BEYOND THE BIOMARKER: HTA CHALLENGES FOR PRECISION ONCOLOGY TECHNOLOGIES IN NICE APPRAISALS
Author(s)
Shilpi Swami, MSc1, Aishee Ghatak, MSc2, Aman Yadav, MSc2.
1ConnectHEOR, London, United Kingdom, 2ConnectHEOR, Delhi, India.
1ConnectHEOR, London, United Kingdom, 2ConnectHEOR, Delhi, India.
OBJECTIVES: Precision oncology (PO) technologies, including biomarker-guided therapies and companion diagnostics, present distinctive challenges for health technology assessment (HTA), including complex treatment pathways, small evidence bases, immature survival data, and uncertainty around test-treatment interdependencies. This study aimed to identify key critiques raised by NICE in PO appraisals.
METHODS: A structured review of NICE oncology appraisals (Jan’2020-Dec’2025) was conducted. Eligible appraisals included biomarker-defined, molecularly stratified, companion diagnostic-linked, or tumour-agnostic technologies where PO considerations shaped deliberations. Data was extracted to identify patterns in evidence generation, diagnostics, comparators, sequencing, implementation, and factors influencing reimbursement decisions and reassessments.
RESULTS: The review identified 23 appraisals to ensure representation across tumour types, precision oncology archetypes, evidence maturity, and NICE decision outcomes: 11 NSCLC, 7 breast cancer, and one each for ovarian/fallopian/peritoneal, tumour-agnostic solid tumour, endometrial, multi-tumour, and prostate cancer. Biomarker testing was required in all appraisals, with diagnostic pathways detailed in 21/23. Majority of challenges included immature OS, followed by lack of direct evidence and hence, use of indirect comparisons or external controls informing comparison (17/23). NICE issued positive recommendations in 21/23, including 4 CDF recommendations. Majority of positive recommendations were restricted to narrower population and 2/23 were not recommended. NSCLC critiques centred on immature OS and comparator uncertainty, while breast cancer critiques focused on comparator uncertainty and cost-effectiveness in narrower biomarker-defined populations. Reassessment over time showed divergent re-review trajectories: lorlatinib (TA909→TA1103) from non-recommendation to recommendation after additional PFS maturity data despite continued OS immaturity, and adjuvant osimertinib (TA761→TA1043) from managed access to routine commissioning after review of long-term trial and real-world evidence.
CONCLUSIONS: PO technologies pose recurring HTA challenges from immature evidence, limited comparative data, and diagnostic-linked patient selection. Residual uncertainty often shaped NICE decisions, resulting in restricted recommendations, while re-appraisals suggest that accumulating clinical and real-world evidence can help resolve key uncertainties over the technology lifecycle.
METHODS: A structured review of NICE oncology appraisals (Jan’2020-Dec’2025) was conducted. Eligible appraisals included biomarker-defined, molecularly stratified, companion diagnostic-linked, or tumour-agnostic technologies where PO considerations shaped deliberations. Data was extracted to identify patterns in evidence generation, diagnostics, comparators, sequencing, implementation, and factors influencing reimbursement decisions and reassessments.
RESULTS: The review identified 23 appraisals to ensure representation across tumour types, precision oncology archetypes, evidence maturity, and NICE decision outcomes: 11 NSCLC, 7 breast cancer, and one each for ovarian/fallopian/peritoneal, tumour-agnostic solid tumour, endometrial, multi-tumour, and prostate cancer. Biomarker testing was required in all appraisals, with diagnostic pathways detailed in 21/23. Majority of challenges included immature OS, followed by lack of direct evidence and hence, use of indirect comparisons or external controls informing comparison (17/23). NICE issued positive recommendations in 21/23, including 4 CDF recommendations. Majority of positive recommendations were restricted to narrower population and 2/23 were not recommended. NSCLC critiques centred on immature OS and comparator uncertainty, while breast cancer critiques focused on comparator uncertainty and cost-effectiveness in narrower biomarker-defined populations. Reassessment over time showed divergent re-review trajectories: lorlatinib (TA909→TA1103) from non-recommendation to recommendation after additional PFS maturity data despite continued OS immaturity, and adjuvant osimertinib (TA761→TA1043) from managed access to routine commissioning after review of long-term trial and real-world evidence.
CONCLUSIONS: PO technologies pose recurring HTA challenges from immature evidence, limited comparative data, and diagnostic-linked patient selection. Residual uncertainty often shaped NICE decisions, resulting in restricted recommendations, while re-appraisals suggest that accumulating clinical and real-world evidence can help resolve key uncertainties over the technology lifecycle.
Conference/Value in Health Info
2026-11, ISPOR Europe 2026, Vienna, Austria
Value in Health, Volume 29, Issue 12S
Code
HTA352
Topic
Health Policy & Regulatory, Health Technology Assessment, Study Approaches
Topic Subcategory
Decision & Deliberative Processes
Disease
Oncology, Personalized & Precision Medicine