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SA-β-Galactosidase-Based Screening Assay for the Identification of Senotherapeutic Drugs
Published on: June 28, 2019
Repurposing SGLT-2 Inhibitors to Target Aging: Available Evidence and Molecular Mechanisms
Rosalba La Grotta1, Chiara Frigé1, Giulia Matacchione2
1IRCCS MultiMedica, Polo Scientifico e Tecnologico, Via Fantoli 16/15, 20138 Milan, Italy.
Abstract:
Caloric restriction promotes longevity in multiple animal models. Compounds modulating nutrient-sensing pathways have been suggested to reproduce part of the beneficial effect of caloric restriction on aging. However, none of the commonly studied caloric restriction mimetics actually produce a decrease in calories. Sodium-glucose cotransporter 2 inhibitors (SGLT2-i) are a class of drugs which lower glucose by promoting its elimination through urine, thus inducing a net loss of calories. This effect promotes a metabolic shift at the systemic level, fostering ketones and fatty acids utilization as glucose-alternative substrates, and is accompanied by a modulation of major nutrient-sensing pathways held to drive aging, e.g., mTOR and the inflammasome, overall resembling major features of caloric restriction. In addition, preliminary experimental data suggest that SGLT-2i might also have intrinsic activities independent of their systemic effects, such as the inhibition of cellular senescence. Consistently, evidence from both preclinical and clinical studies have also suggested a marked ability of SGLT-2i to ameliorate low-grade inflammation in humans, a relevant driver of aging commonly referred to as inflammaging. Considering also the amount of data from clinical trials, observational studies, and meta-analyses suggesting a tangible effect on age-related outcomes, such as cardiovascular diseases, heart failure, kidney disease, and all-cause mortality also in patients without diabetes, here we propose a framework where at least part of the benefit provided by SGLT-2i is mediated by their ability to blunt the drivers of aging. To support this postulate, we synthesize available data relative to the effect of this class on: 1- animal models of healthspan and lifespan; 2- selected molecular pillars of aging in preclinical models; 3- biomarkers of aging and especially inflammaging in humans; and 4- COVID-19-related outcomes. The burden of evidence might prompt the design of studies testing the potential employment of this class as anti-aging drugs.
Insights
Sodium-glucose cotransporter 2 inhibitors (SGLT2-i) induce calorie loss, mimicking caloric restriction
Area of Science:
- Gerontology
- Metabolic Diseases
- Pharmacology
Background:
- Caloric restriction (CR) extends lifespan in animal models.
- Nutrient-sensing pathway modulators may replicate CR benefits.
- Existing CR mimetics do not induce calorie loss.
Purpose of the Study:
- To propose a framework where SGLT2 inhibitors (SGLT2-i) act as anti-aging drugs.
- To synthesize evidence on SGLT2-i effects on aging drivers.
- To explore SGLT2-i potential in age-related diseases.
Main Methods:
- Review of preclinical and clinical studies on SGLT2-i.
- Analysis of SGLT2-i effects on animal models of healthspan and lifespan.
- Synthesis of data on SGLT2-i impact on aging biomarkers, including inflammaging.
- Examination of SGLT2-i outcomes in COVID-19 patients.
Main Results:
- SGLT2-i induce net calorie loss via urinary glucose excretion.
- SGLT2-i promote metabolic shifts, ketone utilization, and modulate aging pathways (mTOR, inflammasome).
- SGLT2-i show potential anti-aging effects, including inhibition of cellular senescence and amelioration of inflammaging.
- Clinical data suggest SGLT2-i improve age-related outcomes (cardiovascular, kidney disease, mortality) even in non-diabetic individuals.
Conclusions:
- SGLT2-i may exert anti-aging effects by blunting key aging drivers.
- The evidence supports further investigation of SGLT2-i as potential anti-aging therapeutics.
- SGLT2-i demonstrate broad benefits across aging spectrum, from molecular pathways to clinical outcomes.
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