Succinyl CoA becomes succinic acid using succinyl CoA synthetase. This reaction produces NADH which directly provides electrons for the electron transport chain or respiratory chain. Succinic acid requires the enzyme succinate dehydrogenase to become fumarate. This enzyme is ironbased and requires vitamin B2 to support flavin adenine dinucleotide (FAD) as a redox coenzyme. Succinate dehydrogenase plays a critical role in mitochondrial metabolism. Impairment of this enzyme’s activity has been linked to a variety of diseases such as cancer and neurodegenerative diseases.

Succinate (or succinic acid) is an important metabolite that is involved in several chemical processes in the body.

Succinate (or succinic acid) is an important metabolite that is involved in several chemical processes in the body.

Succinyl CoA becomes succinic acid using succinyl CoA synthetase. This reaction produces NADH which directly provides electrons for the electron transport chain or respiratory chain. Succinic acid requires the enzyme succinate dehydrogenase to become fumarate. This enzyme is ironbased and requires vitamin B2 to support flavin adenine dinucleotide (FAD) as a redox coenzyme. Succinate dehydrogenase plays a critical role in mitochondrial metabolism. Impairment of this enzyme’s activity has been linked to a variety of diseases such as cancer and neurodegenerative diseases.

Succinate (or succinic acid) is an important metabolite that is involved in several chemical processes in the body.

Succinyl CoA becomes succinic acid using succinyl CoA synthetase. This reaction produces NADH which directly provides electrons for the electron transport chain or respiratory chain. Succinic acid requires the enzyme succinate dehydrogenase to become fumarate. This enzyme is ironbased and requires vitamin B2 to support flavin adenine dinucleotide (FAD) as a redox coenzyme. Succinate dehydrogenase plays a critical role in mitochondrial metabolism. Impairment of this enzyme’s activity has been linked to a variety of diseases such as cancer and neurodegenerative diseases.

Succinyl CoA becomes succinic acid using succinyl CoA synthetase. This reaction produces NADH which directly provides electrons for the electron transport chain or respiratory chain. Succinic acid requires the enzyme succinate dehydrogenase to become fumarate. This enzyme is ironbased and requires vitamin B2 to support flavin adenine dinucleotide (FAD) as a redox coenzyme. Succinate dehydrogenase plays a critical role in mitochondrial metabolism. Impairment of this enzyme’s activity has been linked to a variety of diseases such as cancer and neurodegenerative diseases.

Succinylacetone (SA) is used for the diagnosis and monitoring of patients with tyrosinemia type I (Tyr I). Succinylacetone is exclusively elevated in blood and urine of patients with tyrosinemia type I . As urinary Succinylacetone concentration is much higher than blood, Succinylacetone is usually tested in urine samples.

Sulfate is associated with your body’s use of glutathione, an amino acid critical for removing toxins that is also a powerful antioxidant.

Sulfocysteine is the product of sulfite-dependent cleavage of cystine. In the pathway, cysteine becomes sulfite, which converts to sulfate via sulfite oxidase + Mo. If the pathway is blocked, sulfocysteine builds up.

Sulfocysteine is the product of sulfite-dependent cleavage of cystine. In the pathway, cysteine becomes sulfite, which converts to sulfate via sulfite oxidase + Mo. If the pathway is blocked, sulfocysteine builds up.

Sulfur, an essential mineral, plays a pivotal role in various metabolic processes, including the synthesis of amino acids like methionine and cysteine, and in the production of glutathione, a critical antioxidant that protects cells from damage caused by free radicals and heavy metals. Elevated levels of sulfur in urine can indicate a high intake of sulfur-rich foods, such as cruciferous vegetables, garlic, and onions, or supplements containing sulfur amino acids. Conversely, low sulfur levels may suggest dietary deficiencies or impaired sulfur metabolism, potentially linked to conditions like reduced glutathione synthesis, impaired detoxification pathways, and metabolic dysregulation. Additionally, sulfur is involved in the methylation process, a critical biochemical pathway essential for DNA synthesis and repair, neurotransmitter production, and the regulation of gene expression. 

Sulfur levels in hair analysis can provide valuable insights into an individual's health and nutritional status. Here's what sulfur signifies in hair analysis:

→ Dietary Sulfur Intake: Sulfur is an essential mineral that is obtained through the diet, primarily from sulfur-containing amino acids like cysteine and methionine. Hair analysis can indicate the individual's dietary sulfur intake.

→ Protein and Keratin Formation: Sulfur is a critical component of proteins, including the protein keratin found in hair. Adequate sulfur levels are necessary for the formation of strong and healthy hair.

→ Detoxification Processes: Sulfur is also involved in the body's detoxification processes. Sulfur-containing compounds help the body eliminate toxins and heavy metals, and hair analysis can reveal how effectively these processes are functioning.

→ Hair Health: Low sulfur levels in hair may suggest potential issues with hair health and growth. It can be associated with conditions like brittle or thinning hair.

→ Nutritional Status: Sulfur levels in hair can reflect an individual's overall nutritional status. Low sulfur levels may indicate a deficiency in sulfur-containing amino acids or other nutrients in the diet.

→ Toxic Exposure: On the other hand, excessively high sulfur levels in hair may be a sign of exposure to environmental pollutants or sulfur-containing compounds.

It's important to note that interpreting hair analysis results, including sulfur levels, should be done by healthcare professionals or experts in the field. The significance of sulfur levels can vary from person to person, and a comprehensive assessment of the individual's health, diet, and environmental factors is necessary for a more accurate understanding of the implications.

Normal CSF is crystal clear. However, as few as 200 white blood cells (WBCs) per mm3 or 400 red blood cells (RBCs) per mm3 will cause CSF to appear turbid (=cloudy).

Xanthochromia is a yellow, orange, or pink discoloration of the CSF, most often caused by the lysis of RBCs resulting in hemoglobin breakdown to oxyhemoglobin, methemoglobin, and bilirubin.

Sutterella wadsworthensis is a fascinating microbe that's part of the normal gut flora in many people. This gram-negative, non-spore-forming bacterium is known for its ability to thrive in bile-rich environments, which explains its presence in the intestines and bile ducts. While S. wadsworthensis is found in about 50-60% of healthy individuals, its role in gut health is still being explored. On a BiomeFX report, elevated levels of S. wadsworthensis might catch your attention. This could indicate potential changes in your gut microbiome balance, possibly linked to dietary factors like high consumption of saturated fats or taurine-rich foods. Some studies have associated higher levels of S. wadsworthensis with conditions like inflammatory bowel disease and autism spectrum disorders, though the exact relationship is still under investigation. It's important to note that while its presence isn't inherently harmful, an overgrowth might be worth discussing with your healthcare provider, especially if you're experiencing any digestive issues or have concerns about your metabolic health.