Your biological age reflects the current state of your body at a cellular level.
Unlike chronological age, which increases steadily over time, biological age can move faster or slower depending on how your body responds to factors such as stress, nutrition, physical activity, sleep, and environmental exposure.
At the core of this measurement are epigenetic signals — small chemical markers that regulate how your genes are expressed. These markers don’t change your DNA itself, but they influence how your body reads and uses it.
A lower biological age suggests that your body is maintaining resilience and repair mechanisms effectively. A higher biological age may indicate increased stress on these systems and a greater need for targeted lifestyle changes.
How we calculated your result
Your result is based on the analysis of DNA methylation — a well-established biomarker of aging. DNA methylation refers to chemical tags that attach to specific regions of your DNA and influence how genes are activated or silenced. These patterns evolve throughout your life and are strongly associated with aging processes.
By combining signals into a validated model, we can calculate your biological age with a high degree of accuracy.
How reliable are your results?
The accuracy of biological age depends on the quality of the DNA sample. Your sample was assessed using internal quality metrics that evaluate the consistency and integrity of the DNA signal.
In case the sample quality was good, which means the results can be considered reliable and representative of your biological state. In some cases, lower sample quality can slightly affect precision — but even then, results still provide valuable directional insights into aging patterns.
What your results suggest about your health
Your current biological profile suggests that your body is maintaining a relatively balanced aging process. Key systems responsible for cellular repair, stress response, and metabolic regulation appear to function within expected ranges.
However, aging is influenced by cumulative factors over time. Even small improvements in daily habits can significantly impact how these systems perform in the long term:
Regular physical activity is one of the most effective ways to slow biological aging. Movement supports mitochondrial function, improves circulation, and activates cellular repair pathways. It also plays a critical role in maintaining muscle mass, which is strongly associated with longevity.
Your diet directly influences inflammation, metabolic balance, and cellular repair processes. Diets rich in whole foods — including vegetables, legumes, healthy fats, and lean proteins — are associated with slower biological aging. Reducing processed foods and excess sugar can help minimize oxidative stress and improve long-term health outcomes.
Sleep is essential for DNA repair and overall system recovery. Poor sleep quality has been linked to accelerated aging, impaired cognitive function, and increased risk of chronic disease. Maintaining a consistent sleep schedule and aiming for 7–8 hours per night can significantly improve biological resilience.
Chronic stress impacts hormonal balance and accelerates cellular wear. Practices such as mindfulness, meditation, and regular downtime can help regulate stress responses and support long-term health.
This means your current result should not be seen as a fixed outcome, but rather as a starting point — a measurable baseline that can improve consistent action.
