Neuro Basic Profile (Labrix, Doctor's Data)

20 biomarkers Sample: Urine Peer-reviewed

Biomarkers in this category

20 biomarkers · optimal ranges shown

Creatinine
Urine

Creatinine values are measured to correct results for urine dilution

Dopamine
Urine

responsible for regulating the pleasure reward pathway, memory and motor control.

Glycine
Urine

Amino acid with important functions within the body.

Serotonin
Urine

a key neurotransmitter that is involved in the regulation of sleep, appetite and aggression.

Tryptamine
Urine

What is Tryptamine? Tryptamine is a naturally occurring compound in the body that belongs to the indoleamine family, which is closely related to neurotransmitters like serotonin (5-HT) and melatonin. Structurally, tryptamine is derived from the essential amino acid tryptophan, and it acts as both a metabolic byproduct and a signaling molecule in the brain and gut. Although tryptamine itself is not one of the primary neurotransmitters, it serves as a building block and modulator for several important neurochemicals that regulate mood, sleep, cognition, and gut function. In recent years, tryptamine has also been recognized for its role in the gut-brain axis, where it can influence serotonin release and communication between intestinal microbes and the nervous system. Why is Tryptamine Measured in Urine? Urinary measurement of tryptamine provides insights into: Serotonin metabolism – since tryptamine is an intermediate in the biochemical pathway of serotonin and melatonin. Gut microbiome activity – certain bacteria in the digestive tract produce tryptamine, linking results to gastrointestinal and microbiome health. Neurotransmitter balance – abnormal levels can reflect imbalances in mood-regulating pathways and stress response. This marker helps clinicians assess whether neurotransmitter imbalances are contributing to symptoms such as anxiety, depression, insomnia, fatigue, or digestive disturbances. Factors That Influence Tryptamine Levels Several lifestyle, biological, and environmental factors can affect tryptamine results: Dietary protein and tryptophan intake (e.g., turkey, eggs, seeds, legumes) Gut microbiome composition (presence of bacteria that metabolize tryptophan into tryptamine) Chronic stress and cortisol levels Inflammation and immune activity (which shift tryptophan metabolism toward kynurenine instead of serotonin/tryptamine) Genetic differences in enzymes (e.g., tryptophan decarboxylase) Supporting Healthy Tryptamine Balance If imbalances are detected, possible strategies may include: Optimizing tryptophan intake – through a balanced diet or supplementation (if appropriate). Gut health support – probiotics, prebiotics, and reducing dysbiosis may help regulate microbial tryptamine production. Stress management – mindfulness, exercise, and adequate sleep support balanced serotonin turnover. Addressing inflammation – working with a clinician to identify chronic inflammatory drivers that may shift tryptophan metabolism. Key Takeaway Tryptamine is a lesser-known but important biochemical marker that connects neurotransmitter health, gut microbiome activity, and mood regulation. Abnormal levels may reflect serotonin pathway imbalances, stress physiology, or gut-related changes. Interpreting tryptamine in context with other neurotransmitters (such as serotonin, dopamine, and GABA) helps provide a fuller picture of an individual’s neurochemical balance and overall well-being. Would you like me to also draft a shorter tooltip-style version for use in HealthMatters.io test result pages, alongside this long-form copy? That way you’ll have both patient-friendly educational depth and a quick-scan summary.

Tyrosine
Urine

What is Tyrosine? Tyrosine is a non-essential amino acid derived from phenylalanine, another dietary amino acid. While the body can make tyrosine from phenylalanine, it is also obtained directly from protein-rich foods such as chicken, fish, eggs, dairy, soy, nuts, and legumes. Tyrosine is especially important because it serves as the precursor to several major neurotransmitters and hormones, including: Dopamine – a key chemical for motivation, focus, and reward. Norepinephrine (noradrenaline) – involved in attention, stress response, and alertness. Epinephrine (adrenaline) – essential for the body’s “fight-or-flight” response. Thyroid hormones (T3 and T4) – critical for metabolism, energy, and growth. Because of this, urinary tyrosine levels provide valuable information about amino acid metabolism, neurotransmitter balance, and stress or thyroid-related physiology. Why is Tyrosine Measured in Urine? Measuring tyrosine in urine helps clinicians understand how well the body is processing amino acids and producing neurotransmitters. Abnormal levels may reflect issues with: Dietary intake or absorption of protein Stress physiology and adrenal activity Thyroid hormone synthesis Mood and cognitive health (since dopamine and norepinephrine depend on tyrosine) This marker is particularly useful when evaluating symptoms like fatigue, mood swings, poor concentration, anxiety, or low motivation. Factors That Influence Tyrosine Levels Dietary protein intake (meat, dairy, soy, legumes, nuts, seeds) Stress and adrenal activity Thyroid function Digestive health and absorption capacity Cofactor nutrients (iron, vitamin C, folate, B6, copper) Supporting Healthy Tyrosine Balance Balancing tyrosine involves both nutritional support and lifestyle strategies: Adequate protein intake – especially from tyrosine-rich foods. Cofactor nutrients – iron, vitamin C, folate, copper, and B vitamins support tyrosine’s conversion into neurotransmitters. Stress management – regular sleep, exercise, and mindfulness practices help optimize neurotransmitter use. Thyroid health monitoring – since tyrosine is directly involved in thyroid hormone synthesis. Key Takeaway Tyrosine is a critical amino acid that connects diet, brain chemistry, stress response, and thyroid function. Abnormal urinary levels may reflect imbalances in protein metabolism, neurotransmitter production, or endocrine health. Interpreting tyrosine in context with other neurotransmitters (such as dopamine, norepinephrine, and serotonin) provides a more complete picture of a person’s mental, metabolic, and overall health.