
A new scientific perspective on neurodegenerative disease — one that begins with metabolism, listens to the earliest biological signals, and aims to act years before symptoms appear.
Neurodegenerative diseases develop silently over many years before memory loss or cognitive impairment become apparent. Earlier detection creates the opportunity for earlier intervention, clinical trial enrollment, and improved patient outcomes.
Hover any brain to learn what is happening biologically — or drag the slider to scrub through disease progression.
Hover a brain to see the biological changes occurring at that stage of disease.




Identifying disease before symptoms emerge changes what is medically possible.

Identify disease before irreversible neuronal loss.
Expand access to patients at the earliest stages of disease.
Track molecular changes over time using minimally invasive blood-based biomarkers.
Enable more informed clinical decisions before symptoms become severe.
Emerging research increasingly demonstrates that metabolic dysfunction and neurodegeneration are closely intertwined. Long before clinical symptoms appear, disruptions in glucose regulation, insulin signaling, inflammation, and cellular energy metabolism may contribute to changes within the brain.
Many researchers have described Alzheimer’s disease as “Type 3 Diabetes” due to the growing evidence linking impaired metabolic function with neurodegenerative processes. Individuals with insulin resistance, prediabetes, and Type 2 diabetes face significantly elevated risks of cognitive decline and Alzheimer’s disease.
At Kivara Neurosciences, we believe that understanding metabolic health may provide critical insights into neurological health years before symptoms emerge.
Most current approaches to neurodegenerative disease detection focus on biomarkers that appear later in the disease process, after significant biological changes have already occurred. Kivara is exploring whether earlier indicators of metabolic dysfunction may help identify individuals at increased risk before substantial neurological damage develops.
By evaluating metabolic health alongside established neurological biomarkers, we aim to create a more comprehensive understanding of disease progression and risk.
Kivara’s research programs leverage InterceptIQ™, an advanced precision diagnostic technology designed to measure biological signals associated with metabolic health and cellular stress.
One component of the platform evaluates biomarkers associated with pancreatic beta-cell injury and apoptosis, which may represent some of the earliest measurable indicators of metabolic dysfunction. By integrating these signals with clinical, inflammatory, and neurodegenerative biomarkers, Kivara is investigating novel approaches for identifying individuals at elevated risk for neurological disease.

Markers of pancreatic beta-cell injury and apoptosis as early metabolic signals.
Insulin signaling, glucose dynamics, and energy metabolism.
Systemic and neuro-inflammatory pathways linked to disease progression.
Established markers of synaptic, amyloid, tau, and α-synuclein biology.
Integrative models that translate biology into individual risk profiles.

Kivara Neurosciences is investigating the hypothesis that measurable biological changes associated with metabolic dysfunction may precede and potentially contribute to neurodegenerative disease progression.
Our scientific approach seeks to evaluate whether combining metabolic biomarkers, cellular injury markers, inflammatory indicators, and established neurological biomarkers can improve risk assessment and support earlier clinical decision-making.
While research remains ongoing, this integrated approach has the potential to provide a more complete picture of an individual’s health trajectory than neurological biomarkers alone.
Kivara Neurosciences is committed to advancing innovative diagnostic approaches that help clinicians better understand disease risk, monitor biological changes, and potentially identify opportunities for earlier intervention.
Our mission is to bridge the gap between metabolic health and neurological health through rigorous scientific research, advanced biomarker development, and precision medicine technologies.

The InterceptIQ™ Platform combines advanced molecular diagnostics, neurodegenerative biomarkers, metabolic health assessment, and AI-enabled analytics to generate a comprehensive view of neurological disease biology.







A single venous draw into specialized plasma collection tubes initiates the workflow. Each specimen is barcoded, time-stamped, and entered into a documented chain of custody.
Whole blood is centrifuged to isolate plasma, then aliquoted under cold-chain conditions. Quality control checks verify hemolysis, volume, and integrity before downstream analysis.
Cell-free DNA fragments circulating in plasma are isolated using magnetic-bead extraction chemistry. These short, tissue-derived fragments carry molecular signatures of cellular stress and injury.
Samples are partitioned into thousands of nanoliter-scale droplets. Each droplet is amplified and read by fluorescence, enabling absolute quantification of rare molecular targets with high sensitivity.
A single plasma sample is interrogated across multiple biological domains — neurodegeneration, metabolism, beta-cell health, and inflammation — to build an integrated molecular profile rather than a single isolated readout.
AI-enabled analytics integrate biomarkers across domains, surface multi-dimensional signatures, and translate longitudinal trends into individualized risk stratification.
Results are assembled into a clean, clinically structured report that summarizes biomarkers, metabolic and inflammatory status, integrated molecular profile, and longitudinal trends for clinician review.
The InterceptIQ™ Platform evaluates multiple biological domains in parallel rather than relying on a single biomarker — producing a more complete view of an individual’s molecular health.