Endometriosis at the metal–microbe–immune interface
How low-nickel dietary responses, red meat and heme iron, microbial signals, and nutritional immunity define a research program in endometriosis.
Microbial Metallomics
Browse connected writing by metal and research theme. These collections organize what the site covers; a shared topic is not evidence of a causal relationship.
Choose a topic to browse the evidence library.
How low-nickel dietary responses, red meat and heme iron, microbial signals, and nutritional immunity define a research program in endometriosis.
How transferrin, ferritin, haptoglobin and hemopexin route iron, protect tissue and face microbial piracy—and which experiments distinguish those effects.
Milk-thistle chemistry can bind or reduce metals, but nickel protection, lead measurements and human liver trials answer different mechanistic questions.
How lactoferrin withholds iron, disrupts microbial behavior, and faces bacterial countermeasures—and what oral human studies actually establish.
How hepcidin controls ferroportin, redistributes iron during inflammation, and creates different tradeoffs for microbes and red-cell production.
How glutathione supports enzymes, binds metals and enters mitochondria—and what drug metabolism does and does not establish about shared cellular reserve.
Dementia brain-metal signatures reveal regional copper loss and iron gain. A critical review connects these patterns to testable microbial-metallomics research.
Alzheimer’s brain copper loss and regional iron and zinc changes reveal a spatial disease signature—and define experiments for microbial metallomics.
A full review of Jaeggi et al. (Gut 2015): iron-fortified porridge increased pathogenic E. coli and enterobacteria, cut bifidobacteria, and inflamed the gut in Kenyan infants.
Metals change microbial ecology; microbes change metal chemistry; inflammation changes local metal access. Follow the mechanisms connecting exposure, nutritional immunity, and disease.
How heavy-metal exposure may reshape the gut microbiome and feed gut-first alpha-synuclein pathology in Parkinson's disease - a metallomic-microbiome view.
Unabsorbed iron can alter the gut microbiome and intestinal inflammation. Human trials show that effects on diarrhea vary by setting and formulation.
A metallomics framework reframes Parkinson's as metal dyshomeostasis: iron, manganese, copper, zinc and nickel dysregulation drives dysbiosis and neuron loss.
A hypothesis linking MC1R red-hair variants to Parkinson's risk via melanin-metal chemistry: how copper, zinc, and iron shape neuromelanin's redox buffering.
Meta-analyses show oral lactoferrin can match or outperform ferrous sulfate for iron repletion, lowering IL-6 and hepcidin with fewer gut side effects.
A randomized trial shows the probiotic Lactobacillus plantarum 299v reduces oral iron side effects and improves iron status in iron-deficiency anemia patients.
Systematic review of iron/zinc-biofortified bean and wheat diets in the Gallus gallus model: staples raised SCFA-producing Lactobacillus and cut enteric pathogens.
A 21-day randomized placebo-controlled trial found ferrous fumarate did not significantly alter fecal microbiome composition in Australian reproductive-age women.
Iron fortification shifts the infant gut microbiome toward enterobacteria and pathogenic E. coli, cutting protective bifidobacteria and raising diarrhea risk.
In a Kenyan infant RCT, adding prebiotic GOS/FOS to iron-fortified cereal raised iron absorption 60% and reduced gut inflammation, pathogens, and dysbiosis.
How the host uses iron, zinc, manganese and copper handling as nutritional immunity to starve or poison pathogens, plus metal-based therapeutic strategies.
How zinc, iron, manganese, and copper availability shapes neutrophil and macrophage function during infection through nutritional immunity, calprotectin, and phagosomal metal handling.
Clinical review of deferoxamine, deferiprone, and deferasirox for transfusion iron overload in thalassemia, covering cardiac and hepatic iron outcomes measured by MRI T2*.
Gallium substitutes for iron to sabotage Pseudomonas aeruginosa iron metabolism. A Phase 1 CF trial (Goss et al., Sci Transl Med 2018) found IV gallium improved lung function.
A proteome-wide scan of bread wheat mapped ~600 iron-binding proteins with Fe(II)/Fe(III) sites coordinated by His, Glu, Asp and Cys, aiding metallomics.
Colorectal cancer metal maps reveal distinct copper and iron neighborhoods. What they measured, and how to test microbial access, host response and disease.
Native metalloproteomics maps how Pseudomonas aeruginosa partitions iron across four protein complexes, with denitrification raising iron demand in anoxia.
How iron-sulfur (Fe-S) cluster biogenesis and oxygen shape human disease: NFS1 in lung cancer, hyperoxia injury, and hypoxia therapy for Friedreich ataxia.