Table 3

The multiple metabolic toxicities of the A-FLIGHT-U acronym

Multiple injurious stimuli responsible for the production of ROS.

A
Angiotensin II (also induces protein kinase C – β isoform)
Amylin (hyperamylinemia) islet amyloid polypeptide toxicity
AGEs/AFEs (advanced glycosylation/fructosylation endproducts)
Apolipoprotein B
Antioxidant reserve compromised
Absence of antioxidant network
Aging
ADMA (Asymmetrical DiMethyl Arginine)
Adipose toxicity: Obesity toxicity – Lipid Triad (decreased HDL-C, increased triglycerides and small dense LDL-C)
Adipocytokine toxicity: Increased TNF alpha, Il-6, TGF beta, PAI-I and the increased hormones resistin, leptin and decreased adiponectin.
F
Free fatty acid toxicity: Obesity toxicity – Lipid Triad
L
Lipotoxicity – Hyperlipidemia – Obesity toxicity – Lipid Triad
Leptin toxicity
I
Insulin toxicity (endogenous hyperinsulinemia-hyperproinsulinemia)
IGF-1 – (GH-IGF-I axis) toxicity: This may serve to increase bone metabolism within the media of the AVW
Inflammation toxicity
G
Glucotoxicity (compounds peripheral insulin resistance) and induces reductive stress through the sorbitol/polyol pathway
Pseudohypoxia (increased NADH/NAD ratio)
H
Hypertension toxicity
Homocysteine toxicity
hs-CRP
T
Triglyceride toxicity: Obesity toxicity – Lipid Triad
U
Uric Acid – Xanthine Oxidase toxicity: Uric acid is an antioxidant early in physiological range of atherogenesis and a conditional prooxidant late when elevated through xanthine oxidase enzyme and generation of ROS: thus generating the paradoxical (antioxidant → prooxidant):

URATE REDOX SHUTTLE

Endothelial cell dysfunction with eNOS uncoupling, decreased eNO and increased

ROS

Hayden et al. Cardiovascular Diabetology 2005 4:4   doi:10.1186/1475-2840-4-4