AEON White™ NAD+ Liposomal Longevity Complex with Curcumin & AKG

Nicotinamide DUO™ combines two forms of nicotinamide designed to support NAD+ metabolism — a coenzyme involved in cellular energy processes.

1. Cellular Energy & Metabolic Function

1.1 NAD+ plays a central role in mitochondrial function and cellular energy production.

1.2 Maintaining healthy NAD+ levels is an area of growing scientific interest in longevity and metabolic research.

2. Muscle & Physical Performance Research

2.1 NAD+ metabolism has been studied in relation to muscle function and physical capacity.

2.2 Research in ageing populations continues to explore its role in supporting normal muscle maintenance.

3. Cognitive & Neurological Research

3.1 NAD+ is involved in cellular processes within the brain.

3.2 Ongoing research is investigating its role in cellular energy metabolism and oxidative stress pathways.

4. Ageing & Cellular Maintenance Research

4.1 NAD+ levels naturally decline over time, and this decline has been widely studied in longevity science.

4.2 Maintaining NAD+ metabolism is an active area of research in healthy ageing.

5. Metabolic Health Research

5.1 NAD+ is involved in pathways related to glucose metabolism and cellular signalling.

5.2 Research continues to explore its broader role in metabolic function and body composition.

Curcumin is a bioactive compound derived from turmeric that has been widely studied for its role in cellular signalling and oxidative balance.

1. Oxidative Stress Research

Curcumin has been investigated for its interaction with antioxidant pathways and its role in maintaining cellular redox balance.

2. Inflammation Pathway Research

It has been studied for its involvement in cellular signalling pathways related to inflammatory responses.

3. Cellular & Metabolic Research

Curcumin is an active area of research in metabolic and mitochondrial function studies.

4. Brain & Cognitive Research

Research continues to explore curcumin’s role in neuronal signalling pathways and cellular energy metabolism.

5. Cardiovascular Research

Curcumin has been studied in relation to endothelial function and vascular health pathways.

6. Digestive & Microbiome Research

Ongoing research is examining curcumin’s interaction with gut-associated cellular processes.

1. Cellular Energy Metabolism

AKG plays a central role in the Krebs cycle, a core metabolic pathway responsible for cellular energy production (ATP).

2. Longevity & Ageing Research

AKG has been studied in ageing research models due to its involvement in metabolic regulation and cellular signalling pathways.

3. Muscle & Structural Tissue Research

AKG participates in amino acid metabolism and nitrogen balance, areas that are actively studied in relation to muscle maintenance and structural protein synthesis.

4. Bone & Collagen Research

Research continues to explore AKG’s involvement in pathways associated with collagen formation and mineral metabolism.

5. Gut & Cellular Integrity Research

AKG has been examined for its role in cellular energy support within rapidly renewing tissues.

6. Nitrogen Metabolism

AKG contributes to nitrogen transport and metabolic balance as part of normal amino acid processing.

7. Mitochondrial & Metabolic Research

Due to its role in mitochondrial pathways, AKG remains an active area of research in metabolic and cellular function.

Apigenin is a naturally occurring flavonoid found in plants such as parsley and chamomile. It is widely studied for its role in cellular signalling and neurological pathways.

1. Nervous System & Sleep Research

Apigenin has been investigated for its interaction with GABA-related pathways, which are involved in relaxation and normal sleep regulation.

2. Stress & Neurotransmitter Research

Research continues to explore apigenin’s influence on neurotransmitter signalling and nervous system balance.

3. Inflammation Pathway Research

Apigenin has been studied for its involvement in cellular pathways related to inflammatory signalling and immune function.

4. Oxidative Stress Research

As a flavonoid, apigenin has been examined for its interaction with antioxidant pathways and cellular redox balance.

5. Hormone Pathway Research

Preclinical research has explored apigenin’s interaction with certain enzyme systems involved in hormone metabolism.

6. Brain & Cognitive Research

Apigenin remains an active area of research in neuronal signalling and mitochondrial function studies.

7. Cardiovascular Research

Research continues to examine apigenin’s involvement in vascular and endothelial pathways.

8. Ageing & Cellular Research

Apigenin has been included in longevity-related research models due to its role in cellular signalling processes.

Glycine is a naturally occurring amino acid involved in multiple physiological processes, including protein synthesis, neurotransmission and metabolic regulation.

1. Nervous System Research

Glycine functions as a neurotransmitter and is studied for its role in central nervous system signalling pathways.

2. Sleep & Circadian Research

Research has explored glycine’s involvement in pathways related to relaxation and thermoregulation, both of which are associated with normal sleep physiology.

3. Cellular & Mitochondrial Research

Glycine participates in metabolic pathways linked to mitochondrial function and cellular energy processes.

4. Collagen & Structural Protein Synthesis

As a primary component of collagen, glycine plays a role in connective tissue structure and protein formation.

5. Antioxidant Pathway Research

Glycine contributes to the synthesis of glutathione, a compound involved in cellular redox balance.

6. Metabolic Research

Glycine is involved in glucose and nitrogen metabolism, areas that remain active fields of research in metabolic science.

7. Cardiovascular & Vascular Research

Ongoing research continues to explore glycine’s interaction with vascular and nitric oxide-related pathways.

8. Digestive & Nutrient Processing Research

Glycine is involved in bile acid production and broader digestive metabolic processes.

Taurine is a sulfur-containing amino acid naturally present in the body and involved in multiple physiological processes, particularly in the nervous system, cardiovascular system and skeletal muscle.

1. Cellular & Energy Metabolism

Taurine participates in mitochondrial function and cellular energy pathways.

2. Electrolyte & Cellular Balance

It plays a role in maintaining cellular hydration and electrolyte transport across cell membranes.

3. Cardiovascular Research

Taurine has been studied in relation to vascular and cardiac cellular signalling pathways.

4. Neurological Research

As a neuromodulatory compound, taurine is involved in neurotransmitter balance and nervous system signalling processes.

5. Retinal & Structural Tissue Research

Taurine is naturally concentrated in retinal tissue and remains an active area of research in visual physiology.

6. Metabolic Research

Taurine is involved in glucose and lipid metabolism pathways that are widely studied in metabolic science.

7. Oxidative Stress Research

Research continues to examine taurine’s interaction with cellular redox balance and oxidative stress pathways.

8. Longevity & Ageing Research

Emerging research has explored taurine levels in relation to ageing biology and cellular resilience.

Astaxanthin is a naturally occurring carotenoid found in microalgae and marine organisms. It is widely studied for its interaction with cellular antioxidant systems.

1. Oxidative Stress Research

Astaxanthin has been examined for its role in cellular redox balance and free radical signalling pathways.

2. Skin & UV Research

Research continues to explore astaxanthin’s interaction with oxidative pathways involved in skin physiology.

3. Ocular Research

Astaxanthin is studied in relation to retinal tissue due to its presence in visual system research models.

4. Neurological Research

As a lipid-soluble carotenoid, astaxanthin has been examined for its role in neuronal membrane and mitochondrial studies.

5. Cardiovascular Research

Astaxanthin has been included in research investigating lipid metabolism and vascular signalling pathways.

6. Exercise & Mitochondrial Research

Due to its antioxidant properties, astaxanthin is studied in relation to cellular energy metabolism and physical stress models.

7. Immune & Inflammatory Pathway Research

Research continues to examine astaxanthin’s involvement in cellular immune signalling processes.

8. Longevity & Ageing Research

Astaxanthin remains an area of interest in ageing research due to its interaction with oxidative and metabolic pathways.

Lithium is a naturally occurring trace element found in small amounts in water and plant-based foods. In nutritional contexts, low-dose lithium is studied for its role in cellular signalling pathways.

1. Neurological Research

Lithium has been investigated for its interaction with intracellular signalling systems involved in neuronal communication and cellular resilience.

2. Cellular Signalling Pathways

Research has explored lithium’s interaction with enzyme systems such as glycogen synthase kinase (GSK-3), which is involved in multiple cellular regulatory processes.

3. Brain Ageing Research

Lithium remains an active area of research in models examining cellular maintenance and neuronal health over time.

4. Mood & Behaviour Research

Observational research has examined trace lithium exposure in relation to population-level behavioural outcomes.

5. Autophagy & Cellular Maintenance Research

Lithium has been studied in preclinical models for its role in cellular recycling pathways.

6. Longevity Research

Lithium has been included in ageing-related research models exploring cellular signalling and resilience mechanisms.