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DOI: 10.4239/wjd.v5.i5.659
World J Diabetes 2014 October 15; 5(5): 659-665
ISSN 1948-9358 (online)
© 2014 Baishideng Publishing Group Inc. All rights reserved.
REVIEW
Acute effects of physical exercise in type 2 diabetes: A
review
Ricardo Yukio Asano, Marcelo Magalhães Sales, Rodrigo Alberto Vieira Browne, José Fernando Vila Nova
Moraes, Hélio José Coelho Júnior, Milton Rocha Moraes, Herbert Gustavo Simões
Ricardo Yukio Asano, Universidade Mogi das Cruzes, Center of
Health Sciences, Mogi das Cruzes 08770-490, Brazil
Marcelo Magalhães Sales, Milton Rocha Moraes, Hebert
Gustavo Simões, Universidade Católica de Brasília, School of
Physical Education, Brasília 72030-170, Brazil
Marcelo Magalhães Sales, UDF-Centro Universitário, School
Health, Brasilia 70390-045, Brazil
Rodrigo Alberto Vieira Browne, Universidade Federal do Rio
Grande do Norte, Center of Health Sciences, Natal 59078-970,
Brazil
José Fernando Vila Nova Moraes, Universidade Federal do
Vale do São Francisco, School of Physical Education, Petrolina
56304205, Brazil
Hélio José Coelho Júnior, Universidade Estadual de Campinas,
School of Physical Education, Campinas 130883-851, Brazil
Author contributions: All authors contributed in all phases of
the study: search articles, literature review, writing and reviewing
of the manuscript.
Supported by Conselho Nacional de Desenvolvimento Científico e Tecnológico (CNPq) and Coordenação de Aperfeiçoamento
de Pessoal de Nível Superior (CAPES)
Correspondence to: Ricardo Yukio Asano, PhD, Universidade
Mogi das Cruzes, Center of Health Sciences, 200 Dr. Cândido
Xavier de Almeida Souza Avenue, Mogi das Cruzes 08770-490,
Brazil. ricardokiu@ig.com.br
Telephone: +55-11-970115500 Fax: +55-11-40331129
Received: June 10, 2014
Revised: July 9, 2014
Accepted: July 25, 2014
Published online: October 15, 2014
dicators in individuals with T2D, not to mention that in a
related way, these themes have been very little studied
today. Therefore, the aim of this study was to organize
and analyze the current scientific production about the
acute effects of physical exercise on metabolic and hemodynamic markers and possible control mechanisms of
these indicators in T2D individuals. For such, a research
with the following keywords was performed: -exercise;
diabetes and post-exercise hypotension; diabetes and
excess post-exercise oxygen consumption; diabetes
and acute effects in PUBMED, SCIELO and HIGHWIRE
databases. From the analyzed studies, it is possible to
conclude that, a single exercise session can promote an
increase in the bioavailability of nitric oxide and elicit
decreases in postexercise blood pressure. Furthermore,
the metabolic stress from physical exercise can increase
the oxidation of carbohydrate during the exercise and
keep it, in high levels, the post exercise consumption of
O², this phenomenon increases the rate of fat oxidation
during recovery periods after exercise, improves glucose
tolerance and insulin sensitivity and reduces glycemia
between 2-72 h, which seems to be dependent on the
exercise intensity and duration of the effort.
© 2014 Baishideng Publishing Group Inc. All rights reserved.
Key words: Metabolic diseases; Hypertension; Nitric oxide; Blood glucose; Oxygen consumption
Core tip: Physical exercise is one of the best kinds of
non-pharmacological treatments to prevent and control
type 2 diabetes (T2D), being recommended by important medical associations, such as American College of
Sports Medicine and the American Diabetes Association.
In the literature, studies about the effects of a single
exercise session on the population, its changes in blood
pressure, glycemia, carbohydrate oxidation, fat oxidation, increase in nitric oxide and others are increasing
exponentially. In this review, we report the most recent
and important findings in the literature about the ef-
Abstract
The literature has shown the efficiency of exercise in
the control of type 2 diabetes (T2D), being suggested
as one of the best kinds of non-pharmacological treatments for its population. Thus, the scientific production
related to this phenomenon has growing exponentially.
However, despite its advances, still there is a lack of
studies that have carried out a review on the acute effects of physical exercise on metabolic and hemodynamic markers and possible control mechanisms of these in-
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October 15, 2014|Volume 5|Issue 5|
Asano RY et al . Exercise and type 2 diabetes
fects of acute exercise in T2D.
type 2 diabetes and did not show relevant results on the
subject were excluded from the analysis.
Asano RY, Sales MM, Browne RAV, Moraes JFVN, Coelho
Júnior HJ, Moraes MR, Simões HG. Acute effects of physical exercise in type 2 diabetes: A review. World J Diabetes
2014; 5(5): 659-665 Available from: URL: http://www.wjgnet.com/1948-9358/full/v5/i5/659.htm DOI: http://dx.doi.
org/10.4239/wjd.v5.i5.659
ACUTE EFFECTS OF PHYSICAL EXERCISE
ON GLYCEMIA AND INSULINEMIA
The control of glycemia is dependent of the activities
of the neuroendocrine system. In resting conditions, the
glucose uptake by the cells is mainly insulin dependent,
where the glucose transporter 4 (GLUT-4) is translocated
to the cell membrane, facilitating glucose entrance in
the cell cytoplasm[10]. During exercise, an increase in the
uptake and utilization of glucose occurs, and it seems to
be dependent on the intensity and duration of the effort.
The more intense the effort is, more carbohydrate will be
metabolized[11,12]. Therewith, exercise promotes a reduction in glycemia, which is initially controlled by glucagon,
epinephrine and norepinephrine. Afterwards, with the
assistance of growth hormone and glucagon, production
and release of glucose by the liver in the bloodstream is
increased, thus, regulating again the glycemia[13].
This acute effect of exercise is benefic in euglycemic
and T2D individuals. Exercise increases the concentration of GLUT-4 in the cell membrane, which leads to the
increase in glucose uptake, even with low insulin levels[14].
On the other hand, the mechanisms surrounding this
phenomenon are still inconclusive. Higher expression of
key-proteins related to the insulin pathway, such as insulin receptor substrate 1 and phosphatidylinositide 3-kinases, and insulin independent mechanisms, such as the
increase in the activity of AMP-activated protein kinase,
the activation of the calcium-calmodulim pathway, and
the kallikreins-kinins components can be involved in this
process[10,15-20] .
Furthermore, both exercise models, aerobic and resistance, promote improvements in glucose tolerance,
insulin sensitivity and reduction in glycemia between 2-72
h, which seems to be dependent on the intensity and duration of the effort[1,21,22].
Although, there is some knowledge about the benefits of acute exercise in T2D, more studies are still made
necessary to elucidate some questions, such as the effects
of intense exercise in general population, since the most
studies and exercise prescription to this population are of
moderate intensity[1].
INTRODUCTION
Physical exercise, along with a proper diet are central factors in the prevention and control of diabetes mellitus
(DM), since their effects include appropriate values of
blood pressure, glycemia and lipidemia[1]. Several studies
have shown the efficiency of exercise programs in the
control of DM, being suggested as one of the best types
of non-pharmacological treatments to the population
in question[2-5]. Aerobic, resistance or combined exercise
programs can help in the control of glycemia of diabetes mellitus type 2 (T2D), mainly by the increase of the
need of glucose consumption by skeletal muscle in activity and the hypoglycaemic effect after exercise has been
performed[1,6-9].
Currently, the guidelines to physical exercise prescription by the American College of Sports Medicine and
American Diabetes Association to T2D provide general
information, such as exercise daily, accumulate 150 min
of exercise in a moderate intensity or 75 min of high
intensity exercise per week; resistance exercises should be
included at least 2-3 times per week[1]. On the other hand,
despite the advances made in discovering the effects of
exercise in the treatment and control of T2D and associated diseases, still there is a lack of studies that have carried out a review on the acute effects of physical exercise
on metabolic and hemodynamic markers and possible
control mechanisms of these indicators in individuals
with type 2 diabetes, not to mention that in a related way,
these themes have been very little studied today. Mainly
concerning the magnitude of different intensities and durations of exercise on glucose uptake, oxidation of macronutrients and blood pressure response after performing
only one session of exercise (acute exercise) and biomolecular mechanisms involved in this phenomenon[1].
Hence, the aim of this study was to synthetize the current knowledge pertaining the acute effects of physical
exercises in T2D; analyze the implications of exercise and
determinate trends to future researches about this topic.
The method used in the present study was a review of
the literature. As inclusion criteria and search of scientific
articles, the following keywords were used: diabetes and
exercise; diabetes and postexercise hypotension; diabetes
and excess postexercise oxygen consumption; diabetes
and acute effect of physical exercise, in the databases
PubMed, Scielo and HIGHWIRE. The studies that have
not addressed the acute effects of physical exercise on
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CARBOHYDRATE AND FAT OXIDATION
DURING AND POST EXERCISE IN T2D
Insulin resistance, along with elevated oxidative stress,
impairs energy metabolism at rest, as well as during and
after exercising in T2D. At rest, the lowest availability
of glucose and muscular glycogen in T2D increases the
predominance of fat oxidation when compared to euglycemic individuals[1].
Although glucose uptake by insulin dependent pathways are impaired in T2D, exercise increases carbohydrate
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Asano RY et al . Exercise and type 2 diabetes
LT) resulted in a significant decrease in systolic blood
pressure (SBP) values up to 90 min after the session,
whereas exercise performed below lactate threshold (90%
of the LT) only reduced SBP during 45 min post exercise.
Simões et al[38] comparing two resistance training exercise intensities (23% and 43% of 1RM), observed that
only the higher session (43%) promoted PEH. Similar
results were found by Motta et al[29], when studying the effects of a 20 min high intensity cycle ergometer (90% of
lactate threshold) in individuals with and without T2D.
Both studies only observed significant blood pressure decreases in non T2D individuals.
Although the physiological mechanism responsible
by this process still remains inconclusive, it is known that
high intensity exercise promotes increases the activity of
the kallikrein-kinin system, and consequently, augments
the synthesis and release of nitric oxide[29]. However,
more studies are still made necessary to elucidate this
question.
oxidation, and this capacity seems to be preserved in T2D,
since the glucose uptake during the effort occurs mainly
by insulin independent pathways[23]. Nevertheless, T2D
demonstrates lower capacity to utilize carbohydrate during
exercise when compared to euglycemic individuals[24].
Other peculiarities occur during exercise in T2D, such
as the decrease in rate of fatty acids oxidation when compared to euglycemic[25]. However, the effects of different
lactate threshold intensities, during and after aerobic exercises, have been little studied and are yet inconclusive.
Ghanassia et al[25] observed that the predominance of
carbohydrate oxidation in T2D during exercise seems to
be independent of the intensity of effort. Nevertheless,
the use of carbohydrate as substrate seems to be dependent of intensity, since it is available in the muscle (glycogen) and in the blood (glucose)[1].
Lima et al[26] observed an increase in fat oxidation after
a cycle ergometer session, when compared to resting values in T2D. Furthermore, high exercise intensities extend
this increase, and fat oxidation after exercise was higher
in T2D in comparison to euglycemic.
The increase in carbohydrate oxidation during exercise, as well as fat oxidation during the post exercise
recovery period can contribute to augment insulin sensitivity, and collaborate to reduce body fat percentage.
It is noteworthy that the accumulation of intramuscular
fat has a direct relation on insulin resistance, and consequently the appearance of T2D[27,28].
EXCESS POSTEXERCISE OXYGEN
CONSUMPTION IN T2D
Exercise increases oxygen consumption after exercising
and during rest, this phenomenon is known as excess
postexercise oxygen consumption (EPOC), which has a
fast component (2-3 min), and a slow component which
can persist for more than 30 min. The duration and magnitude of EPOC depends on the intensity and duration
of the effort[39-42].
The need to resynthesize creatine phosphate, restore
intramuscular oxygen, body temperature and muscular
glycogen, increased activity of the sodium-potassium
pump, clearance of lactate, high levels of epinephrine and
norepinephrine are factors that can lead to EPOC[40,41].
However, T2D individuals present metabolic impairments, such as lower capacity to utilize carbohydrate, due
to lower enzymatic regulation and intracellular signalling
and gene transcription[43]. Thus, these modifications can
change the pattern of metabolic and respiratory alterations elicited during and after exercise[4]. Therefore, it
decreased the benefits of EPOC when compared to euglycemic individuals.
Studies about EPOC in T2D are scarce. Therefore,
determining which intensity and duration could be more
beneficial to promote this event in T2D is important to
increase post-exercise fat oxidation, once the accumulation of intramuscular fat has been associated to the development of T2D[43].
POST-EXERCISE HYPOTENSION IN T2D
Individuals with T2D present other impairments, such
as endothelial dysfunction [3,29], increased sympathetic
tonus and other cardiovascular diseases, including hypertension[30], which lead to the increase in morbidity and
mortality.
One session of aerobic or resistance exercise can
promote postexercise hypotension (PEH). The exerciseinduced mechanical stress on the wall of the arteries,
can increase the release of vasodilating substances by
the endothelium (e.g., nitric oxide, bradykinin), augments
baroreflex sensitivity, and decreased sympathetic nervous
activity in the solitary tract nucleus caused by the release
of substance P by skeletal muscles[31-34]. This adaptation
can bring benefits to health, because it helps to keep low
levels of blood pressure, avoiding and controlling blood
pressure increase at rest. However, the magnitude of this
effect seems to be diminished in T2D individuals, since
this population presents endothelial dysfunction, which
collaborates to a decrease in the capacity of nitric oxide
(NO) release when compared with euglycemic individuals[35-37]. Increased sympathetic tonus and other cardiovascular diseases are also observed in T2D[30].
Studies have demonstrated that the occurrence of
PEH in T2D can be intense depending on the effort.
Lima et al[4] demonstrated that T2D individuals seem to
be more responsive to high intensity exercise sessions,
since exercise above lactate threshold (LT) (110% of the
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NITRIC OXIDE AND EXERCISE IN TYPE 2
DIABETES
NO is a gaseous, inorganic and colorless free radical,
which has seven electrons of nitrogen and eight of oxygen, having an unpaired electron[44]. NO is synthetized
from oxidation one of the two guanidine nitrogens of
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Asano RY et al . Exercise and type 2 diabetes
L-arginine, which is converted to L-citrulline[45].
NO produced by endothelial cells has an essential
function in the process of relaxing of blood vessels. In
physiological conditions, vascular relaxing occurs when
the membrane receptors of endothelial cells are activated
by soluble stimulus, which include: acetylcholine, bradykinin, adenosine diphosphate, substance P, serotonin and
others, or when there is an increase of friction exerted
by circulating cells in the endothelial layer (shear stress),
generating the activation of endothelial NO synthases
(eNOS) present in these cells, causing an increase of synthesis and release of NO[46].
NO produced by eNOS in endothelial cells spreads
out to smooth muscle cells and vascular lumen. In the
smooth muscle, NO interacts with the iron from heme
group of enzyme guanylate cyclase (GC), causing an
alteration in the structure of this enzyme, becoming activated (GCa). GCa catalyzes the departure of two phosphate groups from the molecule guanosine triphosphate,
similar to the adenosine triphosphate (ATP), forming the
cyclic guanosine monophosphate (cGMP). An increase
in the levels of cGMP occurs when NO activates GC inside the cells[47], resulting in: (1) maintenance of vascular
tonus; (2) blood pressure regulation; (3) prevention of
platelet aggregation (by increase of cGMP and decrease
in Ca2+); (4) inhibition in adhesion of monocytes and
neutrophils in the vascular endothelium; (5) anti-proliferative effect; and (6) anti-oxidant effect decreasing the
production of peroxynitrite anion (ONOO-)[36]. Recent
studies have shown that having a physically active lifestyle
can contribute to maintain the functional capacity of the
vascular endothelium, measured by the preservation of
ability to produce NO[48-50].
The acute effects of exercise in the bioavailability of
NO in physical performance and health, mainly in endothelial function, have been previously studied. Studies have
demonstrated that exercise promotes an increase in NO
levels after a single session. This acute effect of exercise in
NO can induce positive adaptations in the cardiovascular,
hepatic, esqueleto muscle systems and others[35,51].
This effect can influence health parameters, such as
the control of blood pressure (BP). Faria et al[52] induced
spontaneously hypertensive rats to one session of exercise (squat), using vests as load. They observed a decrease
in BP, lower vascular reactivity, and endothelium-dependent vasodilatation mediated by the NO after exercising.
Augeri et al[53] examined the influence of the T786C
gene of eNOS in post-exercise hypotension (PEH) and
NO after a low (40% VO2max) and moderate intensity
exercise (60% VO2max) in the cycle ergometer in prehypertensive individuals. The individuals, who carried the
TT genotype, demonstrated less PEH than heterozygous
individuals 9 h after exercising.
On the other hand, Long et al[54] determined the preventive effects of exercise in the coronary blood flow and
macrovascular atherosclerosis in aerobic trained Yucatan
pigs, which passed by a high cholesterol and fat concentrated diet. The short aerobic training kept the endothe-
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lium independent relaxation (adenosine) and increased
the coronary endothelium-dependent relaxation through
the action of bradykinin, that is a mediator of NO production, and decreased the developing of atheromatous
plaques in the aerobic trained pigs.
In the venous system, Chies et al[55] evaluated the effects of angiotensin Ⅱ in the portal vein and vena cava
of trained rats. The exposition of trained animals to
consecutive sessions of acute aerobic exercise in a treadmill improved the portal vein response in the presence
of angiotensin Ⅱ. This upgrading seems to be specific
in portal vein, once the researches didn’t observe this
phenomenon in vena cava. The authors concluded that
these adaptations are influenced by NO, endothelin and
prostanoids.
Regarding vascular damage, Cubbon et al[56] studied
the association of NO induced by exercise in the proliferation and mobilization of circulating progenitor cells
(CPC), which are potential mediators of cell repair. The
mobilization of CPC is critically dependent of NO, and
south Asians are associated with low CPC levels. The
mobilization of CPC was measured during a moderateintensity exercise session. Mediators of vasodilatation and
CPC were lower in the Asian group than in Europeans.
During the exercise, the CPC also was lower in Asians.
A decrease in the release of NO can contribute to inappropriate balance between vascular damage and muscular
repair in the population.
The acute effects of exercise in NO have also been
studied in other tissues. In the skeletal muscle, Lee-Young
et al[57] observed that in mice without eNOS, ATP is reduced (40%), in sedentary conditions exercise tolerance is
markedly impaired during a 30 min session. The researchers observed that a partial reduction of eNOS expression
is enough to induce physiological changes in ATP and
NO production, and consequently, reducing the tolerance
to the effort.
Besides exercise, diet also seems to influence the
availability of NO. Bailey et al[58] administrated oral L-arginine in nine healthy individuals and performed “step’’
exercise in two intensities (moderate and high) one hour
after ingestion. Plasma nitrite was significantly higher in
the group that consumed L-arginine, resulting in a decrease in SBP. Submaximal VO2max was 7% lower in the
moderate intensity exercise, while in the high intensity
exercise the slow component was reduced and the time
to exhaustion delayed with L-arginine supplementation.
As a conclusion, the authors stated that diet with L-arginine showed similar results with nitrite, increasing the
bioavailability of NO, and reducing the cost of O2 in the
moderate exercise and time to exhaustion in the maximal
exercise.
One exercise session seems to increase the bioavailability of NO, collaborating with the regulation of vascular tonus, balance between damage and muscle repair and
preventing diseases such as atherosclerosis and hypertension[59]. Studies related to the bioavailability of NO in different exercise intensities are inexistent. The production
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Asano RY et al . Exercise and type 2 diabetes
Table 1 Summary of human studies about acute effects of physical exercise in type 2 diabetes
Ref.
Sample
Lima et al[4]
Exercise intervention
Results
T2D = 11
Sriwijitkamol et al[5]
Borghouts et al[12]
Braun et al[24]
Ghanassia et al[25]
Lima et al[26]
Motta et al[29]
Simões et al[38]
Asano et al[60]
20 min of cycle ergometer at 90% and 110% Higher intensity exercise (110% LT) was more effective than lower
LT, and control session
intensity (90% LT)
Obese T2D = 12
40 min of cycle ergometer at 50% and 70% Obese and T2D had attenuated exercise-stimulated AMPK activity
Obese CG = 8
VO2max
and AS160 phosphorylation. T2D had reduced basal PGC-1 gene
Lean CG = 8
expression but normal exercise-induced increases in PGC-1
expression
T2D = 8
1 h of cycle ergometer at 40% VO2peak and
Muscle glycogen oxidation was lower in T2D than in CG. Plasma
CG = 8
control session
glucose contributed more to energy expenditure in T2D than CG
Insulin-resistant = 6 50 min of treadmill walking at 45% VO2max Carbohydrate oxidation and estimated muscle glycogen use were
Insulin-sensitive = 6
significantly lower in the insulin-resistance group
T2D = 30
Increasing exercise intensity in cycle
Lipid oxidation was lower in T2D. Maximal lipid oxidation point
CG = 38
ergometer
and the crossover point were lower in T2D
T2D = 9
20 min of cycle ergometer at 90% LT,
T2D have a better fat oxidation after high-intensity exercise than
CG = 11
increasing exercise intensity and control
moderate exercise. T2D had less fat oxidation than CG after
session
moderate exercise
T2D = 10
20 min of cycle ergometer at 90% LT and
CG presented PEH, but not in the T2D. Plasma kallikrein activity
CG = 10
control session
increased postexercise in the CG, but not in the T2D
T2D = 10
Resistance exercise circuit at 43% and 23%
43% 1RM promoted PEH, whereas the 23% did not
CG = 10
1RM (approximately 25 min), and control
session
T2D = 11
20 min of cycle ergometer at 80% and 120%
Exercise above LT (120% LT) increase nitric oxide and decrease
LT, and control session
SBP post-exercise, but about 80% LT not
T2D: Type 2 diabetics; LT: Lactate threshold; CG: Control group; VO2max: Maximal oxygen uptake; VO2peak: Peak oxygen uptake; PEH: Post-exercise hypotension; 1RM: 1-repetition maximum; AMPK: AMP-activated protein kinase; PGC-1: Peroxisome proliferator-activated receptor gamma coactivator 1-alpha.
of knowledge about this important topic is essential to
define better exercise strategies to increase the bioavailability of NO in individuals with T2D after one exercise
session.
A summary of acute effects of physical exercise in
T2D, along with the reference, number of volunteers and
the kind of intervention, can be observed in Table 1.
REFERENCES
1
2
CONCLUSION
A single session of exercise can promote beneficial effects regarding blood pressure control, glycemia, carbohydrate oxidation during exercise and fat oxidation after
exercise. Evidence has shown that exercise, especially at
intense domains, can increase the bioavailability of nitric
oxide, promoting a decrease in blood pressure after exercising. Furthermore, metabolic stress from exercising is
able to increase the oxidation of carbohydrates during exercise, keeping an elevated O2 consumption after exercising. This, in consequence, increases fat oxidation during
at rest and improves glucose tolerance, insulin sensibility
and can reduce glucose levels between 2 to 72 h depending of intensity and duration of the effort.
These acute effects of physical exercise are important
to T2D, because they help to improve conditions such as
high blood pressure, hyperglycaemia and lipidemia.
3
4
5
6
ACKNOWLEDGMENTS
7
The authors are grateful for the students’ scholarships
at undergraduate (CNPq), masters (CAPES) and PhD
(CAPES and CNPq), as well as for the research productivity scholarships (CNPq).
WJD|www.wjgnet.com
8
663
Colberg SR, Sigal RJ, Fernhall B, Regensteiner JG, Blissmer
BJ, Rubin RR, Chasan-Taber L, Albright AL, Braun B. Exercise and type 2 diabetes: the American College of Sports
Medicine and the American Diabetes Association: joint position statement executive summary. Diabetes Care 2010; 33:
2692-2696 [PMID: 21115771 DOI: 10.2337/dc10-1548]
Bassuk SS, Manson JE. Epidemiological evidence for the
role of physical activity in reducing risk of type 2 diabetes and cardiovascular disease. J Appl Physiol (1985) 2005;
99: 1193-1204 [PMID: 16103522 DOI: 10.1152/japplphysiol.00160.2005]
Maiorana A, O’Driscoll G, Goodman C, Taylor R, Green D.
Combined aerobic and resistance exercise improves glycemic control and fitness in type 2 diabetes. Diabetes Res Clin
Pract 2002; 56: 115-123 [PMID: 11891019 DOI: 10.1016/S01688227(01)00368-0]
Lima LC, Assis GV, Hiyane W, Almeida WS, Arsa G, Baldissera V, Campbell CS, Simões HG. Hypotensive effects of
exercise performed around anaerobic threshold in type 2
diabetic patients. Diabetes Res Clin Pract 2008; 81: 216-222
[PMID: 18571267 DOI: 10.1016/j.diabres.2008.04.019]
Sriwijitkamol A, Coletta DK, Wajcberg E, Balbontin GB,
Reyna SM, Barrientes J, Eagan PA, Jenkinson CP, Cersosimo E,
DeFronzo RA, Sakamoto K, Musi N. Effect of acute exercise
on AMPK signaling in skeletal muscle of subjects with type
2 diabetes: a time-course and dose-response study. Diabetes
2007; 56: 836-848 [PMID: 17327455 DOI: 10.2337/db06-1119]
Gentil P, Oliveira E, Fontana K, Molina G, Oliveira RJD, Bottaro M. The acute effects of varied resistance training methods on blood lactate and loading char acteristics in recreationally trained men. Rev Bras Med Esporte 2006; 12: 303-307
[DOI: 10.1590/S1517-86922006000600001]
Hiyane WC, Simões HG, Campbell CSG. Critical velocity as
a noninvasive method to estimate the lactate minimum velocity on cycling. Rev Bras Med Es-porte 2006; 12: 381-385 [DOI:
10.1590/S1517-86922006000600016]
Oliveira JCD, Baldissera V, Simões HG, Aguiar APD, Azevedo PHSMD, Poi-an PAFDO, Perez SEDA. Identification
October 15, 2014|Volume 5|Issue 5|
Asano RY et al . Exercise and type 2 diabetes
9
10
11
12
13
14
15
16
17
18
19
20
21
22
23
24
25
of lactate and glucose threshold in resis-tance exercises. Rev
Bras Med Esporte 2006; 12: 333-338 [DOI: 10.1590/S1517-8692
2006000600007]
Briscoe VJ, Tate DB, Davis SN. Type 1 diabetes: exercise
and hypoglycemia. Appl Physiol Nutr Metab 2007; 32: 576-582
[PMID: 17510699 DOI: 10.1139/H07-025]
Suh SH, Paik IY, Jacobs K. Regulation of blood glucose
homeostasis during prolonged exercise. Mol Cells 2007; 23:
272-279 [PMID: 17646701]
Burke LM, Hawley JA. Carbohydrate and exercise. Curr
Opin Clin Nutr Metab Care 1999; 2: 515-520 [PMID: 10678682
DOI: 10.1097/00075197-199911000-00015]
Borghouts LB, Wagenmakers AJ, Goyens PL, Keizer HA.
Substrate utilization in non-obese Type II diabetic patients
at rest and during exercise. Clin Sci (Lond) 2002; 103: 559-566
[PMID: 12444908]
Powers SK, Howley ET. Exercise physiology: theory and
application to fit-ness and performance. 6th ed. São Paulo:
Manole, 2000
Krook A, Wallberg-Henriksson H, Zierath JR. Sending the
signal: molecular mechanisms regulating glucose uptake.
Med Sci Sports Exerc 2004; 36: 1212-1217 [PMID: 15235328
DOI: 10.1249/01.MSS.0000132387.25853.3B]
Taguchi T, Kishikawa H, Motoshima H, Sakai K, Nishiyama
T, Yoshizato K, Shirakami A, Toyonaga T, Shirontani T, Araki
E, Shichiri M. Involvement of bradykinin in acute exerciseinduced increase of glucose uptake and GLUT-4 translocation
in skeletal muscle: studies in normal and diabetic humans
and rats. Metabolism 2000; 49: 920-930 [PMID: 10910005 DOI:
10.1053/meta.2000.6755]
Koopman R, van Loon LJ. Aging, exercise, and muscle protein metabolism. J Appl Physiol (1985) 2009; 106: 2040-2048
[PMID: 19131471]
Kishi K, Muromoto N, Nakaya Y, Miyata I, Hagi A, Hayashi
H, Ebina Y. Bradykinin directly triggers GLUT4 translocation via an insulin-independent pathway. Diabetes 1998; 47:
550-558 [PMID: 9568686 DOI: 10.2337/diabetes.47.4.550]
Schweitzer GG, Castorena CM, Hamada T, Funai K, Arias
EB, Cartee GD. The B2 receptor of bradykinin is not essential
for the post-exercise increase in glucose uptake by insulinstimulated mouse skeletal muscle. Physiol Res 2011; 60:
511-519 [PMID: 21401298]
Jessen N, Goodyear LJ. Contraction signaling to glucose transport in skeletal muscle. J Appl Physiol (1985) 2005; 99: 330-337
[PMID: 16036906 DOI: 10.1152/japplphysiol.00175.2005]
Montanari D, Yin H, Dobrzynski E, Agata J, Yoshida H,
Chao J, Chao L. Kallikrein gene delivery improves serum glucose and lipid profiles and cardiac function in streptozotocininduced diabetic rats. Diabetes 2005; 54: 1573-1580 [PMID:
15855348 DOI: 10.2337/diabetes.54.5.1573]
Ceysens G, Rouiller D, Boulvain M. Exercise for diabetic pregnant women. Cochrane Database Syst Rev 2006; (3): CD004225
[PMID: 16856038 DOI: 10.1002/14651858.CD004225]
Boulé NG, Kenny GP, Haddad E, Wells GA, Sigal RJ. Metaanalysis of the effect of structured exercise training on cardiorespiratory fitness in Type 2 diabetes mellitus. Diabetologia 2003; 46: 1071-1081 [PMID: 12856082]
Sigal RJ, Kenny GP, Wasserman DH, Castaneda-Sceppa C,
White RD. Physical activity/exercise and type 2 diabetes: a
consensus statement from the American Diabetes Association. Diabetes Care 2006; 29: 1433-1438 [PMID: 16732040 DOI:
10.2337/diacare.27.10.2518]
Braun B, Sharoff C, Chipkin SR, Beaudoin F. Effects of insulin resistance on substrate utilization during exercise in overweight women. J Appl Physiol (1985) 2004; 97: 991-997 [PMID:
15133003]
Ghanassia E, Brun JF, Fedou C, Raynaud E, Mercier J. Substrate oxidation during exercise: type 2 diabetes is associated
with a decrease in lipid oxidation and an earlier shift towards
carbohydrate utilization. Diabetes Metab 2006; 32: 604-610
WJD|www.wjgnet.com
26
27
28
29
30
31
32
33
34
35
36
37
38
39
40
41
664
[PMID: 17296514 DOI: 10.1152/japplphysiol.00231.2004]
Lima L, Cunha G, Motta D, Almeida W, Asano R, Sales M,
Melo G, Campbell C, Simões H. Effect of exercise intensity
on the oxidation of carbohydrates and fats during postexercise recovery in type 2 diabetics. R Bras Ci e Mov 2011;
19: 33-41
Curi R, Lagranha CJ, Hirabara SM, Folador A, Jr OT, Fernandes LC, Pellegrinotti IL, Pithon-Curi TC, Procópio J. A
limiting factor for fatty acid oxidation during aerobic exercise: the Krebs cycle. R Bras Ci e Mov 2003; 11: 87-94
Atkinson FS, Foster-Powell K, Brand-Miller JC. International tables of glycemic index and glycemic load values:
2008. Diabetes Care 2008; 31: 2281-2283 [PMID: 18835944 DOI:
10.2337/dc08-1239]
Motta DF, Lima LC, Arsa G, Russo PS, Sales MM, Moreira
SR, Morais PK, Almeida WS, Araujo RC, Moraes MR, Pesquero JL, Simões HG, Campbell CS. Effect of type 2 diabetes on
plasma kallikrein activity after physical exercise and its relationship to post-exercise hypotension. Diabetes Metab 2010; 36:
363-368 [PMID: 20579916 DOI: 10.1016/j.diabet.2010.03.008]
Arauz-Pacheco C, Parrott MA, Raskin P. Treatment of hypertension in adults with diabetes. Diabetes Care 2003; 26
Suppl 1: S80-S82 [PMID: 12502624]
Moraes MR, Bacurau RF, Ramalho JD, Reis FC, Casarini DE,
Chagas JR, Oliveira V, Higa EM, Abdalla DS, Pesquero JL,
Pesquero JB, Araujo RC. Increase in kinins on post-exercise
hypotension in normotensive and hypertensive volunteers.
Biol Chem 2007; 388: 533-540 [PMID: 17516849]
Moraes MR, Bacurau RF, Simões HG, Campbell CS, Pudo
MA, Wasinski F, Pesquero JB, Würtele M, Araujo RC. Effect
of 12 weeks of resistance exercise on post-exercise hypotension in stage 1 hypertensive individuals. J Hum Hypertens
2012; 26: 533-539 [PMID: 21734721]
Forjaz CL, Cardoso CG, Rezk CC, Santaella DF, Tinucci T.
Postexercise hypotension and hemodynamics: the role of
exercise intensity. J Sports Med Phys Fitness 2004; 44: 54-62
[PMID: 15181391]
Chen CY, Bonham AC. Postexercise hypotension: central
mechanisms. Exerc Sport Sci Rev 2010; 38: 122-127 [PMID:
20577060 DOI: 10.1097/JES.0b013e3181e372b5]
Asano RY, Sales MM, Coelho JM, Moraes JFVN, Pereira LA,
Campbell CSG, Simões HG. Exercise, nitric oxide, and endothelial dysfunction: a brief review. J Exerc Physiol Online 2012;
15: 76-86
Stabler T, Kenjale A, Ham K, Jelesoff N, Allen J. Potential
mechanisms for reduced delivery of nitric oxide to peripheral tissues in diabetes mellitus. Ann N Y Acad Sci 2010; 1203:
101-106 [PMID: 20716290 DOI: 10.1111/j.1749-6632.2010.0559
9.x]
Simões HG, Asano RY, Sales MM, Browne RA, Arsa G,
Motta-Santos D, Puga GM, Lima LC, Campbell CS, Franco
OL. Type 2 diabetes elicits lower nitric oxide, bradykinin
concentration and kallikrein activity together with higher
DesArg(9)-BK and reduced post-exercise hypotension compared to non-diabetic condition. PLoS One 2013; 8: e80348
[PMID: 24265812 DOI: 10.1371/journal.pone.0080348]
Simões GC, Moreira SR, Kushnick MR, Simões HG, Campbell CS. Postresistance exercise blood pressure reduction is
influenced by exercise intensity in type-2 diabetic and nondiabetic individuals. J Strength Cond Res 2010; 24: 1277-1284
[PMID: 20386125 DOI: 10.1519/JSC.0b013e3181d67488]
Børsheim E, Bahr R. Effect of exercise intensity, duration
and mode on post-exercise oxygen consumption. Sports Med
2003; 33: 1037-1060 [PMID: 14599232]
Bahr R, Sejersted OM. Effect of feeding and fasting on excess
postexercise oxygen consumption. J Appl Physiol (1985) 1991;
71: 2088-2093 [PMID: 1778897]
Thornton MK, Potteiger JA. Effects of resistance exercise
bouts of different intensities but equal work on EPOC. Med
Sci Sports Exerc 2002; 34: 715-722 [PMID: 11932584]
October 15, 2014|Volume 5|Issue 5|
Asano RY et al . Exercise and type 2 diabetes
42
43
44
45
46
47
48
49
50
51
52
53
Børsheim E, Bahr R, Høstmark AT, Knardahl S. Effect of beta-adrenoceptor blockade on postexercise oxygen consumption and triglyceride/fatty acid cycling. Metabolism 1998; 47:
439-448 [PMID: 9550543 DOI: 10.1016/0026-0495(94)90197-X]
Bruce CR, Hawley JA. Improvements in insulin resistance
with aerobic exercise training: a lipocentric approach. Med
Sci Sports Exerc 2004; 36: 1196-1201 [PMID: 15235325]
Beckman JS, Koppenol WH. Nitric oxide, superoxide, and
peroxynitrite: the good, the bad, and ugly. Am J Physiol 1996;
271: C1424-C1437 [PMID: 8944624]
Marletta MA. Nitric oxide synthase: aspects concerning
structure and catalysis. Cell 1994; 78: 927-930 [PMID: 7522970
DOI: 10.1016/0092-8674(94)90268-2]
Busconi L, Michel T. Endothelial nitric oxide synthase membrane targeting. Evidence against involvement of a specific
myristate receptor. J Biol Chem 1994; 269: 25016-25020 [PMID:
7523377]
Moncada S, Higgs EA. The discovery of nitric oxide and its
role in vascular biology. Br J Pharmacol 2006; 147 Suppl 1:
S193-S201 [PMID: 16402104 DOI: 10.1038/sj.bjp.0706458]
Souza HC, Penteado DM, Martin-Pinge MC, Barbosa Neto
O, Teixeira Vde P, Blanco JH, Silva VJ. Nitric oxide synthesis blockade increases hypertrophy and cardiac fibrosis in
rats submitted to aerobic training. Arq Bras Cardiol 2007;
89: 88-93, 99-104 [PMID: 17874014 DOI: 10.1590/S0066782X2007001400005]
Dominguez JM, Prisby RD, Muller-Delp JM, Allen MR, Delp
MD. Increased nitric oxide-mediated vasodilation of bone
resistance arteries is associated with increased trabecular
bone volume after endurance training in rats. Bone 2010; 46:
813-819 [PMID: 19892040 DOI: 10.1016/j.bone.2009.10.029]
Colleran PN, Li Z, Yang HT, Laughlin MH, Terjung RL.
Vasoresponsiveness of collateral vessels in the rat hindlimb:
influence of training. J Physiol 2010; 588: 1293-1307 [PMID:
20194126 DOI: 10.1113/jphysiol.2009.18624]
Souza Junior TP, Asano RY, Prestes J, Sales MPM, Coelho
JMO, Simões HG. Óxido Nítrico e exercício: uma revisão.
Rev Educ Fís UEM 2012; 23: 469-481 [DOI: 10.4025/reveducfis.v23i3.11738]
Faria Tde O, Targueta GP, Angeli JK, Almeida EA, Stefanon
I, Vassallo DV, Lizardo JH. Acute resistance exercise reduces blood pressure and vascular reactivity, and increases
endothelium-dependent relaxation in spontaneously hypertensive rats. Eur J Appl Physiol 2010; 110: 359-366 [PMID:
20499250 DOI: 10.1007/s00421-010-1508-5]
Augeri AL, Tsongalis GJ, Van Heest JL, Maresh CM, Thomp-
54
55
56
57
58
59
60
son PD, Pescatello LS. The endothelial nitric oxide synthase
-786 T& gt; C polymorphism and the exercise-induced blood
pressure and nitric oxide responses among men with elevated blood pressure. Atherosclerosis 2009; 204: e28-e34 [PMID:
19155013 DOI: 10.1016/j.atherosclerosis]
Long X, Bratz IN, Alloosh M, Edwards JM, Sturek M. Shortterm exercise training prevents micro- and macrovascular
disease following coronary stenting. J Appl Physiol (1985)
2010; 108: 1766-1774 [PMID: 20299615 DOI: 10.1152/japplphysiol.01014.2009]
Chies AB, de Souza Rossignoli P, Daniel EF. Exercise increases the angiotensin II effects in isolated portal vein of
trained rats. Peptides 2010; 31: 883-888 [PMID: 20172009 DOI:
10.1016/j.peptides.2010.02.011]
Cubbon RM, Murgatroyd SR, Ferguson C, Bowen TS,
Rakobowchuk M, Baliga V, Cannon D, Rajwani A, Abbas
A, Kahn M, Birch KM, Porter KE, Wheatcroft SB, Rossiter
HB, Kearney MT. Human exercise-induced circulating
progenitor cell mobilization is nitric oxide-dependent and
is blunted in South Asian men. Arterioscler Thromb Vasc
Biol 2010; 30: 878-884 [PMID: 20110574 DOI: 10.1161/ATVBAHA.109.201012]
Lee-Young RS, Ayala JE, Hunley CF, James FD, Bracy DP,
Kang L, Wasserman DH. Endothelial nitric oxide synthase
is central to skeletal muscle metabolic regulation and enzymatic signaling during exercise in vivo. Am J Physiol Regul
Integr Comp Physiol 2010; 298: R1399-R1408 [PMID: 20200137
DOI: 10.1152/ajpregu.00004.2010]
Bailey SJ, Winyard PG, Vanhatalo A, Blackwell JR, DiMenna
FJ, Wilkerson DP, Jones AM. Acute L-arginine supplementation reduces the O2 cost of moderate-intensity exercise and
enhances high-intensity exercise tolerance. J Appl Physiol
(1985) 2010; 109: 1394-1403 [PMID: 20724562 DOI: 10.1152/
japplphysiol.00503.2010]
Allen JD, Stabler T, Kenjale A, Ham KL, Robbins JL, Duscha
BD, Dobrosielski DA, Annex BH. Plasma nitrite flux predicts
exercise performance in peripheral arterial disease after
3months of exercise training. Free Radic Biol Med 2010; 49:
1138-1144 [PMID: 20620208 DOI: 10.1016/j.freeradbiomed.20
10.06.033]
Asano RY, Browne RAV, Sotero RC, Sales MM, Moraes
JFVN, Campbell CSG, Simões HG. Cycling above rather than
below lactate threshold is more effective for nitric oxide release and post-exercise blood pressure reduction in individuals with type-2 diabetes. Motriz Rev Educ Fis 2013; 19: 633-640
[DOI: 10.1590/S1980-65742013000300015]
P- Reviewer: Pamidi N, Ray S S- Editor: Ji FF
L- Editor: A E- Editor: Liu SQ
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