Consolidated Financial Results for the Fiscal Year Ended December 31, 2025

On February 13, 2026 Otsuka reported Consolidated Financial Results for the Fiscal Year Ended December 31, 2025.

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(Press release, Otsuka, FEB 13, 2026, View Source [SID1234669142])

HanchorBio Receives FDA Orphan Drug Designation for HCB101 in Gastric Cancer

On February 13, 2026 HanchorBio, Inc. (TPEx: 7827), a global clinical-stage biotechnology company advancing next-generation immunotherapies for oncology and autoimmune diseases, reported that the U.S. Food and Drug Administration (FDA) granted Orphan Drug Designation (ODD) to HCB101 for the treatment of gastric cancer. The designation covers gastric cancer broadly, including advanced gastric adenocarcinoma in both HER2-positive and HER2-negative subtypes. This milestone underscores the significant unmet medical need in gastric cancer and provides important regulatory support for the continued clinical development of HCB101 in this patient population.

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This designation marks the first FDA Orphan Drug Designation for HanchorBio, representing a significant regulatory milestone for the company and further validating its strategy of advancing differentiated immunotherapies in areas of high unmet medical need.

HCB101 is a next-generation CD47–SIRPα pathway inhibitor, engineered as an affinity-optimized and toxicity-mitigated SIRPα-IgG4 Fc fusion protein. The molecule is designed to restore macrophage-mediated phagocytosis and enhance antigen presentation while minimizing the hematologic toxicities that have historically limited earlier CD47-targeting approaches, enabling rational combination with established standards of care.

"Receiving our first FDA Orphan Drug Designation is a major milestone for HanchorBio and important validation of our scientific, regulatory, and development strategy," said Scott Liu, PhD, Founder, Chairman, and CEO of HanchorBio. "Gastric cancer remains an area of profound unmet medical need, and this designation reinforces our commitment to developing differentiated immunotherapies that can meaningfully improve outcomes for patients. This designation strengthens HCB101’s profile as a globally relevant asset and represents a strategically important step as we advance the program toward U.S. and international development. It further supports our ongoing engagement with multinational partners as we explore collaboration and licensing opportunities for HCB101 and our broader immunotherapy pipeline."

Gastric cancer is a rare disease in the United States, with prevalence well below the FDA’s statutory threshold for orphan designation. Despite advances in targeted therapy and immune checkpoint inhibition, outcomes, particularly in the second-line setting, remain poor, with limited durability of response and substantial treatment-related toxicity.

HCB101 is currently being evaluated in multiple ongoing clinical studies, including a Phase 1b/2a trial (NCT06771622) assessing HCB101 in combination with ramucirumab and paclitaxel in second-line advanced gastric cancer. Early clinical findings have demonstrated promising antitumor activity with a safety profile consistent with the molecule’s differentiated design.

Alvin Luk, PhD, MBA, CCRA, President & Chief Medical Officer (Group) and Chief Executive Officer (U.S.A.) of HanchorBio, added, "The FDA’s decision reflects the seriousness of gastric cancer and the clinical rationale underlying HCB101’s development. HCB101’s IgG4-based SIRPα-Fc design was intentionally selected to support repeated dosing and combination strategies as an innate immune checkpoint backbone in solid tumors. In a second-line gastric cancer setting, where standard regimens offer limited durability, the depth of tumor shrinkage and consistency of response observed to date, while remaining compatible with standard ramucirumab-paclitaxel administration, support the continued global advancement of HCB101 for patients with significant unmet need."

Orphan Drug Designation provides certain development incentives, including eligibility for tax credits on qualified clinical trial expenses, exemption from FDA user fees, and the potential for seven years of market exclusivity upon approval in the United States.

HanchorBio plans to continue advancing HCB101 through global clinical development while exploring its potential as a backbone immunotherapy across multiple solid tumor indications.

About HCB101
HCB101 is a rationally engineered SIRPα–IgG4 Fc fusion protein developed on HanchorBio’s FBDB platform to selectively block the CD47–SIRPα innate immune checkpoint while minimizing hematologic toxicity. Unlike earlier anti-CD47 approaches, HCB101 is designed to preserve macrophage-mediated antitumor activity while reducing binding to red blood cells, a limitation that historically constrained the clinical utility of CD47-directed therapies.

HCB101 was engineered using AI-assisted structural modeling to achieve differentiated binding to CD47 on cancer cells while maintaining low affinity for CD47 on red blood cells. Its safety profile, receptor occupancy characteristics, and pharmacologic properties are designed to support integration with established oncology regimens without disrupting standard dosing, safety expectations, or clinical workflows. Across ongoing clinical and translational evaluation, HCB101 has demonstrated consistent target engagement and early antitumor activity as both monotherapy and in combination settings, including tumor types historically considered challenging for CD47-directed therapies.

Together, these attributes position HCB101 as a differentiated innate immune checkpoint backbone with broad potential for a wide variety of combination strategies across solid tumors and hematologic malignancies.

(Press release, Hanchor Bio, FEB 13, 2026, View Source [SID1234662652])

World-First EXO 001 Exosome Platform Enables In Vivo Multi-Target CAR-T for Solid Tumors

On February 13, 2026 China Medical University Hospital (CMUH) reported that, in collaboration with Ever Supreme Bio Technology, it has successfully developed the world’s first EXO 001 targeted exosome platform, a breakthrough technology that enables direct in vivo programming of T cells to generate multi-target nanobody-based CAR-T cells.

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In multiple solid tumor animal models, EXO 001 demonstrated significant therapeutic efficacy, including complete tumor eradication in select cases, offering a fundamentally new treatment strategy for patients with advanced solid malignancies.

In Vivo Immune Programming Overcomes the Limitations of Conventional CAR-T Therapy

According to CMUH Superintendent Dr. Der-Yang Cho, both autologous and allogeneic CAR-T therapies currently rely on complex and time-consuming ex vivo cell manufacturing processes. For patients with rapidly progressing solid tumors, these approaches are often too slow to meet clinical needs and remain constrained by immune rejection, manufacturing failure, and high costs.

The core innovation of EXO 001 lies in repositioning exosomes as carriers for in vivo immune programming, representing an advanced evolution of the CAR001 platform currently under clinical evaluation.

Following intravenous administration, EXO 001 circulates through key immune organs such as the spleen, where it precisely delivers Nb-CAR.BiTE genes to CD3-positive T cells. This enables direct genetic programming within the patient’s body, converting native T cells into multi-target CAR-T cells capable of infiltrating solid tumors, killing cancer cells, and dismantling the immunosuppressive tumor microenvironment.

This design enables immune cells to be "trained in vivo and deployed immediately," combining the immune compatibility of autologous CAR-T therapy with the off-the-shelf availability and scalability typically associated with allogeneic approaches—an essential factor in EXO 001’s effectiveness against solid tumors.

Compelling Animal Data

Compelling Preclinical Results: Tumor Clearance and Extended Survival

Dr. Cho noted that in mouse models of colorectal cancer, pancreatic cancer, malignant brain tumors, and ovarian cancer, intravenous administration of EXO 001 successfully generated CAR-T cells in vivo. These cells effectively penetrated the tumor microenvironment, significantly inhibited tumor growth, and extended survival by two- to three-fold. In some animals, tumors were completely eliminated with long-term, recurrence-free outcomes.

By using exosomes as a gene and drug delivery vehicle, EXO 001 achieves higher biocompatibility and safety compared with viral vectors or synthetic lipid materials. This approach reduces immunogenicity, minimizes the risk of cytokine storm and anti-drug antibody formation, and lowers overall immune-related risks.

A Platform with Clear Clinical and Industrial Advantages

Wen-Liang Huang, General Manager of Ever Supreme Bio Technology, emphasized that EXO 001 offers not only academic innovation but also strong translational and commercialization potential, including:

Single-cell-line sourcing with stable quality
Exosomes derived from a single engineered cell line minimize donor variability and support standardized production and quality control.

Scalable manufacturing aligned with international standards
Production can be carried out in fully closed, automated systems compliant with U.S. FDA regulations for cell-based therapies.

Off-the-shelf readiness
Eliminates the need for patient- or donor-specific ex vivo cell cultivation, enabling timely intervention for rapidly progressing solid tumors.

Cost advantages and improved accessibility
Significantly reduces overall production costs compared with traditional autologous CAR-T manufacturing.

Platform extensibility
Beyond solid tumors, the platform can be adapted to carry different CAR genes, nucleic acids, or small-molecule drugs, supporting multiple therapeutic indications.

Potential for long-term anti-tumor immunity
Animal studies indicate the induction of CAR-T cells with immune memory characteristics, suggesting more durable anti-cancer effects.
Global Momentum in In Vivo CAR-T Development

In recent years, in vivo CAR-T has emerged as a key focus for global pharmaceutical leaders. Companies such as Gilead Sciences (Kite), AstraZeneca, Bristol Myers Squibb, and AbbVie have actively invested in viral vectors, lipid nanoparticles, and nanocarrier-based immune programming technologies to overcome the limitations of conventional CAR-T therapy in solid tumors.

Within this global landscape, the EXO 001 targeted exosome platform—developed jointly by CMUH and Ever Supreme Bio Technology—stands out for its use of high-biocompatibility, naturally derived exosomes, offering a differentiated and internationally competitive approach.

Next Steps Toward Clinical Translation

This research has been accepted for publication in the internationally recognized journal Advanced Science (January 2026), has secured patents in the United States and other countries, and has completed technology transfer. Manufacturing development and clinical trial preparation are currently underway, with first-in-human trials anticipated as early as next year, targeting patients with colorectal cancer, pancreatic cancer, malignant brain tumors, and ovarian cancer.

The EXO 001 platform represents a new horizon for solid tumor immunotherapy and a promising step forward for patients with advanced cancer.

(Press release, Ever Supreme Bio Technology, FEB 13, 2026, View Source [SID1234662677])

Tempus Announces Collaboration with Median Technologies to Integrate AI-Powered Lung Cancer Screening into the Pixel Platform

On February 13, 2026 Tempus AI, Inc. (NASDAQ: TEM), a technology company leading the adoption of AI to advance precision medicine, reported a collaboration with Median Technologies (EPA: ALMDT) to bring Median’s proprietary eyonis LCS to the Tempus Pixel platform. This collaboration empowers clinical workflows with a powerful tool to support informed diagnostic and disease management decisions.

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According to a study by the American Cancer Society, only about 20% of eligible individuals in the U.S. were screened for lung cancer in 2024. Closing the gap and achieving full participation among eligible individuals could prevent an estimated 62,110 lung cancer deaths over five years. eyonis LCS is an AI-based CADe/CADx software as a medical device (SaMD) for lung cancer screening. It enables clinicians to not only detect lung nodules but also characterize and risk stratify them from the same CT image without additional steps in the workflow. eyonis LCS received 510(k) clearance from the U.S. Food and Drug Administration (FDA) earlier this month.

Through this collaboration, Tempus will integrate eyonis LCS into Tempus Pixel1, an FDA-cleared, CE-marked AI-enabled solution that provides advanced analysis, tools, and automated reporting from radiology images to help providers accurately track and quantify lesions. The integration of eyonis LCS will enable non-invasive characterization of CT identified lung nodules at the time of nodule detection with its proprietary nodule malignancy score, a feature that will allow clinical teams to stratify and prioritize patients in lung cancer screening programs.

"Activating our distribution collaboration with Tempus AI is a decisive step in bringing eyonis LCS to patients at national scale," said Fredrik Brag, CEO and Founder of Median Technologies. "Tempus’ strong leadership in AI-enabled precision medicine, deeply integrated data-technology ecosystem, and strong market presence make them an exceptional partner to drive rapid and high-impact adoption of eyonis LCS across the United States."

"We believe AI reaches its full potential when it helps clinicians identify disease earlier and more accurately," said Razik Yousfi, Tempus SVP & GM, AI Products. "By expanding our Pixel platform with sophisticated lung cancer screening AI tools, we are enabling radiologists to manage complex caseloads while prioritizing early-stage detection. Our collaboration with Median Technologies is about more than technology; it’s about improving the standard of care and preventing avoidable deaths through better screening access."

Tempus has significantly expanded its diagnostic capabilities by developing and deploying a suite of advanced algorithms across radiology and pathology, helping clinicians deliver more precise, personalized care. In 2022, Tempus acquired Arterys, incorporating its AI-driven imaging tools—ranging from lung CTs and chest X-rays to cardiac MRIs—into the Tempus ecosystem. This was followed by the acquisition of Paige, which contributed a proprietary dataset of almost 7 million clinically annotated, de-identified pathology slides to further accelerate Tempus’ efforts.

(Press release, Tempus, FEB 13, 2026, View Source [SID1234662678])

AKIR001 study selected as overall featured article in The Journal of Nuclear Medicine

On February 13, 2026 Akiram Therapeutics reported that the preclinical study underpinning the clinical development of lead candidate AKIR001, published in The Journal of Nuclear Medicine (JNM), has been selected as best basic investigation and overall featured article for the February issue.

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AKIR001 is developed by Akiram Therapeutics, a Swedish biotech company developing targeted radiopharmaceutical therapies for cancer. The candidate targets CD44v6 and is currently under evaluation in a first-in-human Phase 1 clinical trial.

The article presents the preclinical validation of AKIR001. The data demonstrate selective tumor uptake, favorable dosimetry, and clear antitumor effects in relevant models, strengthening the scientific foundation for the ongoing study in patients with CD44v6-positive tumors.

"We are pleased to see the study recognized both as best basic investigation and as overall featured article in JNM," says Marika Nestor, CEO of Akiram Therapeutics. "It is a strong recognition of the preclinical work behind AKIR001 and adds further weight as the program advances in clinical development."

About the Phase 1 clinical trial
The ongoing first-in-human Phase 1 trial is conducted and sponsored by Karolinska University Hospital. The study evaluates safety, tolerability, pharmacokinetics and biodistribution in patients with tumors that express CD44v6, including anaplastic and iodine-refractory thyroid cancer, head and neck squamous cell carcinoma, gynecological squamous cell carcinoma and non-small cell lung cancer.

The trial is registered at ClinicalTrials.gov:
View Source

(Press release, Akiram Therapeutics, FEB 13, 2026, View Source [SID1234662681])