Cellectis to Present Data on TALE-Base Editors and Non-Viral Gene Therapy at the ESGCT 31st Annual Congress

On October 22, 2024 Cellectis (the "Company") (Euronext Growth: ALCLS – NASDAQ: CLLS), a clinical-stage biotechnology company using its pioneering gene-editing platform to develop life-saving cell and gene therapies, reported that they will be showcasing pre-clinical data that permit the design of an efficient and specific TALE base editors (TALEB) as well as a process to enhance the efficacy of non-viral gene insertion in hematopoietic stem and progenitor cells (HSPCs) at the European Society of Cell and Gene Therapy 31st annual congress, that will take place on October 22-25, 2024, in Roma, Italy (Press release, Cellectis, OCT 22, 2024, View Source [SID1234647303]).

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The data will be presented in two posters:

Controlling C-to-T editing with TALE base editors

Presenter: Alexandre Juillerat, Ph.D., Vice-President Gene Editing & NY Lab Head at Cellectis

Date/Time: Thursday, October 24 from 2:00pm to 3:30pm CET

Poster number: P0666

TALE base editors (TALEB) are fusions of a transcription activator-like effector domain (TALE), split-DddA deaminase halves, and an uracil glycosylase inhibitor (UGI). The C-to-T class of TALEB edits double strand DNA by converting a cytosine (C) to a thymine (T) via the formation of an uracil intermediate.
Cellectis recently developed a strategy that allows the comprehensive characterization of C-to-T conversion efficiencies within the editing window. This method also takes advantage of a highly precise and efficient TALEN-mediated ssODN knock-in in primary T cells to assess how target composition and spacer variations affect TALEB activity/efficiency.
The datasets obtained in this study enhanced our understanding of TALEB and permitted the design of efficient and specific tools that could be compatible with the potential development of therapeutic applications.

Circular Single-Stranded DNA Enables Efficient TALEN-Mediated Gene Insertion in Long Term HSC

Presenter: Julien Valton, Ph.D., Vice-President Gene Therapy at Cellectis

Date/Time: Thursday, October 24 from 2:00pm to 3:30pm CET

Poster number: P0585

Non-viral alternatives such as linear single-stranded DNA (LssDNA) and circular single-stranded DNA (CssDNA) are emerging as promising options to vectorized DNA donor template for nuclease-mediated gene insertion in hematopoietic stem and progenitor cells (HSPCs) used for gene therapy applications.
Capitalizing on its TALEN technology, Cellectis has devised a gene editing process that incorporates non-viral DNA donor template delivery (LssDNA or CssDNA) to enhance gene insertion in HSPCs.
The circularization of ssDNA increases gene insertion rates in long term HSCs and has the potential to enhance their engraftment capacity in preclinical murine model, thereby to facilitate the advancement of next-generation cell therapies. This research marks a crucial step towards enhancing the efficacy of non-viral gene therapy.

BullFrog AI’s VP Artificial Intelligence to Present at Google’s Cancer AI Symposium

On October 22, 2024 BullFrog AI, Inc. (NASDAQ: BFRG; BFRGW) ("BullFrog AI" or the "Company"), a technology-enabled drug development company using artificial intelligence (AI) and machine learning to enable the successful development of pharmaceuticals and biologics, reported its VP Artificial Intelligence, Enrique García-Rivera, Ph.D., will present at Google’s inaugural Cancer AI Symposium on October 30, 2024, at the Boston Center for the Arts (Press release, Bullfrog AI, OCT 22, 2024, View Source [SID1234647302]).

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Dr. García-Rivera’s presentation will showcase BullFrog AI’s groundbreaking use of artificial intelligence in drug discovery and development. Highlighting the Company’s proprietary bfLEAP platform, the presentation will explore how multimodal biological data—including genomics, transcriptomics, and clinical data—are integrated to accelerate the drug development process.

A key aspect of the presentation will be how bfLEAP is applied to cancer research, leveraging AI to identify complex biological patterns that contribute to disease progression and treatment resistance. Dr. García-Rivera will also reference BullFrog AI’s collaboration with the Lieber Institute for Brain Development as a prime example of how bfLEAP is being utilized across various therapeutic areas. The collaboration, which focuses on neurological disorders such as bipolar disorder, underscores the platform’s versatility and potential to drive innovation across multiple domains, including cancer.

Dr. García-Rivera will also introduce BullFrog AI’s novel "AlgoLLM" system for gene prioritization, which revolutionizes the identification of high-priority targets in drug development by harnessing large language models. This innovative AI tool is critical for streamlining the discovery of actionable insights in neuropsychiatric disorders and other diseases, advancing the Company’s mission to develop more effective and personalized treatments.

Be Bio Announces $82 Million Financing and Transition to Clinical Stage Company

On October 22, 2024 Be Biopharma, Inc. ("Be Bio" or "the Company"), a leader in the discovery and development of engineered B Cell Medicines (BCMs), reported key milestones alongside a new round of funding as its lead program, BE-101 for Hemophilia B, enters the clinic, and its second development candidate for Hypophosphatasia is unveiled (Press release, Be Biopharma, OCT 22, 2024, View Source [SID1234647301]). Both programs are built on Be Bio’s powerful and efficient BCM platform, which utilizes gene editing to engineer B cells to produce sustained levels of therapeutic proteins, resulting in durable, titratable, and redosable candidates that require no preconditioning and have the potential to become best-in-class genetic medicines.

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Key recent milestones include:

BE-101: Phase 1/2 BeCoMe-9 Trial Open for Patient Enrollment; Granted Fast Track Designation. In May 2024, Be Bio announced that BE-101, a first-in-class BCM, received clearance of its Investigational New Drug application. BE-101 is designed to produce constant levels of Factor IX in a durable, redosable, and titratable manner, without the need for preconditioning. BeCoMe-9 is a multi-center, first-in-human dose escalation study aimed at evaluating the safety and preliminary efficacy of BE-101 in adults with moderately severe to severe Hemophilia B. FDA has recently granted BE-101 Fast Track Designation.
BE-102 Nominated as a Development Candidate for Hypophosphatasia (HPP): BE-102 has been selected as a development candidate for the treatment of Hypophosphatasia (HPP), a severe genetic disease with very high unmet medical need, affecting approximately 50,000 patients. HPP is characterized by loss of function mutations in the ALPL gene which lead to deficient alkaline phosphatase (ALP) activity, resulting in weakened and underdeveloped bones and teeth. The only approved therapy for HPP requires multiple injections per week and is limited to pediatric-onset forms of the disease. Data presented at the 2024 American Society for Bone and Mineral Research (ASBMR) Meeting showed that BE-102 has the potential to generate active and sustained levels of ALP in vivo.
$82 Million Financing to Advance BE-101 to Clinical Proof of Concept and Progress BE-102: The Company has closed an $82 million financing, with backing from top venture capital firms and pharmaceutical companies, including ARCH Venture Partners, Atlas Venture, RA Capital Management, Alta Partners, Longwood Fund, Bristol Myers Squibb, and Takeda Ventures. The funds will be used to achieve clinical proof of concept for BE-101 and to advance the development of BE-102.
Key Hires in Clinical Development and Commercial: The Company is excited to welcome Suha Patel as Senior Vice President of Commercial & Franchise Strategy and Kiran Patki, MD as Senior Vice President of Clinical Development. Ms. Patel joins from Roche/Genentech, where she led the successful launch of Hemlibra and held senior roles across marketing, medical marketing and sales. Dr. Patki joins from Rally Bio, where he served as Senior Vice President and Global Team Leader for asset development projects, with prior leadership experience at Alexion Pharmaceuticals. Concurrent with building out these later-stage functions, the Company will streamline its early research organization and related functions to focus resources on product development.
"Advancing two BCMs that harness the potential of this new modality represents an exciting step in transforming the treatment landscape for their respective indications with potentially best-in-class genetic medicines. With support from a top-tier syndicate of investors and pharmaceutical companies, we are eager to clinically demonstrate BE-101’s potential to provide a highly durable FIX replacement therapy for Hemophilia B patients. Additionally, we are excited to advance BE-102 to address the needs of a large patient population with few to no therapeutic options," said Joanne Smith-Farrell, Ph.D., Chief Executive Officer of Be Bio. "As we build out the team to support product development, we are delighted to welcome Suha and Kiran, experienced leaders who bring deep development and commercial expertise to our team, further strengthening our leadership as we transition into a clinical-stage company."

Dr. Smith-Farrell added: "Our innovative and highly effective research team is the driving force behind the creation of BE-101 and BE-102. They quickly brought the BCM platform to life, achieving IND clearance for BE-101 in just 2.5 years from the program’s inception, and advancing BE-102 to DC in only 15 months, showcasing the platform’s versatility and modularity. As we shift resources toward product development, some valued colleagues will be moving on. We are incredibly proud of their achievements and deeply grateful for their tireless and impactful work on behalf of Be Bio and the patients whose lives we hope these therapies will one day transform."

About BE-101

BE-101 is a first-in-class BCM that is engineered to insert the human Factor IX (FIX) gene into primary human B cells, allowing for continuous expression of active FIX for the treatment of hemophilia B. BE-101 has the potential to express sustained therapeutic FIX activity levels with a single infusion while having the flexibility to be titrated and/or re-dosed, and without the need for preconditioning. The potential to maintain therapeutic FIX activity levels while the reducing dosing frequency associated with current FIX replacement regimens could address the considerable infusion burden associated with current therapies and potentially drive reductions in the annualized bleeding rates and FIX usage. The US FDA cleared the BE-101 IND in May of 2024, and granted Fast Track designation in September of 2024. The Phase 1/2 BeCoMe-9 Trial has been initiated and further details of the trial can be found at www.clinicaltrials.gov under NCT identifier: NCT06611436.

About Hemophilia B

Hemophilia B is an X-linked recessive bleeding disorder that affects approximately 40,000 people globally. It is caused by mutations in the gene that encodes for the FIX protein, an essential enzyme in the coagulation cascade. This can lead to spontaneous bleeding as well as bleeding following injuries or surgery. People with hemophilia B bleed longer than other people. Bleeds can occur internally, into joints and muscles, or externally, from minor cuts, dental procedures or trauma. The current standard of care remains prophylactic administration FIX replacement therapy with a dosing frequency that ranges from every week to every 2 weeks. The short biological half-life of FIX requires lifelong frequent infusions to maintain therapeutic levels.

About BE-102

BE-102 is a first-in-class BCM that has been engineered using artificial intelligence-guided protein design to modify primary human B cells to produce ALP, an enzyme deficient in people living with HPP. A single infusion of BE-102 has the potential to express sustained therapeutic ALP with the flexibility to be titrated and/or re-dosed, if needed, and without the need for pre-conditioning. BE-102 has been selected as a Development Candidate and has the potential to transform the standard of care for people living with HPP.

About Hypophosphatasia

HPP is a genetic disease caused by loss of function mutations in the ALPL gene, leading to a deficiency in ALP activity that is required for healthy mineralization of bones and teeth. Insufficient levels of ALP result in the inability of calcium and phosphate to mobilize from the blood, resulting in weakened and underdeveloped bones and teeth. HPP is estimated to affect up to 50,000 people. There is only one approved therapy which requires three to six times a week administration.

About Engineered B Cell Medicines – A New Class of Cellular Medicines

The B cell is a powerful cell that produces thousands of proteins per cell per second at constant levels, and over decades. Precision genome editing can now be used to engineer B Cells that produce therapeutic proteins of interest, driving a new class of cellular medicines – Engineered B Cell Medicines (BCMs) – with the potential to be durable, allogeneic, redosable, and administered without pre-conditioning. The promise of BCMs could transform therapeutic biologics across protein classes, patient populations and therapeutic areas.

Ariceum Therapeutics Presents Outstanding Data on its First-in-Class Radiopharmaceutical Drug 225Ac-Satoreotide at the European Association of Nuclear Medicine 2024

On October 22, 2024 Ariceum Therapeutics (Ariceum), a private biotech company developing radiopharmaceutical products for the diagnosis and treatment of certain hard-to-treat cancers, reported that it presented data on its proprietary radiolabelled peptide SS0110 (satoreotide), a first-in-class antagonist of the somatostatin receptor 2 (SSTR2), at this year’s European Association of Nuclear Medicine (EANM) Annual Conference, held in Hamburg, Germany from 19-23 October 2024 (Press release, Ariceum Therapeutics, OCT 22, 2024, View Source [SID1234647300]).

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The Top-Rated Oral Presentation (TROP) entitled ‘225Ac-SSO110 induces long-lasting anti-tumour responses in contrast to 225Ac-DOTA-TATE and 161Tb-DOTA-TATE in the treatment of SSTR2-positive tumour xenografts’, details the anti-tumour efficacy of different radiolabelled satoreotide antagonists (225Ac, 161Tb, 177Lu-labelled SSO110) versus respective DOTA-TATE agonists (225Ac- and 161Tb-labelled DOTA-TATE) in mice engrafted with SSTR2 positive xenografts of small cell lung cancer (SCLC) and pancreatic cancer using clinically relevant associated dose ranges.

Results demonstrate that 225Ac-satoreotide shows the strongest anti-tumoural effect in vivo at a low single dose when evaluating satoreotide and DOTA-TATE radiolabelled with different radionuclides. Irrespective of the radionuclides used, satoreotide demonstrated a higher pre-clinical anti-tumour efficacy when compared to DOTA-TATE which was less potent and required increased dose levels. Satoreotide was well tolerated across all dose levels and with all used radionuclides. These comparisons between satoreotide and DOTA-TATE will facilitate and guide further clinical development of satoreotide across multiple indications expressing SSTR2, such as SCLC, pancreatic cancers and Merkel Cell Carcinoma (MCC).

Previous comparisons between satoreotide and DOTA-TATE demonstrated that antagonist, 225Ac-satoreotide, is multiple times more potent than SSTR2 agonist, 225Ac-DOTA-TATE, signifying a durable complete response in standard murine xenograft models of SCLC in animal models, versus tumour growth delay.

Ariceum had previously shown at the Society of Nuclear Medicine and Molecular Imaging (SNMMI) Annual Meeting 2024 that 212Pb was not seen to be more potent than Lutetium or Terbium but caused more side effects and hence was not further pursued.

Manfred Rüdiger, Chief Executive Officer at Ariceum Therapeutics, said: "These results provide strong evidence for satoreotide and its potential to clinically outperform SSTR2 targeting agonists, by demonstrating significantly better efficacy in tumour growth control, up to complete tumour eradication depending on isotope used. In addition, when a single dose of 30 kBq 225Ac-satoreotide was administered, we observed high frequency of complete durable responses and 100% survival which strongly supports further clinical development for the treatment of SCLC, MCC and other cancers."

Details of the oral presentation are as follow:

Title: 225Ac-SSO110 induces long-lasting anti-tumour responses in contrast to 225Ac-DOTA-TATE and 161Tb-DOTA-TATE in the treatment of SSTR2-positive tumour xenografts

Presenting Author: Prachi Desai, Scientist at Ariceum Therapeutics

Session Number: 1204

Session Title: M2M Track – TROP Session: Radiopharmaceutical Sciences + Translational Molecular Imaging & Therapy Committee: From Radionuclide to Clinical Translation

Oral Presentation Date & Time: Tuesday 22 October 2024, 09:00 AM – 09:10 AM CEST

Abstract Authors: Prachi Desai, Manuel Sturzbecher-Hoehne, Dennis Mewis, Manfred Ruediger & Anika Jaekel of Ariceum Therapeutics

Session Date & Time: Tuesday 22 October 2024, 08:00 AM – 09:30 AM CEST

Location: Session Hall X1-X4

Abstracts are available in the September edition of Springer’s European Journal of Nuclear Medicine and Molecular Imaging (EJNMMI) abstract book here and on the Ariceum website here.

Akiram Therapeutics’ drug candidate AKIR001 cleared to start Phase 1 clinical trial

On October 22, 2024 Akiram Therapeutics, a Swedish biotech company specializing in molecular radiation therapy, reported that the Swedish Medical Products Agency has approved the initiation of a Phase 1 clinical trial for its drug candidate 177Lu-AKIR001 (Press release, Akiram Therapeutics, OCT 22, 2024, View Source [SID1234647299]). This marks a key milestone in the company’s development of a pioneering cancer treatment aimed at offering new hope for patients with hard-to-treat tumors.

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Akiram Therapeutics has developed a new type of targeted radioimmunotherapy, 177Lu-AKIR001. The therapy holds the potential to become a first-in-class treatment in multiple cancer types, including anaplastic and iodine-refractory thyroid cancer, head and neck squamous cell carcinoma, and non-small cell lung cancer. The drug is composed of a target recognition molecule, to which therapeutic radioactivity is coupled for effect on tumor cells.

The academic trial will be led by Karolinska University Hospital, overseeing all clinical aspects including patient recruitment and trial management. The primary goal is to assess the safety and tolerability of 177Lu-AKIR001. Recruitment is expected to begin in the fall of 2024 and will continue for two years. The study is funded by grants from, among others, the Sjöberg Foundation, the Erling Persson Foundation, and the Swedish Cancer Society. Akiram Therapeutics contributes to the study by providing the drug candidate 177Lu-AKIR001.

"177Lu-AKIR001 has the potential to transform how we treat hard-to-treat tumors and could represent a major advancement in precision medicine," says Renske Altena, Senior Physician and Primary Investigator in oncology and internal medicine at Karolinska Comprehensive Cancer Center. "By targeting the radiation specifically at the cancer marker CD44v6, we hope to achieve greater precision and higher efficacy than current treatment options, especially for patients whose tumors no longer respond to existing therapies."

Renske Altena adds, "For patients with aggressive and treatment-resistant cancer types, we hope this innovation can bring about a real change in their treatment plans and quality of life. A successful tailored treatment would be a significant step forward in oncology and precision medicine."

"The start of the Phase 1 clinical trial is a significant milestone for Akiram and an important step forward in molecular radiation therapy," says Marika Nestor, CEO and co-founder of Akiram Therapeutics. "We are excited to collaborate with Karolinska University Hospital and are confident in AKIR001’s potential to improve treatment outcomes for patients."

The study is registered on ClinicalTrials.gov: NCT06639191.

About Akiram’s drug candidate
Developed through antibody phage display and affinity maturation targeting the CD44v6 cancer marker, 177Lu-AKIR001 combines the radiation component lutetium-177 with a targeted molecule. Preclinical studies have demonstrated its potential as a promising, first-in-class radiopharmaceutical therapy for cancers with high CD44v6 expression.