Cellis at AACR Annual Meeting 2025

On April 9, 2025 Cellis reported that it will be present at the upcoming AACR (Free AACR Whitepaper) Annual Meeting, taking place April 25–30 in Chicago, where leaders in oncology research gather to shape the future of cancer treatment (Press release, Cellis, APR 9, 2025, View Source [SID1234651849]). We’re proud to contribute to this global conversation with new developments in macrophage-based therapies.

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We invite you to visit our three poster presentations:

PO.ET02.08
Harnessing macrophage-drug conjugates for allogeneic cell-based therapy of solid tumors
April 28, 9:00 AM – 12:00 PM | Section 23

PO.CL06.01
Macrophage-ferritin-drug conjugates: a novel approach to overcome glioblastoma drug resistance and induce long-term tumor immunity
April 28, 2:00 PM – 5:00 PM | Section 27

PO.IM01.16
Macrophage-based immunotherapy of platinum-resistant ovarian cancer
April 29, 2:00 PM – 5:00 PM | Section 40

We look forward to insightful discussions and potential collaborations in Chicago.

Anixa Biosciences Receives Notice of Allowance from U.S. Patent and Trademark Office for Patent Covering Breast Cancer Vaccine Technology

On April 9, 2025 Anixa Biosciences, Inc. ("Anixa" or the "Company") (NASDAQ: ANIX), a biotechnology company focused on the treatment and prevention of cancer, reported that the United States Patent and Trademark Office (USPTO) has issued a Notice of Allowance for a new patent related to the Company’s innovative breast cancer vaccine technology (Press release, Anixa Biosciences, APR 9, 2025, https://ir.anixa.com/news/detail/1076/anixa-biosciences-receives-notice-of-allowance-from-u-s-patent-and-trademark-office-for-patent-covering-breast-cancer-vaccine-technology [SID1234651848]). The patent along with others related to this technology, has been exclusively licensed to Anixa Biosciences, by Cleveland Clinic. The patent will expand the scope of immunogenic compositions utilized in Anixa’s breast cancer vaccine.

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This newly allowed patent covers methods of immunizing patients against breast cancer by administering an immunogenic composition containing the human α-lactalbumin protein, a protein typically found in breast tissue during lactation but also expressed in certain breast cancers, making it an attractive target for immunoprevention strategies.

Dr. Amit Kumar, Chairman and CEO of Anixa Biosciences, stated, "This patent strengthens our intellectual property portfolio and highlights the novelty of our breast cancer vaccine. Our intellectual property portfolio includes multiple issued and pending patents in the U.S. and international jurisdictions."

Xspray Pharma re-submits its FDA application

On April 8, 2025 Xspray reported the company has re-submitted its application for market approval for Dasynoc, the company’s lead product candidate, an amorphous dasatinib for the treatment of leukemia (Press release, Xspray, APR 8, 2025, View Source [SID1234652254]). The application procedure thus runs according to the most recently communicated plan. Within 2-4 weeks, the FDA is expected to announce a new PDUFA date, i.e. the date they intend to decide on the application.

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Xspray Pharma has submitted its response to the CRL (Complete Response Letter) that the company received from the FDA in July 2024. The CRL addressed the company’s NDA application for market approval in the US of the product candidate Dasynoc, an amorphous dasatinib drug for the treatment of CML (chronic myeloid leukemia) and ALL (acute lymphoblastic leukemia). The response will now be reviewed by the FDA, which can apply two different processing times – two or six months from the re-submission date.

"Manufacturing and quality review of new tablet batches, which were required to address the FDA’s questions, have gone according to plan at Xspray’s US contract manufacturer, and live up to all the set quality requirements," says Per Andersson, CEO of Xspray Pharma. "We are well prepared to launch Dasynoc on the US market upon approval later this year," says Per Andersson.

The submission of the updated FDA application follows the plan communicated in January of this year. Xspray Pharma reiterates the assessment that the company has sufficient funding to take Dasynoc to approval, regardless of whether the FDA’s review takes two or six months from the re-submission.

For further information, please contact:

Per Andersson, CEO
Xspray Pharma AB (publ)
Tel: + 46 (0)8 730 37 00
E-mail: [email protected]

Rondo Therapeutics Publishes Preclinical Data on RNDO-564, a Novel CD28 x Nectin-4 Co-Stimulatory Bispecific Antibody for the Treatment of Bladder Cancer

On April 8, 2025 Rondo Therapeutics, a privately held biopharmaceutical company pioneering the development of next-generation T cell-engaging bispecific antibodies for the treatment of solid tumors, reported the publication detailing the discovery and preclinical development of RNDO-564, a CD28 x Nectin-4 bispecific antibody in the Journal for ImmunoTherapy of Cancer (JITC) (Press release, Rondo Therapeutics, APR 8, 2025, View Source [SID1234651847]).

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CD28 co-stimulatory bispecific antibodies are designed to boost T cell-mediated tumor killing and overcome T cell exhaustion in the solid tumor microenvironment. The publication describes the identification of a diverse panel of CD28-targeting binders with a range of potencies. Utilizing this panel, RNDO-564 was designed with optimal potency to elicit robust, safe, and durable tumor killing activity both in vitro and in vivo.

The full article, titled "A Potency-optimized CD28-activating Bispecific Antibody for the Targeted Treatment of Nectin-4 Positive Cancers," is available online at JITC.

Key findings for RNDO-564

Elicits robust Nectin-4 and signal-1 dependent T-cell mediated killing of Nectin-4-expressing tumor cells.
Enhances T-cell function in settings with mixed Nectin-4 positive and negative target cells.
Restores tumor cell killing function of serially stimulated T cells in vitro.
Fully eliminates established tumors in in vivo mouse model as monotherapy and in combination with a checkpoint inhibitor.
Preliminary tolerability studies in non-human primates demonstrate safety and support clinical evaluation of RNDO-564.
Demonstrates robust cytotoxic activity against bladder cancer cells that are resistant to antibody drug conjugates.
"The data serve as proof-of-concept for Rondo’s immune engager platform for solid tumors," said Starlynn Clarke, Senior Director of Preclinical Biology of Rondo Therapeutics. "We are excited about the clinical potential of CD28 T-cell engagers as a new modality for solid tumors, as they address the limitations of CD3 T-cell engagers, ADCs, and checkpoint inhibitors."

Rondo’s immune-engager platform delivers bispecific antibody therapeutics tailored to specific tumor targets, indications, and treatment regimens, offering a transformative alternative to traditional "one size fits all" strategies, unlocking the potential for durable responses in patients with solid tumors.

City of Hope Study Demonstrates Proof of Concept for Targeted New Approach to Treat Pancreatic Cancer

On April 8, 2025 Researchers at City of Hope, one of the largest and most advanced cancer research and treatment organizations in the U.S. with its National Medical Center named top 5 in the nation for cancer by U.S. News & World Report, have identified a new molecular target for treating pancreatic cancer, reported a Gastroenterology study published today (Press release, City of Hope, APR 8, 2025, View Source [SID1234651846]).

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Pancreatic ductal adenocarcinoma (PDAC) is one of the deadliest human cancers worldwide because it evades most treatments. With few therapeutic options, 90% of these patients don’t survive beyond five years. Now an innovative new approach offers the potential for transforming the genetic culprit behind PDAC’s stubborn resistance to treatment into a therapeutic ally.

Led by Mustafa Raoof, M.D., M.S., City of Hope assistant professor of surgery, cancer genetics and epigenetics, scientists focused on transcription-replication conflicts (TRCs), which occur when the mechanisms responsible for gene expression and genome duplication collide. The clash disrupts cells’ ability to read and copy genes, leading to replication stress, a frequent phenomenon in pancreatic cancer. The added stress causes cells to make errors copying their DNA, enabling cancer to gain a foothold and spread.

"Transcription-replication conflicts are an important vulnerability of pancreatic cancer," said Dr. Raoof, senior author of the new study. "Our study is the first to confirm proof of concept for whether exploiting this chink in cancer’s armor could provide an effective therapeutic target for patients."

In an earlier study, Dr. Raoof and his colleagues had identified high levels of TRCs as a unique weakness in pancreatic cancers that are driven by a common gene mutation. Building upon this research, his team used an experimental drug developed at City of Hope called AOH1996 as a tool to target TRCs and measure clinical responses.

First, the laboratory tested AOH1996 on a mouse model for pancreatic cancer and on small, lab-grown versions of human organs called organoids. The scientists discovered that the drug slowed tumor growth, damaged tumor cells without harming healthy tissue and boosted mouse survival from a median of 14 days to three weeks.

Next, the team tested the approach on two patients whose pancreatic tumors had resisted earlier treatments (NCT05227326). The patients experienced up to a 49% shrinkage in their liver metastases after taking the pill twice a day for two months.

Overall, the experimental approach was most effective at killing cancer cells with high replication stress, a common phenomenon that occurs when the KRAS gene goes awry in 95% of patients with pancreatic cancer.

"While the KRAS mutation has suggested a strong therapeutic target, pinpointing it in human PDAC has been difficult until now," said Dr. Raoof. "With inhibitors to mutant KRAS entering clinical trials, resistance is expected. It’s crucial for us to develop new approaches that target dependency on KRAS."

Targeting TRCs enabled the scientists to pinpoint only pancreatic cancer cells that experienced high levels of replication stress.

"Transcription-replication conflicts are more prevalent in cancer cells than normal cells," Dr. Raoof said. "Therapies that interfere with how cells manage their DNA during replication could open up new ways to treat cancer, offering hope for patients who have not benefited from other approaches."

Though excited by the study’s early results, Dr. Raoof emphasized caution in interpreting its findings. Due to the trial’s small size, scientists will need to pursue larger clinical and biomarker discovery studies to realize the full potential of therapeutic targeting of TRCs.

A respected birthplace for biotech, City of Hope created the technology that led to the development of synthetic human insulin. City of Hope later contributed to the development of "smart" cancer drugs like Herceptin, Rituxan and Avastin.

City of Hope’s Linda Malkas, Ph.D., discovered and developed AOH1996, which is exclusively licensed to the biotechnology company RLL, LLC.

Last year City of Hope received a historic $150 million gift to fund pancreatic cancer research from two entrepreneur-philanthropists: A. Emmet Stephenson Jr. and his daughter, Tessa Stephenson Brand. The donation’s mission is to accelerate leading-edge research into effective pancreatic cancer treatments through scientific partnerships with the world’s top researchers, regardless of institutional affiliation.

The Gastroenterology study entitled, "Therapeutic Targeting of Oncogene-induced Transcription-Replication Conflicts in Pancreatic Ductal Adenocarcinoma" was supported by grants from the National Comprehensive Cancer Network and the 2020 Pancreatic Cancer Action Network Career Development Award in Memory of Skip Viragh (20-20-RAOO) to the Raoof laboratory, as well as by the National Cancer Institute of the National Institutes of Health (P30CA033572) and NCCN Foundation.