Culture-Free Phenotyping
Functional antibiotic response readouts within the clinical decision window—without culture-based AST delays.
Guanine is building a new category of diagnostic infrastructure: a software-defined electrochemical sensing architecture for multi-omic diagnostics and real-time phenotyping. By transforming electrochemistry into a programmable sensing layer, the platform can be reconfigured across biology, applications, and workflows—without redesigning the core system.
One sensing architecture measures nucleic acids, proteins, metabolites, drugs, cells, and redox biology from a single engine—enabling high-plex, quantitative measurement and functional readouts without optics, PCR, or complex instrumentation.
By decoupling diagnostic capability from optics, channels, and modality-specific instruments, Guanine enables a low-cost sensing engine to scale across applications—from time-critical sepsis care to OEM diagnostic platforms.
One sensing architecture. Unlimited biology.Healthcare still relies on siloed diagnostic stacks—PCR, immunoassays, sequencing, mass spectrometry, and culture—that are difficult to unify.
Diagnostics remain split across modality-specific instruments and workflows, forcing serial testing and limiting data density—especially when timing, cost, and scale matter most.
A single sensing layer can be reconfigured across assays and applications—supporting time-critical clinical decisions, OEM rehosting, and data generation for AI-driven health without rebuilding optical stacks, lasers, or modality-specific instrument infrastructure.
Infrastructure economics: scale becomes a software problem—not a hardware rebuild.Guanine unifies reversible quadruplex tags, multi-domain waveform control, magnetic concentration, and composite multiplex encoding into a single electrochemical engine—built for quantitative, high-plex, AI-ready diagnostics.
Functional antibiotic response readouts within the clinical decision window—without culture-based AST delays.
Nucleic acids, proteins, metabolites, cells, and redox biology measured from the same sample.
A software-defined sensing layer that enables new assay configurations without redesigning core hardware.