The Role of Exercise, Diet, and Cytokines in Preventing Obesity and Improving Adipose Tissue
Abstract
:1. Introduction
2. Adipose Tissue Biology: Why Our Body Is a Fat-Storing Machine?
2.1. White Adipose Tissue
2.2. Brown and Beige Adipose Tissue
3. Exercise Strategies to Prevent Obesity and Improve Adipose Tissue Health
3.1. Continuous Exercise and Adipose Tissue
Molecular Mechanisms Underlying the Reduction in Total BF, SAT, and VAT with Exercise
3.2. High-Intensity Interval Training and Adipose Tissue
3.3. Resistance Exercise Training and Adipose Tissue
3.4. Concurrent Training and Adipose Tissue
Continuous Exercise and Adipose Tissue | ||||||||
Author | Year | Participants ( O2max) (mL/kg/min) | n (M/F) | Duration, Frequency, Mode | Protocols | Main Findings | Ref | |
1 | Ross et al. | 2000 | Obese males (NR) | (52/0) | 12 weeks, daily, brisk walking or light jogging | Group 1: Diet (reducing total daily energy intake to 700 kcal/day) Group 2: Exercise (80% of HRmax until 700 kcal is expended) Group 3: Exercise without weight loss (enough calories given to compensate for the energy expended during the daily exercise sessions) Group 4: Control group | Reduction in total fat was greater in group 2 compared with group 1. Group 2: Substantial decreased in both SAT and VAT Group 3: Attenuation in abdominal fat and prevented further weight gain. | [59] |
2 | Miyatake et al. | 2002 | Obese males (NR) | (31/0) | 1 year follow up study, daily, walking | An increase of daily steps from 7013 to 8840 | Significantly decreased in SAT, VAT, and body composition. | [61] |
3 | Racette et al. | 2006 | Healthy, non-obese adults (NR) | (18/30) | 1 year, 6 days/wk, running/cycling/rowing ergometers/elliptical machines/stairclimbers | Group 1: 20% calorically-restricted diet Group 2: Training at 58% of VO2max Group 3: Healthy lifestyle control group | Significant reduction in fat mass, SAT, and VAT for both group 1 and 2. | [60] |
4 | Durheim et al. | 2008 | Sedentary, dyslipidemic, overweight males (~32.8 VO2peak) females (~23.9 VO2peak) | (40/33) | 8–9 months, 3 days/wk, aerobic training | Group 1: ∼20 miles/wk of jogging (65–80% VO2max) Group 2: 12 miles/wk of jogging (65%-80% VO2max) Group 3: 12 miles/wk of brisk walking (40–55% VO2max) | Significantly reduced in thigh SAT for all three groups, but VAT decreased substantially in men only. | [62] |
5 | Ross et al. | 2015 | Abdominally obese adults (NR) | (104/196) | 24 weeks, 5 days/wk, walking/jogging/treadmill training | Group 1: Training at a low-amount, moderate-intensity exercise at 50% VO2max (31 min/session) Group 2: Training at a high-amount, moderate-intensity exercise at 50% VO2max (58 min/session) Group 3: Training at a high-amount, high-intensity exercise at 75% VO2max (40-min/session) Group 4: Control group | Similar reductions were resulted in total BF, SAT, and VAT in all training groups. | [63] |
6 | Wilmore et al. | 1999 | Overweight adults (NR) | (258/299) | 20 weeks, 3 days/wk, cycling | Training at 55% VO2max to at 75% VO2max for 30 min to 50 min. | Males had a greater loss in abdominal SAT and VAT than females. A higher rate of decline was also seen in abdominal SAT compared to VAT. | [65] |
7 | Irving et al. | 2008 | Middle-aged obese women (~21 VO2peak) | (0/27) | 16 weeks, 5 days/wk, aerobic training | Group 1: Moderate-intensity training (5 days per week at an intensity ≤ LT Group 2: High-intensity training (3 days per week at an intensity > LT and 2 days per week ≤ LT) Group 3: No-exercise training | No significant changes of SAT and VAT were observed in group 1, whereas group 2 resulted in reduced total abdominal fat, SAT, and VAT. | [66] |
8 | Coker et al. | 2009 | Overweight elderly adults (NR) | (9/9) | 12 weeks, 4–5 days/wk, aerobic training | Group 1: Moderate-intensity (50% VO2peak) Group 2: High-intensity (75% VO2peak) | A remarkable reduction in VAT in the high-intensity group exhibited, while no change was observed in the moderate group. | [67] |
9 | Tanaka et al. | 2020 | Healthy adults (NR) | (87/145) | 4 months, NR, walking/aerobic training | Group 1: WM Group 2: WM + vigorous-intensity physical (VPA) activities (VWM) | VPA activities resulted in high BAT density, particularly in men. BAT-density is related to visceral fat area and VWM in men, and related to body fat percentage in women. | [68] |
10 | Owens et al. | 1999 | Obese children (NR) | (25/49) | 4 months, 5 days/wk, exercising on machines and sports activities | Group 1: 40 min/day at 70–75% HRmax Group 2: Control group | Significant decrease in BF%, total BF, and SAT for group 1. | [69] |
11 | Lee et al. | 2005 | Lean and obese male with and without T2D (~61.2% VO2peak) | (24/0) | 13 weeks: 5 days/wk, aerobic training | All participants trained for 60 min/day at a moderate intensity (∼60% VO2peak) | Significant reductions in total abdominal SAT and VAT in all groups (lean and obese males with and without T2D). Reduction in VAT was greater in the obese and T2D groups when compared with the lean group. | [70] |
12 | Keating et al. | 2015 | Inactive and overweight/obese adults (~22.4 VO2peak) | (17/31) | 8 weeks, 3–4 days/wk, brisk walking/cycling | Group 1: Cycling and brisk walk at 50% VO2peak for 3 days and 1 day/wk, respectively. (From 45 min in week one to 60 min by the 3rd week, totaling 180–240 min/wk) Group 2: Cycling and brisk walk at 50% VO2peak for 2 days and 1 day/wk, respectively. (From 30 min in week one to 45 min by the 3rd week, totaling 90–135 min/wk) Group 3: Cycling and brisk walk at 60–70% VO2peak for 2 days and 1 day/wk, respectively. (From 30 min in week one to 45 min at 70% VO2peak by the third week, totaling 90–135 min/wk) Group 4: Control group | Reduction in liver fat and VAT for all three groups. | [71] |
13 | Christiansen et al. | 2009 | Obese adults (NR) | 79 | 12 weeks, 3 days/wk, aerobic training | Group 1: exercise (60–75 min at 70% VO2max per training session) Group 2: hypocaloric diet (600 kcal/day) Group 3: hypocaloric diet and exercise | Reduction in BW 3.5 kg and VAT 18% in group 1. Higher reduction in BW (12.3 kg) and VAT (30–37%) in group 2 and 3 than group 1. | [72] |
14 | Walhin et al. | 2016 | Sedentary overweight men and postmenopausal women (31.5 VO2max) | (24/14) | 3 weeks, 5 days/wk, treadmill | Group 1: Moderate intensity training (50% VO2max) with caloric restriction (5000 kcal/wk) Group 2: Vigorous-intensity training (70% VO2max) with caloric restriction (5000 kcal/wk) | Both groups resulted similar reductions in total fat and abdominal fat mass, as well as similarly affected the expression of the lipogenic enzymes. | [73] |
15 | Islam et al. | 2018 | Active young males (NR) | (8/0) | 1 day, acute session, running | Group 1: 30 min continuous running at 65% VO2max Group 2: 30 min of running at 85% VO2max Group 3: 4 × 30 s “all-out” sprints with 4 min of rest (SIT) Group 4: No exercise | Increased whole-body fat oxidation during the post-exercise recovery period in all exercise groups and it was greatest in group 3. | [74] |
16 | Henderson et al. | 2007 | Healthy males (56.6% VO2peak) and females (48.9% VO2peak) | (10/8) | 1 day, acute session, aerobic exercise | Group 1: 90 min of exercise at 45% VO2peak Group 2: 60 min of exercise at 65% VO2peak | Substantial increased for the oxidation of total lipid and plasma fatty acid in both groups. Women was more dependent on lipid during exercise, whereas during recovery, lipid metabolism is accentuated to a greater extent in men. | [75] |
17 | Perreault et al. | 2004 | Healthy lean males (59.4 VO2max) and females (60 VO2max) | (10/10) | 1 day, acute session, aerobic exercise | Exercised at 85% LT for 90 min | Significantly increased the amount of the adipose tissue lipoprotein lipase (56%) in men but not women. | [76] |
18 | Ludzki et al. | 2020 | Obese adults (NR) | (3/7) | 1 day, acute session, aerobic exercise | Group 1: 60 min acute session at 80% HRpeak Group 2: No acute exercise session | Increased the number of the adipose tissue progenitor cell phenotype in exercise group, as well as decreased of preadipocyte content was shown in the stromal vascular cells fraction of SAT twelve hours after exercise. | [77] |
19 | Hojbjerre et al. | 2007 | Overweight (54.6 VO2max) and lean males (57.1 VO2max) | (16/0) | 1 day, acute session, aerobic exercise | Exercised for 1 h at 55% of VO2max | Modification of adipose tissue mRNA and interstitial cytokine concentration in overweight males. An increased concentration of interstitial adiponectin and IL-6, while the response at the mRNA level was different, with IL-6 mRNA increasing but adiponectin mRNA decreasing. | [78] |
20 | Van et al. | 2017 | Overweight and obese adults that active (51 VO2peak) and sedentary (42 VO2peak) | (8/12) | 1 day, acute session, aerobic exercise | 60 min of acute moderate-intensity exercise at 65% VO2max | Increased SAT mRNA expression of VEGFA. | [79] |
21 | Fabre et al. | 2018 | Healthy young males (46.88 VO2max) | (15/0) | 1 day, acute session, aerobic exercise | A single session of 15 min exercise at 80% VO2max | Induction of more than 3800 genes in adipose tissue from lean and overweight individuals. Among them were the genes responsible for monocyte infiltration. | [80] |
22 | Campbell et al. | 2013 | Overweight/obese postmenopausal women (24.4 VO2max) | (0/45) | 12 months, 5 days/wk, aerobic exercise | Group 1: Exercise (≥45 min of moderate-to-vigorous intensity exercise) Group 2: Diet (reducing total daily energy intake to 1200–2000 kcal/day) Group 3: Diet plus exercise Group 4: Control | Compared to the control, the mean percent BF loss was: diet, −12.6%, exercise, −3.1%, diet + exercise, −13.2% | [81] |
23 | Richterova et al. | 2004 | Obese women (NR) | (0/11) | 12 weeks, 3 days/wk, home-based training | Trained at 50% VO2peak at 40 min | No changed in genes involved in the control of SAT lipolysis. | [83] |
24 | Polak et al. | 2006 | Obese sedentary premenopausal women (24.6 VO2max) | (0/25) | 12 weeks, 5 days/wk, aerobic training/cycling | 2 sessions/wk of supervised aerobic exercise (50% VO2max) and 3 sessions/wk of home-based exercise (cycling) | No changes of gene expression of adipocytokines in obese women, while a decrease of plasma leptin was detected. | [84] |
25 | Leick et al. | 2007 | Obese and non-obese Adults (NR) | (18/24) | 8 weeks, 3 days/wk, home-based training | 30 min/session at 70% VO2max | Reduction of adipose tissue IL-18 mRNA content by 20% in obese individuals. | [85] |
26 | Christiansen et al. | 2010 | Obese adults (NR) | (9/10) | 12 weeks, 3 days/wk, home-based training | 60–75 min/session at 70% 35–40% VO2max | Significant elevation of the mRNA expression of adipose tissue adiponectin and adiponectin receptors. | [86] |
27 | Stanford et al. | 2015 | Trained or sedentary donor mice (NR) | 6 | 11 days, daily, running | Running daily inside the wheel cage. | Increased expression of many beige adipocyte marker genes in rodent SAT. | [49] |
28 | Trevellin et al. | 2014 | 8 weeks old male mice (NR) | (36/0) | 30 days, daily, swimming | 90 min of swimming | Increased expression of UCP1 and Prdm16 in mice SAT. | [88] |
29 | Otero-Diaz et al. | 2018 | Non-diabetic adults (NR) | (14/19) | 12 weeks, 3 days/wk, cycling | 60 min/session at 43–70% VO2max | Induction of the mRNA expression of beige/BAT makers of UCP1, TBX1, CPT1B in SAT of sedentary subjects. | [91] |
High-Intensity Exercise and Adipose Tissue | ||||||||
Author | Year | Participants ( O2max) (mL/kg/min) | n (M/F) | Duration, Frequency, Mode | Protocols | Main Findings | Ref | |
1 | Higgins et al. | 2016 | Inactive overweight/obese young women (NR) | (0/52) | 6 weeks, 3 days/wk, SIT/cycling | Group 1: SIT (30 s “all-out” sprints followed by 4 min of active recovery) Group 2: moderate-intensity continuous training (MICT) at 45–55% HRmax, for 20–30-min | SIT resulted greater loss in total BF and android fat than MICT cycling. | [94] |
2 | Zhang et al. | 2017 | Obese young women (NR) | (0/43) | 12 weeks, 3–4 days/wk, cycling | Group 1: prolonged MICT 60% VO2max Group 2: HIIT (90% VO2max, 4 min bout with 3 min recovery) | Similar reduction in abdominal SAT and VAT in both groups. | [97] |
3 | Riis et al. | 2019 | Healthy young males (43.9 VO2max) | (10/0) | 10 weeks, 3 days/wk, cycling | The first session was 40 min at 70% VO2max, the second session 2 × 20 min at 80%−90% VO2max (5 min easy biking in between), and the third session was 8 × 5 min at 90–100% (1 min easy biking in between). | Improvement in adipose tissue insulin sensitivity. | [98] |
4 | Dohlmann et al. | 2018 | Healthy sedentary adults (27 VO2max) | (5/7) | 6 weeks, 3 days/wk, HIIT | 7 × 1 min at 95–100% VO2max, with 1 min recovery | No change for BF% in overweight subjects, whereas the mitochondrial respiratory capacity in SAT was reduced after training. | [99] |
5 | Leggate et al. | 2012 | Overweight/obese sedentary males (NR) | (12/0) | 2 weeks, 3 days/wk, HIIT | 10 × 4 min at 85% VO2max, 2 min rest | Decreased in waist circumference, as well as reductions in IL6 and fatty acid synthase content in SAT biopsies. | [100] |
6 | Islam et al. | 2020 | Overweight women (30.3 VO2peak) | (0/10) | 1 day, Acute session, HIIE | HIIE: 10 × 4 min 90% HRmax, separated by 2 min recovery | β-adrenergic and insulin signaling in subcutaneous abdominal adipose tissue remained unchanged following acute HIIE, while there was a significant decrease in the respiratory exchange ratio. | [101] |
7 | Astorino et al. | 2013 | Sedentary women (24.2 VO2max) | (0/23) | 12 weeks, 3 days/wk, HIIT | Group 1: 6–10 × 60 s intervals at 80–90% peak power output, with 75 s recovery Group 2: 6–10 × 60 s intervals at 60–80% peak power output, with 75 or 60 s recovery | Increased fat oxidation rate in sedentary (including both normal weight to obese) women. | [102] |
8 | Taylor et al. | 2020 | Coronary artery disease patients (NR) | 42 | 12 months, 3 days/wk for 4 weeks, followed by three home-based sessions/wk for 11 months, HIIT/MICT | HIIT: 4 × 4 min high-intensity interval training MICT: 40 min of usual care | Both exercise interventions reduced VAT over 3 and 12 months, while HIIT resulted in a slightly greater reduction in liver fat compared with MICT. | [103] |
9 | Larsen et al. | 2015 | Overweight adults (NR) | NR | 6 weeks, 3 days/wk, HIIT | 5 × 60 s at ~128% of peak power, 90 s recovery | No alteration in BF% or adipose tissue mitochondrial function. | [105] |
10 | Whyte et al. | 2010 | Overweight/obese sedentary men (NR) | (10/0) | 2 weeks, 3 days/wk, Wingate-based SIT | 4 to 6 repeats of 30 s Wingate anaerobic sprints on an electromagnetically braked cycle ergometer, with 4.5 min recovery. | Significant reduction in waist and hip circumference in overweight/obese sedentary men, as well as an elevated resting fat oxidation rate. | [106] |
11 | Honkala et al. | 2020 | Inactive, healthy adults with IR (<40 VO2peak) | (28/26) | 2 weeks, 3 days/wk, Wingate-based SIT | SIT: 4–6 × 30 s at maximum effort MICT: 40–60 min at 60% VO2max | Both groups resulted in a similar reduction in BF%, abdominal SAT and VAT, as well as decreased CD26 and ANGPTL4 gene expression in SAT. | [107] |
12 | Cooper et al. | 2016 | Overweight men (NR) | (30/0) | 12 weeks, 3 days/wk, SIT | SIT: 4–10 × 30 s sprint efforts with passive or active recovery | No significant changes in FM or abdominal VAT. | [108] |
Resistance Exercise and Adipose Tissue | ||||||||
Author | Year | Participants ( O2max) (mL/kg/min) | n (M/F) | Duration, Frequency, Mode | Protocols | Main Findings | Ref | |
1 | Schmitz et al. | 2003 | Midlife women (NR) | (0/60) | 15 weeks, 2 days/wk, RT | The treatment group performed twice-weekly supervised strength training followed by 6 months of unsupervised training. | Reduction in FM and VAT. | [109] |
2 | Ku et al. | 2010 | Women with T2D (NR) | (0/44) | 12 weeks, 5 days/wk, RT/aerobic training | RT: elastic band training Aerobic training: Walking for 60 min at moderate-intensity (3.6–5.2 metabolic equivalents) | RT resulted in a greater reduction in SAT than aerobic training, as well as only RT, which decreased subfascial adipose tissue at the mid-thigh level. | [110] |
3 | Treuth et al. | 1994 | Healthy men (NR) | (13/0) | 16 weeks, RT | 16-week strength-training program | Reduction in FM and VAT. | [120] |
4 | Prabhakaran et al. | 1999 | Healthy, sedentary, premenopausal women (NR) | (0/24) | 14 weeks, 3 days/wk, RT | Group 1: 45–50 min RT sessions (85% of 1 RM) Group 2: no exercise | Reduction in FM and VAT for group 1. | [121] |
5 | Ross et al. | 1996 | Obese men (NR) | (33/0) | 16 weeks, 5 days/wk, RT/RT combined with diet interventions/only diet intervention | Group 1: RT Group 2: RT combined with diet interventions Group 3: Diet intervention | RT group has shown a decrease in FM and VAT, whereas 40% reduction in visceral fat only observed in the RT combined diet group. | [122] |
6 | Treuth et al. | 1995 | Older women (NR) | (0/14) | 16 weeks, 3 days/wk, RT | Strength was assessed by one-repetition maximum tests, with training intensity gradually increased to approximately 67% of one repetition maximum | Significant reduction in visceral fat. | [123] |
7 | Hunter et al. | 2002 | Older adults (NR) | (14/12) | 25 weeks, 3 days/wk, RT | Training consisted of two sets of 10 repetitions at 65–80% of 1 RM | Improvement in fat-free mass and a reduction in fat mass in older males and females. Substantial loss of intra-abdominal adipose tissue (IAAT) and abdominal SAT in overweight females, but not in overweight men. | [124] |
8 | Rosety et al. | 2015 | Obese women (NR) | (0/48) | 12 weeks, 3 days/wk, resistance circuit training program | This training was circularly performed in six stations: arm curl, leg extension, seated row, leg curl, triceps extension and leg press. | Reduced thickness of epicardial adipose tissue. | [125] |
9 | Ross and Rissanen | 1994 | Obese women (NR) | (0/24) | 16 weeks, 3 days/wk, RT/aerobic training combined with caloric restriction | Group 1: RT Group 2: aerobic training combined with caloric restriction (reduced by 1000 kcal) | Substantial similar decrease in the volume ratio of VAT to SAT after RT and aerobic training combined with caloric restriction. | [126] |
10 | Slentz et al. | 2011 | Overweight adults (NR) | (44/56) | 8–10 weeks, 3 days/wk, RT or high-intensity aerobic training | Group 1: RT (3 times/wk, 3 sets of 8–12 repetitions/set) Group 2: high-intensity aerobic training (12 miles/wk at 75% VO2max) | High-intensity training provided a greater reduction in VAT and total abdominal fat than RT. | [127] |
11 | Ormsbee et al. | 2007 | Trained men (NR) | (8/0) | 1 day, acute session, RE | Three sets of 10 repetitions with a load at 85–100% of the individual’s one 1RM, 90 s rest periods between all sets and exercises, for a total of 40–45 min | Increased SAT lipolysis during RE, while SAT lipolysis and whole-body fat oxidation were higher immediately post RE. | [128] |
12 | Allman et al. | 2019 | Trained women (NR) | (0/13) | 1 day, acute session, RE | One set of 10 repetitions at 40% 1RM and three sets of 10 repetitions at 65% 1RM | İncreased in post-exercise whole-body fat oxidation and SAT lipolysis. | [129] |
13 | Chatzinikolaou et al. | 2008 | Lean men and obese males (NR) | (17/0) | 1 day, 30 min session, RE | Three cycles on 10 machines selected to stress the major muscle groups, 10–12 repetitions/set at 70–75% of one-repetition maximum with 30 s rests between sets and 2 min rests between cycles | Adipose tissue triacylglycerol lipase activity was elevated by 18-fold after 5 min of exercise in lean subjects, whereas a 16-fold increase was observed 10 min after exercise in obese males. | [130] |
Concurrent Training and Adipose Tissue | ||||||||
Author | Year | Participants ( O2max) (mL/kg/min) | n (M/F) | Duration, Frequency, Mode | Protocols | Main Findings | Ref | |
1 | Slentz et al. | 2011 | Overweight adults (NR) | (41/51) | 8–10 weeks, 3 days/wk, aerobic plus RT or aerobic training | Aerobic plus RT: 12 miles/wk at 75% VO2max plus 3 sets of 8–12 repetitions/set High-intensity aerobic training: 12 miles/wk at 75% VO2max | Similar significant reductions in VAT, SAT, and total abdominal fat for both groups. | [127] |
2 | Monteiro et al. | 2015 | Obese adolescents (NR) | 32 | 20 weeks, 3 days/wk, CT or aerobic training | CT: 60 min of 50 % of RM, followed by 30 min of 65 and 85% VO2max aerobic training. Aerobic training: 50 min continuous exercise at 65–85% VO2max | Significant reduction in waist circumferences and BF% after CT and aerobic training. | [136] |
3 | Damaso et al. | 2014 | Obese adolescents (NR) | 139 | 1 year, 3 days/wk, aerobic plus RT or aerobic training | Group 1: aerobic plus RT Group 2: AT | Aerobic plus RT provided a greater reduction in visceral fat and pro-inflammatory adipokines than AT alone intervention. | [138] |
4 | de Mello et al. | 2011 | Obese adolescents (NR) | (20/10) | 1 year, 3 days/wk, aerobic plus RT | Aerobic (30 min of aerobic exercise at 50–70% VO2max) plus RT (3 sets, 6–20 repetitions, 90–45 s/exercise/session) | Induced higher changes in body composition, waist circumference, and BF in obese adolescents than aerobic exercise only. | [139] |
5 | Davis et al. | 2011 | Obese adolescents (NR) | (0/38) | 16 weeks, 2 days/wk, CT | 30–45 min/session 70–85% HRmax plus 30–45 min, 12–14 repetitions, low-heavy weights | Significant reduction of waist circumference (~3%), VAT (~10%), and SAT (~10%). | [140] |
6 | Norheim et al. | 2014 | Overweight males (NR) | (26/0) | 12 weeks, 4 days/wk, aerobic plus RT | 12 weeks of CT | Chronic training increased the mRNA level of PGC-1α of SAT by 1.2-fold and 1.6-fold in the control group and the pre-diabetes group, respectively, whereas no significant changes neither in the brown-fat-selective gene Prdm16 or other known browning genes TBX1, TMEM26, and CD137 for both groups. | [141] |
7 | Stinkens et al. | 2018 | Obese males (NR) | (21/0) | 12 weeks, 3 days/wk, CT | Aerobic exercise (30 min at 70% of maximal power output) + resistance exercise (3 × 10 repetitions at 60% of 1 repeated maximum) | No significant changes in abdominal subcutaneous adipocyte size, β2-adrenergic sensitivity of lipolysis, and adipose tissue gene expression of markers involved in browning and lipolysis in obese subjects. | [142] |
4. Diet Strategies to Prevent Obesity and Improve Adipose Tissue Health
4.1. Manipulation of Diet Composition
4.2. Elimination/Restriction of a Specific Food Group: Plant-Based Diets
4.3. Manipulation of Timing: Intermittent Fasting
Effects of Diet Composition Manipulation on Body Weight and Health | ||||||||
Author | Year | Diet | Participants | n (M/F) | Duration | Main Findings | Ref | |
1 | Hall et al. | 2016 | Low-CHO ketogenic isocaloric diet or high-CHO diet | Overweight and obese men Mean age: 33 ± 1.8 y BMI: 28.8 ± 0.8 kg/m2 | (17/0) | 4 weeks high-CHO diet and 4 weeks ketogenic diet | Weight loss KD: 2.2 ± 0.3 kg (0.5 ± 0.2 kg from loss of body fat) BD: 0.8 ± 0.2 kg (0.5 ± 0.1 kg from loss of body fat) Increase in EEchamber, sleeping EE and EEDLW, decrease in RQ compared with baseline diet | [152] |
2 | Foster et al. | 2010 | LCD or LFD (limiting energy intake to 1200 to 1500 kcal/d for women and 1500 to 1800 kcal/d for men, 55% CHO, 30% fat, 15% protein) | Obese adults 45.5 ± 9.7 y BMI: 36.1± 3.5 kg/m2 | (99/208) | 2 years | Weight loss LCD: −6.34 kg LFD: −7.37 kg Fat mass loss LCD: −3.99 kg LFD: −3.84 kg Higher increase in HDL in LCD group Similar reductions in TG, LDL, VLDL, systolic blood pressure | [157] |
3 | Ebbeling et al. | 2012 | Isocaloric LFD (60% CHO 20% fat, 20% protein) or low-glycemic index diet (40% CHO, 40% fat, 20% protein), or VLCD (10% CHO, 60% fat, 30% protein) | Overweight and obese young adults Mean age: 30.3 ± 5.7 y BMI: 34.4 ± 4.9 kg/m2 | (13/8) | Crossover design; 12 weeks | Highest decreases in REE and TEE with LFD. Leptin level was highest in the LFD and lowest in the VLCD. HDL was highest in VLCD and lowest in LFD. | [159] |
4 | Hall et al. | 2015 | Isocaloric reduced fat diet or reduced CHO diet | Obese adults Mean age: 35.4 ± 1.74 y BMI: 35.9 ± 1.1 kg/m2 | (10/9) | 5 to 7 weeks | Greater weight loss and increased fat oxidation in RC diet than RF diet at the 6th day and greater fat loss (463 ± 37 g) in the RF diet compared to the RC diet (245 ± 21 g). | [160] |
5 | Dyson et al. | 2007 | LCD (≤40 g CHO/day) or healthy-eating diet | Overweight or obese with T2DM or non-diabetic Mean age: 52 ± 9 y BMI: 35.1 ± 7.0 kg/m2 | (8/18) | 3 months | Weight loss LCD: −6.9 kg Healthy eating diet: −2.1 kg No difference in changes in HbA1c, ketone, or lipid levels. | [169] |
6 | Goday et al. | 2016 | Very low-calorie-ketogenic (VLCK) or low-calorie diet | Obese adults with T2DM Mean age: 54.5 ± 8.4 y BMI: 33.07 ± 1.56 kg/m2 | (31/58) | 4 months | Weight loss VLCK: −14.7 kg LC: −5 kg The reduction in HbA1c and glycemic control was greater in the VLCK group. | [170] |
7 | Harvey et al. | 2019 | VLCKD (5% CHO) or LCD (15% CHO) or moderate-low CHO diet (MCD) (25% CHO) | Healthy adults Mean age: 38.9 ± 7.1 y BMI: 27.0 ± 3.96 kg/m2 | (14/25) | 12 weeks | Weight loss VLCKD: −4.12 kg LCD: −3.93 kg MCD: −2.97 kg Similar reductions in total cholesterol, LDL, TG, and increase in HDL | [171] |
8 | Dalle Grave et al. | 2013 | HPD (34% protein, 46% CHO) or HCD (17% proteins, 64% CHO) | Obese adults Mean age: 46.7 ± 11.1 y BMI: 45.6 ± 6.7 kg/m2 | (37/51) | 1 year | Weight loss HPD: −18.1 kg (15.0%) HCD: −15.9 (13.3%) Similar reductions in TG, LDL, total cholesterol, glucose, and insulin levels and increase in HDL. | [179] |
Effects of Plant-Based Diets on Body Weight and Health | ||||||||
Author | Year | Diet | Participants | n (M/F) | Duration | Main Findings | Ref | |
1 | Wright et al. | 2017 | Low-fat plant-based diet (7–15% total energy from fat) or control | Obese, overweight, and diagnosed with at least one of T2DM, ischaemic heart disease, hypertension or hypercholesterolaemia Mean age: 56 ± 9.7 y BMI: 34.3 ± 1.9 kg/m2 | (26/39) | 6 to 12 months | Significant reduction in BMI (4.2 kg/m2) in diet group | [191] |
2 | Thompson et al. | 2005 | Standard diet or high-dairy diet or high-fiber and high-dairy diet | Obese adults Mean age: 41.4 ± 8.9 y BMI: 34.8 ± 3.1 kg/m2 | (72/0) | 48 weeks | Similar weight loss in all diet groups Standard diet: 10.1 kg High-dairy diet: 11.7 kg High fiber and high dairy diet: 10.4 Similar fat mass loss in all diet groups Standard diet: −7.5 kg High-dairy diet: −9.0 kg High fiber and high dairy diet: −8.5 kg Similar increase in HDL and reductions in total cholesterol, LDL, fasting glucose and insulin, leptin, hs-CRP | [197] |
3 | Turner-McGrievy et al. | 2015 | Vegan Vegetarian Pesco-vegetarian Semi-vegetarian Omnivorous | Overweight or obese adults Mean age: 48.74 ± 7.5 y BMI: 34.96 ± 5.2 kg/m2 | (17/46) | 6 months | Weight loss Vegan: −7.5% Vegetarian: −6.3% Pesco-vegetarian: −3.2% Semi-vegetarian: −3.2% Omnivorous: −3.1% | [205] |
Effects of Intermittent Fasting on Body Weight and Health | ||||||||
Author | Year | Diet | Participants | n (M/F) | Duration | Main Findings | Ref | |
1 | Varady et al. | 2009 | Alternate day fasting (Fast day: 25% of energy needs, alternated day: ad libitum food intake) | Obese adults Mean age: 46.0 ± 2.4 y BMI: 33.8 ± 1.0 kg/m2 | (4/12) | 10 weeks | Weight loss −5.6 ± 1.0 kg Body fat percent decreased from 45 ± 2% to 42 ± 2% Significant decreases in total cholesterol, LDL, TG, and blood pressure | [209] |
2 | Harvie et al. | 2011 | IER (∼2710 kJ/day for 2 days/week) or CER (∼6276 kJ/day for 7 days/week) | Overweight or obese premenopausal women Mean age: 40.05 y BMI: 30.6 ± 5.1 kg/m2 | (0/107) | 6 months | Weight loss IER: −6.4 kg CER: −5.6 kg Similar reductions in hs-CRP, leptin, total cholesterol, LDL, TG, and blood pressure. Reductions in fasting insulin and insulin resistance in both groups greater in the IER group. | [212] |
3 | Schübel et al. | 2018 | ICR (5:2, weekly energy deficit ∼20%) or CCR (daily energy deficit ∼20%) or control group | Overweight and obese adults Mean age: 50.2 ± 8 y BMI: 31.4 ± 3.8 kg/m2 | ICR: n: 49 CCR: n: 49 Control: n:52 | 50 weeks | Weight loss ICR: −5.2% ± 1.2%, CCR: −4.9% ± 1.1% Control: −1.7% ± 0.8% Similar reductions LDL, HDL, cholesterol, TG, insulin, HOMA-IR levels, and adipokines (adiponectin, leptin) | [213] |
5. Cytokines That Burn Our Fire: Are They the Cornerstones of Obesity Treatment for the Foreseeable Future?
5.1. Brain-Derived Neurotrophic Factor
5.2. β-aminoisobutyric Acid
5.3. Interleukin-6
5.4. Interleukin-15
5.5. Irisin
5.6. Meteorin-Like
6. Summary and Future Perspectives
Author Contributions
Funding
Institutional Review Board Statement
Informed Consent Statement
Data Availability Statement
Acknowledgments
Conflicts of Interest
References
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Atakan, M.M.; Koşar, Ş.N.; Güzel, Y.; Tin, H.T.; Yan, X. The Role of Exercise, Diet, and Cytokines in Preventing Obesity and Improving Adipose Tissue. Nutrients 2021, 13, 1459. https://doi.org/10.3390/nu13051459
Atakan MM, Koşar ŞN, Güzel Y, Tin HT, Yan X. The Role of Exercise, Diet, and Cytokines in Preventing Obesity and Improving Adipose Tissue. Nutrients. 2021; 13(5):1459. https://doi.org/10.3390/nu13051459
Chicago/Turabian StyleAtakan, Muhammed Mustafa, Şükran Nazan Koşar, Yasemin Güzel, Hiu Tung Tin, and Xu Yan. 2021. "The Role of Exercise, Diet, and Cytokines in Preventing Obesity and Improving Adipose Tissue" Nutrients 13, no. 5: 1459. https://doi.org/10.3390/nu13051459
APA StyleAtakan, M. M., Koşar, Ş. N., Güzel, Y., Tin, H. T., & Yan, X. (2021). The Role of Exercise, Diet, and Cytokines in Preventing Obesity and Improving Adipose Tissue. Nutrients, 13(5), 1459. https://doi.org/10.3390/nu13051459