NAD+

NAD+ 500mg 

Compound Class: Coenzyme, Cellular Metabolism Research Compound

Package: 1 vial (500mg/vial, 2ml)

Manufacturer: Hilma Biocare

Info: NAD+ (Nicotinamide Adenine Dinucleotide) is a naturally occurring coenzyme found in virtually all living cells. It plays an essential role in cellular metabolism, particularly in biochemical reactions responsible for energy production and redox balance. NAD+ has become an important subject of scientific research due to its involvement in mitochondrial function, metabolic regulation, DNA repair mechanisms, and cellular stress responses.

NAD+ exists in oxidized and reduced forms and functions as an electron carrier in numerous metabolic pathways. Its biological role has attracted considerable interest in research related to cellular energy, mitochondrial activity, aging biology, and metabolic processes. NAD+-dependent enzymes, including sirtuins and PARP proteins, also rely on NAD+ for their activity, further contributing to its importance in cellular research.

NAD+ Profile

NAD+ is not an anabolic or androgenic compound and does not belong to the class of hormonal substances. It functions primarily as a coenzyme involved in cellular energy metabolism and oxidation-reduction reactions. NAD+ is naturally present in the human body and participates in processes occurring within mitochondria and other cellular compartments.

Research into NAD+ has expanded significantly, particularly in connection with mitochondrial metabolism, cellular aging, oxidative stress, and mechanisms involved in maintaining cellular function. Its relatively broad biological involvement makes it a subject of interest across multiple areas of biochemical and molecular research.

Effects

• NAD+ is involved in cellular energy production and metabolic reactions.

• It functions as an important electron carrier in oxidation-reduction processes.

• NAD+ plays a role in mitochondrial energy metabolism and cellular respiration.

• It is required for the activity of several NAD+-dependent enzymes, including sirtuins and PARPs.

• NAD+ is being investigated for its relationship with cellular stress-response mechanisms.

• Research has examined its involvement in DNA repair and genomic maintenance pathways.

• NAD+ metabolism is an active area of research concerning age-related cellular changes.

• It is also studied in relation to metabolic regulation, mitochondrial function, and oxidative balance.