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New Approach Methodologies in Oncology: From Concept to Use

October 19, 2026
New Approach Methodologies in Oncology: From Concept to Use
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Bringing more human-relevant methods into oncology drug development requires more than selecting a new platform: researchers need to establish where it fits, what its data can support, and how it meets regulatory expectations.

In this CrownCast episode, host Michelle Dawn Mooney speaks with Graham Marsh, Director of the NAMs Developer Coalition at the Critical Path Institute, and Ludovic Bourré, Vice President of Research and Innovation at Crown Bioscience, to explore new approach methodologies (NAMs) and Crown Bioscience’s participation in the coalition. Together, they discuss how patient-derived models, organoids, ex vivo tissue platforms, translational biomarkers, and bioinformatics contribute to the field, and what validation, qualification, and regulatory adoption could mean for practical study design.

 

New Approach Methodologies in Oncology: Where the Field Stands

New approach methodologies (NAMs) are a diverse set of human‑relevant tools—including complex in vitro models, organoids, microphysiological systems, ex vivo tissues, and in silico approaches—used to generate safety and efficacy data that better reflect patient biology, reduce reliance on animals, and improve decision quality in oncology development.

Regulators are now explicitly signaling support for these platforms. The Critical Path Institute (C‑Path) launched the NAMs Developer Coalition (NAMs‑DC) in May 2026 to accelerate validation, qualification, and regulatory adoption of human‑relevant methods across drug development, including oncology. The coalition brings together technology developers, sponsors, and regulators to define context‑of‑use‑specific evidence standards for NAMs, rather than treating them as generic exploratory tools.

For oncology programs, this shift intersects with persistent attrition driven by unexpected toxicity, lack of efficacy, and poor patient selection. NAMs offer a route to investigate mechanism, dose, and safety in systems that more closely mirror human tumors, tissues, and immune responses. The practical challenge—and the focus of this post—is deciding where NAMs belong in a development plan so that the data meaningfully influence portfolio and study decisions, not just slide decks.

Matching NAMs to the Biological and Regulatory Question

The core strategic move with NAMs is to start from the question, not the platform. Sponsors need to ask which biological decision is at stake—mechanism, combination selection, resistance, safety margin, or patient enrichment—and then select a NAM whose biology and readouts are demonstrably fit for that purpose and acceptable in regulatory discussions.

For example, organoid or ex vivo tissue platforms that preserve patient‑specific architecture and tumor microenvironment can be used to probe mechanism or rank combinations in genetically diverse cohorts. In contrast, microphysiological systems and organ‑on‑chip models with defined flow or shear forces may be better for interrogating tissue‑specific toxicities at clinically relevant exposures. NAMs‑DC explicitly focuses on qualifying such systems for tightly defined contexts of use, aligning evidentiary expectations across regulators and sponsors, as described in C‑Path’s launch communication.

For oncology teams, this means a syngeneic or PDX in vivo study is no longer the default starting point. Instead, a NAM can be the first filter—clarifying which mechanisms warrant in vivo confirmation, which combinations should progress, or which exposure ranges merit further investment, provided the model and question are matched deliberately.

Patient-Derived Models and Ex Vivo Platforms Within NAMs

Crown Bioscience’s contribution to NAMs‑DC centers on patient‑derived and ex vivo platforms that sit at the intersection of innovation and translational practicality. As highlighted in the company’s July 2026 announcement, these capabilities span patient‑derived xenograft (PDX) models, tumor organoids, and fresh ex vivo tissue systems, all coupled to biomarker and bioinformatics support.

In practical terms, an organoid panel derived from multiple patients with a single indication can be used to rank compounds or combinations against a genetically and phenotypically diverse background before advancing into PDX or clinical proof‑of‑concept. Ex vivo tissue platforms, built on fresh patient samples that retain native tumor microenvironment, enable short‑term functional studies of immune modulation or targeted agents under clinically relevant conditions.

These approaches do not replace in vivo models outright, but they can sharpen their use. For example, pre‑screening combinations across a 30–50 line organoid panel can highlight both likely responders and intrinsic non‑responders, focusing in vivo work on mechanistic questions that organoids cannot yet answer, such as systemic pharmacology or long‑term resistance dynamics. This layered strategy is consistent with the coalition’s emphasis on complementary, not purely replacement, adoption of NAMs.

Building Biomarker Strategy into NAM-Enabled Studies

Biomarker strategy is often treated as an add‑on once a clinical protocol is drafted; in a NAM‑enabled development plan, it needs to be specified alongside model selection from the outset. The same features that make NAMs attractive—patient‑derived samples, defined mutations, and controlled microenvironments—also make them powerful engines for hypothesis‑driven biomarker discovery.

Sponsors should define up front which biomarkers might support mechanism‑of‑action confirmation, responder enrichment, safety monitoring, or resistance tracking. Those hypotheses can then be tested iteratively across NAM platforms and clinical samples. Crown Bioscience is positioned for this loop by combining preclinical models with CLIA‑certified biomarker laboratories, allowing exploratory signatures originating in patient‑derived organoids or PDX models to be evaluated and refined in clinical cohorts using consistent assays.

A practical example is using an organoid panel to correlate drug response with a defined genomic or transcriptomic signature, followed by validation in ex vivo tissues and then in early‑phase clinical biopsies. When this loop is explicit, NAMs stop being purely phenotypic screens and become structured tools for generating, testing, and operationalizing biomarkers that can appear in protocols and regulatory submissions.

Near-Term Impact: Where NAMs Reduce Uncertainty First

While NAMs can, in principle, touch every stage of oncology development, their most realistic near‑term impact lies in reducing uncertainty earlier, before expensive late‑stage studies and large PDX campaigns are initiated. Two domains stand out: early safety de‑risking and sharper efficacy go/no‑go decisions.

On the safety side, complex in vitro and organoid‑based toxicology systems are already being applied to interrogate organ‑specific liabilities—including gastrointestinal, hepatic, and renal injury—under exposure conditions that approximate human pharmacokinetics. Coupled with organ‑on‑chip collaborations, these platforms can help sponsors refine first‑in‑human starting doses and avoid advancing compounds with unmanageable safety profiles.

On the efficacy side, NAMs are well suited to quickly identify weak mechanisms, fragile combinations, or non‑responsive patient segments. For instance, screening a targeted agent across a deep organoid library representing a heterogeneous patient population can reveal that only a narrow molecular subgroup demonstrates durable responses, informing trial enrichment before a single patient is enrolled. These targeted, context‑of‑use wins illustrate how NAMs can improve portfolio quality even before full regulatory qualification is complete.

Practical Steps to Start Integrating NAMs in Oncology Programs

Sponsors interested in NAMs often hesitate because replacing all established workflows at once is neither realistic nor desirable. A more tractable approach is to identify one or two decision points in the pipeline where human‑relevant data would most improve confidence—such as combination prioritization in immuno‑oncology or early tissue‑specific safety—and pilot NAMs there with clear success criteria.

From there, oncology teams can work backward: define the biological and regulatory questions, select NAM platforms whose biology aligns with those questions, and pre‑specify how the resulting data will change decisions. Partnering with organizations actively engaged in NAMs‑DC, such as Crown Bioscience and other coalition members, can help sponsors benchmark their evidentiary expectations against emerging qualification frameworks and regulatory feedback.

Over time, accumulated experience across indications, modalities, and endpoints will support broader replacement or refinement of animal models where evidence justifies it. Until then, the most productive way to think about new approach methodologies (NAMs) is as strategically deployed, question‑driven tools that make each subsequent in vivo and clinical decision more informed, not as stand‑alone novelties competing with existing platforms.

Cite this Article

Crown Bioscience, (2026) New Approach Methodologies in Oncology: From Concept to Use - Crown Bioscience. https://blog.crownbio.com/new-approach-methodologies-in-oncology-from-concept-to-use