Explore a Sample Mutant Analysis

See how Mutant turns DNA and symptom context into connected biological patterns, ranked possible drivers, and an AI-ready health context that can be explored alongside medical records.

This example uses a fictional sample profile and is intended to show how the analysis is organized.

Explore the sample: Orange-outlined items are interactive. Select the highlighted pattern below to see its possible drivers and supporting evidence.

Sample Health Context

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Your Mutant Genetic Health Context Is Ready

Mutant has organized your genetic findings—and any health context you chose to provide—into biological systems, converging patterns, and ranked health hypotheses.

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What Mutant Found

Highest-Priority Health Hypotheses

Mast cell reactivity bias (MCAS-like pattern)

Your mast cells release histamine and other chemicals too easily, making many triggers feel similar.

Why this ranked high →
Cellular T3 activation bottleneck

Your cells may have a lower margin for activating thyroid hormone into T3 where energy, temperature, mood, gut motility, and recovery depend on it.

5-HT1 inhibitory feedback weakness

Your serotonin system may have a weaker or less consistent brake on neuron firing, neurotransmitter release, or threat-related activation.

Your Biological Systems

Mutant organizes related genetic patterns into four biological systems and 16 focused hubs. This sample focuses on Metabolic Reactivity; the other systems are shown for context. Each hub brings together genes, pathways, and biological processes that may contribute to a broader health hypothesis.

Histamine & Inflammatory Spillover
How histamine buildup may drive rapid, multi-system reactions.
Mast cell reactivity bias (MCAS-like pattern)

Your mast cells release histamine and other chemicals too easily, making many triggers feel similar.

HNMT intracellular / neurohistamine clearance fragility

Your intracellular histamine-clearance pathway may have less reserve, allowing histamine-related effects to persist longer when multiple triggers accumulate.

Dao Deficiency Constitutional Histamine Clearance

Dao Deficiency Constitutional Histamine Clearance may raise nighttime alertness through histamine signaling.

Methylation, Sulfur & Metabolic Stalls
How methylation and sulfur bottlenecks affect supplement tolerance.
B6 (pyridoxine) cofactor insufficiency

Your genetics may reduce your ability to process dietary B6 into its active form (PLP), creating functional deficiency.

Inherited Sulfite Oxidation Disorder

Inherited Sulfite Oxidation Disorder may contribute to this symptom pattern under the right trigger conditions.

B6 / PLP homeostasis fragility

Your body may handle vitamin B6 within a narrow range, so even small changes from supplements or fortified foods can affect sleep, mood, and nervous-system sta…

Thyroid & Cellular Energy Signaling
How thyroid signaling supports energy, digestion, temperature, and recovery.
Cellular T3 activation bottleneck

Your cells may have a lower margin for activating thyroid hormone into T3 where energy, temperature, mood, gut motility, and recovery depend on it.

Thyroid Axis Setpoint Bias

Thyroid Axis Setpoint Bias may contribute to this symptom pattern under the right trigger conditions.

Autoimmune Thyroid Susceptibility

Autoimmune Thyroid Susceptibility may contribute to this symptom pattern under the right trigger conditions.

Fuel & Mitochondrial Regulation
How your body sets, partitions, and powers its metabolic fuel across glucose, lipid, and mitochondrial axes.
Glucose Hepatic Insulin Setpoint

Glucose Hepatic Insulin Setpoint may trigger nighttime arousal through blood-sugar instability.

Lipids Triglyceride Export Partition

Lipids Triglyceride Export Partition may contribute to this symptom pattern under the right trigger conditions.

Mitochondria Deacetylation Complex1 Constraint

Mitochondria Deacetylation Complex1 Constraint may contribute to this symptom pattern under the right trigger conditions.

Mineral & Electrolyte Homeostasis
How minerals and electrolytes are absorbed, transported, conserved, and distributed.
Iron Hfe Fibrosis Modifier

Iron Hfe Fibrosis Modifier may contribute to this symptom pattern under the right trigger conditions.

Magnesium Intake Renal Setpoint

Magnesium Intake Renal Setpoint may contribute to this symptom pattern under the right trigger conditions.

Manganese Low Transport Reserve

Manganese Low Transport Reserve may contribute to this symptom pattern under the right trigger conditions.

Vitamin & Hormone Signaling
How fat-soluble vitamins form and travel, and how steroid hormones are bound and synthesized.
Retinoid Carotenoid Delivery Conversion

Retinoid Carotenoid Delivery Conversion may contribute to this symptom pattern under the right trigger conditions.

Steroid Binding Synthesis Mismatch

Steroid Binding Synthesis Mismatch may contribute to this symptom pattern under the right trigger conditions.

Vitamins D Formation Transport Context

Vitamins D Formation Transport Context may contribute to this symptom pattern under the right trigger conditions.

Biotransformation & Chemical Handling
How the body handles specific drugs and compounds through acetylation, epoxide, and sulfation pathways.
Sulfur Paps Sulfotransferase Constraint

Sulfur Paps Sulfotransferase Constraint may contribute to this symptom pattern under the right trigger conditions.

Detox Nat2 Ephx1 Substrate Constraint

Detox Nat2 Ephx1 Substrate Constraint may contribute to this symptom pattern under the right trigger conditions.

Monoamine Sulfation Capacity Context

Monoamine Sulfation Capacity Context may contribute to this symptom pattern under the right trigger conditions.

Food & Chemical Sensory Reactivity
How sensory nerves may contribute to particular food and chemical reactions.
TRPA1-associated sensory irritant reactivity

A possible sensory-nerve contribution to burning, tingling, or irritation from particular exposures.

Chili pepper heat sensitivity

A possible inherited reason why chili pepper heat feels stronger to some people.

Cold sensitivity and mint sensations

Cold and mint cooling can feel different from person to person, and they may not change in the same way.

These systems organize genetic evidence into areas for exploration. They do not diagnose a condition or establish that a biological problem is present.

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