Live longer. Live better.
Know what your biology is telling you.
Lifespan is the quantity. Healthspan is the quality. Kyronix connects your cardiovascular genetics, dementia risk, metabolic health, and biological aging markers into a picture that actually helps you act — not just worry.
Download Free on iOSSix dimensions of your longevity genetics
Longevity research has identified specific variants associated with exceptional aging across cardiovascular health, brain function, metabolism, and cellular repair. Here's what Kyronix surfaces from your DNA file.
Cardiovascular Longevity
Heart disease is the #1 cause of death — and much of your risk is written in your genes before you turn 30. APOE variants raise LDL and cardiovascular risk independently of diet. ACE variants affect blood pressure regulation and aerobic capacity. NOS3 influences vascular function. Knowing these variants early means earlier, more targeted intervention.
Brain Health & Dementia Risk
APOE ε4 is the strongest known genetic risk factor for late-onset Alzheimer's disease — carrying two copies raises lifetime risk by 8–12x compared to baseline. But genetics isn't destiny: cardiovascular exercise, sleep quality, blood pressure control, and homocysteine management are all modifiable. Kyronix shows you what to prioritize.
Metabolic Health
Insulin resistance can precede type 2 diabetes by a decade — silently. TCF7L2 and PPARG variants influence your baseline insulin sensitivity, fat storage patterns, and response to dietary carbohydrates. Your metabolic genetics explain why identical diets produce different outcomes and guide a more personalized approach.
Inflammation
Chronic low-grade inflammation is a root driver of nearly every age-related disease — cardiovascular disease, cancer, neurodegeneration. Your MTHFR and other variants influence homocysteine levels and inflammatory tone. Understanding your inflammatory genetics helps you target the lifestyle levers that matter most.
Telomere & Cellular Aging
Telomeres are the protective caps on your chromosomes that shorten with each cell division and with chronic stress. Variants near TERT and TERC influence telomerase activity and baseline telomere length — a molecular clock of biological aging. Kyronix contextualizes this alongside your lifestyle and HRV data.
Cholesterol Metabolism
Not all cholesterol risk is diet-driven. CETP variants influence HDL levels — and protective CETP variants are significantly overrepresented in centenarians. FOXO3 protective alleles are associated with enhanced stress resistance and insulin sensitivity. These are the longevity genetics worth knowing.
The biomarkers that predict healthspan — not just lifespan
Your genetics give you the blueprint — but lab biomarkers show you how the building is holding up right now. These four markers, tracked over time, are among the most predictive indicators of biological aging known to science. Here's what to track, why it matters, and how your genetics set your baseline.
A marker of systemic inflammation. Chronically elevated CRP is linked to accelerated cellular aging, cardiovascular disease, and cognitive decline. Target: <1.0 mg/L for optimal longevity. Your MTHFR status and homocysteine levels influence your baseline inflammatory tone.
Elevated homocysteine — often tied to MTHFR C677T variants — damages arterial walls and is independently associated with heart disease and dementia. It's one of the most modifiable longevity biomarkers: methylated B vitamins (B12, folate, B6) are often the fix.
Insulin resistance can precede type 2 diabetes by a decade. High fasting insulin is a key driver of metabolic aging — accelerating cardiovascular disease, neurodegeneration, and cellular senescence. Your TCF7L2 and PPARG variants set your genetic baseline for insulin sensitivity.
Lp(a) is largely genetically determined — by variants near the LPA gene — and dramatically raises cardiovascular risk independent of LDL cholesterol. Unlike LDL, it doesn't respond meaningfully to diet. Knowing your Lp(a) is critical for early cardiovascular intervention decisions.
Longevity Genetics — Common Questions
Can genetics predict how long I’ll live?
No single gene determines lifespan. But genetic variants in APOE, FOXO3, CETP, and telomere-maintenance genes are associated with cardiovascular risk, dementia risk, and cellular aging trajectories. Kyronix interprets these variants in context with your current biomarkers — giving you a probabilistic picture of risk, not a predetermined outcome.
What is biological age and how is it different from chronological age?
Chronological age is the number of years you’ve lived. Biological age reflects the actual state of your cells and tissues. Factors like HRV trend, resting heart rate, sleep quality, inflammation markers (hsCRP), and telomere-related gene variants all contribute to whether your body is aging faster or slower than the calendar. Kyronix tracks the biomarkers most predictive of biological age divergence.
What longevity-related genes does Kyronix analyze?
Kyronix analyzes variants including APOE (ε2/ε3/ε4 — cardiovascular and Alzheimer’s risk), FOXO3 (longevity-associated), CETP (HDL metabolism), ACE (blood pressure and cardiac stress response), NOS3 (vascular function), MTHFR (homocysteine and cardiovascular risk), and several telomere-related markers. Interpretation is contextual — a variant’s impact depends on your other variants and your current biomarker state.
Is Kyronix’s longevity analysis medically validated?
Kyronix is a consumer wellness application, not a medical device. The interpretations are based on peer-reviewed research associations. They are not clinical diagnoses. Always work with a physician to interpret any genetic findings in the context of your full medical history.
Do I need a DNA test to use the longevity features?
The biometric and lab tracking features work without DNA data. However, the genotype-informed longevity insights — APOE status, methylation cycle efficiency, cardiovascular genetics — require a raw DNA file from 23andMe, AncestryDNA, MyHeritage, or similar. Upload takes seconds and the file never leaves your device.
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