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Adipose Tissue-Derived Signatures for Obesity and Type 2 Diabetes: Adipokines, Batokines and MicroRNAs

Min-Woo Lee, Mihye Lee, Kyoung-Jin Oh

Journal of Clinical Medicine · 2019 · Review · CC BY

Abstract

Obesity is one of the main risk factors for type 2 diabetes mellitus (T2DM). It is closely related to metabolic disturbances in the adipose tissue that primarily functions as a fat reservoir. For this reason, adipose tissue is considered as the primary site for initiation and aggravation of obesity and T2DM. As a key endocrine organ, the adipose tissue communicates with other organs, such as the brain, liver, muscle, and pancreas, for the maintenance of energy homeostasis. Two different types of adipose tissues—the white adipose tissue (WAT) and brown adipose tissue (BAT)—secrete bioactive peptides and proteins, known as “adipokines” and “batokines,” respectively. Some of them have beneficial anti-inflammatory effects, while others have harmful inflammatory effects. Recently, “exosomal microRNAs (miRNAs)” were identified as novel adipokines, as adipose tissue-derived exosomal miRNAs can affect other organs. In the present review, we discuss the role of adipose-derived secretory factors—adipokines, batokines, and exosomal miRNA—in obesity and T2DM. It will provide new insights into the pathophysiological mechanisms involved in disturbances of adipose-derived factors and will support the development of adipose-derived factors as potential therapeutic targets for obesity and T2DM.

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From PubMed Central, U.S. National Library of Medicine, as current on Oct 26, 2026. Paragraph numbers are ours, so an answer can point at one.

1. Introduction

1Modern sedentary lifestyle and excessive calorie intake have increased the chance of developing metabolic diseases such as obesity and type 2 diabetes mellitus (T2DM). Obesity and T2DM are two of the most pressing public health concerns worldwide because of their association with life-threatening diseases, including cardiovascular diseases and cancers. Obesity, especially pathologic expansion of visceral white adipose tissue (vWAT), increases the risk of developing T2DM. Depending on the race, more than 75–90% of patients with T2DM are overweight or obese. The strong association of obesity and T2DM is supported by the term “diabesity”. Obesity and the progression from obesity to T2DM can partly be explained by changes in adipose tissue (AT) composition and function.

2The AT is an active endocrine organ secreting several hundreds of bioactive molecules, referred to as adipokines. The adipokines affect adipocyte functions in an autocrine and paracrine manner and enable the AT to extensively communicate with the brain, liver, muscle, pancreas, and other organs in an endocrine manner. The AT has been classically considered as a fat reservoir for storage of excess calories. However, it has recently been reported that AT also functions as an energy-consuming organ that participates in the regulation of thermogenesis, the process that dissipates energy in the form of heat. The AT is broadly classified into the two depots based on their morphology and functions–white adipose tissue (WAT) and brown adipose tissue (BAT). WAT contains cells with a single large lipid droplet, called unilocular cells that are dynamically altered in response to the calorie state. Excess calories are stored as triacylglycerol (TG) in lipid droplets (lipogenesis), and the stored TG is broken down into fatty acids and glycerol (lipolysis) for use by other organs when energy is required.

3In contrast, BAT dissipates lipids in the form of “heat” via β-adrenergic stimulations or cold exposure. Adipocytes in BAT appear as multilocular cells with small lipid droplets, and have a large number of mitochondria and upregulated mitochondrial uncoupling protein 1 (UCP1), which is embedded in the inner membrane of the mitochondrion and uncouples oxidative respiration from ATP synthesis. BAT is subdivided into two types–classical BAT and inducible BAT–based on their origin, location, and developmental features. Classical BAT is observed in specific regions of the body such as the interscapular region and kidney and constitutively sustains its thermogenic activity without any external stimuli. The inducible BAT, known as brite (brown in white), beige, or brown-like AT is present within the WAT, and its amount and activity are induced by stimuli such as cold exposure or β-adrenergic agonists.

4WAT and BAT secrete bioactive peptides and proteins, referred to as “adipokines” and “brown adipokines or batokines,” respectively. It is thought that the WAT-derived adipokines are metabolically different from the BAT-derived batokines, as WAT and BAT differ in morphology and function. Recently, exosomal miRNAs have also been established as factors secreted from ATs. miRNAs are secreted from AT into the blood and preserved intact inside exosomes. Circulating exosomal miRNAs contain intact genetic information and can reflect the physiological status of ATs. It has been reported that exosomal miRNAs participate in a variety of metabolic processes such as glucose/lipid metabolism, insulin signaling, inflammation, and adipogenesis in various tissues. These adipose-derived signals, including adipokines, batokines, and exosomal miRNA, can be altered by the metabolic status. The altered secretion pattern of adipose-derived factors affects the AT itself as well as other metabolic organs, including the brain, liver, muscles, and pancreas (Figure 1).

5This review will classify adipokines, batokines, and microRNA as adipose tissue-derived factors, and introduce them as molecular markers of obesity and T2DM.

2. Adipokines—Good or Bad?

6WAT is the primary organ that stores excess energy in the form of fats. It has been known as an endocrine organ that secretes bioactive peptides and proteins, referred to as adipokines. Therefore, changes in the concentration of adipokines and inflammatory markers can be indicators of AT dysfunction and pathogenic conditions. Additionally, it provides critical clues that can explain the pathogenic mechanisms of obesity and T2DM. WAT is divided into two regional and functional depots—vWAT and subcutaneous white adipose tissues (sWAT). vWAT is related to insulin resistance, inflammation, dyslipidemia, obesity, and T2DM caused by the pathogenic expansion of WAT. Conversely, sWAT is frequently associated with metabolic improvement and insulin sensitivity, as it contains brown-like cells known as beige adipocytes or inducible brown adipocytes that perform mitochondrial and thermogenic functions and burn fats. Besides adipocytes, the macrophages, neutrophils, foam cells, endothelial cells, and fibroblasts also function as secretory cells in the AT. Therefore, their composition and distribution in AT are also important for the maintenance of metabolic homeostasis.

7In this section, we consider bioactive molecules derived from all secretory cells in the WAT, as adipokines. Adipokines can be broadly classified into anti-inflammatory and inflammatory adipokines, depending on their expression levels under obese conditions—adipokines that are upregulated under obese conditions are categorized as inflammatory adipokines (Figure 2A). An extensive review on a large number of adipokines has been published by Oh et al.. Therefore, in this review, we have introduced new adipokines along with traditional adipokines. We have briefly summarized pathological changes in adipokine expression and discussed the usefulness and clinical significance of adipokines as therapeutic targets for obesity and T2DM (Figure 2 and Figure 3). Adipokines, such as FGF21, that have thermogenic functions and are derived from beige adipocytes in sWAT are categorized into batokines. These adipokines will be described in a different section on batokines.

2.1.1. Adiponectin

8Adiponectin is one of the most abundant adipokines that is highly expressed in WAT and has anti-obesity, anti-atherogenic, and anti-diabetic effects. Patients with obesity and/or T2DM exhibit significantly reduced circulating adiponectin levels. It is a 30-kDa protein with 244 amino acids. Extensive post-transcriptional modifications facilitate multimerization and secretion of adiponectin. After post-transcriptional modifications, adiponectin is secreted into the blood in three different homomeric complexes—trimer (the low-molecular-weight (LMW) form), hexamer (the medium-molecular-weight (MMW) form), and multimer (the high-molecular-weight (HMW) form). Among them, the HMW form contributes to favorable metabolic effects of adiponectin correlated with glucose tolerance, insulin sensitivity, and weight loss. In the liver, adiponectin alleviates steatosis, fibrosis, and inflammation. In the pancreatic islet β-cells, adiponectin enhances glucose-stimulated insulin secretion (GSIS) via AMPK activation, and increases β-cell function and proliferation. Skeletal muscles can also generate and secrete adiponectin. It is thought that adiponectin has insulin-sensitizing and anti-diabetic functions in skeletal muscles. Adiponectin signals via two adiponectin receptors—AdipoR1 and AdipoR2—on the target cells. AdipoR1 and R2 were first cloned in 2003. AdipoR1 is expressed in several tissues, including skeletal muscles, heart, spleen, kidney, and liver. AdipoR2 is mainly expressed in the liver. AdipoR1 is associated with AMPK activation and suppression of gluconeogenic and lipogenic gene expression. AdipoR2 is related to activated PPARα, increased glucose uptake, enhanced fatty acid oxidation, and improved insulin sensitivity. Both AdipoR1 and R2 are involved in glucose/lipid metabolism and insulin sensitivity. Importantly, circulating adiponectin levels are inversely correlated with obesity, diabetes, and obesity-related diseases. Therefore, adiponectin is a promising and attractive target for the treatment of obesity and T2DM.

2.1.2. Omentin-1

9Omentin-1, also known as intelectin-1, has been recently identified as a novel adipokine consisting of 313 amino acids that is selectively produced by the vWAT. It exerts anti-inflammatory, anti-obesity, anti-diabetic properties, and has beneficial effects on exercise-induced insulin-sensitization. The AT consists of two major components – the mature adipocytes and the stromal vascular fraction containing preadipocytes, macrophages, lymphocytes, and endothelial cells. Omentin-1 is abundantly expressed in the stromal vascular fraction of the vWAT. It is also expressed at extremely low levels in the sWAT and mature adipocytes of vWAT. In human adipocytes, omentin-1 enhanced insulin-stimulated glucose uptake and activated insulin receptor substrate (IRS) by inhibiting the mTOR signaling pathway. Omentin-1 levels are significantly decreased in the serum and vWAT of overweight and obese individuals as well as in the serum of T2DM patients. Collectively, omentin-1 as an adipokine could be a new marker for predicting the risk of metabolic diseases such as obesity and T2DM.

2.1.3. Secreted Frizzled-Related Protein 5 (SFRP5)

10Secreted frizzled-related protein 5 (SFRP5) has been newly identified as an adipokine that is predominantly expressed in WAT rather than in other ATs. It has beneficial effects on insulin sensitivity and inflammation and is known as a novel effector of adipose tissue-linked chronic inflammation. It was reported as a negative regulator that inhibits Wnt signaling transduction by binding to Wnt protein. Reduced Srfp5 provoked Wnt5a-mediated inflammation, obesity, and atherosclerosis. Additionally, depletion of SFRP5 augmented the macrophage population, and the proinflammatory proteins in mouse AT, and exhibited impaired glucose clearance and reduced insulin sensitivity. Serum SFRP5 levels are low in subjects with obesity and T2DM. These demonstrate that decreased expression of SFRP5 is a prognostic marker for the risk of obesity and T2DM.

2.1.4. Cardiotrophin-1

11Cardiotrophin-1 (CT-1) was identified as a member of the IL-6 cytokine family due to its structural similarity with other IL-6 family members. It is considered as a key regulator of glucose and lipid metabolism, and as a factor that can improve obesity and insulin resistance. CT-1 is expressed at high levels in liver, kidney, skeletal muscle, heart, and lung, and is expressed at low levels in the brain and testis. CT-1 is chiefly produced and released from the AT. CT-1 deficient mice showed obesity, insulin resistance, and high levels of cholesterol in the blood, despite decreased food intake. These findings demonstrate that loss of CT-1 is associated with lower energy expenditure. Conversely, chronic administration of CT-1 reduced the size of adipocytes through decreased expression of lipogenic genes and promoted the expression of genes related to lipolysis and fatty acid oxidation, subsequently leading to metabolic remodeling of WAT in mice. Additionally, CT-1 improved glucose homeostasis and promoted glucose uptake by insulin-stimulated phosphorylation of AKT in myotubes and adipocytes. Further, acute and chronic administration of CT-1 exhibited hypoglycemic and anti-obesity properties through low intestinal sugar uptake. CT-1 exerted lipolytic properties in AT through the activation of cAMP/protein kinase A (PKA) signaling pathway. The effects of CT-1 levels on obesity and metabolic diseases in humans is controversial. However, many studies described that expression levels of CT-1 are decreased in WAT of obese mice, and significantly reduced in overweight and obese subjects.

2.2.1. Fatty Acid Binding Protein 4 (FABP-4)

12Fatty acid binding protein 4 (FABP4; also known as aP2) is mainly expressed in adipocytes and macrophages. It plays a critical role in insulin resistance, atherosclerosis, and inflammation. FABP4 is released from adipocytes, and its level is relatively higher than other adipokines in the serum. Circulating FABP4 levels are elevated in obesity-related metabolic disorders such as obesity, insulin resistance, diabetes, hypertension, atherosclerosis, and impaired myocardial contractility. Further, circulating levels of FABP4 is positively correlated with adiposity shown by body mass index (BMI) and body fat percentage, whereas it is negatively correlated with plasma concentration of adiponectin. Obesity increases insulin secretion from pancreatic β-cells. FABP4 promotes insulin secretion in vitro and in vivo, and high circulating levels of FABP4 promotes GSIS in humans. Conversely, insulin suppresses FABP4 secretion from adipocytes in vitro and in mice and humans. These data suggest that FABP4 increases insulin secretion from pancreatic β-cells during obesity, as an adaptive β-cell response with adiposity, suggesting that FABP4 is a detectable proinflammatory biomarker that can mirror adiposity and obesity.

2.2.2. Acylation-Stimulating Protein (ASP)

13ASP is an adipocyte autocrine factor that increases triglyceride synthesis from glucose and free fatty acids (FFA) in adipocytes. Several studies described that plasma ASP levels are increased in obese and hyperlipidemic individuals, and that increased ASP levels are positively correlated with increased TG levels. Conversely, weight loss and fasting, conditions that lower TG, reduced ASP levels. Further, administration of ASP enhanced high-fat diet (HFD)-induced insulin resistance by increased adipocyte inflammatory response. Insulin increases fatty acid uptake by adipocytes and inhibits fat hydrolysis from adipocytes. ASP plays its role in an additive and independent manner to the action of insulin. Additionally, ASP is a cleavage product of complement 3 (C3), a critical component of the innate immune system. Therefore, the lack of C3 results in ASP deficiency and consequently leads to decreased leptin levels and reduced body fat. Furthermore, loss of ASP contributed to delayed clearance of postprandial triglycerides and fatty acids. These data demonstrate that ASP has powerful anabolic effects on AT.

2.2.3. Retinol-Binding Protein 4 (RBP4)

14Retinol-Binding Protein 4 (RBP4) is a 21 kDa hepatocyte-secreted factor and a retinol transporter. Recently, it was reported that RBP4 is also secreted by adipocytes and macrophages as well as the liver. RBP4 concentrations are associated with high levels of blood pressure, cholesterol, triglycerides, and BMI, and are related to low levels of high-density lipoprotein (HDL). Serum RBP4 levels are highly expressed under insulin resistance conditions related to obesity and T2DM. RBP4 is more markedly expressed in visceral fat rather than subcutaneous fat, and RBP4 expression in visceral fat is significantly increased in individuals with obesity and T2DM. Serum RBP4 levels are positively linked with adipose RBP4 mRNA levels and intra-abdominal fat mass. Adipose RBP4 mRNA levels, especially in the visceral fat, are inversely correlated with GLUT4 mRNA and are positively linked with adiposity in insulin resistance. Treatment of RBP4 suppressed insulin-stimulated phosphorylation of insulin receptor substrate 1 (IRS1) and ERK1/2 in human adipocytes. Furthermore, RBP4 led to insulin resistance by induction of CD4+ T-helper cell polarization and AT inflammation. The lowering of inflammatory RBP4 levels might be a promising target for the treatment of insulin resistance and obesity-related diseases.

2.2.4. Lipocalin-2 (LCN2)

15Lipocalin-2 (LCN2) is abundantly expressed in the ATs. LCN2, also known as neutrophil gelatinase-associated lipocalin (NGAL), is also expressed in the liver, kidney, lung, and the macrophages and neutrophils. It promotes inflammation, obesity, and insulin resistance, and plays a role in AT remodeling during HFD-induced obesity. Expression and secretion of LCN2 are induced by several inflammatory stimuli such as lipopolysaccharides (LPS) and IL1β. In particular, the proinflammatory transcription factor NF-κB and CCAAT/enhancer-binding protein (C/EBP) binds to its consensus motif on LCN2 promoter and regulates LCN2 expression. LCN2 expression was increased in AT and serum of obese individuals as well as genetic and diet-induced obese mice. Serum levels of LCN2 correlate with obesity and BMI, especially in severely obese women. Furthermore, LCN2-deficiency attenuated aging- and obesity-induced insulin resistance by inhibiting 12-lipoxygenase, an enzyme that metabolizes arachidonic acids, and tumor necrosis factor-α (TNF-α), a critical insulin resistance inducer. Conversely, some studies showed that depletion of LCN2 in mice increased diet-induced obesity, insulin resistance, and increased expression of proinflammatory mediators, because of impaired thermogenesis. It was further corroborated by another study that showed that LNC2 regulated oxidative metabolism and BAT activation in an adrenergic-independent manner. The reasons for these two conflicting opinions in LNC2-deficient mice is currently unknown. However, it is thought that the beneficial effects of LCN2 might be limited to thermogenesis or BAT metabolism in mice.

2.2.5. Chemerin

16Chemerin has been identified as a novel adipokine that regulates adipogenesis and adipocyte metabolism and promotes insulin resistance. It is abundantly expressed in ATs, liver, and innate immune cells. Chemerin levels are elevated in serum and ATs of patients with obesity and T2DM and obese and T2DM mouse models such as ob/ob and db/db mice. Chemerin plays a role in the activation of endothelial molecules (ICAM-1 and E-selectin), atherosclerotic vascular changes, and the pathogenesis of cardiovascular disease in T2DM. Further, serum chemerin levels are correlated with abdominal visceral fat accumulation, BMI, blood pressure, insulin resistance, and cholesterol levels. Elevated circulating chemerin impaired glucose tolerance. Consistently, injection of recombinant chemerin aggravated glucose intolerance, reduced serum insulin levels, and impeded tissue glucose uptake in mouse models of obesity and diabetes. These observations suggest that chemerin is metabolically harmful and promotes insulin resistance. In contrast, chemerin binds to orphan G protein-coupled receptor CMKLR1 (ChemR23 or DEZ) and regulates intracellular signaling. Chemerin and its receptor ChemR23 promoted insulin-dependent glucose uptake in ATs. Loss of ChemR23 increased LPS-induced inflammatory neutrophil infiltration, because of the reduction in chemerin response. In pancreatic β-cells, chemerin, and its receptor ChemR23 enhanced β-cell function and GSIS, and improved glucose tolerance. These anti-inflammatory effects of chemerin appear to be in a ChemR23-dependent manner.

2.2.6. Visfatin/PBEF/Nampt

17Visfatin was identified as a pre-B-cell colony-enhancing factor 1 (PBEF) and a growth factor for B cell precursors in the liver, skeletal muscle, and bone marrow. Circulating visfatin levels reflect the WAT mass and adiposity, and are dependent on insulin resistance. Its concentration is markedly increased in T2DM patients concomitant with obesity. Further, visfatin is not only produced by ATs, but also by the neutrophils. Individuals with inflammatory diseases have elevated levels of circulating visfatin. It has been shown that visfatin and inflammatory factors influence each other. Visfatin transcription was influenced by TNF, IL-6, and glucocorticoids. Visfatin also stimulated secretion of TNF, IL-6, and IL-1β, and triggered macrophage differentiation, and monocyte-induced alloresponses in lymphocytes. These suggest that visfatin mediates proinflammatory signaling. Conversely, visfatin plays a critical role in the synthesis of nicotinamide mononucleotide (NMN) as a phosphoribosyl transferase enzyme ((nicotinamide phosphoribosyltransferase (NAMPT)). Administration of NMN, a product of the NAMPT reaction and a key NAD+ intermediate, improved glucose intolerance and hepatic insulin sensitivity in HFD-induced T2DM. Further, NAMPT-mediated NAD+ biosynthesis ameliorated aging-induced T2DM. These data suggest that NAMPT-mediated NAD+ would contribute to the prevention of obesity and T2DM by high-calorie intake and aging. Additionally, visfatin inhibited β-cell apoptosis, and played a beneficial role in β-cell proliferation and function. Collectively, it is thought that visfatin is a proinflammatory mediator, and can exert beneficial effects depending on the physiological and nutritional conditions such as NAMPT-mediated NAD+ biosynthesis by NMN production.

2.2.7. Leptin

18Leptin is a classical proinflammatory adipokine that has been identified in ob/ob mice (ob is also known as obese gene or Lep). Leptin is also known as the satiety hormone that regulates body weight by suppressing hunger. It is a 16-kDa nonglycosylated peptide hormone that is synthesized mainly in adipose cells to regulate weight control via its cognate receptor in the hypothalamus. It has an important role in various cellular process, including reproductive function, fertility, puberty, activity, energy expenditure, atherogenesis, fetal growth, appetite, and food intake. Leptin, as a well-known obesity marker, enhances the production of TNF and IL-6 in monocytes. It also enhances cell proliferation, the generation of reactive oxygen species (ROS), and migratory responses in monocytes. In macrophages, leptin promotes the production of CC-chemokine ligands by activating the JAK2/STAT3 signaling pathway. Conversely, TNFα mediated lipopolysaccharide (LPS) induced leptin levels, and stimulated leptin secretion from adipocytes. There are two circulating forms of leptin—a biologically active free form and an inactive form that is bound to plasma proteins. The levels of circulating leptin are proportional to the body fat mass both in mice and in humans—obese individuals typically produce higher levels of leptin than lean individuals. Leptin levels are correlated with obesity-related diseases such as myocardial infarction and cerebral stroke. Leptin stimulated platelet-dependent thrombosis and upregulated vascular adhesion molecules and the prothrombotic tissue factors. Further, leptin can be a marker for the levels of energy-dense triacylglycerols in AT. In contrast, leptin deficiency and leptin resistance induce severe insulin resistance. Leptin administration normalized hyperinsulinemia and hyperglycemia and improved insulin resistance and lipodystrophy. Additionally, leptin stimulates fatty acid oxidation and reduces body fat accumulation by activating AMP-activated protein kinase (AMPK) in non-ATs, resulting in improved insulin sensitivity. These findings demonstrate the ability of leptin to regulate glucose and lipid metabolism and its therapeutic potential in obesity and T2DM.

2.2.8. Vaspin

19Visceral adipose tissue-derived serpin (vaspin) is a member of the serine protease inhibitor family. Recently, it was proposed as a useful marker associated with obesity, insulin resistance, and T2DM. Human vaspin has been identified as an adipokine of 414 amino acids. It is produced by several tissues, including the AT, liver, skeletal muscle, pancreas, stomach, and skin. Unlike omentin-1, its expression is not restricted to the vWATs. It is found in 23% of visceral and in 15% of sWATs. Additionally, vaspin is highly expressed in mature adipocytes rather than in the stromal vascular fraction of vWAT. Serum vaspin concentration is high in subjects with obesity and/or T2DM, and is lower in subjects who have a normal body weight than those who are overweight. The mRNA level of vaspin is enhanced by increased fat mass, impaired glucose tolerance, and decreased insulin sensitivity observed in individuals with obesity and T2DM. Many studies support serum vaspin as a potential marker predicting obesity and T2DM. However, these increased levels of vaspin are thought to be compensating for obesity and T2DM. Recombinant vaspin administration improved glucose tolerance and insulin sensitivity. Further, it markedly reduced food intake by decreasing the expression of NPY and increasing the expression of POMC in the hypothalamus. The beneficial effects of vaspin in glucose metabolism are closely related to its ability to inhibit protease kallikrein 7, which can cleave and degrade insulin A and B chains. Vaspin inhibits kallikrein 7-induced degradation of insulin, and can consequently stabilize insulin in circulation. Therefore, improved glucose metabolism with vaspin treatment might be associated with the increased circulating insulin concentration. These findings suggest that vaspin is a promising target for the treatment of obesity and T2DM.

2.2.9. Resistin/ADSF

20Resistin is a 12.5 kDa cysteine-rich adipose tissue-specific secretory factor (ADSF), which is associated with resistance to insulin. It is known as a proinflammatory adipokine. Circulating levels of resistin were increased in genetic and diet-induced obesity and were decreased by treatment with anti-diabetic drug rosiglitazone. Recombinant resistin triggered systemic insulin resistance in mice and decreased insulin-mediated glucose uptake in adipocytes. Contrarily, mRNA levels of resistin are decreased in WAT of obese mice, and administration of anti-resistin antibody improved insulin resistance and blood glucose levels. It has been reported that infusion of resistin in rodents aggravated hepatic glucose production, and triggered severe hepatic insulin resistance. Under fasting conditions, decreased resistin partly reduced hepatic glucose production by activating AMPK and inhibiting hepatic gluconeogenic enzymes, and regulating hyperglycemia associated with obesity. Further, depletion of resistin in leptin-deficient (ob/ob) and diet-induced obesity mice improved hepatic glucose production and increased peripheral glucose uptake. Resistin induced suppressor of cytokine signaling 3 (SOCS-3), a known inhibitor of insulin signaling, to regulate glucose metabolism. Although there are exceptions, resistin is thought to induce insulin resistance in mice. Resistin synthesis in mice is limited to adipocytes, whereas in humans, it is expressed at a low level and is produced by macrophages and monocytes, but not adipocytes. The protein sequence and expression pattern of resistin in humans is different from those in rodents. It is still unclear whether resistin promotes insulin resistance in humans.

2.2.10. Apelin

21Apelin has been identified as an adipokine that contributes to the regulation of glucose metabolism in an endocrine fashion. It is an endogenous ligand of the G-protein-coupled receptor and is expressed in various tissues, such as the skeletal muscles, heart, stomach, and central nervous system (especially in the hypothalamus) as well as in the ATs. Higher circulating apelin is observed in patients with obesity and T2DM and is associated with insulin resistance and hyperinsulinemia in vivo and in vitro. Apelin-induced deterioration of glucose metabolism mediated by impeding GSIS. Increased circulating apelin inhibited insulin release and impeded glucose metabolism in mice. Further, apelin decreased adipocyte number and increased the size of lipid droplets by controlling activation of G(q), G(i), and AMPK, suggesting that apelin would negatively regulate lipolysis in ATs. Conversely, apelin promoted glucose uptake by the activation of the AMPK and AKT signaling pathway in soleus muscle. In obese and insulin-resistant models, administration of apelin improved glucose tolerance and glucose utilization, indicating that elevated circulating apelin might be a phenotype of apelin resistance or an adaptation of the body to raised apelin levels. Moreover, many studies reported the beneficial effects of apelin on hepatic fibrosis, cardiac contractility, blood pressure, cardiovascular and fluid homeostasis, food intake, cell proliferation, and angiogenesis. Further studies are required to understand the effects of apelin under physiological and pathological conditions.

2.2.11. Gremlin-1

22Gremlin is a glycoprotein that belongs to the Dan (neuroblastoma) family. It exerts an inhibitory effect by forming heterodimers with bone morphogenetic protein (BMP) that belong to the transforming growth factor-beta (TGF-β) family. Three alternative splicing forms of gremlin—gremlin1, gremlin2, and gremlin3—have been identified, and gremlin1 is the most common isoform. Gremlin1 is a 184 amino acid (25 kDa) cysteine knot superfamily protein with an eight-membered ring. Gremlin1 secreted from (pre)adipocytes directly binds to BMP4 and prevents its interaction with BMP receptors. BMP4 is involved in the process that determines the fate of adipose precursor cells toward the white adipose lineage and is induced during preadipocyte differentiation in humans. Further, BMP4 expression in WAT of mice led to brown-like changes in sWAT and stimulated white-to-brown transition. Hypertrophic obesity is associated with AT dysfunction and insulin resistance and is partly caused by impaired subcutaneous adipogenesis. Gremlin1 is increased in hypertrophic obesity in humans, a state of BMP4 resistance. It is thought that increased Gremlin1 partly contributes to BMP4 resistance in hypertrophic obesity. Further, the effect prominently appeared in beige/brown adipogenesis rather than white adipogenesis.

3. Batokines

23Beyond the well-known classical function of storing excess energy in the form of triacylglycerol, adipocytes are also involved in dissipating energy in the form of non-physical matter, heat. Since the discovery of the thermogenic function of adipocytes, it has been suggested that these heat-producing adipocytes are broken down into two groups—classical brown adipocytes and brown-like (also known as beige or brite) adipocytes based on their origin, location, and developmental features. In addition, even though they belong to the AT and have a profile that is different from the WAT, BAT and beige WAT can secrete several peptides and non-peptides. These secretory factors enhance the thermogenic activity by regulating hypertrophy and hyperplasia in adipocytes and also help to attain maximum activity by regulating vascularization, innervation, and substrate utilization in ATs, processes that are all integrally required when exposed to a prolonged cold environment. In this section, we have included factors that are specifically secreted from BAT or beige WAT—the so-called batokines—based on their functional effects on targets (Figure 4).

3.1.1. Fibroblast Growth Factor 21 (FGF21)

24Several batokines have been considered to positively or negatively contribute to heat production by regulating thermogenic signaling and gene regulation. FGF21 is one of the well-elucidated batokines, and since its discovery, its beneficial effects have been extensively studied in both rodents and humans. FGF21 belongs to the FGF family and is considered to regulate glucose and lipid metabolism and energy homeostasis. It is mainly expressed in the liver and WAT. It was recently reported that besides the liver and WAT, BAT and beige WAT also contribute to systemic FGF21 levels. When exposed to cold or its relevant stimuli such as norepinephrine or CL-316243, FGF21 expression and secretion by BAT or beige WAT is upregulated through the β3-adrenergic signaling cascade. Increased FGF21 augments energy catabolism by promoting glucose uptake and oxidation by Glut1 expression and activation of lipolysis and reduction of fatty acid synthesis. In contrast, it was demonstrated that FGF21 also directly promotes UCP1-dependent thermogenesis in BAT and beige WAT. Because of its promising benefits against metabolic disorders, the effects of FGF21 have been re-assessed in humans. It has been shown that FGF21 is preferentially expressed in human beige adipocytes. Further, mild cold exposure increases plasma FGF21 levels with BAT activation in the neck and shoulders. Moreover, neonates have a large amount of BAT content and maintain high levels of FGF21. These strongly suggest that FGF21 expression in humans is closely associated with the thermogenic activity of ATs. However, despite many studies, it remains to be investigated whether thermogenically active adipocytes are key providers of circulating FGF21 and whether FGF21 produced and secreted during thermogenic activation has similar effects in humans and rodents.

3.1.2. Triiodothyronine (T3)

25T3 is a circulating thyroid hormone, which contributes to many physiological processes, including metabolism, thermogenesis, development, and heart rate. Most T3 in circulation is derived from direct release from the thyroid gland and T4 conversion in the liver, hypothalamus and anterior pituitary, each accounting for approximately 20% and 80%, respectively. In the context of cold exposure, T3 is required for the complete activation of thermogenesis. Circulating T3 has a limited function in thermogenesis; in contrast, T3 locally produced from T4 by D2 deiodinase (DIO2), induced by beta-adrenergic signaling in brown or white adipocytes is critical for the induction of thermogenesis by acting through the T3 receptor beta (TRβ1) isoform. However, it remains unknown whether T3 produced in brown or beige adipocytes can act in an endocrine manner.

3.1.3. Adenosine

26Recently, it was suggested that purinergic signaling activated by extracellular nucleotides or their derivatives is involved in many physiological and pathological processes of ATs. In particular, adenosine release can be enhanced by sympathetically activated brown adipocytes, and this released adenosine positively contributes to the activation of BAT and browning of WAT in humans and rodents, suggesting that it is a potential therapeutic target against diet-induced obesity.

3.1.4. Slit2-C

27Slit is a secreted extracellular matrix protein, which was first identified in the development of the central nervous system in Drosophila. Slit consists of three homologs—Slit1, Slit2, and Slit3. Under thermogenic stimulation, in mammals, it has been unraveled that Slit2 can be secreted in a cleaved form, called Slit2-C, from beige adipocytes. The secreted Slit2-C can stimulate adipose thermogenesis by activating the PKA signaling cascade, resulting in augmented energy expenditure and improved glucose homeostasis in mice. Furthermore, Kang et al. demonstrated Slit2 presence in human circulation, and its level revealed a negative correlation with diabetic patients.

3.1.5. Follistatin

28Follistatin (Fst) is a soluble glycoprotein highly expressed in BAT. Exposure to cold induces Fst secretion into the circulation. Fst confers positive effects on brown and beige adipose thermogenesis by blocking the inhibitory cue from TGF-β/Smad3/myostatin signaling.

3.1.6. Endocannabinoids

29When BAT activation or WAT browning appears, synthesis and release of endocannabinoids are induced in BAT and WAT, which then exert inhibitory functions in an autocrine manner. Mechanistically, endocannabinoids bind to the cannabinoid 1 receptor (CB1R) and interrupt the activated β3-adrenoreceptor signaling cascade by suppressing the levels of intracellular cyclic cAMP, thus turning off the BAT activation and WAT browning.

3.1.7. Soluble form of the Low-Density Lipoprotein Receptor Relative LR11 (sLR11)

30sLR11 was identified as one of the negative regulators of thermogenesis, and its expression and serum level increase when thermogenesis is activated. Whittle et al. demonstrated that sLR11 regulates the balance between lipid storage and oxidation in response to changing environmental temperature and diet. Mechanistically, sLR11 binds directly to the BMP receptor, and thus interrupts its downstream signaling, resulting in decreased thermogenesis. It has also been revealed that the sLR11 level positively correlates with the fat mass in humans.

3.1.8. Growth Differentiation Factor-8 (GDF8/Myostatin)

31Activation of Agouti-related peptide (AgRP) neurons by an energy deficit promotes the expression of GFP8 in BAT. In turn, in an autocrine manner, GDF8 serves as a negative regulator of brown adipogenesis and thermogenesis through the activation of myostatin/activin receptorIIB (ActRIIB)/Smad3 signaling.

3.1.9. Angiopoietin-Like8 (ANGPTL8)

32ANGPTL8, also called lipasin, RIFL (refeeding induced fat and liver) or betatrophin, is expressed in the liver, WAT, and BAT. A study suggested that ANGPTL8 represses the activity of lipoprotein lipase, a protein that stimulates lipolysis. With regard to thermogenesis, although it has not yet been demonstrated, it is assumed that ANGPTL8 negatively regulates the thermogenic process. In line with this, Fu et al. showed that cold exposure dramatically increased ANGPTL8 expression in BAT of mice. In humans, as ANGPTL8 expression is only detectable in the WAT, the question of whether ANGPTL8 expression in WAT is altered by cold-stimulation remains open.

3.1.10. Endothelin-1

33Endothelin-1 is initially expressed in a precursor form, referred to as preproendothelin-1 (PPET1), in the vascular endothelial cells, and when proteolytically cleaved, it likely contributes to blood vessel constriction. Endothelin-1 (ET-1) is expressed and secreted by brown and beige adipocytes. Released ET-1 inhibits brown and beige adipogenesis via G(q) signaling. Moreover, ET-1 secretion by both cells can be blocked by the activation of β3-adrenergic signaling, likely acting as a negative regulator for thermogenesis.

3.2.1. Vascular Endothelial Growth Factor A (VEGF-A)

34Appropriate regulation of vasculature is an essential process in the maintenance of BAT and WAT functions under an altered environment, temperature, or diet. In particular, during cold acclimation, vascularization in both BAT and WAT is markedly enhanced in order to increase the supply of nutrients and oxygen and to export the generated heat to the periphery. It is known that vascularization in AT is in part, dependent on VEGF-A signaling. As direct evidence for the significance of VEGF-A-vascularization axis in thermogenesis, specific overexpression of VEGF-A in adipocytes promotes vascularization and UCP1 expression both in WAT and BAT, enhancing thermogenesis. Conversely, depletion of VEGF-A in the adipocytes of normal mouse inhibited thermogenesis, suggesting that VEGF-A-induced vascularization is a key step in the activation of thermogenesis. Importantly, Shimizu et al. proposed VEGF-A as a potential therapeutic intervention for obesity-associated insulin resistance. Introduction of VEGF-A into AT of the obese mouse could recover vascularity and impaired insulin sensitivity and systemic glucose metabolism.

3.2.2. Nitric Oxide

35Under cold environments, nitric oxide (NO) makes two important contributions to thermogenic adaptation. NO not only enhances the vasodilation in BAT, but also increases the expression of key thermogenic components such as PGC1-a, cell death-inducing DFFA-like effector A (CIDEA) and UCP1 in white adipocytes. When NO is produced by inducible nitric oxide synthase (iNOS) in brown adipocytes, it can be released, and in turn, enhances the transfer of substrates and heat by dilating blood vessels. In contrast, NO can activate the thermogenic process in WAT independently of the iNOS pathway. NO is synthesized by serial reduction from inorganic nitrate and nitrite and is known to promote browning of WAT through the activation of the PKG-PGC1-a signaling pathway.

3.2.3. Hydrogen Peroxide (H2O2)

36Abnormal vascular remodeling is intimately associated with the development of hypertension in patients with obesity and diabetes. Perivascular ATs (PVATs) of different adipose depots exhibit discrete adipose features—white phenotype at resistance vessels vs. brown phenotype at the aorta. Given these different functional features, PVATs of resistance vessels rather than those of the aorta is prone to be anti-inflammatory and anti-contractile. Recently, Friederich-Persson et al. identified an intriguing mechanism by which H2O2 determines these two features. Particularly, in BAT or beige AT, H2O2 produced by NOX4 reduces vascular contractility by activating cyclic GMP-dependent protein kinase G type-1a, raising a possibility that increasing BAT content could recover vascular complications.

3.2.4. Neuregulin-4 (NRG4)

37Neuregulin-4 (NRG4) is a secretory protein associated with epidermal growth factor (EGF). Although NRG4 is expressed and secreted by all ATs, it is highly enriched in BAT or WAT when exposed to cold. Increased NRG4 has many beneficial effects on metabolic homeostasis mediated in a paracrine or endocrine fashion; these include hepatic lipogenesis, fuel oxidation, nerve innervation, and angiogenesis. NRG4 levels are inversely associated with nonalcoholic fatty liver disease (NAFLD) and type 2 diabetes in rodents. Recently, a similar trend in NRG4 levels was also observed in humans, demonstrating its significance in human diseases. Similar to that in rodents, lower NRG4 levels in circulation are observed in patients with gestational diabetes mellitus, T2DM, metabolic syndrome, and coronary artery diseases.

3.3.1. Meteorin-Like (Mtrnl)

38Meteorin-like (Mtrnl) was identified as a circulating hormone. Its expression and secretion are induced by exercise and cold exposure in skeletal muscle and AT, respectively. Increased circulating Mtrnl induces a negative energy balance by increasing whole-body energy expenditure and WAT thermogenesis. Mtrnl utilizes an unconventional pathway, regardless of sympathetic nervous system signaling, to activate thermogenesis in beige WAT. Mtrnl stimulates the recruitment of eosinophils and alternatively activated macrophages in WAT, and thus increases the level of catecholamines, the key ligand of β3-adrenergic signaling activation, by promoting secretion from alternatively activated macrophages.

3.3.2. Insulin Growth Factor-1 (IGF-1)

39IGF-1 is a mitogenic peptide, which is involved in growth, development, and differentiation in various tissues by acting in an endocrine, paracrine, and autocrine manner. Its importance as a batokine was demonstrated by a BAT transplantation trial. When BAT was placed in mice with type 1 diabetes, a significant and sharp increase in the expression of IGF-1 in BAT and circulating IGF-1 levels together with mitigated pro-inflammation and ameliorated glucose homeostasis was observed. In line with this, rats exposed to cold show increased expression of IGF-1, regulating hyperplasia of BAT cells.

3.3.3. Interleukin-6 (IL-6)

40IL-6 is an interleukin that is produced in response to tissue injury and inflammation and acts as a key mediator of fever and the acute phase response. IL-6 also closely correlates with the development of complications through proinflammatory and autoimmune processes in metabolic diseases such as diabetes and atherosclerosis. In addition, β3-adrenergic stimulation in vitro increases IL-6 expression and secretion by mouse brown adipocytes. Although the detailed mechanism is still unknown, Stanford et al. demonstrated the functional significance of IL-6 present in BAT in vivo. BAT from IL-6 knockout mice transplanted into the visceral cavity of normal mice lead to hepatic inflammation and systemic insulin resistance.

3.3.4. Chemokine (C-X-C motif) Ligand 14 (CXCL14)

41CXCL14 is a member of the CXC cytokine family. It is known as a potent chemoattractant, enabling immune cells such as monocytes, dendritic cells, and NK cells to localize at inflammatory sites in response to inflammation. In the context of thermogenic activation, BAT secrets CXCL14, which enhances the activation of BAT and induces the browning of WAT by recruiting M2 macrophages.

3.4.1. Prostaglandins

42Several lines of evidence have suggested that prostaglandins and their related catalyzing enzymes are closely associated with BAT activity and browning of WAT. Exposure to cold environment promotes the synthesis and release of prostaglandins, especially PGI2 (prostaglandin I2), PGE2 (prostaglandin E2), and a lipocalin prostaglandin D synthase (L-PGDS) in the brown and beige adipocytes. The functional importance of prostaglandins in thermogenic homeostasis was clarified by manipulating the expression of cyclooxygenase 2 (COX2), a rate-limiting enzyme in prostaglandin synthesis, in rodent models. Overexpression of COX2 in white adipocytes positively stimulates the recruitment of beige adipocytes in WAT, while downregulation of prostaglandins by genetic deletion or specific inhibition of COX2 impairs the formation of browning in WAT, which is mediated by shifting adipocyte differentiation from mesenchymal stem cells. Contrarily, Virtue et al. suggested a new concept that prostaglandin-catalyzing enzymes could contribute to BAT activity independent of prostaglandin production. Mice lacking lipocalin prostaglandin D synthase (L-PGDS) showed impaired thermogenic activity in BAT due to a defect in switching of substrate utilization from glucose to lipids.

3.4.2. 12,13-Dihydroxy-9Z-Octadecenoic Acid (12,13-diHOME)

43Increased lipid production in the body by enhanced lipolysis during cold exposure is an essential process for thermogenesis, as lipids are key fuels utilized to produce heat by oxidation in mitochondria of BAT and beige AT. In addition to this role, Lynes et al. recently proposed that lipid 12,13-dihydroxy-9Z-octadecenoic acid (12,13-diHOME) concentration is increased in the circulation in humans and mice when exposed to cold, which results in the stimulation of fatty acid uptake by promoting the translocation of CD36 and FATP1 to the cell membrane of BAT and beige WAT. In line with this function in ATs, lipid 12,13-diHOME levels are also increased in the circulation after exercise in humans and mice, contributing to the uptake of circulating fatty acids in skeletal muscles.

3.5.1. Bone Morphogenetic Proteins (BMPs)

44BMPs, a group of TGF-β superfamily members, are important in the development of bone, cartilage, the nervous system, and heart. Many lines of evidence have demonstrated that BMPs are essential morphogens in embryogenesis and development. Among them, BMP2, BMP4, BMP7, and BMP8B have been especially acknowledged to contribute to the regulation of AT development in different locations at different times during development. BMP2 stimulates the commitment into white adipocyte differentiation, and its expression in AT positively correlates with obesity and diabetes in patients. BMP4 shows several essential roles in adipocyte development. First, BMP4 induces the commitment of multipotent mesenchymal stem cells to differentiate to the adipocyte lineage; second, BMP4 drives the committed stem cells into white adipocytes; and lastly, BMP4 contributes to the conversion of brown adipocytes to white adipocytes in BAT. In 2008, Tseng et al. identified a new role of BMP7 in adipogenesis. Their results suggested that unlike BMP2 and BMP4, BMP7 induces the commitment of mesenchymal stem cells to the brown adipocyte lineage, thus leading to increased BAT mass. Furthermore, a similar effect was observed in humans, although the experiments were performed only in isolated stem cells from human fat tissues. BMP8B is another factor, which can promote brown adipocyte differentiation. Increased BMP8B expression is detected in BAT and the hypothalamus in response to cold exposure or high-fat feeding, which then activates BAT thermogenesis by activating the SMADs/p38 MAPK pathway in BATs and increasing the sympathetic tone to BAT.

3.5.2. Peptidase M20 Domain Containing 1 (PM20D1)

45The discovery of PM20D1 proposed a new concept of cold-induced thermogenesis. PM20D1 is preferentially expressed in UCP1+ adipocytes and can be secreted upon cold-stimulation. When PM20D1 is present in adipocytes, it generates a metabolite, N-acyl amino acid, which acts as an endogenous uncoupler in mitochondria, by condensation of fatty acids and amino acids, resulting in enhanced energy expenditure independently of UCP1 in adipocytes.

3.5.3. Basic Fibroblast Growth Factor (bFGF/FGF2)

46Cold acclimation in mice increased BAT mass with a remarkable increase in the expression of bFGF (or FGF2). Yamashita et al. suggested that increased bFGF levels expand the BAT mass by stimulating brown preadipocyte (adipogenesis) and vascular endothelial cell (vascularization) proliferation in an autocrine and paracrine manner, respectively.

3.5.4. Wingless-Related MMTV Integration Site 10b (WNT10b)

47WNT10b is a secretory protein and a member of the WNT family. Its significance was identified when induction of its activity in injured cardiac muscles showed a beneficial outcome by regulating coronary vessel formation in the heart. In the AT, WNT10b acts as key leverage in determining mesenchymal stem cell (MSC) fate between adipocyte and bone formation. Its expression inhibits adipocyte differentiation and is thus negatively associated with adipogenesis, but supports osteoblast differentiation in an autocrine or paracrine manner. Furthermore, Rahman et al. identified that WNT10b is detected in beige WAT of bone marrow in response to energy state, and determines MSC fate.

3.5.5. Insulin-Like Growth Factor-Binding Protein-2 (IGFBP2)

48IGFBP2 is a member of the IGFBP family that regulates IGF-1 functions. This protein is involved in cellular processes, such as proliferation and migration, and links the communication between energy metabolism and bone formation. IGFBP2 was identified as a secretory protein by beige adipocytes. However, its physiological significance is yet to be elucidated.

3.5.6. Retinol-Binding Protein-4 (RBP4)

49RBP4 is a transporter for vitamin A and its derivatives and is mainly synthesized in the liver. RBP4 is also an adipokine, but its levels in the WAT appear to be negatively associated with insulin sensitivity. In response to a β3-adrenergic cue or cold exposure, RBP4 is synthesized and released by the BAT. However, the amount of RBP4 released from the BAT contributes only to a negligible part in the total level of circulating RBP4. Further, the physiological significance of RBP4 from BAT remains unknown.

3.5.7. Nerve Growth Factor (NGF)

50A remarkable feature of BAT and beige AT development is the numerous sympathetic nerve innervations. It has been observed that the extent of nerve innervation is dynamically and flexibly altered in response to environmental cues, especially, cold temperature. NGF is one of the factors being identified as a regulator for nerve innervation in BAT. Cold exposure in mice increases NGF synthesis in the BAT, which results in increased neurite outgrowth. In addition, treatment with anti-NGF serum blocks the NGF effect. However, it still has to be elucidated whether NGF is effective enough in humans and in vivo.

4.1. Exosomes

51Exosomes are extracellular nanovesicles that facilitate intercellular communication. They are actively released via the endosomal pathway and contain RNAs and proteins that can be transferred locally to adjacent cells or remotely to distant organs. Proteins and RNAs delivered by exosomes can modulate the activities or properties of recipient cells, influencing diverse physiological and pathological functions such as proliferation and differentiation, immunomodulation, and tumorigenesis. Recently, microRNAs (miRNA) were found in exosomes, and the physiological functions of the released miRNAs have started to gain attention.

4.2. MicroRNAs in the AT

52MicroRNA is a small noncoding RNA of about 22nt, which binds to target mRNA and induces mRNA degradation and translational repression. The role of miRNA in post-transcriptional control is critical in most cellular processes, and therefore, disorders in miRNA regulation are closely linked to human diseases. The importance of miRNA in AT has been established through adipose-specific knockout of Dicer or DGCR8, the key components of miRNA biogenesis. The loss of miRNA production results in defects of AT formation and metabolic dysregulation accompanied by insulin resistance and alterations of circulating lipids. Moreover, dozens of individual miRNAs have been reported to control fat metabolism, including the differentiation and function of white and brown adipocytes. However, the function and abundance of miRNA have been analyzed mainly in terms of the autonomous role. Exosomal miRNAs released from AT have newly emerged as novel players that regulate systemic metabolism by connecting different organs.

4.3.1. miR-99b

53Recently, Thomou et al. provided fascinating evidence suggesting that the miRNAs released by AT can regulate gene expression in distant metabolic organs (Figure 5). They first found a strong reduction of exosomal miRNA in adipose-specific Dicer knockout (ADicerKO) mice, which blocks the production of miRNA in AT. The levels of 419 exosomal miRNAs were dramatically decreased in ADicerKO mice compared to wild-type mice. Transplanting the fat depot (brown fat, inguinal white fat, or epididymal white fat) from the wild type restored the miRNA level, suggesting that AT is a major source of circulating exosomal miRNAs. In humans, circulating miRNAs are also originated from the AT. A similar reduction was observed in congenital or HIV-associated lipodystrophy patients who suffer from a generalized loss of AT; levels of 217 exosomal miRNAs were downregulated. Among 75 miRNAs decreased in the serum of both patient cohorts, 30 miRNAs were overlapped with the adipose-derived exosomal miRNAs downregulated in ADicerKO mice. Interestingly, Thomou et al. also found a threefold higher level of circulating FGF21 in ADicerKO mice with a marked increase of Fgf21 mRNA level in liver, muscle, pancreas, and fat. The transplantation of normal brown fat to ADicerKO mice decreased the level of Fgf21 mRNA in liver, which comes with a reduction of circulating FGF21. Thomou et al. identified miR-99b as a factor delivered from the AT to the liver for the regulation of FGF21 expression. MiR-99b is present in brown fat-derived exosomes and can bind the 3′UTR of Fgf21 mRNA to inhibit the expression of FGF21. These results collectively suggest that miRNA secreted from the fat depots regulate gene expression in the liver, which in turn influence whole-body metabolism.

4.3.2. miR-200a

54The role of another exosomal miRNA released from AT has been reported by Fang et al. In the specific context of PPARγ activation, exosomal miR-200a was reported to mediate the crosstalk between adipocytes and cardiomyocytes in mice (Figure 5). Treatment with rosiglitazone, a PPARγ agonist, activated the expression and secretion of miR-200a. Increased levels of exosomal miR-200a from adipocytes were delivered to cardiomyocytes to decrease TSC1 expression and subsequently stimulate mTOR signaling, leading to cardiomyocyte hypertrophy. Rosiglitazone, which is used to treat diabetes as an insulin sensitizer, has adverse cardiovascular effects. The exosomal miR-200a-mediated inter-organ communication could be the molecular mechanism underlying the adverse effect of rosiglitazone.

4.3.3. miR-450a

55Exosomal miRNAs with autocrine functions have also been identified. Zhang et al. found an enriched population of 45 miRNAs in exosomes released from ATs (EXO-AT), compared to those released from adipose tissue-derived stem cells (EXO-ADSCs), in rats. Among them, 14 miRNAs participated in the regulation of adipogenesis. In particular, miR-450a, one of the abundant miRNAs, 7-fold enriched in EXO-AT compared to EXO-ADSC, increased adipogenesis by inhibiting WISP2 (Figure 5).

4.3.4. miR-155

56Exosomal microRNA originating from macrophages in AT has been proven to modulate systemic metabolism. Ying et al. reported that AT macrophages (ATMs) secrete miRNA-containing exosomes. They also showed that ATM-derived exosomes in obese mice induce glucose intolerance and insulin resistance when injected into lean mice, and conversely ATM-derived exosomes in lean mice improve insulin sensitivity when injected into obese mice. This finding suggests that ATM-derived exosomes serve to transfer the critical regulator of glucose homeostasis and insulin sensitivity to metabolic target cells of liver and muscle. There were 20 miRNAs with significant differences in abundance between lean and obese ATM-derived exosomes, among which miR-155 overexpressed in obese ATM exosomes was found to suppress insulin action on glucose production through the downregulation of its target, PPARγ mRNA.

4.4. Clinical Research on Exosomal microRNAs in Metabolic Disorders

57Clinical studies have started to explore exosomal microRNAs derived from AT, especially in relation to obesity and associated metabolic disorders. The abundance of several adipocyte-derived exosomal miRNAs was altered in obese patients, and most of them were specific to the VAT or sWAT. Exosomal miRNAs derived from VAT were predicted to target mRNAs mainly involved in TGF-β and Wnt/β-catenin signaling. Another study on circulating miRNAs in obese patients showed that miR-130b in serum was positively correlated with BMI (Figure 5). The role of exosomal miR-130b was further defined in a mouse obesity model where the secretion of miR-130b, stimulated by TGF-β in adipocytes, targeted PGC-1α mRNA in muscle cells. In a study with obese patients who underwent gastric bypass bariatric surgery, the relationship between adipocyte-derived exosomal miRNAs and insulin resistance was verified. Bariatric surgery that leads to weight loss and improved glucose regulation also modified adipocyte-derived exosomal miRNAs. Fifty-six miRNAs were differentially expressed one year after surgery, and putative targets of these miRNAs were enriched in insulin receptor signaling. The change in abundance of 46 miRNAs was significantly correlated to the change in insulin resistance. In addition to the adipose-derived exosomal miRNAs, circulating miRNAs whose origins were not defined, have been increasingly reported in numerous clinical research related to metabolic disorders. Further characterization of circulating miRNAs may further expand our knowledge of the specific relationship between adipose-derived miRNAs and metabolic diseases.

4.5. Challenges and Perspectives as Diagnostic and Therapeutic Tools

58As reviewed herein, accumulated studies on miRNAs secreted from the AT have identified exosomal miRNAs as a genetic regulator form of adipokines. Exosomal microRNAs reflect the physiological property of the origin and alter the target cell by regulating the expression of the target gene. Furthermore, inter-organ communication by adipose tissue-derived exosomal miRNAs alters the systemic metabolic profile. These miRNAs could be developed as diagnostic markers of metabolic diseases, and may be used to develop novel therapeutic strategies. However, detailed mechanisms on the transfer of miRNAs via exosomes remain to be elucidated, including detailed mechanisms of how miRNAs are selectively loaded into exosomes and how exosomes target specific organs or cell types. An improved understanding of the specificity of exosomal miRNA in both production and action would unveil another layer of regulation on systemic metabolism.

5. Discussion

59ATs, as endocrine organs, secrete peptides or proteins called “adipokines” for the maintenance of energy homeostasis. Recently, it was reported that most physiologically active substances produced by ATs can act as adipokines. Adipokines are not limited to the secretome derived from WAT. Batokines and exosomal microRNAs also belong to the broader family of adipokines. Batokines and exosomal microRNAs derived from ATs act like hormones and affect other metabolic organs in an endocrine fashion. In particular, exosomal miRNA has been in the spotlight, as a new target for a therapeutic and diagnostic biomarker for obesity-related diseases.

60Changes in the expression pattern of these adipokines mirror the AT status, and an altered secretion pattern of adipokines is frequently observed in metabolic diseases such as obesity and T2DM. Adipose-derived factors are closely related to insulin resistance, adiposity, inflammation, and other pathogenic conditions. Therefore, observing changes in adipose-derived factors is very important for a better understanding of the underlying pathogenesis and pathophysiology of metabolic diseases. It will enable us to diagnose and predict obesity and T2DM. Further, it will support the development of adipose-derived factors as biomarkers and targets for therapeutic intervention and pharmacotherapeutic management of obesity and T2DM.

61In contrast, further studies on the metabolic effects of administration of adipokines as a therapeutic drug are necessary. Administration of adipokines could trigger unexpected effects, owing to the different physiological and pathological conditions in humans. Additionally, the effect could be different in rodents and humans.

References 327

1.
Hu F.B. Sedentary lifestyle and risk of obesity and type 2 diabetes. Lipids. 2003;38:103-108.
Not in our library10.1007/s11745-003-1038-4
2.
Hamilton M.T., Hamilton D.G., Zderic T.W. Sedentary behavior as a mediator of type 2 diabetes. Med. Sport Sci. 2014;60:11-26.
Not in our library10.1159/000357332
3.
Boden G., Homko C., Barrero C.A., Stein T.P., Chen X., Cheung P., Fecchio C., Koller S., Merali S. Excessive caloric intake acutely causes oxidative stress, GLUT4 carbonylation, and insulin resistance in healthy men. Sci. Transl. Med. 2015;7:304re7.
Not in our library10.1126/scitranslmed.aac4765
4.
Diabetes and cancer: two diseases with obesity as a common risk factor · 2013
No notice
5.
LeRoith D., Novosyadlyy R., Gallagher E.J., Lann D., Vijayakumar A., Yakar S. Obesity and type 2 diabetes are associated with an increased risk of developing cancer and a worse prognosis; epidemiological and mechanistic evidence. Exp. Clin. Endocrinol. Diabetes. 2008;116(Suppl. 1):S4-S6.
Not in our library10.1055/s-2008-1081488
6.
Scherer P.E., Hill J.A. Obesity, Diabetes, and Cardiovascular Diseases: A Compendium. Circ. Res. 2016;118:1703-1705.
Not in our library10.1161/circresaha.116.308999
7.
Van Gaal L.F., Mertens I.L., De Block C.E. Mechanisms linking obesity with cardiovascular disease. Nature. 2006;444:875-880.
Not in our library10.1038/nature05487
8.
Farag Y.M., Gaballa M.R. Diabesity: An overview of a rising epidemic. Nephrol. Dial. Transplant. 2011;26:28-35.
Not in our library10.1093/ndt/gfq576
9.
Eckel R.H., Kahn S.E., Ferrannini E., Goldfine A.B., Nathan D.M., Schwartz M.W., Smith R.J., Smith S.R. Obesity and type 2 diabetes: What can be unified and what needs to be individualized? J. Clin. Endocrinol. Metab. 2011;96:1654-1663.
Not in our library10.1210/jc.2011-0585
10.
Kershaw E.E., Flier J.S. Adipose tissue as an endocrine organ. J. Clin. Endocrinol. Metab. 2004;89:2548-2556.
Not in our library10.1210/jc.2004-0395
11.
Rodriguez A., Ezquerro S., Mendez-Gimenez L., Becerril S., Fruhbeck G. Revisiting the adipocyte: A model for integration of cytokine signaling in the regulation of energy metabolism. Am. J. Physiol. Endocrinol. Metab. 2015;309:E691-E714.
Not in our library10.1152/ajpendo.00297.2015
12.
Adipose Tissue as an Endocrine Organ: An Update on Pro-inflammatory and Anti-inflammatory Microenvironment · 2015
Not checked
13.
Oh K.J., Lee D.S., Kim W.K., Han B.S., Lee S.C., Bae K.H. Metabolic Adaptation in Obesity and Type II Diabetes: Myokines, Adipokines and Hepatokines. Int. J. Mol. Sci. 2016;18:8.
Not in our library10.3390/ijms18010008
14.
Vona-Davis L., Rose D.P. Adipokines as endocrine, paracrine, and autocrine factors in breast cancer risk and progression. Endocr. Relat. Cancer. 2007;14:189-206.
Not in our library10.1677/erc-06-0068
15.
Kim S., Moustaid-Moussa N. Secretory, endocrine and autocrine/paracrine function of the adipocyte. J. Nutr. 2000;130:3110S-3115S.
Not in our library10.1093/jn/130.12.3110s
16.
Trayhurn P., Beattie J.H. Physiological role of adipose tissue: White adipose tissue as an endocrine and secretory organ. Proc. Nutr. Soc. 2001;60:329-339.
Not in our library10.1079/pns200194
17.
Wu J., Cohen P., Spiegelman B.M. Adaptive thermogenesis in adipocytes: Is beige the new brown? Genes Dev. 2013;27:234-250.
Not in our library10.1101/gad.211649.112
18.
Saely C.H., Geiger K., Drexel H. Brown versus white adipose tissue: A mini-review. Gerontology. 2012;58:15-23.
Not in our library10.1159/000321319
19.
Brown and white adipose tissues: intrinsic differences in gene expression and response to cold exposure in mice · 2014
No notice
20.
Giralt M., Villarroya F. White, brown, beige/brite: Different adipose cells for different functions? Endocrinology. 2013;154:2992-3000.
Not in our library10.1210/en.2013-1403
21.
Harms M., Seale P. Brown and beige fat: Development, function and therapeutic potential. Nat. Med. 2013;19:1252-1263.
Not in our library10.1038/nm.3361
22.
Townsend K., Tseng Y.H. Brown adipose tissue: Recent insights into development, metabolic function and therapeutic potential. Adipocyte. 2012;1:13-24.
Not in our library10.4161/adip.18951
23.
Villarroya J., Cereijo R., Villarroya F. An endocrine role for brown adipose tissue? Am. J. Physiol. Endocrinol. Metab. 2013;305:E567-E572.
Not in our library10.1152/ajpendo.00250.2013
24.
Greenhill C. Non-coding RNA: Exosomal microRNAs as novel adipokines. Nat. Rev. Genet. 2017;18:212.
Not in our library10.1038/nrg.2017.14
25.
Ferrante S.C., Nadler E.P., Pillai D.K., Hubal M.J., Wang Z., Wang J.M., Gordish-Dressman H., Koeck E., Sevilla S., Wiles A.A., et al. Adipocyte-derived exosomal miRNAs: A novel mechanism for obesity-related disease. Pediatr. Res. 2015;77:447-454.
Not in our library10.1038/pr.2014.202
26.
Thomou T., Mori M.A., Dreyfuss J.M., Konishi M., Sakaguchi M., Wolfrum C., Rao T.N., Winnay J.N., Garcia-Martin R., Grinspoon S.K., et al. Adipose-derived circulating miRNAs regulate gene expression in other tissues. Nature. 2017;542:450-455.
Not in our library10.1038/nature21365
27.
Kocot J., Dziemidok P., Kiełczykowska M., Hordyjewska A., Szcześniak G., Musik I. Adipokine Profile in Patients with Type 2 Diabetes Depends on Degree of Obesity. Med. Sci. Monit. 2017;23:4995-5004.
Not in our library10.12659/msm.904318
28.
Adipokine Profiles and Metabolic Health · 2015
Not checked
29.
Khan M., Joseph F. Adipose tissue and adipokines: The association with and application of adipokines in obesity. Scientifica. 2014;2014:328592.
Not in our library10.1155/2014/328592
30.
Gil A., Olza J., Gil-Campos M., Gomez-Llorente C., Aguilera C.M. Is adipose tissue metabolically different at different sites? Int. J. Pediatr. Obes. 2011;6(Suppl. 1):13-20.
Not in our library10.3109/17477166.2011.604326
31.
Han S., Sun H.M., Hwang K.C., Kim S.W. Adipose-Derived Stromal Vascular Fraction Cells: Update on Clinical Utility and Efficacy. Crit. Rev. Eukaryot. Gene Expr. 2015;25:145-152.
Not in our library10.1615/critreveukaryotgeneexpr.2015013057
32.
Nurnberger S., Lindner C., Maier J., Strohmeier K., Wurzer C., Slezak P., Suessner S., Holnthoner W., Redl H., Wolbank S., et al. Adipose-tissue-derived therapeutic cells in their natural environment as an autologous cell therapy strategy: The microtissue-stromal vascular fraction. Eur. Cell Mater. 2019;37:113-133.
Not in our library10.22203/ecm.v037a08
33.
Deng Y., Scherer P.E. Adipokines as novel biomarkers and regulators of the metabolic syndrome. Ann. N. Y. Acad. Sci. 2010;1212:E1-E19.
Not in our library10.1111/j.1749-6632.2010.05875.x
34.
Matsuzawa Y. The metabolic syndrome and adipocytokines. FEBS Lett. 2006;580:2917-2921.
Not in our library10.1016/j.febslet.2006.04.028
35.
Ohashi K., Ouchi N., Matsuzawa Y. Anti-inflammatory and anti-atherogenic properties of adiponectin. Biochimie. 2012;94:2137-2142.
Not in our library10.1016/j.biochi.2012.06.008
36.
Meilleur K.G., Doumatey A., Huang H., Charles B., Chen G., Zhou J., Shriner D., Adeyemo A., Rotimi C. Circulating adiponectin is associated with obesity and serum lipids in West Africans. J. Clin. Endocrinol. Metab. 2010;95:3517-3521.
Not in our library10.1210/jc.2009-2765
37.
Yamamoto S., Matsushita Y., Nakagawa T., Hayashi T., Noda M., Mizoue T. Circulating adiponectin levels and risk of type 2 diabetes in the Japanese. Nutr. Diabetes. 2014;4:e130.
Not in our library10.1038/nutd.2014.27
38.
Abdella N.A., Mojiminiyi O.A. Clinical Applications of Adiponectin Measurements in Type 2 Diabetes Mellitus: Screening, Diagnosis, and Marker of Diabetes Control. Dis. Markers. 2018;2018:5187940.
Not in our library10.1155/2018/5187940
39.
Wang Y., Lam K.S., Yau M.H., Xu A. Post-translational modifications of adiponectin: Mechanisms and functional implications. Biochem. J. 2008;409:623-633.
Not in our library10.1042/bj20071492
40.
Turer A.T., Scherer P.E. Adiponectin: Mechanistic insights and clinical implications. Diabetologia. 2012;55:2319-2326.
Not in our library10.1007/s00125-012-2598-x
41.
Ye R., Scherer P.E. Adiponectin, driver or passenger on the road to insulin sensitivity? Mol. Metab. 2013;2:133-141.
Not in our library10.1016/j.molmet.2013.04.001
42.
Pajvani U.B., Hawkins M., Combs T.P., Rajala M.W., Doebber T., Berger J.P., Wagner J.A., Wu M., Knopps A., Xiang A.H., et al. Complex distribution, not absolute amount of adiponectin, correlates with thiazolidinedione-mediated improvement in insulin sensitivity. J. Biol. Chem. 2004;279:12152-12162.
Not in our library10.1074/jbc.m311113200
43.
Oh D.K., Ciaraldi T., Henry R.R. Adiponectin in health and disease. Diabetes Obes. Metab. 2007;9:282-289.
Not in our library10.1111/j.1463-1326.2006.00610.x
44.
Song C.Y., Zeng X., Chen S.W., Hu P.F., Zheng Z.W., Ning B.F., Shi J., Xie W.F., Chen Y.X. Sophocarpine alleviates non-alcoholic steatohepatitis in rats. J. Gastroenterol. Hepatol. 2011;26:765-774.
Not in our library10.1111/j.1440-1746.2010.06561.x
45.
Buechler C., Wanninger J., Neumeier M. Adiponectin, a key adipokine in obesity related liver diseases. World J. Gastroenterol. 2011;17:2801-2811.
Not in our library10.3748/wjg.v17.i23.2801
46.
Brown J.E., Conner A.C., Digby J.E., Ward K.L., Ramanjaneya M., Randeva H.S., Dunmore S.J. Regulation of beta-cell viability and gene expression by distinct agonist fragments of adiponectin. Peptides. 2010;31:944-949.
Not in our library10.1016/j.peptides.2010.02.004
47.
Gu W., Li X., Liu C., Yang J., Ye L., Tang J., Gu Y., Yang Y., Hong J., Zhang Y., et al. Globular adiponectin augments insulin secretion from pancreatic islet beta cells at high glucose concentrations. Endocrine. 2006;30:217-221.
Not in our library10.1385/endo:30:2:217
48.
Liu Y., Sweeney G. Adiponectin action in skeletal muscle. Best Pract. Res. Clin. Endocrinol. Metab. 2014;28:33-41.
Not in our library10.1016/j.beem.2013.08.003
49.
Yamauchi T., Kamon J., Ito Y., Tsuchida A., Yokomizo T., Kita S., Sugiyama T., Miyagishi M., Hara K., Tsunoda M., et al. Cloning of adiponectin receptors that mediate antidiabetic metabolic effects. Nature. 2003;423:762-769.
Not in our library10.1038/nature01705
50.
Kadowaki T., Yamauchi T. Adiponectin and adiponectin receptors. Endocr. Rev. 2005;26:439-451.
Not in our library10.1210/er.2005-0005
51.
Yamauchi T., Nio Y., Maki T., Kobayashi M., Takazawa T., Iwabu M., Okada-Iwabu M., Kawamoto S., Kubota N., Kubota T., et al. Targeted disruption of AdipoR1 and AdipoR2 causes abrogation of adiponectin binding and metabolic actions. Nat. Med. 2007;13:332-339.
Not in our library10.1038/nm1557
52.
Watanabe T., Watanabe-Kominato K., Takahashi Y., Kojima M., Watanabe R. Adipose Tissue-Derived Omentin-1 Function and Regulation. Compr. Physiol. 2017;7:765-781.
Not in our library10.1002/cphy.c160043
53.
Tan B.K., Adya R., Farhatullah S., Lewandowski K.C., O’Hare P., Lehnert H., Randeva H.S. Omentin-1, a novel adipokine, is decreased in overweight insulin-resistant women with polycystic ovary syndrome: Ex vivo and in vivo regulation of omentin-1 by insulin and glucose. Diabetes. 2008;57:801-808.
Not in our library10.2337/db07-0990
54.
De Souza Batista C.M., Yang R.Z., Lee M.J., Glynn N.M., Yu D.Z., Pray J., Ndubuizu K., Patil S., Schwartz A., Kligman M., et al. Omentin plasma levels and gene expression are decreased in obesity. Diabetes. 2007;56:1655-1661.
Not in our library10.2337/db06-1506
55.
Wittenbecher C., Menzel J., Carstensen-Kirberg M., Biemann R., di Giuseppe R., Fritsche A., Isermann B., Herder C., Aleksandrova K., Boeing H., et al. Omentin-1, Adiponectin, and the Risk of Developing Type 2 Diabetes. Diabetes Care. 2016;39:e79-e80.
Not in our library10.2337/dc15-2702
56.
Pan H.Y., Guo L., Li Q. Changes of serum omentin-1 levels in normal subjects and in patients with impaired glucose regulation and with newly diagnosed and untreated type 2 diabetes. Diabetes Res. Clin. Pract. 2010;88:29-33.
Not in our library10.1016/j.diabres.2010.01.013
57.
Saremi A., Asghari M., Ghorbani A. Effects of aerobic training on serum omentin-1 and cardiometabolic risk factors in overweight and obese men. J. Sports Sci. 2010;28:993-998.
Not in our library10.1080/02640414.2010.484070
58.
Church C.D., Berry R., Rodeheffer M.S. Isolation and study of adipocyte precursors. Methods Enzymol. 2014;537:31-46.
Not in our library10.1016/b978-0-12-411619-1.00003-3
59.
Adipose tissue-derived stromal vascular fraction in regenerative medicine: a brief review on biology and translation · 2017
No notice
60.
Yang R.Z., Lee M.J., Hu H., Pray J., Wu H.B., Hansen B.C., Shuldiner A.R., Fried S.K., McLenithan J.C., Gong D.W. Identification of omentin as a novel depot-specific adipokine in human adipose tissue: Possible role in modulating insulin action. Am. J. Physiol. Endocrinol. Metab. 2006;290:E1253-E1261.
Not in our library10.1152/ajpendo.00572.2004
61.
Maresca F., Di Palma V., Bevilacqua M., Uccello G., Taglialatela V., Giaquinto A., Esposito G., Trimarco B., Cirillo P. Adipokines, vascular wall, and cardiovascular disease: A focused overview of the role of adipokines in the pathophysiology of cardiovascular disease. Angiology. 2015;66:8-24.
Not in our library10.1177/0003319713520463
62.
Hernandez-Diaz A., Arana-Martinez J.C., Carbo R., Espinosa-Cervantes R., Sanchez-Munoz F. Omentin: Role in insulin resistance, inflammation and cardiovascular protection. Arch. Cardiol. Mex. 2016;86:233-243.
Not in our library10.1016/j.acmx.2015.09.010
63.
Ouchi N., Higuchi A., Ohashi K., Oshima Y., Gokce N., Shibata R., Akasaki Y., Shimono A., Walsh K. Sfrp5 is an anti-inflammatory adipokine that modulates metabolic dysfunction in obesity. Science. 2010;329:454-457.
Not in our library10.1126/science.1188280
64.
Kawano Y., Kypta R. Secreted antagonists of the Wnt signalling pathway. J. Cell Sci. 2003;116:2627-2634.
Not in our library10.1242/jcs.00623
65.
Cho Y.K., Kang Y.M., Lee S.E., Lee Y., Seol S.M., Lee W.J., Park J.Y., Jung C.H. Effect of SFRP5 (Secreted Frizzled-Related Protein 5) on the WNT5A (Wingless-Type Family Member 5A)-Induced Endothelial Dysfunction and Its Relevance With Arterial Stiffness in Human Subjects. Arterioscler. Thromb. Vasc. Biol. 2018;38:1358-1367.
Not in our library10.1161/atvbaha.117.310649
66.
Hu W., Li L., Yang M., Luo X., Ran W., Liu D., Xiong Z., Liu H., Yang G. Circulating Sfrp5 is a signature of obesity-related metabolic disorders and is regulated by glucose and liraglutide in humans. J. Clin. Endocrinol. Metab. 2013;98:290-298.
Not in our library10.1210/jc.2012-2466
67.
Miyoshi T., Doi M., Usui S., Iwamoto M., Kajiya M., Takeda K., Nosaka K., Nakayama R., Okawa K., Takagi W., et al. Low serum level of secreted frizzled-related protein 5, an anti-inflammatory adipokine, is associated with coronary artery disease. Atherosclerosis. 2014;233:454-459.
Not in our library10.1016/j.atherosclerosis.2014.01.019
68.
Hu Z., Deng H., Qu H. Plasma SFRP5 levels are decreased in Chinese subjects with obesity and type 2 diabetes and negatively correlated with parameters of insulin resistance. Diabetes Res. Clin. Pract. 2013;99:391-395.
Not in our library10.1016/j.diabres.2012.11.026
69.
Inverse associations between serum levels of secreted frizzled-related protein-5 (SFRP5) and multiple cardiometabolic risk factors: KORA F4 study · 2017
Not checked
70.
Pennica D., Shaw K.J., Swanson T.A., Moore M.W., Shelton D.L., Zioncheck K.A., Rosenthal A., Taga T., Paoni N.F., Wood W.I. Cardiotrophin-1. Biological activities and binding to the leukemia inhibitory factor receptor/gp130 signaling complex. J. Biol. Chem. 1995;270:10915-10922.
Not in our library10.1074/jbc.270.18.10915
71.
Moreno-Aliaga M.J., Perez-Echarri N., Marcos-Gomez B., Larequi E., Gil-Bea F.J., Viollet B., Gimenez I., Martinez J.A., Prieto J., Bustos M. Cardiotrophin-1 is a key regulator of glucose and lipid metabolism. Cell Metab. 2011;14:242-253.
Not in our library10.1016/j.cmet.2011.05.013
72.
Moreno-Aliaga M.J., Romero-Lozano M.A., Castano D., Prieto J., Bustos M. Role of cardiotrophin-1 in obesity and insulin resistance. Adipocyte. 2012;1:112-115.
Not in our library10.4161/adip.19696
73.
Pennica D., Swanson T.A., Shaw K.J., Kuang W.J., Gray C.L., Beatty B.G., Wood W.I. Human cardiotrophin-1: Protein and gene structure, biological and binding activities, and chromosomal localization. Cytokine. 1996;8:183-189.
Not in our library10.1006/cyto.1996.0026
74.
Lopez-Yoldi M., Marcos-Gomez B., Romero-Lozano M.A., Sainz N., Prieto J., Martinez J.A., Bustos M., Moreno-Aliaga M.J. Cardiotrophin-1 regulates adipokine production in 3T3-L1 adipocytes and adipose tissue from obese mice. J. Cell. Physiol. 2017;232:2469-2477.
Not in our library10.1002/jcp.25590
75.
Lopez-Yoldi M., Castilla-Madrigal R., Lostao M.P., Barber A., Prieto J., Martinez J.A., Bustos M., Moreno-Aliaga M.J. Cardiotrophin-1 decreases intestinal sugar uptake in mice and in caco-2 cells. Acta Physiol. 2016;217:217-226.
Not in our library10.1111/apha.12674
76.
Lopez-Yoldi M., Fernandez-Galilea M., Laiglesia L.M., Larequi E., Prieto J., Martinez J.A., Bustos M., Moreno-Aliaga M.J. Cardiotrophin-1 stimulates lipolysis through the regulation of main adipose tissue lipases. J. Lipid Res. 2014;55:2634-2643.
Not in our library10.1194/jlr.m055335
77.
Perez-Matute P., Pichel J.G., Iniguez M., Recio-Fernandez E., Perez-Martinez L., Torrens R., Blanco J.R., Oteo J.A. Maraviroc ameliorates the increased adipose tissue macrophage recruitment induced by a high-fat diet in a mouse model of obesity. Antivir. Ther. 2017;22:163-168.
Not in our library10.3851/imp3099
78.
Sanchez-Infantes D., White U.A., Elks C.M., Morrison R.F., Gimble J.M., Considine R.V., Ferrante A.W., Ravussin E., Stephens J.M. Oncostatin M is produced in adipose tissue and is regulated in conditions of obesity and type 2 diabetes. J. Clin. Endocrinol. Metab. 2014;99:E217-E225.
Not in our library10.1210/jc.2013-3555
79.
Hung H.C., Lu F.H., Wu H.T., Ou H.Y., Yang Y.C., Wu J.S., Chang C.J. Cardiotrophin-1 is inversely associated with obesity in non-diabetic individuals. Sci. Rep. 2015;5:17438.
Not in our library10.1038/srep17438
80.
Rendo-Urteaga T., Garcia-Calzon S., Martinez-Anso E., Chueca M., Oyarzabal M., Azcona-Sanjulian M.C., Bustos M., Moreno-Aliaga M.J., Martinez J.A., Marti A. Decreased cardiotrophin-1 levels are associated with a lower risk of developing the metabolic syndrome in overweight/obese children after a weight loss program. Metabolism. 2013;62:1429-1436.
Not in our library10.1016/j.metabol.2013.05.011
81.
Fatty Acid-Binding Protein 4 (FABP4): Pathophysiological Insights and Potent Clinical Biomarker of Metabolic and Cardiovascular Diseases · 2014
Not checked
82.
Xu A., Wang Y., Xu J.Y., Stejskal D., Tam S., Zhang J., Wat N.M., Wong W.K., Lam K.S. Adipocyte fatty acid-binding protein is a plasma biomarker closely associated with obesity and metabolic syndrome. Clin. Chem. 2006;52:405-413.
Not in our library10.1373/clinchem.2005.062463
83.
Hotamisligil G.S. Inflammation and metabolic disorders. Nature. 2006;444:860-867.
Not in our library10.1038/nature05485
84.
Gregor M.F., Hotamisligil G.S. Inflammatory mechanisms in obesity. Annu. Rev. Immunol. 2011;29:415-445.
Not in our library10.1146/annurev-immunol-031210-101322
85.
Hoo R.L., Yeung D.C., Lam K.S., Xu A. Inflammatory biomarkers associated with obesity and insulin resistance: A focus on lipocalin-2 and adipocyte fatty acid-binding protein. Expert Rev. Endocrinol. Metab. 2008;3:29-41.
Not in our library10.1586/17446651.3.1.29
86.
Xu A., Tso A.W., Cheung B.M., Wang Y., Wat N.M., Fong C.H., Yeung D.C., Janus E.D., Sham P.C., Lam K.S. Circulating adipocyte-fatty acid binding protein levels predict the development of the metabolic syndrome: A 5-year prospective study. Circulation. 2007;115:1537-1543.
Not in our library10.1161/circulationaha.106.647503
87.
Wu L.E., Samocha-Bonet D., Whitworth P.T., Fazakerley D.J., Turner N., Biden T.J., James D.E., Cantley J. Identification of fatty acid binding protein 4 as an adipokine that regulates insulin secretion during obesity. Mol. Metab. 2014;3:465-473.
Not in our library10.1016/j.molmet.2014.02.005
88.
Mita T., Furuhashi M., Hiramitsu S., Ishii J., Hoshina K., Ishimura S., Fuseya T., Watanabe Y., Tanaka M., Ohno K., et al. FABP4 is secreted from adipocytes by adenyl cyclase-PKA- and guanylyl cyclase-PKG-dependent lipolytic mechanisms. Obesity. 2015;23:359-367.
Not in our library10.1002/oby.20954
89.
Cianflone K., Maslowska M., Sniderman A.D. Acylation stimulating protein (ASP), an adipocyte autocrine: New directions. Semin. Cell Dev. Biol. 1999;10:31-41.
Not in our library10.1006/scdb.1998.0272
90.
Saleh J., Wahab R.A., Farhan H., Al-Amri I., Cianflone K. Plasma Levels of Acylation-Stimulating Protein Are Strongly Predicted by Waist/Hip Ratio and Correlate with Decreased LDL Size in Men. ISRN Obes. 2013;2013:342802.
Not in our library10.1155/2013/342802
91.
Cianflone K., Xia Z., Chen L.Y. Critical review of acylation-stimulating protein physiology in humans and rodents. Biochim. Biophys. Acta. 2003;1609:127-143.
Not in our library10.1016/s0005-2736(02)00686-7
92.
Maslowska M., Vu H., Phelis S., Sniderman A.D., Rhode B.M., Blank D., Cianflone K. Plasma acylation stimulating protein, adipsin and lipids in non-obese and obese populations. Eur. J. Clin. Investig. 1999;29:679-686.
Not in our library10.1046/j.1365-2362.1999.00514.x
93.
Cianflone K., Kalant D., Marliss E.B., Gougeon R., Sniderman A.D. Response of plasma ASP to a prolonged fast. Int. J. Obes. Relat. Metab. Disord. 1995;19:604-609.
Not in our library
94.
Munkonda M.N., Lapointe M., Miegueu P., Roy C., Gauvreau D., Richard D., Cianflone K. Recombinant acylation stimulating protein administration to C3-/- mice increases insulin resistance via adipocyte inflammatory mechanisms. PLoS ONE. 2012;7:e46883.
Not in our library10.1371/journal.pone.0046883
95.
Sniderman A.D., Maslowska M., Cianflone K. Of mice and men (and women) and the acylation-stimulating protein pathway. Curr. Opin. Lipidol. 2000;11:291-296.
Not in our library10.1097/00041433-200006000-00010
96.
Xia Z., Sniderman A.D., Cianflone K. Acylation-stimulating protein (ASP) deficiency induces obesity resistance and increased energy expenditure in ob/ob mice. J. Biol. Chem. 2002;277:45874-45879.
Not in our library10.1074/jbc.m207281200
97.
Quadro L., Blaner W.S., Salchow D.J., Vogel S., Piantedosi R., Gouras P., Freeman S., Cosma M.P., Colantuoni V., Gottesman M.E. Impaired retinal function and vitamin A availability in mice lacking retinol-binding protein. EMBO J. 1999;18:4633-4644.
Not in our library10.1093/emboj/18.17.4633
98.
Yang Q., Graham T.E., Mody N., Preitner F., Peroni O.D., Zabolotny J.M., Kotani K., Quadro L., Kahn B.B. Serum retinol binding protein 4 contributes to insulin resistance in obesity and type 2 diabetes. Nature. 2005;436:356-362.
Not in our library10.1038/nature03711
99.
Broch M., Ramirez R., Auguet M.T., Alcaide M.J., Aguilar C., Garcia-Espana A., Richart C. Macrophages are novel sites of expression and regulation of retinol binding protein-4 (RBP4). Physiol. Res. 2010;59:299-303.
Not in our library10.33549/physiolres.931714
100.
Graham T.E., Yang Q., Bluher M., Hammarstedt A., Ciaraldi T.P., Henry R.R., Wason C.J., Oberbach A., Jansson P.A., Smith U., et al. Retinol-binding protein 4 and insulin resistance in lean, obese, and diabetic subjects. N. Engl. J. Med. 2006;354:2552-2563.
Not in our library10.1056/nejmoa054862
101.
Kloting N., Graham T.E., Berndt J., Kralisch S., Kovacs P., Wason C.J., Fasshauer M., Schon M.R., Stumvoll M., Bluher M., et al. Serum retinol-binding protein is more highly expressed in visceral than in subcutaneous adipose tissue and is a marker of intra-abdominal fat mass. Cell Metab. 2007;6:79-87.
Not in our library10.1016/j.cmet.2007.06.002
102.
Ost A., Danielsson A., Liden M., Eriksson U., Nystrom F.H., Stralfors P. Retinol-binding protein-4 attenuates insulin-induced phosphorylation of IRS1 and ERK1/2 in primary human adipocytes. FASEB J. 2007;21:3696-3704.
Not in our library10.1096/fj.07-8173com
103.
Moraes-Vieira P.M., Yore M.M., Dwyer P.M., Syed I., Aryal P., Kahn B.B. RBP4 activates antigen-presenting cells, leading to adipose tissue inflammation and systemic insulin resistance. Cell Metab. 2014;19:512-526.
Not in our library10.1016/j.cmet.2014.01.018
104.
Andrade-Oliveira V., Camara N.O., Moraes-Vieira P.M. Adipokines as drug targets in diabetes and underlying disturbances. J. Diabetes Res. 2015;2015:681612.
Not in our library10.1155/2015/681612
105.
Kjeldsen L., Johnsen A.H., Sengeløv H., Borregaard N. Isolation and primary structure of NGAL, a novel protein associated with human neutrophil gelatinase. J. Biol. Chem. 1993;268:10425-10432.
Not in our library
106.
Liu Q., Nilsen-Hamilton M. Identification of a new acute phase protein. J. Biol. Chem. 1995;270:22565-22570.
Not in our library10.1074/jbc.270.38.22565
107.
Kratchmarova I., Kalume D.E., Blagoev B., Scherer P.E., Podtelejnikov A.V., Molina H., Bickel P.E., Andersen J.S., Fernandez M.M., Bunkenborg J., et al. A proteomic approach for identification of secreted proteins during the differentiation of 3T3-L1 preadipocytes to adipocytes. Mol. Cell. Proteom. 2002;1:213-222.
Not in our library10.1074/mcp.m200006-mcp200
108.
Meheus L.A., Fransen L.M., Raymackers J.G., Blockx H.A., Van Beeumen J.J., Van Bun S.M., Van de Voorde A. Identification by microsequencing of lipopolysaccharide-induced proteins secreted by mouse macrophages. J. Immunol. 1993;151:1535-1547.
Not in our library
109.
Shen F., Hu Z., Goswami J., Gaffen S.L. Identification of common transcriptional regulatory elements in interleukin-17 target genes. J. Biol. Chem. 2006;281:24138-24148.
Not in our library10.1074/jbc.m604597200
110.
Wang Y., Lam K.S., Kraegen E.W., Sweeney G., Zhang J., Tso A.W., Chow W.S., Wat N.M., Xu J.Y., Hoo R.L., et al. Lipocalin-2 is an inflammatory marker closely associated with obesity, insulin resistance, and hyperglycemia in humans. Clin. Chem. 2007;53:34-41.
Not in our library10.1373/clinchem.2006.075614
111.
Zhang J., Wu Y., Zhang Y., Leroith D., Bernlohr D.A., Chen X. The role of lipocalin 2 in the regulation of inflammation in adipocytes and macrophages. Mol. Endocrinol. 2008;22:1416-1426.
Not in our library10.1210/me.2007-0420
112.
Yan Q.W., Yang Q., Mody N., Graham T.E., Hsu C.H., Xu Z., Houstis N.E., Kahn B.B., Rosen E.D. The adipokine lipocalin 2 is regulated by obesity and promotes insulin resistance. Diabetes. 2007;56:2533-2540.
Not in our library10.2337/db07-0007
113.
Guo H., Bazuine M., Jin D., Huang M.M., Cushman S.W., Chen X. Evidence for the regulatory role of lipocalin 2 in high-fat diet-induced adipose tissue remodeling in male mice. Endocrinology. 2013;154:3525-3538.
Not in our library10.1210/en.2013-1289
114.
Jayaraman A., Roberts K.A., Yoon J., Yarmush D.M., Duan X., Lee K., Yarmush M.L. Identification of neutrophil gelatinase-associated lipocalin (NGAL) as a discriminatory marker of the hepatocyte-secreted protein response to IL-1beta: A proteomic analysis. Biotechnol. Bioeng. 2005;91:502-515.
Not in our library10.1002/bit.20535
115.
Fujino R.S., Tanaka K., Morimatsu M., Tamura K., Kogo H., Hara T. Spermatogonial cell-mediated activation of an IkappaBzeta-independent nuclear factor-kappaB pathway in Sertoli cells induces transcription of the lipocalin-2 gene. Mol. Endocrinol. 2006;20:904-915.
Not in our library10.1210/me.2005-0423
116.
Catalan V., Gomez-Ambrosi J., Rodriguez A., Ramirez B., Silva C., Rotellar F., Gil M.J., Cienfuegos J.A., Salvador J., Fruhbeck G. Increased adipose tissue expression of lipocalin-2 in obesity is related to inflammation and matrix metalloproteinase-2 and metalloproteinase-9 activities in humans. J. Mol. Med. 2009;87:803-813.
Not in our library10.1007/s00109-009-0486-8
117.
Auguet T., Quintero Y., Terra X., Martinez S., Lucas A., Pellitero S., Aguilar C., Hernandez M., del Castillo D., Richart C. Upregulation of lipocalin 2 in adipose tissues of severely obese women: Positive relationship with proinflammatory cytokines. Obesity. 2011;19:2295-2300.
Not in our library10.1038/oby.2011.61
118.
Law I.K., Xu A., Lam K.S., Berger T., Mak T.W., Vanhoutte P.M., Liu J.T., Sweeney G., Zhou M., Yang B., et al. Lipocalin-2 deficiency attenuates insulin resistance associated with aging and obesity. Diabetes. 2010;59:872-882.
Not in our library10.2337/db09-1541
119.
Guo H., Jin D., Zhang Y., Wright W., Bazuine M., Brockman D.A., Bernlohr D.A., Chen X. Lipocalin-2 deficiency impairs thermogenesis and potentiates diet-induced insulin resistance in mice. Diabetes. 2010;59:1376-1385.
Not in our library10.2337/db09-1735
120.
Zhang Y., Guo H., Deis J.A., Mashek M.G., Zhao M., Ariyakumar D., Armien A.G., Bernlohr D.A., Mashek D.G., Chen X. Lipocalin 2 regulates brown fat activation via a nonadrenergic activation mechanism. J. Biol. Chem. 2014;289:22063-22077.
Not in our library10.1074/jbc.m114.559104
121.
Bozaoglu K., Bolton K., McMillan J., Zimmet P., Jowett J., Collier G., Walder K., Segal D. Chemerin is a novel adipokine associated with obesity and metabolic syndrome. Endocrinology. 2007;148:4687-4694.
Not in our library10.1210/en.2007-0175
122.
Goralski K.B., McCarthy T.C., Hanniman E.A., Zabel B.A., Butcher E.C., Parlee S.D., Muruganandan S., Sinal C.J. Chemerin, a novel adipokine that regulates adipogenesis and adipocyte metabolism. J. Biol. Chem. 2007;282:28175-28188.
Not in our library10.1074/jbc.m700793200
123.
Ernst M.C., Sinal C.J. Chemerin: At the crossroads of inflammation and obesity. Trends Endocrinol. Metab. 2010;21:660-667.
Not in our library10.1016/j.tem.2010.08.001
124.
Wittamer V., Franssen J.D., Vulcano M., Mirjolet J.F., Le Poul E., Migeotte I., Brezillon S., Tyldesley R., Blanpain C., Detheux M., et al. Specific recruitment of antigen-presenting cells by chemerin, a novel processed ligand from human inflammatory fluids. J. Exp. Med. 2003;198:977-985.
Not in our library10.1084/jem.20030382
125.
Chakaroun R., Raschpichler M., Kloting N., Oberbach A., Flehmig G., Kern M., Schon M.R., Shang E., Lohmann T., Dreßler M., et al. Effects of weight loss and exercise on chemerin serum concentrations and adipose tissue expression in human obesity. Metabolism. 2012;61:706-714.
Not in our library10.1016/j.metabol.2011.10.008
126.
Ernst M.C., Issa M., Goralski K.B., Sinal C.J. Chemerin exacerbates glucose intolerance in mouse models of obesity and diabetes. Endocrinology. 2010;151:1998-2007.
Not in our library10.1210/en.2009-1098
127.
El-Mesallamy H.O., El-Derany M.O., Hamdy N.M. Serum omentin-1 and chemerin levels are interrelated in patients with Type 2 diabetes mellitus with or without ischaemic heart disease. Diabet. Med. 2011;28:1194-1200.
Not in our library10.1111/j.1464-5491.2011.03353.x
128.
Bozaoglu K., Segal D., Shields K.A., Cummings N., Curran J.E., Comuzzie A.G., Mahaney M.C., Rainwater D.L., VandeBerg J.L., MacCluer J.W., et al. Chemerin is associated with metabolic syndrome phenotypes in a Mexican-American population. J. Clin. Endocrinol. Metab. 2009;94:3085-3088.
Not in our library10.1210/jc.2008-1833
129.
Lu B., Zhao M., Jiang W., Ma J., Yang C., Shao J., Gu P. Independent Association of Circulating Level of Chemerin With Functional and Early Morphological Vascular Changes in Newly Diagnosed Type 2 Diabetic Patients. Medicine. 2015;94:e1990.
Not in our library10.1097/md.0000000000001990
130.
Shin H.Y., Lee D.C., Chu S.H., Jeon J.Y., Lee M.K., Im J.A., Lee J.W. Chemerin levels are positively correlated with abdominal visceral fat accumulation. Clin. Endocrinol. 2012;77:47-50.
Not in our library10.1111/j.1365-2265.2011.04217.x
131.
Takahashi M., Takahashi Y., Takahashi K., Zolotaryov F.N., Hong K.S., Kitazawa R., Iida K., Okimura Y., Kaji H., Kitazawa S., et al. Chemerin enhances insulin signaling and potentiates insulin-stimulated glucose uptake in 3T3-L1 adipocytes. FEBS Lett. 2008;582:573-578.
Not in our library10.1016/j.febslet.2008.01.023
132.
Luangsay S., Wittamer V., Bondue B., De Henau O., Rouger L., Brait M., Franssen J.D., de Nadai P., Huaux F., Parmentier M. Mouse ChemR23 is expressed in dendritic cell subsets and macrophages, and mediates an anti-inflammatory activity of chemerin in a lung disease model. J. Immunol. 2009;183:6489-6499.
Not in our library10.4049/jimmunol.0901037
133.
Takahashi M., Okimura Y., Iguchi G., Nishizawa H., Yamamoto M., Suda K., Kitazawa R., Fujimoto W., Takahashi K., Zolotaryov F.N., et al. Chemerin regulates β-cell function in mice. Sci. Rep. 2011;1:123.
Not in our library10.1038/srep00123
134.
Sommer G., Garten A., Petzold S., Beck-Sickinger A.G., Bluher M., Stumvoll M., Fasshauer M. Visfatin/PBEF/Nampt: Structure, regulation and potential function of a novel adipokine. Clin. Sci. 2008;115:13-23.
Not in our library10.1042/cs20070226
135.
Mabrouk R., Ghareeb H., Shehab A., Omar K., El-Kabarity R.H., Soliman D.A., Mohamed N.A. Serum visfatin, resistin and IL-18 in A group of Egyptian obese diabetic and non diabetic individuals. Egypt. J. Immunol. 2013;20:1-11.
Not in our library
136.
Mazaherioun M., Hosseinzadeh-Attar M.J., Janani L., Vasheghani Farahani A., Rezvan N., Karbaschian Z., Hossein-Nezhad A. Elevated serum visfatin levels in patients with acute myocardial infarction. Arch. Iran. Med. 2012;15:688-692.
Not in our library
137.
Shaker O., El-Shehaby A., Zakaria A., Mostafa N., Talaat S., Katsiki N., Mikhailidis D.P. Plasma visfatin and retinol binding protein-4 levels in patients with type 2 diabetes mellitus and their relationship to adiposity and fatty liver. Clin. Biochem. 2011;44:1457-1463.
Not in our library10.1016/j.clinbiochem.2011.08.1148
138.
Jia S.H., Li Y., Parodo J., Kapus A., Fan L., Rotstein O.D., Marshall J.C. Pre-B cell colony-enhancing factor inhibits neutrophil apoptosis in experimental inflammation and clinical sepsis. J. Clin. Investog. 2004;113:1318-1327.
Not in our library10.1172/jci19930
139.
Valentini L., Wirth E.K., Schweizer U., Hengstermann S., Schaper L., Koernicke T., Dietz E., Norman K., Buning C., Winklhofer-Roob B.M., et al. Circulating adipokines and the protective effects of hyperinsulinemia in inflammatory bowel disease. Nutrition. 2009;25:172-181.
Not in our library10.1016/j.nut.2008.07.020
140.
Yun M.R., Seo J.M., Park H.Y. Visfatin contributes to the differentiation of monocytes into macrophages through the differential regulation of inflammatory cytokines in THP-1 cells. Cell Signal. 2014;26:705-715.
Not in our library10.1016/j.cellsig.2013.12.010
141.
Moschen A.R., Kaser A., Enrich B., Mosheimer B., Theurl M., Niederegger H., Tilg H. Visfatin, an adipocytokine with proinflammatory and immunomodulating properties. J. Immunol. 2007;178:1748-1758.
Not in our library10.4049/jimmunol.178.3.1748
142.
Yoshino J., Mills K.F., Yoon M.J., Imai S. Nicotinamide mononucleotide, a key NAD (+) intermediate, treats the pathophysiology of diet- and age-induced diabetes in mice. Cell Metab. 2011;14:528-536.
Not in our library10.1016/j.cmet.2011.08.014
143.
Revollo J.R., Korner A., Mills K.F., Satoh A., Wang T., Garten A., Dasgupta B., Sasaki Y., Wolberger C., Townsend R.R., et al. Nampt/PBEF/Visfatin regulates insulin secretion in beta cells as a systemic NAD biosynthetic enzyme. Cell Metab. 2007;6:363-375.
Not in our library10.1016/j.cmet.2007.09.003
144.
Cheng Q., Dong W., Qian L., Wu J., Peng Y. Visfatin inhibits apoptosis of pancreatic β-cell line, MIN6, via the mitogen-activated protein kinase/phosphoinositide 3-kinase pathway. J. Mol. Endocrinol. 2011;47:13-21.
Not in our library10.1530/jme-10-0106
145.
Zhang Y., Proenca R., Maffei M., Barone M., Leopold L., Friedman J.M. Positional cloning of the mouse obese gene and its human homologue. Nature. 1994;372:425-432.
Not in our library10.1038/372425a0
146.
Sanchez-Margalet V., Martin-Romero C., Santos-Alvarez J., Goberna R., Najib S., Gonzalez-Yanes C. Role of leptin as an immunomodulator of blood mononuclear cells: Mechanisms of action. Clin. Exp. Immunol. 2003;133:11-19.
Not in our library10.1046/j.1365-2249.2003.02190.x
147.
Chatterjee T.K., Stoll L.L., Denning G.M., Harrelson A., Blomkalns A.L., Idelman G., Rothenberg F.G., Neltner B., Romig-Martin S.A., Dickson E.W., et al. Proinflammatory phenotype of perivascular adipocytes: Influence of high-fat feeding. Circ. Res. 2009;104:541-549.
Not in our library10.1161/circresaha.108.182998
148.
Spalding K.L., Arner E., Westermark P.O., Bernard S., Buchholz B.A., Bergmann O., Blomqvist L., Hoffstedt J., Naslund E., Britton T., et al. Dynamics of fat cell turnover in humans. Nature. 2008;453:783-787.
Not in our library10.1038/nature06902
149.
Lumeng C.N., Bodzin J.L., Saltiel A.R. Obesity induces a phenotypic switch in adipose tissue macrophage polarization. J. Clin. Investig. 2007;117:175-184.
Not in our library10.1172/jci29881
150.
Santos-Alvarez J., Goberna R., Sanchez-Margalet V. Human leptin stimulates proliferation and activation of human circulating monocytes. Cell. Immunol. 1999;194:6-11.
Not in our library10.1006/cimm.1999.1490
151.
Kiguchi N., Maeda T., Kobayashi Y., Fukazawa Y., Kishioka S. Leptin enhances CC-chemokine ligand expression in cultured murine macrophage. Biochem. Biophys. Res. Commun. 2009;384:311-315.
Not in our library10.1016/j.bbrc.2009.04.121
152.
Finck B.N., Kelley K.W., Dantzer R., Johnson R.W. In vivo and in vitro evidence for the involvement of tumor necrosis factor-alpha in the induction of leptin by lipopolysaccharide. Endocrinology. 1998;139:2278-2283.
Not in our library10.1210/endo.139.5.6012
153.
Sinha M.K., Opentanova I., Ohannesian J.P., Kolaczynski J.W., Heiman M.L., Hale J., Becker G.W., Bowsher R.R., Stephens T.W., Caro J.F. Evidence of free and bound leptin in human circulation. Studies in lean and obese subjects and during short-term fasting. J. Clin. Investig. 1996;98:1277-1282.
Not in our library10.1172/jci118913
154.
Considine R.V., Sinha M.K., Heiman M.L., Kriauciunas A., Stephens T.W., Nyce M.R., Ohannesian J.P., Marco C.C., McKee L.J., Bauer T.L., et al. Serum immunoreactive-leptin concentrations in normal-weight and obese humans. N. Engl. J. Med. 1996;334:292-295.
Not in our library10.1056/nejm199602013340503
155.
Frederich R.C., Hamann A., Anderson S., Lollmann B., Lowell B.B., Flier J.S. Leptin levels reflect body lipid content in mice: Evidence for diet-induced resistance to leptin action. Nat. Med. 1995;1:1311-1314.
Not in our library10.1038/nm1295-1311
156.
Menon B., Krishnan R. Role of Leptin in Acute Ischemic Stroke. J. Neurosci. Rural Pract. 2018;9:376-380.
Not in our library10.4103/jnrp.jnrp_5_18
157.
Saber H., Himali J.J., Shoamanesh A., Beiser A., Pikula A., Harris T.B., Roubenoff R., Romero J.R., Kase C.S., Vasan R.S., et al. Serum Leptin Levels and the Risk of Stroke: The Framingham Study. Stroke. 2015;46:2881-2885.
Not in our library10.1161/strokeaha.115.009463
158.
Santilli F., Vazzana N., Liani R., Guagnano M.T., Davi G. Platelet activation in obesity and metabolic syndrome. Obes. Rev. 2012;13:27-42.
Not in our library10.1111/j.1467-789x.2011.00930.x
159.
Townsend K.L., Suzuki R., Huang T.L., Jing E., Schulz T.J., Lee K., Taniguchi C.M., Espinoza D.O., McDougall L.E., Zhang H., et al. Bone morphogenetic protein 7 (BMP7) reverses obesity and regulates appetite through a central mTOR pathway. FASEB J. 2012;26:2187-2196.
Not in our library10.1096/fj.11-199067
160.
The role of leptin in the control of insulin-glucose axis · 2013
No notice
161.
Kamohara S., Burcelin R., Halaas J.L., Friedman J.M., Charron M.J. Acute stimulation of glucose metabolism in mice by leptin treatment. Nature. 1997;389:374-377.
Not in our library10.1038/38717
162.
Shimomura I., Hammer R.E., Ikemoto S., Brown M.S., Goldstein J.L. Leptin reverses insulin resistance and diabetes mellitus in mice with congenital lipodystrophy. Nature. 1999;401:73-76.
Not in our library10.1038/43448
163.
Oral E.A., Simha V., Ruiz E., Andewelt A., Premkumar A., Snell P., Wagner A.J., DePaoli A.M., Reitman M.L., Taylor S.I., et al. Leptin-replacement therapy for lipodystrophy. N. Engl. J. Med. 2002;346:570-578.
Not in our library10.1056/nejmoa012437
164.
Direct antidiabetic effect of leptin through triglyceride depletion of tissues · 1997
Not checked
165.
Muoio D.M., Dohm G.L., Fiedorek F.T., Tapscott E.B., Coleman R.A. Leptin directly alters lipid partitioning in skeletal muscle. Diabetes. 1997;46:1360-1363.
Not in our library10.2337/diab.46.8.1360
166.
Minokoshi Y., Kim Y.B., Peroni O.D., Fryer L.G., Muller C., Carling D., Kahn B.B. Leptin stimulates fatty-acid oxidation by activating AMP-activated protein kinase. Nature. 2002;415:339-343.
Not in our library10.1038/415339a
167.
Hida K., Wada J., Eguchi J., Zhang H., Baba M., Seida A., Hashimoto I., Okada T., Yasuhara A., Nakatsuka A., et al. Visceral adipose tissue-derived serine protease inhibitor: A unique insulin-sensitizing adipocytokine in obesity. Proc. Natl. Acad. Sci. USA. 2005;102:10610-10615.
Not in our library10.1073/pnas.0504703102
168.
Youn B.S., Kloting N., Kratzsch J., Lee N., Park J.W., Song E.S., Ruschke K., Oberbach A., Fasshauer M., Stumvoll M., et al. Serum vaspin concentrations in human obesity and type 2 diabetes. Diabetes. 2008;57:372-377.
Not in our library10.2337/db07-1045
169.
Feng R., Li Y., Wang C., Luo C., Liu L., Chuo F., Li Q., Sun C. Higher vaspin levels in subjects with obesity and type 2 diabetes mellitus: A meta-analysis. Diabetes Res. Clin. Pract. 2014;106:88-94.
Not in our library10.1016/j.diabres.2014.07.026
170.
Ko B.J., Lee M., Park H.S., Han K., Cho G.J., Hwang T.G., Kim J.H., Lee S.H., Lee H.Y., Kim S.M. Elevated vaspin and leptin levels are associated with obesity in prepubertal Korean children. Endocr. J. 2013;60:609-616.
Not in our library10.1507/endocrj.ej12-0384
171.
Chang H.M., Lee H.J., Park H.S., Kang J.H., Kim K.S., Song Y.S., Jang Y.J. Effects of weight reduction on serum vaspin concentrations in obese subjects: Modification by insulin resistance. Obesity. 2010;18:2105-2110.
Not in our library10.1038/oby.2010.60
172.
Kloting N., Berndt J., Kralisch S., Kovacs P., Fasshauer M., Schon M.R., Stumvoll M., Bluher M. Vaspin gene expression in human adipose tissue: Association with obesity and type 2 diabetes. Biochem. Biophys. Res. Commun. 2006;339:430-436.
Not in our library10.1016/j.bbrc.2005.11.039
173.
Bluher M. Vaspin in obesity and diabetes: Pathophysiological and clinical significance. Endocrine. 2012;41:176-182.
Not in our library10.1007/s12020-011-9572-0
174.
Korner A., Neef M., Friebe D., Erbs S., Kratzsch J., Dittrich K., Bluher S., Kapellen T.M., Kovacs P., Stumvoll M., et al. Vaspin is related to gender, puberty and deteriorating insulin sensitivity in children. Int. J. Obes. 2011;35:578-586.
Not in our library10.1038/ijo.2010.196
175.
Goktas Z., Owens S., Boylan M., Syn D., Shen C.L., Reed D.B., San Francisco S., Wang S. Associations between tissue visfatin/nicotinamide, phosphoribosyl transferase (Nampt), retinol binding protein-4, and vaspin concentrations and insulin resistance in morbidly obese subjects. Mediat. Inflamm. 2013;2013:861496.
Not in our library10.1155/2013/861496
176.
Lee J.A., Park H.S., Song Y.S., Jang Y.J., Kim J.H., Lee Y.J., Heo Y.S. Relationship between vaspin gene expression and abdominal fat distribution of Korean women. Endocr. J. 2011;58:639-646.
Not in our library10.1507/endocrj.k11e-073
177.
Wada J. Vaspin: A novel serpin with insulin-sensitizing effects. Expert Opin. Investig. Drugs. 2008;17:327-333.
Not in our library10.1517/13543784.17.3.327
178.
Dai R., Dong Z., Qian Y., Han Y. Obese type 2 diabetes mellitus patients have higher serum vaspin concentrations. J. Diabetes. 2016;8:445-447.
Not in our library10.1111/1753-0407.12365
179.
Li K., Li L., Yang M., Liu H., Liu D., Yang H., Boden G., Yang G. Short-term continuous subcutaneous insulin infusion decreases the plasma vaspin levels in patients with type 2 diabetes mellitus concomitant with improvement in insulin sensitivity. Eur. J. Endocrinol. 2011;164:905-910.
Not in our library10.1530/eje-10-1023
180.
Kadoglou N.P., Gkontopoulos A., Kapelouzou A., Fotiadis G., Theofilogiannakos E.K., Kottas G., Lampropoulos S. Serum levels of vaspin and visfatin in patients with coronary artery disease-Kozani study. Clin. Chim. Acta. 2011;412:48-52.
Not in our library10.1016/j.cca.2010.09.012
181.
Jian W., Peng W., Xiao S., Li H., Jin J., Qin L., Dong Y., Su Q. Role of serum vaspin in progression of type 2 diabetes: A 2-year cohort study. PLoS ONE. 2014;9:e94763.
Not in our library10.1371/journal.pone.0094763
182.
Kloting N., Kovacs P., Kern M., Heiker J.T., Fasshauer M., Schon M.R., Stumvoll M., Beck-Sickinger A.G., Bluher M. Central vaspin administration acutely reduces food intake and has sustained blood glucose-lowering effects. Diabetologia. 2011;54:1819-1823.
Not in our library10.1007/s00125-011-2137-1
183.
Brunetti L., Di Nisio C., Recinella L., Chiavaroli A., Leone S., Ferrante C., Orlando G., Vacca M. Effects of vaspin, chemerin and omentin-1 on feeding behavior and hypothalamic peptide gene expression in the rat. Peptides. 2011;32:1866-1871.
Not in our library10.1016/j.peptides.2011.08.003
184.
Vaspin inhibits kallikrein 7 by serpin mechanism · 2013
No notice
185.
Steppan C.M., Bailey S.T., Bhat S., Brown E.J., Banerjee R.R., Wright C.M., Patel H.R., Ahima R.S., Lazar M.A. The hormone resistin links obesity to diabetes. Nature. 2001;409:307-312.
Not in our library10.1038/35053000
186.
Kim K.H., Lee K., Moon Y.S., Sul H.S. A cysteine-rich adipose tissue-specific secretory factor inhibits adipocyte differentiation. J. Biol. Chem. 2001;276:11252-11256.
Not in our library10.1074/jbc.c100028200
187.
Way J.M., Gorgun C.Z., Tong Q., Uysal K.T., Brown K.K., Harrington W.W., Oliver W.R., Willson T.M., Kliewer S.A., Hotamisligil G.S. Adipose tissue resistin expression is severely suppressed in obesity and stimulated by peroxisome proliferator-activated receptor gamma agonists. J. Biol. Chem. 2001;276:25651-25653.
Not in our library10.1074/jbc.c100189200
188.
Le Lay S., Boucher J., Rey A., Castan-Laurell I., Krief S., Ferre P., Valet P., Dugail I. Decreased resistin expression in mice with different sensitivities to a high-fat diet. Biochem. Biophys. Res. Commun. 2001;289:564-567.
Not in our library10.1006/bbrc.2001.6015
189.
Rajala M.W., Obici S., Scherer P.E., Rossetti L. Adipose-derived resistin and gut-derived resistin-like molecule-beta selectively impair insulin action on glucose production. J. Clin. Investig. 2003;111:225-230.
Not in our library10.1172/jci16521
190.
Banerjee R.R., Rangwala S.M., Shapiro J.S., Rich A.S., Rhoades B., Qi Y., Wang J., Rajala M.W., Pocai A., Scherer P.E., et al. Regulation of fasted blood glucose by resistin. Science. 2004;303:1195-1198.
Not in our library10.1126/science.1092341
191.
Qi Y., Nie Z., Lee Y.S., Singhal N.S., Scherer P.E., Lazar M.A., Ahima R.S. Loss of resistin improves glucose homeostasis in leptin deficiency. Diabetes. 2006;55:3083-3090.
Not in our library10.2337/db05-0615
192.
Steppan C.M., Wang J., Whiteman E.L., Birnbaum M.J., Lazar M.A. Activation of SOCS-3 by resistin. Mol. Cell. Biol. 2005;25:1569-1575.
Not in our library10.1128/mcb.25.4.1569-1575.2005
193.
Adipokines and the Female Reproductive Tract · 2014
Not checked
194.
Savage D.B., Sewter C.P., Klenk E.S., Segal D.G., Vidal-Puig A., Considine R.V., O’Rahilly S. Resistin/Fizz3 expression in relation to obesity and peroxisome proliferator-activated receptor-gamma action in humans. Diabetes. 2001;50:2199-2202.
Not in our library10.2337/diabetes.50.10.2199
195.
Lee J.H., Chan J.L., Yiannakouris N., Kontogianni M., Estrada E., Seip R., Orlova C., Mantzoros C.S. Circulating resistin levels are not associated with obesity or insulin resistance in humans and are not regulated by fasting or leptin administration: Cross-sectional and interventional studies in normal, insulin-resistant, and diabetic subjects. J. Clin. Endocrinol. Metab. 2003;88:4848-4856.
Not in our library10.1210/jc.2003-030519
196.
Heilbronn L.K., Rood J., Janderova L., Albu J.B., Kelley D.E., Ravussin E., Smith S.R. Relationship between serum resistin concentrations and insulin resistance in nonobese, obese, and obese diabetic subjects. J. Clin. Endocrinol. Metab. 2004;89:1844-1848.
Not in our library10.1210/jc.2003-031410
197.
Boucher J., Masri B., Daviaud D., Gesta S., Guigne C., Mazzucotelli A., Castan-Laurell I., Tack I., Knibiehler B., Carpene C., et al. Apelin, a newly identified adipokine up-regulated by insulin and obesity. Endocrinology. 2005;146:1764-1771.
Not in our library10.1210/en.2004-1427
198.
Castan-Laurell I., Dray C., Attane C., Duparc T., Knauf C., Valet P. Apelin, diabetes, and obesity. Endocrine. 2011;40:1-9.
Not in our library10.1007/s12020-011-9507-9
199.
Lee D.K., Cheng R., Nguyen T., Fan T., Kariyawasam A.P., Liu Y., Osmond D.H., George S.R., O’Dowd B.F. Characterization of apelin, the ligand for the APJ receptor. J. Neurochem. 2000;74:34-41.
Not in our library10.1046/j.1471-4159.2000.0740034.x
200.
Tatemoto K., Hosoya M., Habata Y., Fujii R., Kakegawa T., Zou M.X., Kawamata Y., Fukusumi S., Hinuma S., Kitada C., et al. Isolation and characterization of a novel endogenous peptide ligand for the human APJ receptor. Biochem. Biophys. Res. Commun. 1998;251:471-476.
Not in our library10.1006/bbrc.1998.9489
201.
Heinonen M.V., Purhonen A.K., Miettinen P., Paakkonen M., Pirinen E., Alhava E., Akerman K., Herzig K.H. Apelin, orexin-A and leptin plasma levels in morbid obesity and effect of gastric banding. Regul. Pept. 2005;130:7-13.
Not in our library10.1016/j.regpep.2005.05.003
202.
Sorhede Winzell M., Magnusson C., Ahren B. The apj receptor is expressed in pancreatic islets and its ligand, apelin, inhibits insulin secretion in mice. Regul. Pept. 2005;131:12-17.
Not in our library10.1016/j.regpep.2005.05.004
203.
Cao J., Li H., Chen L. Targeting drugs to APJ receptor: The prospect of treatment of hypertension and other cardiovascular diseases. Curr. Drug Targets. 2015;16:148-155.
Not in our library10.2174/1389450115666141128120053
204.
Yue P., Jin H., Xu S., Aillaud M., Deng A.C., Azuma J., Kundu R.K., Reaven G.M., Quertermous T., Tsao P.S. Apelin decreases lipolysis via G(q), G(i), and AMPK-Dependent Mechanisms. Endocrinology. 2011;152:59-68.
Not in our library10.1210/en.2010-0576
205.
Fruhbeck G., Mendez-Gimenez L., Fernandez-Formoso J.A., Fernandez S., Rodriguez A. Regulation of adipocyte lipolysis. Nutr. Res. Rev. 2014;27:63-93.
Not in our library10.1017/s095442241400002x
206.
Dray C., Knauf C., Daviaud D., Waget A., Boucher J., Buleon M., Cani P.D., Attane C., Guigne C., Carpene C., et al. Apelin stimulates glucose utilization in normal and obese insulin-resistant mice. Cell Metab. 2008;8:437-445.
Not in our library10.1016/j.cmet.2008.10.003
207.
Principe A., Melgar-Lesmes P., Fernandez-Varo G., del Arbol L.R., Ros J., Morales-Ruiz M., Bernardi M., Arroyo V., Jimenez W. The hepatic apelin system: A new therapeutic target for liver disease. Hepatology. 2008;48:1193-1201.
Not in our library10.1002/hep.22467
208.
Kuba K., Zhang L., Imai Y., Arab S., Chen M., Maekawa Y., Leschnik M., Leibbrandt A., Markovic M., Schwaighofer J., et al. Impaired heart contractility in Apelin gene-deficient mice associated with aging and pressure overload. Circ. Res. 2007;101:e32-e42.
Not in our library10.1161/circresaha.107.158659
209.
Herrera B., Addante A., Sanchez A. BMP Signalling at the Crossroad of Liver Fibrosis and Regeneration. Int. J. Mol. Sci. 2017;19.
Not in our library10.3390/ijms19010039
210.
Sudo S., Avsian-Kretchmer O., Wang L.S., Hsueh A.J. Protein related to DAN and cerberus is a bone morphogenetic protein antagonist that participates in ovarian paracrine regulation. J. Biol. Chem. 2004;279:23134-23141.
Not in our library10.1074/jbc.m402376200
211.
Wordinger R.J., Zode G., Clark A.F. Focus on molecules: Gremlin. Exp. Eye Res. 2008;87:78-79.
Not in our library10.1016/j.exer.2007.11.016
212.
Church R.H., Krishnakumar A., Urbanek A., Geschwindner S., Meneely J., Bianchi A., Basta B., Monaghan S., Elliot C., Stromstedt M., et al. Gremlin1 preferentially binds to bone morphogenetic protein-2 (BMP-2) and BMP-4 over BMP-7. Biochem. J. 2015;466:55-68.
Not in our library10.1042/bj20140771
213.
Gustafson B., Smith U. The WNT inhibitor Dickkopf 1 and bone morphogenetic protein 4 rescue adipogenesis in hypertrophic obesity in humans. Diabetes. 2012;61:1217-1224.
Not in our library10.2337/db11-1419
214.
Bowers R.R., Lane M.D. A role for bone morphogenetic protein-4 in adipocyte development. Cell Cycle. 2007;6:385-389.
Not in our library10.4161/cc.6.4.3804
215.
Qian S.W., Tang Y., Li X., Liu Y., Zhang Y.Y., Huang H.Y., Xue R.D., Yu H.Y., Guo L., Gao H.D., et al. BMP4-mediated brown fat-like changes in white adipose tissue alter glucose and energy homeostasis. Proc. Natl. Acad. Sci. USA. 2013;110:E798-E807.
Not in our library10.1073/pnas.1215236110
216.
Gustafson B., Hammarstedt A., Hedjazifar S., Smith U. Restricted adipogenesis in hypertrophic obesity: The role of WISP2, WNT, and BMP4. Diabetes. 2013;62:2997-3004.
Not in our library10.2337/db13-0473
217.
Elsen M., Raschke S., Tennagels N., Schwahn U., Jelenik T., Roden M., Romacho T., Eckel J. BMP4 and BMP7 induce the white-to-brown transition of primary human adipose stem cells. Am. J. Physiol. Cell Physiol. 2014;306:C431-C440.
Not in our library10.1152/ajpcell.00290.2013
218.
Gustafson B., Hammarstedt A., Hedjazifar S., Hoffmann J.M., Svensson P.A., Grimsby J., Rondinone C., Smith U. BMP4 and BMP Antagonists Regulate Human White and Beige Adipogenesis. Diabetes. 2015;64:1670-1681.
Not in our library10.2337/db14-1127
219.
Smith U., Kahn B.B. Adipose tissue regulates insulin sensitivity: Role of adipogenesis, de novo lipogenesis and novel lipids. J. Intern. Med. 2016;280:465-475.
Not in our library10.1111/joim.12540
220.
FGF21 as a Hepatokine, Adipokine, and Myokine in Metabolism and Diseases · 2014
No notice
221.
Giralt M., Gavalda-Navarro A., Villarroya F. Fibroblast growth factor-21, energy balance and obesity. Mol. Cell. Endocrinol. 2015;418:66-73.
Not in our library10.1016/j.mce.2015.09.018
222.
Hondares E., Iglesias R., Giralt A., Gonzalez F.J., Giralt M., Mampel T., Villarroya F. Thermogenic Activation Induces FGF21 Expression and Release in Brown Adipose Tissue. J. Biol. Chem. 2011;286:12983-12990.
Not in our library10.1074/jbc.m110.215889
223.
Chartoumpekis D.V., Habeos I.G., Ziros P.G., Psyrogiannis A.I., Kyriazopoulou V.E., Papavassiliou A.G. Brown Adipose Tissue Responds to Cold and Adrenergic Stimulation by Induction of FGF21. Mol. Med. 2011;17:736-740.
Not in our library10.2119/molmed.2011.00075
224.
Fisher F.M., Kleiner S., Douris N., Fox E.C., Mepani R.J., Verdeguer F., Wu J., Kharitonenkov A., Flier J.S., Maratos-Flier E., et al. FGF21 regulates PGC-1a and browning of white adipose tissues in adaptive thermogenesis. Genes Dev. 2012;26:271-281.
Not in our library10.1101/gad.177857.111
225.
Ge X., Chen C., Hui X., Wang Y., Lam K.S.L., Xu A. Fibroblast Growth Factor 21 Induces Glucose Transporter-1 Expression through Activation of the Serum Response Factor/Ets-Like Protein-1 in Adipocytes. J. Biol. Chem. 2011;286:34533-34541.
Not in our library10.1074/jbc.m111.248591
226.
Lee P., Brychta R.J., Linderman J., Smith S., Chen K.Y., Celi F.S. Mild Cold Exposure Modulates Fibroblast Growth Factor 21 (FGF21) Diurnal Rhythm in Humans: Relationship between FGF21 Levels, Lipolysis, and Cold-Induced Thermogenesis. J. Clin. Endocrinol. Metab. 2013;98:E98-E102.
Not in our library10.1210/jc.2012-3107
227.
Lee P., Linderman J.D., Smith S., Brychta R.J., Wang J., Idelson C., Perron R.M., Werner C.D., Phan G.Q., Kammula U.S., et al. Irisin and FGF21 Are Cold-Induced Endocrine Activators of Brown Fat Function in Humans. Cell Metab. 2014;19:302-309.
Not in our library10.1016/j.cmet.2013.12.017
228.
Hondares E., Gallego-Escuredo J.M., Flachs P., Frontini A., Cereijo R., Goday A., Perugini J., Kopecky P., Giralt M., Cinti S., et al. Fibroblast growth factor-21 is expressed in neonatal and pheochromocytoma-induced adult human brown adipose tissue. Metabolism. 2014;63:312-317.
Not in our library10.1016/j.metabol.2013.11.014
229.
Marsili A., Zavacki A., Harney J.W., Larsen P.R. Physiological role and regulation of iodothyronine deiodinases: A 2011 update. J. Endocrinol. Investig. 2011;34:395-407.
Not in our library10.1007/bf03347465
230.
Silva J.E., Larsen P.R. Adrenergic activation of triiodothyronine production in brown adipose tissue. Nature. 1983;305:712-713.
Not in our library10.1038/305712a0
231.
Bianco A.C., Silva J.E. Optimal response of key enzymes and uncoupling protein to cold in BAT depends on local T3 generation. Am. J. Physiol. 1987;253:E255-E263.
Not in our library10.1152/ajpendo.1987.253.3.e255
232.
Martinez de Mena R., Scanlan T.S., Obregon M.J. The T3 Receptor b1 Isoform Regulates UCP1 and D2 Deiodinase in Rat Brown Adipocytes. Endocrinology. 2010;151:5074-5083.
Not in our library10.1210/en.2010-0533
233.
Adipose tissues and thyroid hormones · 2014
No notice
234.
Burnstock G., Gentile D. The involvement of purinergic signalling in obesity. Purinergic Signal. 2018;14:97-108.
Not in our library10.1007/s11302-018-9605-8
235.
Gnad T., Scheibler S., von Kügelgen I., Scheele C., Kilić A., Glöde A., Hoffmann L.S., Reverte-Salisa L., Horn P., Mutlu S., et al. Adenosine activates brown adipose tissue and recruits beige adipocytes via A2A receptors. Nature. 2014;516:395-399.
Not in our library10.1038/nature13816
236.
Svensson K.J., Long J.Z., Jedrychowski M.P., Cohen P., Lo J.C., Serag S., Kir S., Shinoda K., Tartaglia J.A., Rao R.R., et al. A Secreted Slit2 Fragment Regulates Adipose Tissue Thermogenesis and Metabolic Function. Cell Metab. 2016;23:454-466.
Not in our library10.1016/j.cmet.2016.01.008
237.
Kang Y.E., Choung S., Lee J.H., Kim H.J., Ku B.J. The Role of Circulating Slit2, the One of the Newly Batokines, in Human Diabetes Mellitus. Endocrinol. Metab. 2017;32:383-388.
Not in our library10.3803/enm.2017.32.3.383
238.
Singh R., Braga M., Pervin S. Regulation of brown adipocyte metabolism by myostatin/follistatin signaling. Front. Cell Dev. Biol. 2014;2:1-7.
Not in our library10.3389/fcell.2014.00060
239.
Singh R., Braga M., Reddy S.T., Lee S., Parveen M., VGrijalva V., Vergnes L., Pervin S. Follistatin Targets Distinct Pathways To Promote Brown Adipocyte Characteristics in Brown and White Adipose Tissues. Endocrinology. 2017;158:1217-1230.
Not in our library10.1210/en.2016-1607
240.
Krott L.M., Piscitelli F., Heine M., Borrino S., Scheja L., Silvestri C., Heeren J., Marzo V.D. Endocannabinoid regulation in white and brown adipose tissue following thermogenic activation. J. Lipid Res. 2016;57:464-473.
Not in our library10.1194/jlr.m065227
241.
Boon M.R., Kooijman S., van Dam A.D., Pelgrom L.R., Berbee J.F.P., Visseren C.A.R., van Aggele R.C., van den Hoek A.M., Sips H.C.M., Lombes M., et al. Peripheral cannabinoid 1 receptor blockade activates brown adipose tissue and diminishes dyslipidemia and obesity. FASEB J. 2014;28:5361-5375.
Not in our library10.1096/fj.13-247643
242.
Whittle A.J., Jiang M., Peirce V., Relat J., Virtue S., Ebinuma H., Fukamachi I., Yamaguchi T., Takahashi M., Murano T., et al. Soluble LR11/SorLA represses thermogenesis in adipose tissue and correlates with BMI in humans. Nat. Commun. 2015;6:8951.
Not in our library10.1038/ncomms9951
243.
Fournier B., Murray B., Gutzwiller S., Marcaletti S., Marcellin D., Bergling S., Brachat S., Persohn E., Pierrel E., Bombard F., et al. Blockade of the Activin Receptor IIB Activates Functional Brown Adipogenesis and Thermogenesis by Inducing Mitochondrial Oxidative Metabolism. Mol. Cell. Biol. 2012;32:2871-2879.
Not in our library10.1128/mcb.06575-11
244.
Steculorum S.M., Ruud J., Karakasilioti I., Backes H., Engström Ruud L., Timper K., Hess M.E., Tsaousidou E., Mauer J., Vogt M.C., et al. AgRP Neurons Control Systemic Insulin Sensitivity via Myostatin Expression in Brown Adipose Tissue. Cell. 2016;165:125-138.
Not in our library10.1016/j.cell.2016.02.044
245.
Zhang R., Abou-Samra A.B. Emerging roles of Lipasin as a critical lipid regulator. Biochem. Biophys. Res. Commun. 2013;432:401-405.
Not in our library10.1016/j.bbrc.2013.01.129
246.
Fu Z., Yao F., Abou-Samra A.B., Zhang R. Lipasin, thermoregulated in brown fat, is a novel but atypical member of the angiopoietin-like protein family. Biochem. Biophys. Res. Commun. 2013;430:1126-1131.
Not in our library10.1016/j.bbrc.2012.12.025
247.
Quagliarini F., Wang Y., Kozlitina J., Grishin N.V., Hyde R., Boerwinkle E., Valenzuela D.M., Murphy A.J., Cohen J.C., Hobbs H.H. Atypical angiopoietin-like protein that regulates ANGPTL3. Proc. Natl. Acad. Sci. USA. 2012;109:19751-19756.
Not in our library10.1073/pnas.1217552109
248.
Klepac K., Kilić A., Gnad T., Brown L.M., Herrmann B., Wilderman A., Balkow A., Glöde A., Simon K., Lidell M.E., et al. The Gq signalling pathway inhibits brown and beige adipose tissue. Nat. Commun. 2016;7:10895.
Not in our library10.1038/ncomms10895
249.
Cao Y. Angiogenesis and Vascular Functions in Modulation of Obesity, Adipose Metabolism, and Insulin Sensitivity. Cell Metab. 2013;18:478-489.
Not in our library10.1016/j.cmet.2013.08.008
250.
Asano A., Kimura K., Saito M. Cold-Induced mRNA Expression of Angiogenic Factors in Rat Brown Adipose Tissue. J. Vet. Med. Sci. 1999;61:403-409.
Not in our library10.1292/jvms.61.403
251.
Xue Y., Petrovic N., Cao R., Larsson O., Lim S., Chen S., Feldmann H.M., Liang Z., Zhu Z., Nedergaard J., et al. Hypoxia-independent angiogenesis in adipose tissues during cold acclimation. Cell Metab. 2009;9:99-109.
Not in our library10.1016/j.cmet.2008.11.009
252.
Sun K., Kusminski C.M., Luby-Phelps K., Spurgin S.B., An Y.A., Wang Q.A., Holland W.L., Scherer P.E. Brown adipose tissue derived VEGF-A modulates cold tolerance and energy expenditure. Mol. Metab. 2014;3:474-483.
Not in our library10.1016/j.molmet.2014.03.010
253.
Shimizu I., Aprahamian T., Kikuchi R., Shimizu A., Papanicolaou K.N., MacLauchlan S., Maruyama S., Walsh K. Vascular rarefaction mediates whitening of brown fat in obesity. J. Clin. Investig. 2014;124:2099-2112.
Not in our library10.1172/jci71643
254.
Saha S.K., Kuroshima A. Nitric Oxide and Thermogenic Function of Brown Adipose Tissue in Rats. Jpn. J. Physiol. 2000;50:337-342.
Not in our library10.2170/jjphysiol.50.337
255.
Nisoli E., Tonello C., Briscini L., Carruba M.O. Inducible Nitric Oxide Synthase in Rat Brown Adipocytes: Implications for Blood Flow to Brown Adipose Tissue. Endocrinology. 1997;138:676-682.
Not in our library10.1210/endo.138.2.4956
256.
Roberts L.D., Ashmore T., Kotwica A.O., Murfitt S.A., Fernandez B.O., Feelisch M., Murray A.J., Griffin J.L. Inorganic nitrate promotes the browning of white adipose tissue through the nitrate-nitrite-nitric oxide pathway. Diabetes. 2015;64:471-484.
Not in our library10.2337/db14-0496
257.
Soltis E.E., Cassis L.A. Influence of Perivascular Adipose Tissue on Rat Aortic Smooth Muscle Responsiveness. Clin. Exp. Hypertens. A. 1991;13:277-296.
Not in our library10.3109/10641969109042063
258.
Friederich-Persson M., Dinh Cat A.N., Persson P., Montezano A.C., Touyz R.M. Brown Adipose Tissue Regulates Small Artery Function Through NADPH Oxidase 4-Derived Hydrogen Peroxide and Redox-Sensitive Protein Kinase G-1α. Arterioscler. Thromb. Vasc. Biol. 2017;37:455-465.
Not in our library10.1161/atvbaha.116.308659
259.
Wang G., Zhao X., Meng Z., Kern M., Dietrich A., Chen Z., Cozacov Z., Zhou D., Okunade A.L., Su X., et al. The brown fat–enriched secreted factor Nrg4 preserves metabolic homeostasis through attenuation of hepatic lipogenesis. Nat. Med. 2014;12:1436-1443.
Not in our library10.1038/nm.3713
260.
Kralisch S., Hoffmann A., Kratzsch J., Blüher M., Stumvoll M., Fasshauer M., Ebert T. The brown-fat-secreted adipokine neuregulin 4 is decreased in gestational diabetes mellitus. Diabetes Metab. 2018;44:150-154.
Not in our library10.1016/j.diabet.2017.06.001
261.
Yan P., Xu Y., Wan Q., Feng J., Li H., Yang J., Zhong H., Zhang Z. Plasma Neuregulin 4 Levels Are Associated with Metabolic Syndrome in Patients Newly Diagnosed with Type 2 Diabetes Mellitus. Dis. Markers. 2018;12:6974191.
Not in our library10.1155/2018/6974191
262.
Tian Q.P., Liu M.L., Tang C.S., Xue L., Pang Y.Z., Qi Y.F. Association of Circulating Neuregulin-4 with Presence and Severity of Coronary Artery Disease. Int. Heart J. 2019;60:45-49.
Not in our library10.1536/ihj.18-130
263.
Rao R.R., Long J.Z., White J.P., Svensson K.J., Lou J., Lokurkar I., Jedrychowski M.P., Ruas J.L., Wrann C.D., Lo J.C., et al. Meteorin-like Is a Hormone that Regulates Immune-Adipose Interactions to Increase Beige Fat Thermogenesis. Cell. 2014;157:1279-1291.
Not in our library10.1016/j.cell.2014.03.065
264.
Gunawardana S.C., Piston D.W. Insulin-independent reversal of type 1 diabetes in nonobese diabetic mice with brown adipose tissue transplant. Am. J. Physiol. Endocrinol. Metab. 2015;308:E1043-E1055.
Not in our library10.1152/ajpendo.00570.2014
265.
Duchamp C., Burton K.A., Geloen A., Dauncey M.J. Transient upregulation of IGF-I gene expression in brown adipose tissue of cold-exposed rats. Am. J. Physiol. 1997;272:E453-E460.
Not in our library10.1152/ajpendo.1997.272.3.e453
266.
Burýsek L., Houstek J. beta-Adrenergic stimulation of interleukin-1alpha and interleukin-6 expression in mouse brown adipocytes. FEBS Lett. 1997;411:83-86.
Not in our library10.1016/s0014-5793(97)00671-6
267.
Stanford K.I., Middelbeek R.J.W., Townsend K.L., An D., Nygaard E.B., Hitchcox K.M., Markan K.R., Nakano K., Hirshman M.F., Tseng Y.-H., et al. Brown adipose tissue regulates glucose homeostasis and insulin sensitivity. J. Clin. Investig. 2013;123:215-223.
Not in our library10.1172/jci62308
268.
Cereijo R., Gavalda`-Navarro A., Cairó M., Quesada-López T., Villarroya J., Morón-Ros S., Sánchez-Infantes D., Peyrou M., Iglesias R., Mampel T., et al. CXCL14, a Brown Adipokine that Mediates Brown-Fat-to-Macrophage Communication in Thermogenic Adaptation. Cell Metab. 2018;28:750-763.
Not in our library10.1016/j.cmet.2018.07.015
269.
Virtue S., Feldmann H., Christian M., Tan C.Y., Masoodi M., Dale M., Lelliott C., Burling K., Campbell M., Eguchi N., et al. A New Role for Lipocalin Prostaglandin D Synthase in the Regulation of Brown Adipose Tissue Substrate Utilization. Diabetes. 2012;61:3139-3147.
Not in our library10.2337/db12-0015
270.
Garcia-Alonso V., Lopez-Vicario C., Titos E., Moran-Salvador E., Gonzalez-Periz A., Rius B., Parrizas M., Werz O., Arroyo V., Claria J. Coordinate functional regulation between microsomal prostaglandin E synthase-1 (mPGES-1) and peroxisome proliferator-activated receptor γ (PPARγ) in the conversion of white-to-brown adipocytes. J. Biol. Chem. 2013;288:28230-28242.
Not in our library10.1074/jbc.m113.468603
271.
Garcia-Alonso V., Claria J. Prostaglandin E2 signals white-to-brown adipogenic differentiation. Adipocyte. 2014;3:290-296.
Not in our library10.4161/adip.29993
272.
Tanaka T., Urade Y., Kimura H., Eguchi N., Nishikawa A., Hayaishi O. Lipocalin-type Prostaglandin D Synthase (β-Trace) Is a Newly Recognized Type of Retinoid Transporter. J. Biol. Chem. 1997;272:15789-15795.
Not in our library10.1074/jbc.272.25.15789
273.
Vegiopoulos A., Muller-Decker K., Strzoda D., Schmitt I., Chichelnitskiy E., Ostertag A., Diaz M.B., Rozman J., de Angelis M.H., Nusing R.M., et al. Cyclooxygenase-2 controls energy homeostasis in mice by de novo recruitment of brown adipocytes. Science. 2010;328:1158-1161.
Not in our library10.1126/science.1186034
274.
Lynes M.D., Leiria L.O., Lundh M., Bartelt A., Shamsi F., Huang T.L., Takahashi H., Hirshman M.F., Schlein C., Lee A., et al. The cold-induced lipokine 12,13-diHOME promotes fatty acid transport into brown adipose tissue. Nat. Med. 2017;23:631-637.
Not in our library10.1038/nm.4297
275.
Stanford K.I., Lynes M.D., Takahashi H., Baer L.A., Arts P.J., May F.J., Lehnig A.C., Middelbeek R.J.W., Richard J.J., So K., et al. 12,13-diHOME: An Exercise-Induced Lipokine that Increases Skeletal Muscle Fatty Acid Uptake. Cell Metab. 2018;27:1111-1120.
Not in our library10.1016/j.cmet.2018.03.020
276.
Wang R.N., Green J., Wang Z., Deng Y., Qiao M., Peabody M., Zhang Q., Ye J., Yan Z., Denduluri S., et al. Bone Morphogenetic Protein (BMP) signaling in development and human diseases. Genes Dis. 2014;1:87-105.
Not in our library10.1016/j.gendis.2014.07.005
277.
Schulz T.J., Tseng Y.H. Emerging role of bone morphogenetic proteins in adipogenesis and energy metabolism. Cytokine Growth Factor Rev. 2009;20:523-531.
Not in our library10.1016/j.cytogfr.2009.10.019
278.
Modica S., Straub L.G., Balaz M., Sun W., Varga L., Stefanicka P., Profant M., Simon E., Neubauer H., Ukropcova B., et al. Bmp4 Promotes a Brown to White-like Adipocyte Shift. Cell Rep. 2016;16:2243-2258.
Not in our library10.1016/j.celrep.2016.07.048
279.
Modica S., Wolfrum C. The dual role of BMP4 in adipogenesis and metabolism. Adipocyte. 2017;6:141-146.
Not in our library10.1080/21623945.2017.1287637
280.
Tseng Y.H., Kokkotou E., Schulz T.J., Huang T.L., Winnay J.N., Taniguchi C.M., Tran T.T., Suzuki R., Espinoza D.O., Yamamoto Y., et al. New role of bone morphogenetic protein 7 in brown adipogenesis and energy expenditure. Nature. 2008;454:1000-1004.
Not in our library10.1038/nature07221
281.
BMP8B Increases Brown Adipose Tissue Thermogenesis through Both Central and Peripheral Actions · 2012
No notice
282.
Long J.Z., Svensson K.J., Bateman L.A., Lin H., Kamenecka T., Lokurkar I.A., Lou J., Rao R.R., Chang M.R., Jedrychowski M.P., et al. The Secreted Enzyme PM20D1 Regulates Lipidated Amino Acid Uncouplers of Mitochondria. Cell. 2016;166:424-435.
Not in our library10.1016/j.cell.2016.05.071
283.
Yamashita H., Sato Y., Kizaki T., Oh-ishi S., Nagasawa J., Ohno H. Basic fibroblast growth factor (bFGF) contributes to the enlargement of brown adipose tissue during cold acclimation. Pflug. Arch. 1994;428:352-356.
Not in our library10.1007/bf00724518
284.
Longo K.A., Wright W.S., Kang S., Gerin I., Chiang S.H., Lucas P.C., Opp M.R., MacDougald O.A. Wnt10b inhibits development of white and brown adipose tissues. J. Biol. Chem. 2004;279:35503-35509.
Not in our library10.1074/jbc.m402937200
285.
Wright W.S., Longo K.A., Dolinsky V.W., Gerin I., Kang S., Bennett C.N., Chiang S.-H., Prestwich T.C., Gress C., Burant C.F., et al. Wnt10b inhibits obesity in ob/ob and agouti mice. Diabetes. 2007;56:295-303.
Not in our library10.2337/db06-1339
286.
Rahman S., Lu Y., Czernik P.J., Rosen C.J., Enerback S., Lecka-Czernik B. Inducible brown adipose tissue, or beige fat, is anabolic for the skeleton. Endocrinology. 2013;154:2687-2701.
Not in our library10.1210/en.2012-2162
287.
Stefan N., Hennige A.M., Staiger H., Machann J., Schick F., Schleicher E., Fritsche A., Häring H.U. High circulating retinol-binding protein 4 is associated with elevated liver fat but not with total, subcutaneous, visceral, or intramyocellular fat in humans. Diabetes Care. 2007;30:1173-1178.
Not in our library10.2337/dc06-2342
288.
Rosell M., Hondares E., Iwamoto S., Gonzalez F.J., Wabitsch M., Staels B., Olmos Y., Monsalve M., Giralt M., Iglesias R., et al. Peroxisome proliferator-activated receptors-α and -γ, and cAMP-mediated pathways, control retinol-binding protein-4 gene expression in brown adipose tissue. Endocrinology. 2012;153:1162-1173.
Not in our library10.1210/en.2011-1367
289.
Murano I., Barbatelli G., Giordano A., Cinti S. Noradrenergic parenchymal nerve fiber branching after cold acclimatization correlates with brown adipocyte density in mouse adipose organ. J. Anat. 2009;214:171-178.
Not in our library10.1111/j.1469-7580.2008.01001.x
290.
Nechad M., Ruka E., Thibault J. Production of nerve growth factor by brown fat in culture: Relation with the in vivo developmental stage of the tissue. Comp. Biochem. Physiol. Comp. Physiol. 1994;107:381-388.
Not in our library10.1016/0300-9629(94)90396-4
291.
Raposo G., Stoorvogel W. Extracellular vesicles: Exosomes, microvesicles, and friends. J. Cell Biol. 2013;200:373-383.
Not in our library10.1083/jcb.201211138
292.
Colombo M., Raposo G., Thery C. Biogenesis, secretion, and intercellular interactions of exosomes and other extracellular vesicles. Annu. Rev. Cell Dev. Biol. 2014;30:255-289.
Not in our library10.1146/annurev-cellbio-101512-122326
293.
Kalluri R. The biology and function of exosomes in cancer. J. Clin. Investig. 2016;126:1208-1215.
Not in our library10.1172/jci81135
294.
Huang-Doran I., Zhang C.Y., Vidal-Puig A. Extracellular Vesicles: Novel Mediators of Cell Communication in Metabolic Disease. Trends Endocrinol. Metab. 2017;28:3-18.
Not in our library10.1016/j.tem.2016.10.003
295.
Robbins P.D., Morelli A.E. Regulation of immune responses by extracellular vesicles. Nat. Rev. Immunol. 2014;14:195-208.
Not in our library10.1038/nri3622
296.
Zhang Y., Yu M., Tian W. Physiological and pathological impact of exosomes of adipose tissue. Cell Prolif. 2016;49:3-13.
Not in our library10.1111/cpr.12233
297.
Valadi H., Ekstrom K., Bossios A., Sjostrand M., Lee J.J., Lotvall J.O. Exosome-mediated transfer of mRNAs and microRNAs is a novel mechanism of genetic exchange between cells. Nat. Cell Biol. 2007;9:654-659.
Not in our library10.1038/ncb1596
298.
Ogawa R., Tanaka C., Sato M., Nagasaki H., Sugimura K., Okumura K., Nakagawa Y., Aoki N. Adipocyte-derived microvesicles contain RNA that is transported into macrophages and might be secreted into blood circulation. Biochem. Biophys. Res. Commun. 2010;398:723-729.
Not in our library10.1016/j.bbrc.2010.07.008
299.
Mittelbrunn M., Sanchez-Madrid F. Intercellular communication: Diverse structures for exchange of genetic information. Nat. Rev. Mol. Cell Biol. 2012;13:328-335.
Not in our library10.1038/nrm3335
300.
Ha M., Kim V.N. Regulation of microRNA biogenesis. Nat. Rev. Mol. Cell Biol. 2014;15:509-524.
Not in our library10.1038/nrm3838
301.
Mendell J.T., Olson E.N. MicroRNAs in stress signaling and human disease. Cell. 2012;148:1172-1187.
Not in our library10.1016/j.cell.2012.02.005
302.
Vidigal J.A., Ventura A. The biological functions of miRNAs: Lessons from in vivo studies. Trends Cell Biol. 2015;25:137-147.
Not in our library10.1016/j.tcb.2014.11.004
303.
Bracken C.P., Scott H.S., Goodall G.J. A network-biology perspective of microRNA function and dysfunction in cancer. Nat. Rev. Genet. 2016;17:719-732.
Not in our library10.1038/nrg.2016.134
304.
Mori M.A., Raghavan P., Thomou T., Boucher J., Robida-Stubbs S., Macotela Y., Russell S.J., Kirkland J.L., Blackwell T.K., Kahn C.R. Role of microRNA processing in adipose tissue in stress defense and longevity. Cell Metab. 2012;16:336-347.
Not in our library10.1016/j.cmet.2012.07.017
305.
Mori M.A., Thomou T., Boucher J., Lee K.Y., Lallukka S., Kim J.K., Torriani M., Yki-Jarvinen H., Grinspoon S.K., Cypess A.M., et al. Altered miRNA processing disrupts brown/white adipocyte determination and associates with lipodystrophy. J. Clin. Investig. 2014;124:3339-3351.
Not in our library10.1172/jci73468
306.
Kim H.J., Cho H., Alexander R., Patterson H.C., Gu M., Lo K.A., Xu D., Goh V.J., Nguyen L.N., Chai X., et al. MicroRNAs are required for the feature maintenance and differentiation of brown adipocytes. Diabetes. 2014;63:4045-4056.
Not in our library10.2337/db14-0466
307.
Hilton C., Neville M.J., Karpe F. MicroRNAs in adipose tissue: Their role in adipogenesis and obesity. Int. J. Obes. 2013;37:325-332.
Not in our library10.1038/ijo.2012.59
308.
Rottiers V., Naar A.M. MicroRNAs in metabolism and metabolic disorders. Nat. Rev. Mol. Cell Biol. 2012;13:239-250.
Not in our library10.1038/nrm3313
309.
Trajkovski M., Lodish H. MicroRNA networks regulate development of brown adipocytes. Trends Endocrinol. Metab. 2013;24:442-450.
Not in our library10.1016/j.tem.2013.05.002
310.
Arner P., Kulyté A. MicroRNA regulatory networks in human adipose tissue and obesity. Nat. Rev. Endocrinol. 2015;11:276-288.
Not in our library10.1038/nrendo.2015.25
311.
Guay C., Regazzi R. Exosomes as new players in metabolic organ cross-talk. Diabetes Obes. Metab. 2017;19(Suppl. 1):137-146.
Not in our library10.1111/dom.13027
312.
Fatima F., Nawaz M. Long Distance Metabolic Regulation through Adipose-Derived Circulating Exosomal miRNAs: A Trail for RNA-Based Therapies? Front. Physiol. 2017;8:545.
Not in our library10.3389/fphys.2017.00545
313.
Torriani M., Srinivasa S., Fitch K.V., Thomou T., Wong K., Petrow E., Kahn C.R., Cypess A.M., Grinspoon S.K. Dysfunctional Subcutaneous Fat with Reduced Dicer and Brown Adipose Tissue Gene Expression in HIV-Infected Patients. J. Clin. Endocrinol. Metab. 2016;101:1225-1234.
Not in our library10.1210/jc.2015-3993
314.
Fang X., Stroud M.J., Ouyang K., Fang L., Zhang J., Dalton N.D., Gu Y., Wu T., Peterson K.L., Huang H.D., et al. Adipocyte-specific loss of PPARgamma attenuates cardiac hypertrophy. JCI Insight. 2016;1:e89908.
Not in our library10.1172/jci.insight.89908
315.
Nissen S.E., Wolski K. Effect of rosiglitazone on the risk of myocardial infarction and death from cardiovascular causes. N. Engl. J. Med. 2007;356:2457-2471.
Not in our library10.1056/nejmoa072761
316.
Zhang Y., Yu M., Dai M., Chen C., Tang Q., Jing W., Wang H., Tian W. miR-450a-5p within rat adipose tissue exosome-like vesicles promotes adipogenic differentiation by targeting WISP2. J. Cell Sci. 2017;130:1158-1168.
Not in our library10.1242/jcs.197764
317.
Ying W., Riopel M., Bandyopadhyay G., Dong Y., Birmingham A., Seo J.B., Ofrecio J.M., Wollam J., Hernandez-Carretero A., Fu W., et al. Adipose Tissue Macrophage-Derived Exosomal miRNAs Can Modulate In Vivo and In Vitro Insulin Sensitivity. Cell. 2017;171:372-384.
Not in our library10.1016/j.cell.2017.08.035
318.
Wang Y.C., Li Y., Wang X.Y., Zhang D., Zhang H., Wu Q., He Y.Q., Wang J.Y., Zhang L., Xia H., et al. Circulating miR-130b mediates metabolic crosstalk between fat and muscle in overweight/obesity. Diabetologia. 2013;56:2275-2285.
Not in our library10.1007/s00125-013-2996-8
319.
Hubal M.J., Nadler E.P., Ferrante S.C., Barberio M.D., Suh J.H., Wang J., Dohm G.L., Pories W.J., Mietus-Snyder M., Freishtat R.J. Circulating adipocyte-derived exosomal MicroRNAs associated with decreased insulin resistance after gastric bypass. Obesity. 2017;25:102-110.
Not in our library10.1002/oby.21709
320.
Yang Z., Wei Z., Wu X., Yang H. Screening of exosomal miRNAs derived from subcutaneous and visceral adipose tissues: Determination of targets for the treatment of obesity and associated metabolic disorders. Mol. Med. Rep. 2018;18:3314-3324.
Not in our library10.3892/mmr.2018.9312
321.
Karolina D.S., Tavintharan S., Armugam A., Sepramaniam S., Pek S.L., Wong M.T., Lim S.C., Sum C.F., Jeyaseelan K. Circulating miRNA profiles in patients with metabolic syndrome. J. Clin. Endocrinol. Metab. 2012;97:E2271-E2276.
Not in our library10.1210/jc.2012-1996
322.
Serum Circulating microRNA Profiling for Identification of Potential Type 2 Diabetes and Obesity Biomarkers · 2013
No notice
323.
Wang R., Hong J., Cao Y., Shi J., Gu W., Ning G., Zhang Y., Wang W. Elevated circulating microRNA-122 is associated with obesity and insulin resistance in young adults. Eur. J. Endocrinol. 2015;172:291-300.
Not in our library10.1530/eje-14-0867
324.
Iacomino G., Russo P., Stillitano I., Lauria F., Marena P., Ahrens W., De Luca P., Siani A. Circulating microRNAs are deregulated in overweight/obese children: Preliminary results of the I. Family study. Genes Nutr. 2016;11:7.
Not in our library10.1186/s12263-016-0525-3
325.
Plasma-derived exosome characterization reveals a distinct microRNA signature in long duration Type 1 diabetes · 2017
No notice
326.
Castano C., Kalko S., Novials A., Parrizas M. Obesity-associated exosomal miRNAs modulate glucose and lipid metabolism in mice. Proc. Natl. Acad. Sci. USA. 2018;115:12158-12163.
Not in our library10.1073/pnas.1808855115
327.
Pant S., Hilton H., Burczynski M.E. The multifaceted exosome: Biogenesis, role in normal and aberrant cellular function, and frontiers for pharmacological and biomarker opportunities. Biochem. Pharmacol. 2012;83:1484-1494.
Not in our library10.1016/j.bcp.2011.12.037

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Adipose Tissue Distribution, Inflammation and Its Metabolic Consequences, Including Diabetes and Cardiovascular Disease · 2020
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Adipokines and Obesity. Potential Link to Metabolic Disorders and Chronic Complications · 2020
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