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Supplements for healthy ageing

Muscle mass decreases by about 1% annually after age 50, impacting balance and fall prevention. Bone density and Vitamin D status decline, affecting bone load and energy metabolism. These changes occur whether or not you've measured them.

Healthy Ageing Estimated β€” not measured
Vitamin D (25-OH) 18–32 nmol/L
0reference 50–150255
Ferritin 50–150 ug/L
0reference 30–350 (male) Β· 30–200 (female)400.25
Hatched = the band we'd estimate. A panel replaces it with a value. Estimate
The physiological load

Why ageing moves these markers

Ageing alone does not dictate health outcomes. four show how specific physiological changes impact your markers.

Driver 01 Age-related decline in cutaneous vitamin D synthesis and gastric Vit D

Muscle mass decreases by about 1% annually after age 50, with fast-twitch fibers most affected. This impacts balance and fall prevention. Bone density follows a similar downward trend, especially in post-menopausal women. The same protein intake that maintained muscle at 40 is less effective now. Without adjusting diet or exercise, these declines progress unnoticed until they become significant.

Driver 02 Progressive loss of muscle mass and blunted anabolic response to

Vitamin D synthesis from sunlight is about 25% of what it was at age 20. This reduction is compounded by indoor lifestyles and Northern European latitudes, where synthesis is near zero for months. Energy metabolism relies on adequate vitamin D, but the usual outdoor activity isn't enough to maintain status. The naive approach of relying solely on diet or sun exposure often falls short.

Driver 03 Accelerated bone mineral density loss, particularly post-menopau CaVit D

Thirst perception diminishes with age, leading to unnoticed fluid deficits. Electrolyte balance, crucial for muscle function and nerve signaling, is affected as a result. Regular daily activities don't trigger the same thirst response, so dehydration can develop without obvious symptoms. A simple increase in water intake may not address the underlying electrolyte imbalance.

Driver 04 Declining thirst perception leading to unrecognised fluid defici

The starting formula

Addressing four with precision

As you age, muscle mass and bone density naturally decline, and Vitamin D synthesis reduces. These estimates guide initial assumptions, but a panel provides precise insights.

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* Claims shown are limited to authorised structure/function statements. Vitamin D contributes to the maintenance of normal muscle function. Vitamin B12 contributes to normal energy-yielding metabolism. Calcium is needed for the maintenance of normal bones. Vitamin K contributes to the maintenance of normal bones. Body+ products are food supplements and are not intended to diagnose, treat, cure or prevent any disease.

Ageing β€” starting stack Daily
Vitamin D3 50 mcg Calcium citrate is chosen for its superior absorption in individuals with lower stomach acid, common in older adults. It supports bone loading where dietary calcium is insufficient, particularly in those with low dairy intake.
Vitamin B12 (methylcobalamin) 100 mcg Vitamin D3 in cholecalciferol form is effective in maintaining bone health and energy metabolism. Measuring levels is preferred due to synthesis variability from sunlight, especially in Northern European climates where sun exposure is limited.
Creatine monohydrate 3000 mg Ubiquinol, the active form of CoQ10, is crucial for energy metabolism, particularly as endogenous synthesis declines with age. It supports mitochondrial function, which is vital for maintaining energy levels.
Calcium citrate 1200 mg The sodium-forward electrolyte blend addresses the diminished thirst perception in older adults. It helps maintain electrolyte balance during activities, preventing unnoticed dehydration and supporting muscle and nerve function.
Vitamin K2 (MK-7) 50 mcg Iron bisglycinate is preferred for iron availability due to its high absorption and low gastrointestinal discomfort. Measuring ferritin levels is crucial as they deplete before haemoglobin, providing a clearer picture of iron status.
Sodium-forward electrolyte 1000 mg
Within US supplement labelling limits Draft
The precision path

Every number above is an estimate

Bone Load is the need where guessing wrong costs most. Measuring two ensures interventions are tailored to your unique profile.

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Deeper

The Bone Load problem in ageing

Bone Load is a critical marker in ageing due to its direct impact on mobility and independence. Understanding this marker helps prevent unnoticed declines in bone density that can lead to fractures and long-term immobility.

Bone density decline Bone density decreases naturally with age, particularly after menopause in women. This decline is due to an imbalance between bone resorption and formation. Osteoclasts break down bone faster than osteoblasts can rebuild it. This process accelerates without adequate dietary calcium and vitamin D, leading to weaker bones. The decline is often asymptomatic until a fracture occurs, highlighting the need for proactive monitoring.

Research limitations Current research shows a correlation between calcium intake and bone density maintenance. However, it does not establish a direct causation for every individual. Variability in absorption and individual health conditions can affect outcomes. Studies often rely on population averages, which may not reflect personal needs. This uncertainty underscores the importance of measuring Bone Load directly rather than relying solely on dietary recommendations.

Our commitment We refuse to recommend a one-size-fits-all calcium supplement without measuring Bone Load. Simply increasing calcium intake without understanding individual absorption rates and existing bone density could lead to ineffective or even harmful outcomes. Our approach prioritizes personalized data over blanket supplementation advice, ensuring that interventions are both necessary and beneficial.

Testing and retesting Bone Load

Measure Bone Load and Vitamin D Status initially to establish a baseline. Retest these markers every 8–12 weeks to monitor changes and adjust interventions as needed. This interval allows for meaningful assessment of bone density trends and the effectiveness of any dietary or lifestyle changes. Regular monitoring ensures that interventions remain aligned with individual needs.

Adjacent profiles

Closest load patterns to this one