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To ensure patients get the same result from any test provider, the field must standardize not just the underlying sequencing technology, but also the software pipelines for data analysis and the clinical frameworks for interpreting results. Each layer presents a unique harmonization challenge.
While the need for prospective trials dominates the ctDNA discussion, a more fundamental obstacle is the lack of standardization between assay types (e.g., tumor-informed vs. agnostic). Without a common measurement approach, data from disparate trials cannot be pooled to create a universally accepted surrogate endpoint for regulatory approval.
The controversy and business opportunity in polygenic embryo selection lie in interpreting genetic data, not in the physical sequencing. Companies are competing on the quality and scope of their predictive models for health and traits, which they apply to data from established lab processes.
Advancing circulating tumor DNA (ctDNA) as a surrogate endpoint is stalled because the necessary large-scale, prospective validation studies are too expensive for any single company. The path forward requires a massive public-private partnership to fund research and establish standards, otherwise progress will remain incremental.
The traditional drug-centric trial model is failing. The next evolution is trials designed to validate the *decision-making process* itself, using platforms to assign the best therapy to heterogeneous patient groups, rather than testing one drug on a narrow population.
Despite the hype, Datycs' CEO finds that even fine-tuned healthcare LLMs struggle with the real-world complexity and messiness of clinical notes. This reality check highlights the ongoing need for specialized NLP and domain-specific tools to achieve accuracy in healthcare.
Clinicians ordering "NGS for lung" often misunderstand that Next-Generation Sequencing alone does not cover all actionable biomarkers, such as PD-L1 or HER2. This requires pathologists to interpret the clinician's intent and order a more comprehensive and appropriate test panel.
DNA Complete's model of providing raw genomic risk scores tied to individual scientific papers, without context or curation, can be dangerously misleading. A user might see a low-risk result for a disease that is irrelevant to their ethnicity, highlighting the critical need for proper data interpretation in consumer health.
Before deploying AI across a business, companies must first harmonize data definitions, especially after mergers. When different units call a "raw lead" something different, AI models cannot function reliably. This foundational data work is a critical prerequisite for moving beyond proofs-of-concept to scalable AI solutions.
The low-hanging fruit of finding a single predictive biomarker is gone. The next frontier for bioinformatics is developing complex, 'multimodal models' that integrate several data points to predict outcomes. The key challenge is creating sophisticated models that still yield practical, broadly applicable clinical insights.
Scaling personalized medicine hinges on converging technologies. Robotics automates lab work from hours to minutes, affordable gene sequencing provides the raw data, and cloud computing processes AI analysis for pennies, making a once-prohibitively expensive process accessible.