Parmita Mishra, Founder and CEO of Precigenetics, has drawn attention to a significant challenge in data infrastructure: the simultaneous need for "hot streaming" and "cold archive" storage for hyperspectral cellular data. Mishra, whose company focuses on precision epigenetics in drug discovery, emphasized the unique demands of this data type, which current systems are ill-equipped to handle efficiently. The issue poses a bottleneck for advanced analytics and long-term research in fields like medtech.
Hyperspectral cellular data is characterized by its spatial-temporal nature, continuous time-series, signal processing requirements, and robot-generated structured metadata. "Fundamentally different from 'logs and clicks'," Mishra stated in a recent social media post, highlighting its complexity. This data, crucial for observing real-time cellular responses, requires specialized handling beyond conventional data infrastructure models designed for stateless web events or simple embeddings.
Current data storage solutions typically cater to one extreme or the other. "Storage systems assume either 'hot streaming' (Kafka, Pulsar) or 'cold archive' (S3, Glacier)," Mishra explained. However, the advanced biological and medical applications Precigenetics pursues necessitate a hybrid approach. This involves "sub-second access for live analysis" combined with "long-term structured cold storage" at the lowest possible cost.
Precigenetics aims to revolutionize precision medicine through optics, computational biology, and AI, particularly in epigenetics. The company's work involves capturing biology as it happens, which generates vast amounts of this complex hyperspectral data. Addressing the dual requirement for immediate accessibility and cost-effective archival storage is therefore central to accelerating drug discovery and cutting down uncertainty in treatment development.
The call for improved data infrastructure reflects a growing need across the biotech and medtech sectors, where high-resolution, multi-dimensional data is becoming standard. Solving this hybrid storage dilemma could unlock new possibilities for real-time diagnostics, personalized therapies, and more efficient research, impacting the future of health innovation.