Byondis to Present Data from its Novel ADC Technology Platforms at the American Society for Cancer Research Meeting 2026

On April 17, 2026 Byondis B.V., an independent biopharmaceutical company creating innovative targeted medicines for patients with cancer, reported it will profile the Company’s first-in-class antifolate and phosphonate antibody-drug conjugate (ADC) technology platforms in poster sessions at the American Society for Cancer Research (AACR) (Free AACR Whitepaper) Annual Meeting 2026 in San Diego, CA, from today through to 22 April.

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Wim Dokter, PhD, Chief Scientific Officer at Byondis, said: "The research we are presenting at AACR (Free AACR Whitepaper) highlights the potential of two of our state-of-the-art ADC technology platforms to address significant limitations with current therapeutic approaches in cancer treatment. Our first-in-class antifolate linker-drug platform features an orthogonal mechanism of action based on clinically validated biology. This approach is engineered to address acquired resistance that can develop with current ADC treatments, positioning it for use across treatment lines. Our phosphonate linker-drug platform offers a complementary mechanism that can provide new treatment options for patients, including those who may not respond to immune therapy. Both platforms underscore our mission to deliver breakthrough solutions and enable a new generation of cancer therapeutics for patients."

Antifolate ADCs, a novel linker-drug platform for targeted therapy with a clearly differentiated mechanism of action (abstract #: 3178/13)
Session Category: Experimental and Molecular Therapeutics
Session Title: Targeting Cell Surface Vulnerabilities to Overcome Therapeutic Resistance
Time: 20 April, 2:00 PM – 5:00 PM

Resistance to widely used ADC payloads, such as topoisomerase-I and tubulin inhibitors, is increasing, underscoring the need for differentiated approaches. Byondis has revisited the clinically validated antifolates class and developed a proprietary antifolate linker-drug platform that provides a differentiated and validated mechanism of action with a payload designed to overcome systemic side effects.

The optimized payload demonstrates low- to sub-nanomolar potency, strong inhibition of dihydrofolate reductase (DHFR), and broad in vitro cytotoxicity cell lines. It also shows no interaction with key resistance-associated transporters (BCRP, PGP) and favorable physicochemical properties, supporting GMP-scale manufacturing and ADC compatibility. A glucuronide-based linker enhances therapeutic index while maintaining favorable physicochemical properties, preserving ADC stability and enabling potential dual-payload strategies.

Byondis’ lead antifolate ADC, targeting an undisclosed tumor antigen, has shown strong in vitro activity and achieved robust tumor regressions in non-small cell lung cancer (NSCLC) and head and neck squamous cell carcinoma (HNSCC) patient-derived xenograft models, with no significant toxicity at active doses. This differentiated profile supports broad tumor applicability, positioning it for use from first-line therapy through to combination approaches.

Phosphonate antibody-drug conjugates, an innovative, immunostimulatory class of ADCs that drive inside-out activation of Vγ9Vδ2 T cells, enabling selective tumor cell killing (abstract #: 6921/2)
Session Category: Immunology
Session Title: Antibody-Drug Conjugates 2
Time: 22 April, 9:00 AM – 12:00 PM

Addressing a critical need for patients who do not respond to immune therapy, Byondis’ linker-drug platform, ByonBoost, is engineered to activate Vγ9Vδ2 (γδ) T cells in the tumor microenvironment, enabling targeted delivery with an immunologic antitumor effect and compatibility with single and dual-payload concepts.

Gamma delta (γδ) T cells are potent cytotoxic effectors that eliminate tumor cells independently of MHC presentation and are associated with improved clinical outcomes. However, prior approaches to activate Vγ9Vδ2 T cells have been limited by lack of tumor specificity and short half-life.

To address these limitations, Byondis has developed tumor-targeting phosphonate ADCs that selectively deliver payloads to tumor cells, enabling inside-out activation of Vγ9Vδ2 T cells. These ADCs combine a tumor-associated antigen (TAA)-targeting antibody with a cleavable phosphonate payload and have been successfully applied across multiple targets, including CD123, CD20, TROP2, and HER2. They drive robust and targeted immune activation, inducing cytokine release, degranulation and tumor cell killing in vitro, including in studies where primary patient material was used. In non-human primate models, the lead candidate displayed excellent tolerability with no clinical signs of cytokine release syndrome (CRS), even at high doses.

This modular platform enables the dual mechanisms of action of direct tumor targeting and immune activation while preserving antibody effector function. With broad applicability across tumor types and compatibility with multiple antibodies, it represents a differentiated and scalable approach to targeted immunotherapy.

(Press release, Byondis, APR 17, 2026, View Source [SID1234664505])

intoDNA Presents Data on Two Novel Assays, sSTRIDE-NER and sSTRIDE-PARP1, in Poster Presentations at the 2026 AACR Annual Meeting

On April 17, 2026 intoDNA, a global precision medicine company that provides biopharma and clinicians with decision-grade insights into DNA damage and repair biology to reduce risk, accelerate timelines, and enable truly precise patient care, reported it will present two posters at the 2026 American Association for Cancer Research (AACR) (Free AACR Whitepaper) Annual Meeting, being held April 17-22, 2026 in San Diego, California.

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AACR poster presentation details are below:

Title: Direct measurement of NER activity using sSTRIDE-NER
Date: April 20, 2026, 9:00 a.m. – 12:00 p.m.
Track: Experimental and Molecular Therapeutics
Session: DNA Damage and Repair 2
Section: 14

Title: In situ measurement of PARP1 activity and trapping at single-strand DNA breaks
Date: April 22, 2026, 9:00 a.m. – 12:00 p.m.
Track: Experimental and Molecular Therapeutics
Session: Late-Breaking Research: Experimental and Molecular Therapeutics 4
Section: 53

intoDNA’s poster presentation titled, Direct measurement of NER activity using sSTRIDE-NER, demonstrates that a new assay based on the STRIDE (SensiTive Recognition of Individual DNA Ends) platform, showed:

High specificity: multiple negative technical controls yielded minimal background signal.
A time-dependent increase in nuclear signal intensity, consistent with accumulation of NER-associated SSBs.
Potential to investigate mechanisms of resistance to platinum drugs, to evaluate DNA repair-targeting agents, and to support the development of functional biomarkers predictive of therapy response.
New opportunities to functionally and spatially profile NER capacity in cancer cell models and patient-derived tissue samples.
intoDNA’s poster presentation titled, In situ measurement of PARP1 activity and trapping at single-strand DNA breaks, demonstrates that sSTRIDE-PARP1, a novel in situ assay:

Directly detects PARP1 localized at single-strand DNA breaks at single-cell resolution.
Enables direct, quantitative and functional measurement of PARP1 engagement at damaged DNA within intact cells.
Distinguishes cell lines with different basal levels of PARylation and PARP1 activity.
Provides a translational platform for mechanistic characterization of PARP inhibitors, comparative profiling of PARPi trapping capacity, and development of functional biomarkers to support patient stratification, drug development, and resistance studies in DNA damage response-targeted therapies.
"Current precision medicine approaches fall short and intoDNA envisions a future where the right therapies reach the right patients, at the right time. With our panel of novel assays, biopharma and clinicians gain decision-grade insights into DNA damage and repair biology to reduce risk, accelerate timelines, and enable truly precise patient care," said Magda Kordon-Kiszala, PhD, Founder and CEO of intoDNA.

Posters are available on the intoDNA website.

(Press release, intoDNA, APR 17, 2026, View Source [SID1234664504])

SAGA Diagnostics to Present New Pathlight™ MRD Data for Ovarian and Metastatic Breast Cancer at AACR 2026

On April 17, 2026 SAGA Diagnostics, a pioneer in blood-based cancer detection and precision medicine redefining the standard for early molecular residual disease (MRD) detection, reported that the company and its collaborators will present data from two abstracts at the 2026 American Association for Cancer Research (AACR) (Free AACR Whitepaper) Annual Meeting, taking place April 17–22 in San Diego, California. These abstracts showcase the ultrasensitive structural variant (SV)-based detection of circulating tumor DNA (ctDNA) in metastatic breast cancer (mBC) and high-grade serous ovarian cancer (HGSOC).

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SV-based ctDNA Monitoring in Metastatic Breast Cancer (mBC)

In collaboration with Drs. David Cescon and Mitchell Elliott at University Health Network (UHN) Canada, a retrospective analysis was conducted for patients with mBC (all subtypes) undergoing standard systemic therapy, utilizing the Pathlight SV-based MRD test. SAGA was able to successfully generate fingerprints in 66 patients using standard tissue-based Pathlight. Using ultradeep cfDNA-based whole-genome sequencing, SV-based tissue-free fingerprints were generated to rescue additional patients for which tissue was unavailable, enabling these patients to benefit from informed MRD testing.

The study’s SV-based approach achieved a high 77% detection rate (294/380) for ctDNA, with nearly a third of those cases identified in the ultrasensitive range. Additionally, Pathlight proved to be a powerful predictor of patient outcomes: where ctDNA was undetectable, patients showed exceptional responses to therapy, including prolonged disease stability and complete clinical response. Furthermore, Pathlight successfully tracked treatment responses across multiple lines of therapy, with rising ctDNA levels preceding radiologic signs of disease progression.

"Metastatic breast cancer remains a challenge to manage clinically, and the use of an accurate complementary biomarker may help improve the care for our patients," said Mitchell Elliott, MD, FRCPC. "By leveraging structural variants – highly conserved features of the tumor genome – we enable ultrasensitive ctDNA detection in the metastatic setting which closely aligns with standard of care radiographic assessment. This approach supports the potential for more reliable treatment monitoring and unlocks new opportunities for clinical utility in this setting."

Improved Prognostic Assessment in Ovarian Cancer

In collaboration with the Medical University of Vienna and LMU Munich, a retrospective analysis was performed on plasma samples collected prospectively from 84 patients with advanced high-grade serous ovarian cancer (HGSOC). High baseline detection was observed (94%), with MRD remaining in 85% of cases postoperatively. Within the subgroup of patients with pathological complete tumor resection, ctDNA clearance at the first cycle of chemotherapy (C1) (20%) and the sixth cycle (C6) (70%) was associated with significantly lower recurrence risk compared to those with persistent ctDNA. Most notably, ctDNA persistence at C6 was identified as a powerful independent prognostic marker, where ctDNA-positive patients faced a median time to clinical recurrence of just 10.7 months compared to 21.3 months for those who cleared ctDNA. While CA-125 levels failed to significantly predict recurrence at key treatment milestones, ctDNA dynamics offered precise risk stratification even after optimal primary surgery, providing a vital clinical window for personalized maintenance strategies and risk-adjusted treatment interventions.

"The consistent performance of SV-based MRD monitoring by Pathlight across these diverse, late-stage cancers underscores its broad clinical applicability," added Wendy Levin, MD, MS, Chief Clinical Officer of Saga Diagnostics. "This isn’t just about better data-it’s about the potential for clinical utility. By accurately informing on treatment monitoring where traditional tools fail, we are unlocking the ability to tailor therapies in real-time, ultimately improving outcomes through more informed, individualized patient management."

Key SAGA Diagnostics Presentations During AACR (Free AACR Whitepaper) 2026:

Abstract Title

Presentation Details

Tumor-informed circulating tumor DNA identifies high-grade serous ovarian cancer patients at highest risk for recurrence despite optimal first-line treatment with primary macroscopic complete resection

Poster Presentation
Location: Section 42
Date: April 19, 2026
Time: 2:00-5:00 PM
Speaker: Magdalena Postl, MD

Serial ctDNA monitoring in metastatic breast cancer using an ultrasensitive tumor-informed structural variant-based assay

Poster Presentation: #3864
Location: Section 45
Date: April 20, 2026
Time: 2:00-5:00 PM
Speaker: Mitchell Elliott, MD, FRCPC

The full abstracts for SAGA Diagnostics at AACR (Free AACR Whitepaper) 2026 can be found here.

(Press release, SAGA Diagnostics, APR 17, 2026, View Source [SID1234664503])

Ensem Therapeutics Highlights Novel, Potent, and Selective Oral pan-KRAS and WRN Inhibitors with Best-in-Class Potential

On April 17, 2026 Ensem Therapeutics, Inc. (ENSEM), a clinical-stage, oncology-focused biopharmaceutical company, reported presentations of preclinical data at the American Association for Cancer Research (AACR) (Free AACR Whitepaper) Annual Meeting, being held April 17–22 in San Diego, CA. The data support the differentiated preclinical profiles of ETX-929, a pan-KRAS inhibitor for the treatment of KRAS-altered solid tumors, and ETX-880, a covalent WRN inhibitor for the treatment of microsatellite instability-high (MSI-H) solid tumors.

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"These AACR (Free AACR Whitepaper) presentations underscore the breadth and depth of ENSEM’s oncology pipeline, fueled by our proprietary Kinetic Ensemble platform," said Shengfang Jin, PhD, Co-Founder, President, and Chief Executive Officer of ENSEM. "With ETX-929 and ETX-880, we are advancing potential best-in-class small molecule inhibitors against two of the most compelling targets in oncology today—KRAS and WRN. These programs, alongside our clinical-stage PI3Kα program ETX-636, demonstrate the power of our platform to systematically tackle high-value, difficult-to-drug targets with differentiated molecules."

AACR Presentation Details

Details of the presentations are as follows:

ETX-929 (Pan-KRAS Inhibitor)

Title: ETX-929, a potential best-In-class, oral, highly potent and selective dual ON / OFF state Pan-KRAS small molecule inhibitor for the treatment of KRAS mutant and wild-type amplified cancers
Poster ID: 418
Session: Novel Antitumor Agents 1
Date/Time: 4/19/2026 2PM – 5PM PT
Location: Poster Section 17, Poster Board Number: 21
ETX-880 (Covalent WRN Inhibitor)

Title: ETX-880, a potential best-in-class, oral, highly potent and selective covalent inhibitor of Werner helicase for the treatment of microsatellite instability-high (MSI-H) cancers
Poster ID: 423
Session: Novel Antitumor Agents 1
Date/Time: 4/19/2026 2PM – 5PM PT
Location: Poster Section 17, Poster Board Number: 26
About ETX-929

ETX-929 is a potent and selective oral pan-KRAS inhibitor designed leveraging ENSEM’s proprietary Kinetic Ensemble platform. ETX-929 inhibits multiple KRAS-mutant variants, including KRASG12D, KRASG12V, KRASG12C, and other clinically relevant mutations, in both the active (GTP-bound/ON) and inactive (GDP-bound/OFF) states. KRAS is the most frequently mutated oncogene in human cancers, driving approximately 25% of all solid tumors, including pancreatic, colorectal, and non-small cell lung cancers. Despite recent advances in allele-specific KRAS inhibitors, there remains a significant unmet need for pan-KRAS therapeutics that can address the full spectrum of KRAS-driven cancers. ETX-929 has demonstrated potent anti-tumor activity in preclinical models and has completed IND-enabling studies with anticipated IND clearance in Q2 2026.

About ETX-880

ETX-880 is a covalent, potent, oral inhibitor of Werner syndrome ATP-dependent helicase (WRN) designed leveraging ENSEM’s Kinetic Ensemble platform. WRN helicase has emerged as a compelling synthetic lethal target in microsatellite instability-high (MSI-H) cancers. MSI-H tumors arise from defects in the DNA mismatch repair pathway and are found across multiple tumor types, including colorectal, endometrial, gastric, and ovarian cancers. While immune checkpoint inhibitors have demonstrated clinical benefit in MSI-H cancers, 40–70% of patients either do not respond or eventually develop resistance, underscoring the need for novel therapeutic approaches. ETX-880’s covalent binding mechanism is designed to deliver deep and sustained WRN inhibition, and the compound has demonstrated selective anti-proliferative activity against MSI-H cancers in preclinical studies. ETX-880 is currently at the IND-enabling stage.

(Press release, ENSEM Therapeutics, APR 17, 2026, View Source [SID1234664502])

Bruker Spatial Biology Showcases High Fidelity Spatial Data and Integrated Multi-platform Workflows for Unprecedented Multiomic Insights at AACR 2026

On April 17, 2026 Bruker Corporation (Nasdaq: BRKR) reported new updates from Bruker Spatial Biology to be showcased at the 2026 American Association for Cancer Research (AACR) (Free AACR Whitepaper) Annual Meeting. At AACR (Free AACR Whitepaper), Bruker Spatial Biology will highlight how its high-fidelity spatial platforms—designed to work together—deliver deeper insights into oncology biology and accelerate translational research.

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At AACR (Free AACR Whitepaper) 2026, Bruker Spatial Biology will launch new cross‑platform workflows linking GeoMx DSP to CellScape XR and CellScape XR to CosMx SMI, enabling researchers integrate insights across its spatial biology portfolio—revealing biological relationships that cannot be captured with a single modality alone. Bruker Spatial Biology will also debut new 208‑plex datasets from CellScape XR, highlighting flexible subcellular proteomics for rapid, quantitative spatial phenotyping in oncology applications.

These announcements build upon the major spatial biology milestones Bruker introduced earlier this year at the AGBT General Meeting, where the company demonstrated a portfolio engineered for high-fidelity performance within each omic layer. Together, these advances reflect Bruker Spatial Biology’s long‑standing approach: advancing each platform to be best‑in‑class individually, while consistently being first to demonstrate what is possible when spatial data is captured with unmatched depth, resolution, and fidelity—and connected across biological layers.

PaintScape Now Open for Pre‑Orders with Shipments Expected This Quarter

With the PaintScape platform, Bruker is the only company enabling high‑precision, multiplexed, direct visualization of the 3D genome in situ in single cells. PaintScape enables researchers to study chromosomal architecture, spatial genome organization, and structural variation directly within intact biological context, opening new avenues for understanding how genome structure influences gene regulation and disease.

Bruker will launch two new panels for the PaintScape platform, including the ChromoPaint HuCL PanChromo MPX panel, a 419-plex panel designed for genome wide in situ visualization of chromosomal organization in human cell lines. In addition, Bruker will announce the OncoPaint Oncogenic Pathways Panels that will be available later this year, a 1000+-plex modular panel designed to combine genome wide chromosome painting with painting of select cancer pathway associated gene regions in increased genomic resolution.

Commercial shipments of the PaintScape platform are expected to begin later this quarter.

Introducing CellScape XR, the Highest Performing Spatial Proteomics Ecosystem Delivering Best-in-Class Data Fidelity, Robustness and Flexibility

The CellScape XR launch at AGBT represents Bruker’s next-generation advancement in spatial proteomics and introduces what is now the highest fidelity spatial proteomics platform, designed to deliver best‑in‑class data quality, robustness, and assay flexibility.

At AACR (Free AACR Whitepaper), Bruker Spatial Biology will showcase new 208‑plex spatial proteomics datasets, in collaboration with Niclas Blessin at University Medical Center Schleswig-Holstein (UKSH). This assay was pathology reviewed across 12 distinct neoplastic and non-neoplastic human FFPE tissue samples demonstrating the robustness of the CellScape XR protocol. These capabilities enable deeper interrogation of tumor biology, immune contexture, and signaling heterogeneity, and form a critical bridge between discovery‑scale profiling and translational research, at a scale and rigor required for clinical applications.

Bruker is accepting pre-orders for the CellScape XR, with commercial shipments expected this summer.

CosMx SMI Showcases and Extends Complete Spatial Biology Approach

Bruker has consistently been first to define what is possible with the CosMx SMI platform setting multiple best-in-class benchmarks—including both AI multimodal and 3D segmentation, subcellular spatial imaging of the human whole transcriptome (WTX), and same-cell multiomics (WTX and 64+ proteins). At AACR (Free AACR Whitepaper), Bruker Spatial Biology will showcase how these high fidelity, high sensitivity capabilities are expanding further—extending subcellular spatial imaging of the mouse whole transcriptome and highlighting emerging applications for studying human disease, such as T‑cell receptor (TCR) and miRNA imaging.

The AtoMx SIP builds on the unparalleled data richness of CosMx SMI to accelerate study‑level insight generation and biological interpretation. At AACR (Free AACR Whitepaper), Bruker Spatial Biology will reinforce a new spatial discovery workflow with AtoMx SIP, enabling rapid, image‑based exploration of single‑cell and subcellular whole transcriptome datasets through pre‑calculated spatial insights and streamlined data exports designed for conversational large language model (LLM) workflows. Applying LLMs to the comprehensive, high fidelity spatial data generated by CosMx SMI enables richer, higher quality outputs than are possible with lower resolution or lower content approaches, delivering a more interactive and intuitive experience for biological discovery. In addition, Bruker Spatial Biology will showcase new 3D AI‑based cell segmentation models that extend its best‑in‑class definition of single‑cell boundaries, improving RNA transcript assignment in tissue and addressing long standing limitations of segmentation approaches that fail to account for overlapping cells.

Bruker is accepting pre-orders for the Mouse CosMx WTX.

GeoMx Discovery Multiomics Platform Showcases Unmatched Spatial Biomarker Discovery at Scale with Whole Transcriptome and 1200+ Protein Targets

With GeoMx DSP, Bruker was the first to establish spatial biology at discovery scale and has continued to lead by demonstrating what is possible from discovery through translational research and clinically oriented applications. GeoMx DSP was first to enable high‑plex, same‑slide whole transcriptome and protein multiomics, and later to demonstrate spatial proteomic profiling of more than 1,200 antibodies on tissue with the Discovery Proteome Atlas. At AACR (Free AACR Whitepaper), Bruker Spatial Biology will showcase how GeoMx DSP is the only spatial platform to now simultaneously connect RNA pathway, protein, and post-translational modification (PTMs) across different layers of biology. The breadth of this spatial multiomics data is now informing researchers of biological pathways that are both transcriptionally active and driving functional response. GeoMx DSP further anchors large cohort biomarker and signature discovery and now connects seamlessly to downstream validation and spatial phenotyping workflows with CellScape XR on the same tissue section.

In addition to its spatial biology portfolio, Bruker will present complementary solutions including the nCounter Analysis System for bulk multiomics and the Beacon Platform, including Beacon Discovery, supporting downstream translational workflows and functional live single‑cell biology.

(Press release, Bruker, APR 17, 2026, View Source [SID1234664501])