."

The Phase 1b/2 clinical trial has enrolled 38 patients to date with locally advanced, unresectable, and/or metastatic soft tissue sarcoma, intermediate-grade or high-grade chondrosarcoma or osteosarcoma. In the dose escalation phase, patients received either 170mg/m2 or 250mg/m2 of aldoxorubicin in combination with up to a 14-day continuous infusion of ifosfamide (1g/m2/day) plus mesna over a 28-day cycle. The expansion phase will enroll patients at the 250mg/m2 dose of aldoxorubicin and will allow for patients that had received prior chemotherapy to be included. The primary endpoint of the study is safety, and secondary endpoints include overall response rates and progression-free survival.

About Aldoxorubicin

Aldoxorubicin is a rationally-engineered cytotoxic which combines doxorubicin, a widely used chemotherapeutic agent, with a novel linker molecule that binds directly and specifically to circulating albumin, the most abundant protein in the bloodstream. Protein-hungry tumors concentrate albumin, which facilitates the delivery of the linker molecule with the attached doxorubicin to tumor sites. In the acidic environment of the tumor, but not the neutral environment of healthy tissues, doxorubicin is released. Typically, doxorubicin is delivered systemically and is highly toxic, which limits its dose to a level below its maximum therapeutic benefit. Doxorubicin also is associated with many side effects, especially the potential for damage to heart muscle at cumulative doses greater than 450 mg/m2. Using this acid-sensitive linker technology, aldoxorubicin delivers greater doses of doxorubicin (3 ½ to 4 times). To date, there has been no evidence of clinically significant effects of aldoxorubicin on heart muscle, even at cumulative doses of drug well in excess of 2,000 mg/m2. Aldoxorubicin is the first-ever single agent to show superiority over doxorubicin in a randomized clinical trial in first-line STS.

RedHill Biopharma Announces Research Collaboration with Stanford University for YELIVA™

On September 12, 2016 RedHill Biopharma Ltd. (NASDAQ:RDHL) (TASE:RDHL) ("RedHill" or the "Company"), a biopharmaceutical company primarily focused on development and commercialization of late clinical-stage, proprietary, orally-administered, small molecule drugs for gastrointestinal and inflammatory diseases and cancer, reported a research collaboration with Stanford University School of Medicine ("Stanford") for the evaluation of RedHill’s proprietary Phase II-stage drug, YELIVA (ABC294640) (Press release, RedHill Biopharma, SEP 12, 2016, View Source [SID:SID1234515076]).

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The research collaboration is intended to complement RedHill’s planned Phase Ib clinical study to evaluate YELIVA as a radioprotectant for prevention of mucositis in head and neck cancer patients undergoing therapeutic radiotherapy.

As part of the collaboration, Stanford will evaluate the effect of YELIVA on mucositis reduction and tumor control in a murine model of head and neck cancer. YELIVA will be administered in combination with a chemotherapy agent and radiotherapy, similar to the design of RedHill’s planned radioprotectant Phase Ib clinical study with YELIVA, expected to run in parallel with the Stanford research collaboration. Results from the research collaboration are expected in mid-2017.

The Stanford research collaboration is led by Dr. Quynh-Thu Le, MD, a radiation oncologist, Chair of the Stanford Radiation Oncology Department, Co-Director of the Radiation Biology Program of the Stanford Cancer Institute and the Chair of the Head and Neck Cancer Committee of the NRG Oncology Group, part of the National Cancer Institute (NCI) supported National Clinical Trial Network (NCTN).

YELIVA is a proprietary, first-in-class, orally-administered, sphingosine kinase-2 (SK2) selective inhibitor with anti-cancer and anti-inflammatory activities. By inhibiting the SK2 enzyme, YELIVA blocks the synthesis of sphingosine 1-phosphate (S1P), a lipid signaling molecule that promotes cancer growth and pathological inflammation.

RedHill is pursuing with YELIVA multiple clinical programs in oncology, inflammatory and gastrointestinal indications. RedHill is evaluating potential clinical studies for additional oncology and inflammatory indications, as well as potential collaboration opportunities to evaluate YELIVA as an add-on therapy.

Results from the Phase I study with YELIVA in patients with advanced solid tumors confirmed that the study, conducted at the Medical University of South Carolina (MUSC), successfully met its primary and secondary endpoints, demonstrating that the drug is well- tolerated and can be safely administered to cancer patients at doses that provide circulating drug levels that are predicted to have therapeutic activity.

Among the 16 subjects that were assessable for response by RECIST 1.1 criteria (Response Evaluation Criteria in Solid Tumors), one subject had a partial response with a progression-free survival of 16.9 months, and six subjects had stable disease with a progression-free survival of between 3.5 and 17.6 months. Of the three patients with cholangiocarcinoma, one had a partial response and the other two had stable disease, one for over a year. YELIVA was well-tolerated over a prolonged period at doses inducing the expected pharmacodynamic effects.

A Phase Ib/II study with YELIVA for the treatment of refractory or relapsed multiple myeloma has recently been initiated at Duke University Medical Center. The study is supported by a $2 million grant from the National Cancer Institute (NCI) Small Business Innovation Research Program (SBIR) awarded to Apogee Biotechnology Corp. (Apogee), in conjunction with Duke University, with additional support from RedHill.

A Phase II study with YELIVA for the treatment of advanced hepatocellular carcinoma is planned to be initiated in the coming weeks. The study will be conducted at MUSC Hollings Cancer Center and additional clinical centers in the U.S. It is supported by a $1.8 million grant from the NCI awarded to MUSC, intended to fund a broad range of studies on the feasibility of targeting sphingolipid metabolism for the treatment of a variety of solid tumor cancers, including the Phase II study with YELIVA and will be further supported by additional funding from RedHill.

A Phase I/II clinical study evaluating YELIVA in patients with refractory/relapsed diffuse large B-cell lymphoma (DLBCL) was initiated at the Louisiana State University Health Sciences Center (LSUHSC) in New Orleans in June 2015 and is expected to resume later this year following administrative hold and pending a protocol amendment aimed at improving overall recruitment. The study is supported by a grant awarded to Apogee from the NCI as well as additional support from RedHill.

The studies with YELIVA (ABC294640) are registered on www.ClinicalTrials.gov, a web-based service by the U.S. National Institute of Health, which provides public access to information on publicly and privately supported clinical studies.

About YELIVA (ABC294640):
YELIVA (ABC294640) is a Phase II-stage, proprietary, first-in-class, orally-administered, sphingosine kinase-2 (SK2) selective inhibitor with anti-cancer and anti-inflammatory activities. RedHill is pursuing with YELIVA multiple clinical programs in oncology, inflammatory and gastrointestinal indications. By inhibiting the SK2 enzyme, YELIVA blocks the synthesis of sphingosine 1-phosphate (S1P), a lipid signaling molecule that promotes cancer growth and pathological inflammation. SK2 is an innovative molecular target for anticancer therapy because of its critical role in catalyzing the formation of S1P, which is known to regulate cell proliferation and activation of inflammatory pathways. YELIVA was originally developed by U.S.-based Apogee Biotechnology Corp. and completed multiple successful pre-clinical studies in oncology, inflammation, GI and radioprotection models, as well as the ABC-101 Phase I clinical study in cancer patients with advanced solid tumors. The development of YELIVA was funded to date primarily by grants and contracts from U.S. federal and state government agencies awarded to Apogee Biotechnology Corp., including the U.S. National Cancer Institute, the U.S. Department of Health and Human Services’ Biomedical Advanced Research and Development Authority (BARDA), the U.S. Department of Defense and the FDA Office of Orphan Products Development.

Celsion Corporation Announces Independent NIH Analysis Showing Treatment with ThermoDox® Plus RFA May Significantly Improve Overall Survival of Patients with Primary Liver Cancer

On September 12, 2016 Celsion Corporation (NASDAQ:CLSN) reported that the National Institutes of Health (NIH) has conducted an independent retrospective analysis of data from the intent-to-treat population of the Company’s HEAT Study, a 701-patient study investigating ThermoDox, Celsion’s proprietary heat-activated liposomal encapsulation of doxorubicin in combination with radiofrequency ablation (RFA) in primary liver cancer, also known as hepatocellular carcinoma (HCC) (Press release, Celsion, SEP 12, 2016, View Source [SID:SID1234515065]). The findings of the NIH study will be presented during an oral session on Monday, November 28, 2016 at 1:50 pm CT during the 102nd Scientific Assembly and Annual Meeting of the Radiological Society of North America (RSNA) to be held on November 26 – December 2, 2016 in Chicago, IL. Celsion is currently studying the use of RFA as a heat source both for tumor ablation and to activate ThermoDox as a means of treating the area surrounding the tumor, where untreated tumor may be present.

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The NIH analysis, which sought to evaluate the correlation between RFA burn time per tumor volume (min/ml) and clinical outcome in patients treated with ThermoDox, concluded that increased burn time per tumor volume substantially improved survival in patients with solitary lesions treated with RFA + ThermoDox compared to patients treated with RFA alone. These findings are consistent with Celsion’s analysis of the HEAT Study data showing that in patients treated with RFA for more than 45 minutes, standardized RFA plus ThermoDox resulted in a statistically significant improvement in overall survival (OS) compared to standardized RFA alone.

"The NIH’s independent analysis provides new confirmatory support indicating that the use of RFA for more than 45 minutes in patients treated with ThermoDox can have a correlative impact on reductions in tumor size and overall survival in patients with primary liver cancer," said Michael H. Tardugno, Celsion’s chairman, president and chief executive officer. "We are encouraged that the NIH findings are consistent with Celsion’s analysis of the HEAT Study data showing that in patients treated with RFA for more than 45 minutes, standardized RFA plus ThermoDox demonstrated a statistically significant improvement in overall survival compared to standardized RFA alone."

Mr. Tardugno added, "We also think it is noteworthy that Celsion’s latest 285 patient subgroup OS readout from the HEAT Study reported that over a 3.5 year period, there was a consistent two-year survival benefit for patients with primary liver cancer – one of the most prevalent and most deadly types of cancer in the world – who were treated with ThermoDox plus optimized RFA over the optimized RFA-only group."

"We are pleased that the NIH findings will be presented to the scientific community at the 2016 RSNA Annual Meeting. We firmly believe that this event will advance the understanding of new and potentially curative approaches to the treatment of primary liver cancer, and that it will also provide strengthened validation for our ongoing global Phase III OPTIMA study, which is evaluating ThermoDox in combination with optimized RFA standardized to a minimum of 45 minutes versus standardized RFA alone in the treatment of primary liver cancer," Mr. Tardugno said.

Presentation Details
Abstract Number: 16013790
Title: RFA Plus Lyso Thermosensitive Liposomal Doxorubicin Improves Survival Using Metric of RFA Duration per Tumor Volume: Retrospective Analysis of Prospective Randomized Controlled Trial
Session: Interventional Oncology Series: Hepatocellular Carcinoma and Cholangiocarcinoma (VSI021)
Date and Time: Monday, November 28, 2016, 1:00 pm to 6:00 pm

About the OPTIMA Study
The Phase III OPTIMA Study is expected to enroll up to 550 patients in up to 75 clinical sites in the United States, Europe, China and Asia Pacific, and will evaluate ThermoDox in combination with optimized RFA, which will be standardized to a minimum of 45 minutes across all investigators and clinical sites for treating lesions three to seven centimeters, versus standardized RFA alone. The primary endpoint for the trial is Overall Survival, which is supported by post-hoc analysis of data from the Company’s 701 patient HEAT Study, where optimized RFA has demonstrated the potential to significantly improve survival when combined with ThermoDox. The statistical plan calls for two interim efficacy analyses by an independent Data Monitoring Committee (iDMC).

Circle Pharma enters into an agreement with Pfizer to build screening library of macrocyclic peptides

On September 12, 2016 CirclePharma, Inc., reported that it will apply its computational design and synthetic chemistry platform to design and create a physical screening library of novel macrocyclicpeptides (Press release, Pfizer, SEP 12, 2016, View Source [SID1234525198]). Once completed, the library is initially expected to comprise several hundred macrocycles that will be designed to potentially disrupt bioactive conformations commonly found in protein-protein interactions known to drive disease processes, and will deploy backbone scaffolds screened in silica for intrinsic cell permeability characteristics. In addition, the design of the library will permit the simple creation of derivative libraries tailored to specific features of a therapeutic target class.

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PfizerInc.(NYSE:PFE) has entered into an agreement with Circle under which Pfizer will provide support for the library build, and Circle has granted Pfizer non-exclusive rights to screen the library against certaintargets. The rights granted to Pfizer exclude specified targets for which Circle has reserved exclusive rights to screen the library.

"This physical library will complement Circle’s target-specific computational design toolkit," said David J. Earp, J.D., Ph.D., Circle’s President and CEO. "We expect to use the library for our internal pipeline discovery work, and we will make it available to all of our collaboration partners in drug discovery."

About Macrocyclic Peptides

Macrocyclic peptides have the potential to provide access to the large proportion of therapeutic targets (estimated at up to 80%) that are considered undruggable with conventional small molecule or biologic modalities. Inparticular, there is great interest in developing macrocycles to modulate protein-protein interactions, which play a role in almost all disease conditions, including cancer, fibrosis, inflammation and infection. However, the development of macrocyclic therapeutics has been limited to this point by the need for a greater understanding of how to design macrocycles with appropriate pharm acokinetics, cell permeability and oral bioavailability. As a result, most clinical-stage macro cyclic peptide drugs address extracellular protein targets because of the challenge of identifying cell permeable macrocycles. The ability to design potent macrocycles with intrinsic permeability is expected to give access to a large number of important therapeutic targets that have been out of reach to this point.

MOLOGEN presents first anti-tumor data of the product candidate and TLR9 agonist EnanDIM® in a murine tumor model

On September 12, 2016 the biotech company MOLOGEN AG (ISIN DE0006637200; Frankfurt Stock Exchange Prime Standard: MGN) reported first preliminary data on its EnanDIM technology in a murine tumor model. EnanDIM is a new family of TLR9 agonists and so-called Immune Surveillance Reactivators (ISR) (Press release, Mologen, SEP 12, 2016, View Source [SID:SID1234515097]). The pre-clinical in vivo data shows that EnanDIM can reduce tumor growth and thus prolong survival. It has been shown previously that EnanDIM molecules broadly activate immune cells in vitro and revealed no signs of toxicity after the administration of maximal feasible doses in vivo. These data constitute the next pre-clinical step towards a clinical development program of EnanDIM in the treatment of cancer.

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"This is the next important step for our promising new generation TLR9 agonist EnanDIM. For the first time we observed reduced tumor growth in a murine model. These results strongly support the pre-clinical development of our EnanDIM compounds", said Dr Mariola Söhngen, CEO of MOLOGEN AG.

MOLOGEN’s new strategy program "Next Level", presented beginning of June 2016, includes a clear concentration on the lead product, the cancer immunotherapy lefitolimod and next-generation molecules EnanDIM.

EnanDIM (Enantiomeric, DNA-based, ImmunoModulator), as a new generation of immunomodulators and so-called Immune Surveillance Reactivators (ISR), belongs to the class of TLR9 agonists and represents one of MOLOGEN’s follow-up compounds to lefitolimod (MGN1703) exhibiting longer patent protection, and a one-step production process as well as an immunomodulatory pattern dependent on the specific EnanDIM molecule.

The EnanDIM molecules consist entirely of natural DNA, as is also the case with lefitolimod (MGN1703). The main difference between MOLOGEN’s two ISR families is their molecule structure. Whereas lefitolimod (MGN1703) is dumbbell-shaped and covalently-closed, EnanDIM molecules have a linear structure. However, as with lefitolimod (MGN1703), due to its specific structure, no chemical modification is needed in order to protect the molecules against degradation by enzymes.

The EnanDIM ISR promise a broad activation of the immune system with a good safety and tolerability profile. Due to their characteristic mechanism of action, EnanDIM molecules have the potential to be applied in various cancer indications. Additionally, it may be possible to develop selected members of the EnanDIM family both for monotherapy and in combination with targeted forms of treatment, such as checkpoint inhibitors and other immunotherapeutic approaches. Moreover, different members of the EnanDIM family may also be used in the area of infectious diseases – including HIV.

The data will be presented at the Second CRI-CIMT-EATI-AACR International Cancer Immunotherapy Conference (CIMT) (Free CIMT Whitepaper) in New York, USA (September 25-28, 2016). The conference will be organized by the Cancer Research Institute (CRI), die Association for Cancer lmmunotherapy (CIMT) (Free CIMT Whitepaper), the European Academy of Tumor Immunology (EATI), and the American Association for Cancer Research (AACR) (Free AACR Whitepaper).

Abstract details:

Abstract number: # 278

Title: "Preclinical data of novel enantiomeric oligonucleotides for cancer immunotherapy: The TLR9 agonist EnanDIM"

Poster presentation: September 26, from 5:15-7:45 pm

Poster Number: B067

For more information on the Second CRI-CIMT-EATI-AACR International Cancer Immunotherapy Conference (CIMT) (Free CIMT Whitepaper) please visit the website: www.aacr.org.

About EnanDIM

EnanDIM (Enantiomeric, DNA-based, ImmunoModulator) is an innovative linear DNA-based TLR9 agonist in pre-clinical development. It broadly and strongly activates the immune system. EnanDIM could be used in various cancer indications either as monotherapy, in combination with other targeted therapies or immune modulators, such as so called checkpoint inhibitors, or with other immunotherapeutic approaches. It could also potentially be used in the field of infectious diseases.