Complications Trial /Epidemiology of Diabetes I, Complications Research G: Risk Factors for Retinopathy in Type 1 Diabetes: The DCCT/EDIC Study, Diabetes Care, vol.42, pp.875-882, 2019. ,
Simultaneous Control of Hyperglycemia and Oxidative Stress Normalizes Endothelial Function in Type 1 Diabetes, Diabetes Care, vol.30, pp.649-654, 2007. ,
Mitochondrial superoxide plays a crucial role in the development of mitochondrial dysfunction during high glucose exposure in rat renal proximal tubular cells, Free Radic Biol Med, vol.46, pp.1149-1157, 2009. ,
Transfer factor for carbon monoxide in patients with diabetes with and without microangiopathy, Thorax, vol.43, pp.725-726, 1988. ,
Impaired diffusing capacity for carbon monoxide in children with type 1 diabetes: is this the first sign of long-term complications, Acta Diabetol, vol.49, pp.159-164, 2012. ,
Type 1 Diabetes Duration Decreases Pulmonary Diffusing Capacity during Exercise, Respiration, vol.91, pp.164-170, 2016. ,
Glycemic control and cardiopulmonary function in patients with insulin-dependent diabetes mellitus, Am J Med, vol.103, pp.504-513, 1997. ,
Muscle oxygen supply impairment during exercise in poorly controlled type 1 diabetes, Med Sci Sports Exerc, vol.47, pp.231-239, 2015. ,
Altered energetic properties in skeletal muscle of men with well-controlled insulin-dependent (type 1) diabetes, Am J Physiol Endocrinol Metab, vol.284, pp.655-662, 2003. ,
Mitochondrial capacity is affected by glycemic status in young untrained women with type 1 diabetes but is not impaired relative to healthy untrained women, Am J Physiol Regul Integr Comp Physiol, vol.301, pp.60-66, 2011. ,
Delayed skeletal muscle mitochondrial ADP recovery in youth with type 1 diabetes relates to muscle insulin resistance, Diabetes, vol.64, pp.383-392, 2015. ,
Influence of physical training on formation of muscle capillaries in type I diabetes, Diabetes, vol.33, pp.851-857, 1984. ,
Sprint training increases muscle oxidative metabolism during high-intensity exercise in patients with type 1 diabetes, Diabetes Care, vol.31, pp.2097-2102, 2008. ,
Metabolic profile and nitric oxide synthase expression of skeletal muscle fibers are altered in patients with type 1 diabetes, Exp Clin Endocrinol Diabetes, vol.116, pp.606-613, 2008. ,
Analysis of mitochondrial function in situ in permeabilized muscle fibers, tissues and cells, Nat Protoc, vol.3, pp.965-976, 2008. ,
Altered mitochondrial bioenergetics and ultrastructure in the skeletal muscle of young adults with type 1 diabetes, Diabetologia, vol.61, pp.1411-1423, 2018. ,
Development of questionnaire to examine relationship of physical activity and diabetes in Pima Indians, Diabetes Care, vol.13, pp.401-411, 1990. ,
Estimating exercise stroke volume from asymptotic oxygen pulse in humans, J Appl Physiol, vol.81, pp.2674-2679, 1985. ,
CORP: Understanding near infrared spectroscopy (NIRS) and its application to skeletal muscle research, J Appl Physiol, 1985. ,
Training at high exercise intensity promotes qualitative adaptations of mitochondrial function in human skeletal muscle, J Appl Physiol, vol.104, pp.1436-1441, 1985. ,
Aerobic exercise capacity and pulmonary function in athletes with and without type 1 diabetes, Diabetes Care, vol.33, pp.2555-2557, 2010. ,
Oxygen transport impairment in diabetes, Diabetes, vol.25, pp.832-838, 1976. ,
Central and peripheral cardiovascular impairments limit VO(2peak) in type 1 diabetes, Med Sci Sports Exerc, vol.47, pp.223-230, 2015. ,
Cardiovascular control during whole body exercise, J Appl Physiol, vol.121, pp.376-390, 1985. ,
Diastolic function is reduced in adolescents with type 1 diabetes in response to exercise, Diabetes Care, vol.35, pp.2089-2094, 2012. ,
Reduced forearm blood flow in children and adolescents with type 1 diabetes (measured by near-infrared spectroscopy), Diabetes Care, vol.27, pp.1942-1946, 2004. ,
Vascular function, insulin resistance and fatty acids, Diabetologia, vol.45, pp.623-634, 2002. ,
Hyperglycemia increases muscle blood flow and alters endothelial function in adolescents with type 1 diabetes, Exp Diabetes Res, vol.2012, p.170380, 2012. ,
Effects of L-arginine supplementation on blood flow, oxidative stress status and exercise responses in young adults with uncomplicated type I diabetes, Eur J Nutr, vol.52, pp.975-983, 2013. ,
Plasma nitrite rather than nitrate reflects regional endothelial nitric oxide synthase activity but lacks intrinsic vasodilator action, Proc Natl Acad Sci U S A, vol.98, pp.12814-12819, 2001. ,
Borderline maintenance of erythrocyte 2,3-diphosphoglycerate concentrations in normoxic type 1 (insulin dependent) diabetic subjects, Clin Sci (Lond), vol.70, pp.127-129, 1986. ,
High fat, high sucrose diet causes cardiac mitochondrial dysfunction due in part to oxidative post-translational modification of mitochondrial complex II, J Mol Cell Cardiol, vol.78, pp.165-173, 2015. ,
Oxidative modifications of mitochondrial complex II are associated with insulin resistance of visceral fat in obesity, Am J Physiol Endocrinol Metab, vol.316, pp.168-177, 2019. ,
A microdeletion in cytochrome c oxidase (COX) subunit III associated with COX deficiency and recurrent myoglobinuria, Nat Genet, vol.12, pp.410-416, 1996. ,
Oxidatively damaged proteins of heart mitochondrial electron transport complexes, Biochim Biophys Acta, vol.1688, pp.95-101, 2004. ,
Inhibition of cytochrome c oxidase activity by 4-hydroxynonenal (HNE), Biochim Biophys Acta, vol.1380, pp.336-344, 1998. ,
AD: Insulin Delivery Into the Peripheral Circulation: A Key Contributor to Hypoglycemia in Type 1 Diabetes, Diabetes, vol.64, pp.3439-3451, 2015. ,
Oxygen dependence of flux control of cytochrome c oxidase --implications for mitochondrial diseases, FEBS Lett, vol.422, pp.33-35, 1998. ,
Effects of type 1 diabetes mellitus on skeletal muscle: clinical observations and physiological mechanisms, Pediatr Diabetes, vol.12, pp.345-364, 2011. ,
Transgenic overexpression of mitofilin attenuates diabetes mellitus-associated cardiac and mitochondria dysfunction, J Mol Cell Cardiol, vol.79, pp.212-223, 2015. ,
Rates and tissue sites of non-insulin-and insulin-mediated glucose uptake in humans, Am J Physiol, vol.255, pp.769-774, 1988. ,
, Group: P <0.001
, Group: NS
, Group: NS
, Group: NS
, Exercise: P <0.05
, Group: P < 0.05
, Exercise: P < 0, Group: P < 0.05, vol.001
Values are means ± SD. Main effects from mixed models: Exercise, Exercise effect ,
Post hoc analyses for group effect: significantly different from controls at * P < 0.05; post hoc analyses for time effect: significantly different from rest at ? P ,
, HR: heart rate; RER: respiratory exchange ratio; DLCO and DLNO: lung diffusion capacity for carbon monoxide and for nitric oxide
, ?, corrected by individual hemoglobin concentrations
, Dm: membrane transfer capacity; Vc: capillary lung volume, vol.2, p.3
,
, Plasma (fluorinated) glucose was measured with hexokinase enzymatic assay on modular automatic analyzer; serum free insulin with noncompetitive radioimmunoassay (Cisbio), plasma (heparin, metabisulfite) catecholamines with HPLC, serum free fatty acids and glycerol with colorimetric assays (RANDOX reagents), arterialized (vasodilatory pomade applied 5 min before) erythrocyte 2,3-DPG using spectrophotometry (Sigma-Aldrich), and arterialized pH, K + , PaCO2 by potentiometry, SaO2 and Hb by spectrophotometry, p.2
, Main effects from mixed models: Exercise, Exercise effect
Post hoc analyses for group effect: significantly different from controls at *** P<0.001. Post hoc analyses for time effect: significantly different from rest at ? ? P<0.01, and ? ? ? P<0.001. Change in ?THb (A) ,
, The 40 mm-interspersed emitter-detector pair was placed on the belly of the right vastus lateralis muscle. NIRS outcomes changes are displayed according to exercise intensities expressed as relative values (% V?O %&'( ). Mixed models revealed almost identical results when studying NIRS according to absolute exercise intensities (i.e., expressed as absolute work rates in Watts