Autolus Therapeutics announces publication of new AUTO6 Phase 1 data in childhood neuroblastoma in Science Translational Medicine

On November 30, 2020 Autolus Therapeutics plc (Nasdaq: AUTL), a clinical-stage biopharmaceutical company developing next-generation programmed T cell therapies, reported publication of AUTO6 (1RG-CAR T) Phase 1 data in Science Translational Medicine (Press release, Autolus, NOV 30, 2020, View Source [SID1234571988]). AUTO6 is a second generation GD2-targeting CAR T candidate, developed in collaboration with UCL, and the trial was sponsored and run by Cancer Research UK’s Centre for Drug Development.

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These new results highlight that AUTO6 can induce rapid regression of bulky disease in a solid tumor setting without inducing on-target off-tumor toxicity, despite dose dependent CAR T expansion. CAR T cell expansion was observed in all six patients treated at the higher cell dose cohorts in this Phase 1 study. Three of these six patients demonstrated evidence of transient CAR T cell activity, including cytokine release syndrome, and regression of soft tissue and bone marrow disease activity. The GD2 binder used in AUTO6 has been designed to minimize on-target off-tumor neurotoxicity associated with GD2 expression at low levels in pain fibers and the brain. Despite the presence of clear CAR T cell activity, no neurotoxicity was observed. The publication also suggests that, whilst AUTO6 is a valid and safe strategy for targeting neuroblastoma, further modifications are required to promote CAR T cell persistence and induce deeper and more durable responses for these patients.

"We are encouraged by the anti-tumor activity in neuroblastoma, a disease where there are limited therapeutic options for children with relapsed or refractory disease," said Dr Karin Straathof, Consultant Paediatric Oncologist and research group leader at UCL Great Ormond Street Institute for Child Health. "This is of particular importance as this activity was observed in the absence of neurotoxicity which occurs with antibody-based approaches that target GD2."

Nigel Blackburn, director of drug development at Cancer Research UK, said, "Children who have hard to treat, or relapsed cancer have limited treatment options open to them, and early results of AUTO6 are encouraging. We look forward to seeing the next steps in the development of AUTO6NG, and if the treatment has durable effects in neuroblastoma."

"This is amongst the clearest data which demonstrate that CAR T cells can be highly active against advanced solid cancers," said Dr Martin Pule, CSO and founder of Autolus and director of the UCL CAR T programme. "It is encouraging that highly active CAR T cells do not cause on-target off-tumor neurotoxicity and the findings represent an important step in our ongoing efforts to develop CAR T cell therapies for solid cancers."

These data support Autolus’ continued development of AUTO6NG, which builds on this approach utilizing the same GD2 CAR alongside additional programming modules designed to enhance efficacy and persistence. Earlier this year at the American Association for Cancer Research (AACR) (Free AACR Whitepaper) meeting, Autolus announced a preclinical data update demonstrating the validity of GD2 as a CAR T target in small cell lung cancer (SCLC) and the ability of Autolus’ efficacy-enhancing modules to drive in vivo efficacy in an SCLC mouse model. The data also suggested AUTO6NG can overcome the immune suppressive mechanisms in the tumor microenvironment. Autolus plans to test AUTO6NG in a Phase 1 study in 2021.

About Autolus Therapeutics plc
Autolus is a clinical-stage biopharmaceutical company developing next-generation, programmed T cell therapies for the treatment of cancer. Using a broad suite of proprietary and modular T cell programming technologies, the company is engineering precisely targeted, controlled and highly active T cell therapies that are designed to better recognize cancer cells, break down their defence mechanisms and eliminate these cells. Autolus has a pipeline of product candidates in development for the treatment of haematological malignancies and solid tumors. For more information please visit www.autolus.com.

About UCL Business PLC
UCL Business PLC (UCLB) is a leading technology transfer company that supports and commercialises research and innovations arising from UCL, one of the UK’s top research-led universities. UCLB has a successful track record and a strong reputation for identifying and protecting promising new technologies and innovations from UCL academics. UCLB has a strong track record in commercialising medical technologies and provides technology transfer services to UCL’s associated hospitals; University College London Hospitals, Moorfields Eye Hospital, Great Ormond Street Hospital for Children and the Royal Free London Hospital. It invests directly in development projects to maximise the potential of the research and manages the commercialisation process of technologies from laboratory to market. For further information, please visit: www.uclb.com Twitter: @UCL_Business

About Cancer Research UK

Cancer Research UK is the world’s leading cancer charity dedicated to saving lives through research.
Cancer Research UK’s pioneering work into the prevention, diagnosis and treatment of cancer has helped save millions of lives.
Cancer Research UK has been at the heart of the progress that has already seen survival in the UK double in the last 40 years.
Today, 2 in 4 people survive their cancer for at least 10 years. Cancer Research UK’s ambition is to accelerate progress so that by 2034, 3 in 4 people will survive their cancer for at least 10 years.
Cancer Research UK supports research into all aspects of cancer through the work of over 4,000 scientists, doctors and nurses.
Together with its partners and supporters, Cancer Research UK’s vision is to bring forward the day when all cancers are cured.
For further information about Cancer Research UK’s work or to find out how to support the charity, please call 0300 123 1022 or visit www.cancerresearchuk.org. Follow us on Twitter and Facebook.

About Neuroblastoma
Neuroblastoma is the most common solid tumor in children that occurs outside of the brain and makes up 8% of the total number of children’s cancers. The site of origin is either in one of the two adrenal glands situated in the abdomen or in nerve tissue that runs alongside the spinal cord, in the neck, chest, abdomen or pelvis. The adrenal glands normally release hormones to maintain blood pressure and enable the body to respond to stress. In up to half of patients diagnosed with neuroblastoma, the tumor has spread to tissues beyond the original site such as the bone marrow, bone, lymph nodes, liver, and skin. As with most cancers, the cause of neuroblastoma is not known. When the lesion is localised, it is generally curable. However, long-term survival for children with advanced disease older than 18 months of age is poor despite aggressive multimodal therapy.

About AUTO6NG
AUTO6NG is a next generation programmed T cell product candidate in pre-clinical development. AUTO6NG builds on preliminary proof of concept data from AUTO6, a CAR targeting GD2-expression cancer cell currently in clinical development for the treatment of neuroblastoma. AUTO6NG incorporates additional cell programming modules to overcome immune suppressive defence mechanisms in the tumor microenvironment, in addition to endowing the CAR T cells with extended persistence capacity. AUTO6NG is currently in preclinical development for the potential treatment of both neuroblastoma and other GD2-expressing solid tumors, including osteosarcoma, soft tissue sarcoma, small cell lung cancer, and melanoma.

Ipsen receives FDA Fast Track designation for investigational irinotecan liposome injection (ONIVYDE®) as a second-line monotherapy treatment for small cell lung cancer (SCLC)

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Sorrento to Participate in the 32nd Piper Sandler Healthcare Investor Conference

On November 29, 2020 Sorrento Therapeutics, Inc. (NASDAQ: SRNE, "Sorrento"), reported that Dr. Henry Ji, Chairman and CEO, will be participating in the Piper Sandler 32nd Annual Virtual Healthcare Conference (Press release, Sorrento Therapeutics, NOV 29, 2020, View Source [SID1234571914]).

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A pre-recorded presentation is made available to participants and the public, in addition to 1 on 1 virtual meetings with selected investors taking place between 11/30/20 and 12/03/20.

Ascentage Pharma Enters into an Agreement with University of Michigan to obtain an exclusive license for a MDM2 Degrader using PROTAC Technology

On November 29, 2020 Ascentage Pharma (6855.HK), a globally focused, clinical-stage biotechnology company engaged in developing novel therapies for cancers, chronic hepatitis B (CHB), and age-related diseases, reported it has entered into an agreement with the University of Michigan, through which the company may obtain the exclusive global rights to a MDM2 protein degrader developed using the Proteolysis-Targeting Chimeras (PROTACs) technology (Press release, Ascentage Pharma, NOV 29, 2020, View Source [SID1234571915]). The drug candidate is currently entering IND-enabling studies.

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MDM2 is a key regulator of the tumor suppressor p53 and one of the most potent inhibitors of apoptosis discovered thus far. It has high expression in tumors and plays a key role in the occurrence and development of tumors. Binding to the MDM2 protein with high affinity, MDM2 inhibitor blocks the MDM2-p53 interactions and restore the tumor-suppressing activity of p53.1 Meanwhile, these MDM2 inhibitors present some challenges, including dose-limiting hematological toxicities, thus the urgent need to develop new generation of MDM2-targeting therapies in the treatment of cancer. The PROTAC technology has emerged as a new and promising approach that induces the degradation of targeted proteins through the ubiquitin-proteasome system (UPS), and it has received widespread interest from both the scientific community and industries since its introduction. Compared to conventional "occupancy-driven" pharmacological modality, the "event-driven" PROTAC technology has many advantages, such as high potency, high selectivity, with catalytic mode of action, and the ability to target undruggable proteins.2

Prof. Shaomeng Wang, Ph.D., C-Founder of Ascentage Pharma and Chairman of its Scientific Advisory Board, and Warner-Lambert/Parke-Davis Professor in Medicine, Professor of Internal Medicine, Pharmacology and Medicinal Chemistry, Director of Michigan Center for Therapeutic Innovation, University of Michigan, is a leading researcher in the field. Through structure-function studies of their previously discovered MDM2 inhibitors using the PROTAC technology, Dr. Wang’s research team has obtained potent and efficacious MDM2 degraders that could effectively induce rapid degradation of MDM2. The lead MDM2 degrader has achieved complete and durable tumor regression in a xenograft tumor model in mice3.

"As a new strategy to induce protein degradation, PROTAC has emerged as a novel modality in drug discovery," said Dr. Wang. "Studies showed, PROTAC-induced MDM2 degradation can not only enhance the potency of MDM2 inhibitors, but also maintain a long-lasting suppression of MDM2 protein levels, providing a new strategy to the treatment of MDM2-driven tumors such as leukemia. We look forward to the further development of the asset by Ascentage Pharma."

"The emergence of the PROTAC technology represents another breakthrough in the identification of small molecule drugs. The technology has received tremendous interest for its ability to target undruggable proteins," said Dr. Dajun Yang, Chairman & CEO of Ascentage Pharma. "We are very pleased to reach this agreement with the University of Michigan, to begin the assessment of this PROTAC-based MDM2 degrader and potentially bring this important addition to our existing pipeline. Through the assessment and potential development of the MDM2 degrader, we hope soon that it will offer an effective therapy for serious unmet medical needs."

References:

Zhao, Y.; Aguilar, A.; Bernard, D.; Wang, S. Small-molecule inhibitors of the MDM2-p53 protein-protein interaction (MDM2 inhibitors) in clinical trials for cancer treatment. J. Med. Chem. 2015, 58, 1038−1052.
Lai, A. C.; Crews, C. M. Induced protein degradation: an emerging drug discovery paradigm. Nat Rev. Drug Discov. 2017, 16, 101-114.
Ryan P. Wurz and Victor J. Cee. Targeted Degradation of MDM2 as a New Approach to Improve the Efficacy of MDM2-p53 Inhibitors. J. Med. Chem. 2019, 62, 445−447.

APDN to Present at Imperial Capital 2020

On November 27, 2020 Applied DNA Sciences, Inc. (NASDAQ: APDN) ("Applied DNA" or the "Company"), a leader in Polymerase Chain Reaction (PCR)-based DNA manufacturing, reported that it is scheduled to participate virtually in the Imperial Capital 2020 Security Investor Conference on Thursday, December 3, 2020 (Press release, Applied DNA Sciences, NOV 27, 2020, View Source [SID1234571966]). Dr. James A. Hayward, chief executive officer, will present at 10:45 a.m. EST that day and host one-on-one meetings throughout the day.

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An archived webcast will be available within 24 hours of the live presentation on the "IR Calendar" section of the Applied DNA Investor Relations page at adnas.com.