Disease Overview
Why NSCLC Demands Specialized BRA
Non-Small Cell Lung Cancer presents a uniquely complex BRA landscape due to rapid biomarker-driven treatment evolution, overlapping toxicity profiles from combination regimens, and accelerated approval pathways that demand robust post-marketing safety surveillance.
Biomarker-Stratified Complexity
NSCLC treatment decisions depend on EGFR, ALK, ROS1, BRAF, KRAS G12C, MET, RET, NTRK, and PD-L1 status. Each biomarker subgroup has distinct efficacy-safety profiles for osimertinib, alectinib, sotorasib, and pembrolizumab requiring subpopulation-specific BRA modeling.
Chemo-Immunotherapy Toxicity Overlap
Combinations like pembrolizumab + carboplatin/pemetrexed or nivolumab + ipilimumab create overlapping toxicities where immune-related AEs (pneumonitis, colitis) compound with chemotherapy-induced myelosuppression, requiring sophisticated causality attribution algorithms.
Accelerated Approvals & Confirmatory Data
Multiple NSCLC therapies received accelerated approval based on ORR or PFS, requiring ongoing post-marketing BRA with confirmatory OS data. Recent FDA scrutiny of accelerated approvals (e.g., atezolizumab withdrawal in certain indications) heightens the need for real-time benefit-risk monitoring.
Platform Capabilities
How ArcaScience Addresses NSCLC BRA Challenges
Our three integrated modules are configured with NSCLC-specific data, AI models trained on lung cancer safety signals, and regulatory output templates aligned with oncology submission requirements.
NSCLC Data Coverage
3,400+ NSCLC clinical trials including KEYNOTE, CheckMate, FLAURA, and ADAURA datasets. Comprehensive FAERS/EudraVigilance adverse event data for osimertinib, pembrolizumab, nivolumab, atezolizumab, sotorasib, and 40+ other NSCLC agents. Biomarker-stratified safety profiles from real-world evidence sources.
Explore Data Engine →NSCLC-Specific AI Models
AI models trained on NSCLC-specific patterns: immune-related pneumonitis detection in lung cancer patients (where baseline respiratory compromise complicates diagnosis), EGFR TKI-associated interstitial lung disease risk stratification, and biomarker-driven subpopulation benefit-risk modeling across PD-L1 expression levels.
Explore AI Models →NSCLC Regulatory Outputs
Submission-ready PSUR/PBRER with NSCLC-specific safety sections, Risk Management Plans addressing pneumonitis monitoring protocols, CTD Module 2.5 with OS/PFS/ORR endpoint summaries, and HEOR reports with QALY analyses relevant to NICE, G-BA, and HAS submissions for NSCLC therapies.
Explore Outputs →NSCLC Intelligence
Platform Performance in NSCLC
NSCLC-related adverse event data points
Faster NSCLC signal detection vs. manual
Biomarker subgroups modeled simultaneously
NSCLC regulatory submissions supported
Case Evidence — NSCLC
Accelerated BRA for NSCLC Immunotherapy Combinations
Challenge
A top-10 pharma company needed to assess the benefit-risk profile of a novel PD-L1 inhibitor combined with platinum-doublet chemotherapy across PD-L1 expression subgroups (TPS ≥50%, 1-49%, <1%) for a supplemental BLA submission to the FDA.
Result
ArcaScience delivered biomarker-stratified BRA covering immune-related pneumonitis, hepatitis, and thyroid dysfunction across all PD-L1 subgroups, reducing PSUR preparation time by 58% and identifying a previously unrecognized cardiac safety signal in the PD-L1 <1% subgroup.
Reduction in PSUR prep time
PD-L1 subgroups analyzed simultaneously
VP, Oncology Drug Safety
Top-10 Pharma Company
Frequently Asked Questions