FGF21 promotes metabolic homeostasis via white adipose and leptin in mice.
- Authors
- VΓ©niant, Murielle M; Hale, Clarence; Helmering, Joan; Chen, Michelle M; Stanislaus, Shanaka; Busby, Jim; Vonderfecht, Steven; Xu, Jing; Lloyd, David J
- Year
- 2012
- Journal
- PloS one
- PMID
- 22792234
- DOI
- 10.1371/journal.pone.0040164
- PMCID
- PMC3391219
Fibroblast growth factor 21 (FGF21) is a potent metabolic regulator, and pharmacological administration elicits glucose and lipid lowering responses in mammals. To delineate if adipose tissue is the predominant organ responsible for anti-diabetic effects of FGF21, we treated mice with reduced body fat (lipodystrophy mice with adipose specific expression of active sterol regulatory element binding protein 1c; Tg) with recombinant murine FGF21 (rmuFGF21). Unlike wildtype (WT) mice, Tg mice were refractory to the beneficial effects of rmuFGF21 on body weight, adipose mass, plasma insulin and glucose tolerance. To determine if adipose mass was critical for these effects, we transplanted WT white adipose tissue (WAT) into Tg mice and treated the mice with rmuFGF21. After transplantation, FGF21 responsiveness was completely restored in WAT transplanted Tg mice compared to sham Tg mice. Further, leptin treatment alone was sufficient to restore the anti-diabetic effects of rmuFGF21 in Tg mice. Molecular analyses of Tg mice revealed normal adipose expression of Fgfr1, Klb and an 8-fold over-expression of Fgf21. Impaired FGF21-induced signaling indicated that residual adipose tissue of Tg mice was resistant to FGF21, whilst normal FGF21 signaling was observed in Tg livers. Together these data suggest that adipose tissue is required for the triglyceride and glucose, but not the cholesterol lowering efficacy of FGF21, and that leptin and FGF21 exert additive anti-diabetic effects in Tg mice.
Lipodystrophy mice are resistant to anti-diabetic effects of recombinant FGF21 treatment.Recombinant muFGF21 (1 or 10 mg/kg, pink and red symbols respectively) or vehicle (green symbols) was injected BID in wildtype (WT - open bars) and aP2-nSrebp1c lipodystrophy (Tg - hatched bars) male mice as described in Animal Study Design I (Methodology). (AβB) Body weight was monitored daily. Dramatic drop in body weight on day 17 was caused by the 12 h fast for GTT. (CβD) Adipose and lean mass was recorded in WT and Tg mice at 0, 7 and 14 days of treatment. (EβF) Fed blood glucose (OneTouch Basic glucometer) and plasma insulin were measured in WT and Tg mice at the start (PRE) and the end (POST) of the treatment. (GβH) Glucose tolerance was measured on day 18 of treatment (OneTouch Basic glucometer). (I) Area under the curve (AUC) was calculated in WT and Tg mice. (JβL) Plasma lipids (cholesterol, triglycerides, NEFA β non-esterified fatty acids) were measured in WT and Tg mice at the start (PRE) and the end (POST) of the treatment. WT groups N = 8; Tg vehicle group N = 8; Tg FGF21 treatment group N = 7. * P<0.05, ** P<0.01, *** P<0.001 vs. vehicle-treated genotype-matched mice at same time point, ns β not statistically significant. ++ P<0.01, +++ P<0.001 vs. WT mice (T-Test).
LLM interpretation
This figure consists of multiple line graphs (A-B, G-H) and bar charts (C-F, I-L) comparing the effects of recombinant muFGF21 (1 or 10 mg/kg) versus vehicle in wildtype (WT) and lipodystrophy (Tg) mice. In WT mice, FGF21 treatment leads to significant reductions in body weight, blood glucose, insulin, and GTT AUC, whereas these anti-diabetic effects are largely absent or diminished in Tg mice. Statistical significance is indicated by asterisks (*) for treatment effects within genotypes and plus signs (+) for differences between WT and Tg groups.
Increased Fgf21 expression and normalΞ²-klotho protein levels in lipodystrophy mice.Recombinant muFGF21 (1 or 10 mg/kg, pink and red bars respectively) or vehicle (green) was injected BID in wildtype (WT - open bars) and aP2-nSrebp1c lipodystrophy (Tg β hatched bars) male mice for 21 days as described in Animal Study Design I (Methodology). (A) Fgf21, Klb or Fgfr1c expression levels were measured using semi-quantitative RT-PCR in RNA isolated from inguinal fat pads; N = 5/group. (B) Western analysis of Ξ²-klotho and Ξ²-actin was carried out on epididymal fat pad lysates from WT or Tg mice. * P<0.05 vs. vehicle-treated WT mice.
LLM interpretation
Figure A is a bar chart showing the fold change in mRNA expression of *Fgf21*, *Klb*, and *Fgfr1c* in inguinal fat pads of WT and Tg mice treated with vehicle or recombinant FGF21. *Fgf21* expression is significantly higher in vehicle-treated Tg mice compared to vehicle-treated WT mice (*P < 0.05), while *Klb* and *Fgfr1c* levels show no such significant difference. Figure B is a Western blot showing protein levels of $\beta$-klotho and $\beta$-actin in epididymal fat pad lysates from Tg and WT mice, with bands appearing similar across both groups.
Impaired FGF21 signaling in adipose tissue from lipodystrophy mice.Wildtype (WT) and aP2-nSrebp1c lipodystrophy (Tg) male mice were treated with vehicle (β) or a single rhuFGF21 (+) injection at 1 mg/kg (Animal Study Design II β Methodology). White adipose tissue (WAT) samples were subjected to immunoblot analysis with antibodies directed against (A) ERK (extracellular signal-regulated kinase), (B) FRS2 (Fibroblast growth factor receptor substrate (C) SHP2 (Src homology domain 2 containing protein tyrosine phosphatase), 2), (D) ERK signaling was analyzed in liver samples. Antibodies directed against phosphorylated (p-) or total (T-) proteins of specific resides are noted alongside each panel.
LLM interpretation
This figure consists of four immunoblot panels (A-D) comparing protein phosphorylation in wildtype (WT) and lipodystrophy (Tg) male mice treated with vehicle (β) or rhuFGF21 (+). In white adipose tissue (WAT), rhuFGF21 increases the phosphorylation of ERK (A) and SHP2 (C) in WT mice, but this response is markedly attenuated in Tg mice. In contrast, liver samples (D) show a similar increase in p-ERK following rhuFGF21 treatment in both WT and Tg groups.
Adipose tissue transplantation restores anti-diabetic effects of recombinant FGF21 treatment in lipodystrophy mice.Approximately 2 g of wildtype (WT) adipose tissue was transplanted subcutaneously into aP2-nSrebp1c lipodystrophy (Tg) male mice (Animal Study Design III β Methods). Following a 2-week recovery period, WT sham (green bars/symbols), Tg sham (blue bars/symbols) and Tg transplanted (red bars/symbols) mice were treated with vehicle (open bars/solid line) or 10 mg/kg rmuFGF21 (hatched bars/dashed line) BID for 21 days. (A) Adipose mass was measured in WT and Tg mice before (β3 days), immediately after (1 day) and 7, 14, 21 and 28 days following adipose tissue transplantation. Adipose tissue mass was increased in the Tg transplanted mice after implantation and although declined by MRI analysis was still intact at necropsy. Fourteen days following adipose tissue transplantation, mice were treated with vehicle or rmuFGF21. (B) Plasma leptin was measured prior to, and at necropsy. (CβE) Percent change in body weight was calculated daily from the start of rmuFGF21 treatment. Days 17β21 were excluded due to dramatic weight changes following 12 hr fast for the GTT. (FβH) Glucose tolerance was measured after 18 days of rmuFGF21 treatment (AlphaTRAK glucose monitor). (IβJ) Insulin and adiponectin levels were measured 3 days before adipose tissue transplantation (Pre-transplant), 14 days following sham or implantation surgery (Post-transplant Pre-treatment) and 32 days following surgery including 14 days of rmuFGF21 or vehicle injections (Post-treatment). (KβL) Plasma lipids (cholesterol and triglycerides) were measured in the same samples described in (I). N = 6β7 group. * P<0.05, ** P<0.01, ** P<0.001 vs. vehicle-treated genotype and surgery-matched mice at same time point;. + P<0.05, ++ P<0.01, +++ P<0.001 vs. comparator groups as indicated. # P<0.05. vs. the same mice Post-transplant Pre-treatment (all analysis by T-Test); ns β not statistically significant.
LLM interpretation
This figure consists of multiple panels (AβL) using bar charts and line graphs to compare the effects of rmuFGF21 treatment in wildtype (WT), lipodystrophy (Tg) sham, and Tg transplanted mice. Key findings include an increase in fat mass and plasma leptin in Tg transplanted mice (A, B), and a restoration of FGF21-induced body weight loss (E) and improved glucose tolerance (H) in the transplanted group compared to Tg sham mice. Panels IβL show that adipose transplantation and FGF21 treatment significantly modulate insulin, adiponectin, cholesterol, and triglyceride levels, with statistical significance indicated by asterisks, plus signs, and hashtags.
Changes in Pparg and Fgf21 in adipose transplanted lipodystrophy mice.Relative quantitative RT-PCR was carried out on Fgf21 and Pparg genes in tissues collected from animals presented in Figure 4 at terminal necropsy (Animal Study Design III β Methods). (A) Fgf21 expression was increased in liver and white and brown adipose tissues (WAT and BAT) in Tg mice compared to WT mice. (B) Pparg expression was increased in the livers of Tg mice compared to WT mice and transplantation reduced liver Pparg expression in Tg mice in a similar manner to rmuFGF21 treatment, revealing a similar trend to Fgf21 expression. Pparg expression was approximately 50% lower in Tg adipose tissues compared to WT mice. Treatment with rmuFGF21 increased the expression of Pparg in transplanted adipose only. N = 5 group. * P<0.05, ** P<0.01, vs. vehicle-treated genotype and surgery-matched mice at same time point (T-Test), ns β not statistically significant;. + P<0.05, ++ P<0.01, +++ P<0.001 vs. comparator groups as indicated (ANOVA).
LLM interpretation
This figure consists of two bar charts (A and B) showing the relative fold change in mRNA expression of *Fgf21* and *Pparg* across different tissues (Liver, BAT, WAT, and Transplanted Fat) in WT and Tg mice. In panel A, *Fgf21* expression is significantly higher in Tg mice compared to WT mice across liver, BAT, and WAT. In panel B, *Pparg* expression is increased in the livers of Tg mice but decreased in their BAT and WAT compared to WT mice, with rmuFGF21 treatment significantly increasing *Pparg* expression specifically in transplanted fat. Statistical significance is indicated by asterisks (*, **) and plus signs (+, ++, +++), with "ns" denoting non-significant results.
Leptin restores FGF21 resistance in lipodystrophy mice.Either rmuFGF21 (10 mg/kg, pink bars/symbols), muleptin (10 mg/kg/day, blue bars/symbols), both muFGF21+ muleptin (red bars/symbols), or vehicle (green bars/symbols) was IP injected BID in aP2-nSrebp1c lipodystrophy (Tg) male mice (Animal Study Design IV β Methodology). (A) Body weight was monitored daily, days 11β15 were omitted due to large changes at the time of GTT. (B) Blood glucose was measured prior to, and on the 8th day of treatment (AlphaTRAK glucose monitor). (C) Plasma insulin was measured prior to, and on the 15th day of treatment. (D) Glucose tolerance was measured on the 11th day of treatment (AlphaTRAK glucose monitor). Groups of N = 6. * P<0.05, ** P<0.01, *** P<0.0001 vs. saline and vehicle-treated mice at same time point, β P<0.05, β β β P<0.001 vs. leptin and vehicle-treated mice at the same time point.
LLM interpretation
This figure consists of four panels (A-D) evaluating the effects of FGF21 and leptin on lipodystrophy (Tg) mice. Panel A is a line graph showing that the combination of Leptin + FGF21 (red) causes the greatest reduction in body weight over 10 days compared to other groups. Panel B (bar chart) and Panel C (bar chart) show blood glucose and plasma insulin levels, with the Leptin + FGF21 group showing the lowest insulin levels by day 15. Panel D is a glucose tolerance test (GTT) line graph showing that the Leptin + FGF21 group maintains significantly lower blood glucose levels across all time points compared to the other three groups.
| Name | Type |
|---|---|
| ACTB | gene |
| adipocyte | anatomy |
| adipocyte hypertrophy local | phenotype |
| adipocyte lipolysis | phenotype |
| adipocyte size | phenotype |
| adipocyte size heterogeneity local | phenotype |
| adipocyte size variation local | phenotype |
| adiponectin | drug |
| Adiponectin local | phenotype |
| ADIPOQ | gene |
| adipose deficiency local | phenotype |
| Adipose inflammation local | phenotype |
| adipose tissue local | anatomy |
| adipose tissue | phenotype |
| adipose tissue transplantation local | drug |
| Adipose tissue weight local | phenotype |
| adipose transplantation local | drug |
| adiposity | phenotype |
| anti-diabetic effect local | phenotype |
| anti-diabetic efficacy local | phenotype |
| anti-ERK1/2 local | drug |
| anti-FGFR1 local | drug |
| anti-FRS2 local | drug |
| anti-phospho ERK1/2 local | drug |
| anti-phospho FGFR1 local | drug |
| anti-phospho FRS2-Ξ± local | drug |
| anti-phospho SHP2 local | drug |
| anti-SHP2 local | drug |
| anti-Ξ²-actin local | drug |
| anti-Ξ²-klotho local | drug |
| aP2-nSREBP1c mice local | cohort |
| A-ZIP/F-1 mice local | cohort |
| A-ZIP/F-1 transgene local | variant |
| B6 background local | cohort |
| B6/SJL mice local | cohort |
| BAT local | anatomy |
| BAT | phenotype |
| BAT weight local | phenotype |
| body composition | phenotype |
| body weight | phenotype |
| brown adipose tissue | phenotype |
| Cellular FGF21 resistance local | phenotype |
| cholesterol level local | phenotype |
| cholesterol lowering local | phenotype |
| circulating cholesterol levels local | phenotype |
| current study | cohort |
| Cyclophilin A local | gene |
| decreased fat mass local | phenotype |
| diabetes | phenotype |
| energy homeostasis | phenotype |
| epididymal/inguinal fat pad mass local | phenotype |
| ERK-phosphorylation local | phenotype |
| FABP4 local | gene |
| fasting local | drug |
| fat accumulation in liver local | phenotype |
| Fgf21 | gene |
| FGF21 resistance local | phenotype |
| FGF21 responsiveness local | phenotype |
| FGF21 therapy local | drug |
| FGFR1 | gene |
| Figure 4 mice local | cohort |
| FRS local | gene |
| FRS2 local | gene |
| FVB | cohort |
| FVB genetic background local | cohort |
| FVB mice local | cohort |
| glucose | drug |
| glucose homeostasis | phenotype |
| glucose intolerance | phenotype |
| glucose lowering | phenotype |
| glucose metabolism | phenotype |
| Glucose tolerance test | phenotype |
| glucose uptake | phenotype |
| Grb2 | gene |
| hepatic cholesterol local | phenotype |
| hepatic glucose output | phenotype |
| hepatic steatosis | phenotype |
| hepatomegaly local | phenotype |
| Hepatomegaly local | phenotype |
| hepatosteatosis | phenotype |
| histological phenotype local | phenotype |
| HMGCR | gene |
| hyperglycemia | phenotype |
| hyperinsulinemia | phenotype |
| hypotriglyceridemia local | phenotype |
| Increased food intake local | phenotype |
| increased lean mass local | phenotype |
| inflammation | phenotype |
| inflammatory cell infiltrate local | phenotype |
| INS | gene |
| insulin | drug |
| insulin level local | phenotype |
| insulin levels local | phenotype |
| insulin lowering local | phenotype |
| insulin resistance | phenotype |
| insulin sensitivity | phenotype |
| ketogenic diet local | drug |
| Klb | gene |
| LDLR | gene |
| lean body mass | phenotype |
| LEP | gene |
| leptin | drug |
| lipid homeostasis | phenotype |
| lipid metabolism | phenotype |
| lipodystrophic adipocytes local | phenotype |
| lipodystrophic mice local | cohort |
| lipodystrophy | phenotype |
| lipodystrophy mice local | cohort |
| lipogenesis | phenotype |
| liver | anatomy |
| liver weight local | phenotype |
| Liver weight local | phenotype |
| liver weights local | phenotype |
| macrophage infiltration | phenotype |
| MAPK | gene |
| Mapk1 | gene |
| MAPK3 | gene |
| metabolic activity local | phenotype |
| metabolic parameters | phenotype |
| metabolic perturbations local | phenotype |
| mice | cohort |
| mouse lipodystrophy model local | cohort |
| muFGF21 local | drug |
| muleptin local | drug |
| NEFA local | phenotype |
| NEFAs local | drug |
| NEFAs local | phenotype |
| nSREBP1c local | variant |
| obesity | phenotype |
| ob/ob mice | cohort |
| original lipodystrophy mice local | cohort |
| oxygen consumption local | phenotype |
| pilot mice local | cohort |
| pilot study local | cohort |
| plasma cholesterol level local | phenotype |
| plasma cholesterol levels local | phenotype |
| plasma FGF21 local | phenotype |
| plasma triglycerides levels local | phenotype |
| PPARG | gene |
| PPARΞ± | gene |
| PTPN11 local | gene |
| Recombinant FGF21 local | drug |
| recombinant FGF21 therapy local | drug |
| Reduced WAT depot weight local | phenotype |
| rhuFGF21 local | drug |
| RIPA buffer | drug |
| rmuFGF21 local | drug |
| RNA | drug |
| SHP2 local | gene |
| SHP2 Y542 phosphorylation local | variant |
| SREBF1 | gene |
| SREBP1c | gene |
| SV40 small T local | drug |
| Tg local | cohort |
| Tg mice local | cohort |
| Tg mice (11-16 weeks, male) local | cohort |
| Tg sham local | cohort |
| Tg_sham local | cohort |
| Tg sham mice local | cohort |
| Tg-sham mice local | cohort |
| Tg transplant local | cohort |
| Tg_tx local | cohort |
| Tgβtx local | cohort |
| Tg-tx mice local | cohort |
| Tgβtx mice local | cohort |
| Tgβtx mice local | cohort |
| total cholesterol | phenotype |
| Total fat pad weight local | phenotype |
| transplanted adipose local | anatomy |
| transplant + FGF21 group local | cohort |
| triglyceride formation local | phenotype |
| triglyceride homeostasis | phenotype |
| triglyceride levels | phenotype |
| triglyceride lowering local | phenotype |
| triglycerides | phenotype |
| Tx animals local | cohort |
| TZD local | drug |
| Vehicle control local | drug |
| WAT transplantation local | drug |
| WAT weight local | phenotype |
| weight loss | phenotype |
| whole-body adipose mass local | phenotype |
| wild-type mice | cohort |
| wildtype mouse local | cohort |
| WT | cohort |
| WT adipose tissue local | drug |
| WT_sham local | cohort |
| Ξ²-klotho | drug |
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In this knowledge base
| Title | Year | PMID |
|---|---|---|
| CYP2A6 is associated with obesity: studies in human samples and a high fat diet mouse model. | 2019 | 29568101 |
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| The Nuclear Receptor Rev-erbΞ± Regulates Adipose Tissue-specific FGF21 Signaling. | Jager J et al. | β | 2016 | β |
| Deficiency of adipocyte fatty-acid-binding protein alleviates myocardial ischaemia/reperfusion injury and diabetes-induced cardiac dysfunction. | Zhou M et al. | β | 2015 | β |
| Discrete Aspects of FGF21 In Vivo Pharmacology Do Not Require UCP1. | Samms RJ et al. | β | 2015 | β |
| FGF21 does not require interscapular brown adipose tissue and improves liver metabolic profile in animal models of obesity and insulin-resistance. | Bernardo B et al. | β | 2015 | β |
| FGF21 Revolutions: Recent Advances Illuminating FGF21 Biology and Medicinal Properties. | Kharitonenkov A et al. | β | 2015 | β |
| Fibroblast Growth Factor 21 Analogs for Treating Metabolic Disorders. | Zhang J et al. | β | 2015 | β |
| Fibroblast growth factor 21 analogue LY2405319 lowers blood glucose in streptozotocin-induced insulin-deficient diabetic mice by restoring brown adipose tissue function. | Kim JH et al. | β | 2015 | β |
| Fibroblast growth factor-21, body composition, and insulin resistance in pre-pubertal and early pubertal males and females. | Hanks LJ et al. | β | 2015 | β |
| Ketogenic Diet Impairs FGF21 Signaling and Promotes Differential Inflammatory Responses in the Liver and White Adipose Tissue. | Asrih M et al. | β | 2015 | β |
| Long-lasting anti-diabetic efficacy of PEGylated FGF-21 and liraglutide in treatment of type 2 diabetic mice. | Ye X et al. | β | 2015 | β |
| Pharmacokinetics (PK), pharmacodynamics (PD) and integrated PK/PD modeling of a novel long acting FGF21 clinical candidate PF-05231023 in diet-induced obese and leptin-deficient obese mice. | Weng Y et al. | β | 2015 | β |
| Pharmacologic Effects of FGF21 Are Independent of the "Browning" of White Adipose Tissue. | VΓ©niant MM et al. | β | 2015 | β |
| Serum FGF21 levels are associated with brown adipose tissue activity in humans. | Hanssen MJ et al. | β | 2015 | β |
| Skeletal muscle mitochondrial uncoupling prevents diabetes but not obesity in NZO mice, a model for polygenic diabesity. | Voigt A et al. | β | 2015 | β |
| The role of fibroblast growth factor 21 in the pathogenesis of non-alcoholic fatty liver disease and implications for therapy. | Liu J et al. | β | 2015 | β |
| Tissue-specific actions of the metabolic hormones FGF15/19 and FGF21. | Owen BM et al. | β | 2015 | β |
| FGF21 acts centrally to induce sympathetic nerve activity, energy expenditure, and weight loss. | Owen BM et al. | β | 2014 | β |
| FGF21 as a Hepatokine, Adipokine, and Myokine in Metabolism and Diseases. | Itoh N | β | 2014 | β |
| Fibroblast growth factor 21 improves insulin sensitivity and synergizes with insulin in human adipose stem cell-derived (hASC) adipocytes. | Lee DV et al. | β | 2014 | β |
| Fibroblast growth factor 21, the endocrine FGF pathway and novel treatments for metabolic syndrome. | Zhang J et al. | β | 2014 | β |
| Interplay between FGF21 and insulin action in the liver regulates metabolism. | Emanuelli B et al. | β | 2014 | β |
| Inventing new medicines: The FGF21 story. | Kharitonenkov A et al. | β | 2014 | β |
| Roles of FGFs as Adipokines in Adipose Tissue Development, Remodeling, and Metabolism. | Ohta H et al. | β | 2014 | β |
| The impact of dietary methionine restriction on biomarkers of metabolic health. | Orgeron ML et al. | β | 2014 | β |
| Activation of Liver FGF21 in hepatocarcinogenesis and during hepatic stress. | Yang C et al. | β | 2013 | β |
| Adiponectin mediates the metabolic effects of FGF21 on glucose homeostasis and insulin sensitivity in mice. | Lin Z et al. | β | 2013 | β |
| Adiposity and insulin resistance in humans: the role of the different tissue and cellular lipid depots. | Hocking S et al. | β | 2013 | β |
| Dichotomous roles of leptin and adiponectin as enforcers against lipotoxicity during feast and famine. | Unger RH et al. | β | 2013 | β |
| Downstream signaling pathways in mouse adipose tissues following acute in vivo administration of fibroblast growth factor 21. | Muise ES et al. | β | 2013 | β |
| Dual actions of fibroblast growth factor 19 on lipid metabolism. | Wu X et al. | β | 2013 | β |
| Fibroblast growth factor 21 is not required for the antidiabetic actions of the thiazoladinediones. | Adams AC et al. | β | 2013 | β |
| LY2405319, an Engineered FGF21 Variant, Improves the Metabolic Status of Diabetic Monkeys. | Adams AC et al. | β | 2013 | β |
| Pegylated Fgf21 rapidly normalizes insulin-stimulated glucose utilization in diet-induced insulin resistant mice. | Camacho RC et al. | β | 2013 | β |
| Peripheral circadian oscillators: time and food. | Buijs R et al. | β | 2013 | β |
| Stressed Liver and Muscle Call on Adipocytes with FGF21. | Luo Y et al. | β | 2013 | β |
| Control of lipid metabolism by adipocyte FGFR1-mediated adipohepatic communication during hepatic stress. | Yang C et al. | β | 2012 | β |
| FGF21 requires Ξ²klotho to act in vivo. | Adams AC et al. | β | 2012 | β |
| Fgf signaling in adipocytes as a target for metabolic diseases. | Ohta H et al. | β | 2012 | β |
| The breadth of FGF21's metabolic actions are governed by FGFR1 in adipose tissue. | Adams AC et al. | β | 2012 | β |
| Treating diabetes and obesity with an FGF21-mimetic antibody activating the Ξ²Klotho/FGFR1c receptor complex. | Foltz IN et al. | β | 2012 | β |
| Ξ²Klotho is required for fibroblast growth factor 21 effects on growth and metabolism. | Ding X et al. | β | 2012 | β |