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Table 2 Classification of cardiokines

From: Cardiac-to-adipose axis in metabolic homeostasis and diseases: special instructions from the heart

Cellular type

Name

Structural type

Model

Genetic intervention

Effects on regulation of adipose function

Refs

Cardiomyocytes

ANP

Peptides

In vitro

In vitro

Human

In vitro

No

No

No

No

Improving glucose uptake and insulin sensitivity in AT

Increasing energy expenditure and enhancing oxidative capacity in adipocytes

Promoting the browning of WAT

Regulating the balance between lipogenesis and lipolysis

Influencing adipokines synthesis and secretion

Regulating adipocyte differentiation and proliferation

[14, 49, 50, 57, 7147. ]

 

BNP

Peptides

Human

Human

No

No

Improving glucose uptake and insulin sensitivity in AT

Increasing energy expenditure in adipocytes

Promoting the browning of WAT

Adipose tissue depots

Regulating lipogenesis and lipolysis

Influencing adipokines synthesis and secretion

[16, 34, 55, 56]

 

MED13

Proteins

Mouse

Rat

Mouse

Yes

No

Yes

Gaining fat mass and body weight

Improving systemic insulin sensitivity and glucose tolerance

Increasing systematic energy expenditure

Regulating WAT gene expression and promoting fatty acid oxidation

[42, 63, 7646. ]

 

CTRPs

Proteins

Mouse

Mouse

Yes

No

Improving glucose uptake and insulin sensitivity in AT

Resisting weight gain and fat mass gain

Increasing energy expenditure

Promoting fatty acid oxidation

Enhancing anti-contractile effect in AT

[35, 60, 89]

 

FGF21

Proteins

Rat

Mouse

Mouse

No

Yes

Yes

Reducing body weight gain

Regulating glucose metabolism and insulin sensitivity

Increasing energy expenditure and fat utilization

Increasing fatty acid oxidation, mitochondrial fat acid uptake and mitochondrial biogenesis

Promoting the browning of WAT

Influencing adipokines synthesis and secretion

[36, 65, [74]

 

FSTL1

Proteins

In vitro

Mouse

Human

No

Yes

No

Regulating diet-induced systemic metabolism

Influencing thermogenic ability in AT

Promoting preadipocyte to adipocyte conversion

[45, 54, 70]

 

MG53

Proteins

Mouse

Mouse

No

Yes

Regulating insulin resistance and glucose metabolism

Promoting lipid utilization and FFA accumulation

[17, 61]

 

MiR-208a

Micro RNA

Rat

In vitro

No

Yes

Controlling body weight gain and fat mass;

Inducing mitochondrial β-oxidation

[63, 66]

 

MiR-22-3p

Micro RNA

Human

No

Regulating cellular composition of the stromavascular VAT depot;

Regulating adipose inflammation

[72]

 

MiR-23–27-24

Micro RNA in sEV

Mouse

Yes

Regulating systemic metabolism;

Suppressing adipocyte endocrine function;

Attenuating adipocyte ER stress

[33]

 

MiR-1956

Micro RNA in sEV

Mouse

Yes

Regulating cell proliferation of adipose-derived MSCs

[37]

Fibroblasts

MiR-21-3p

Micro RNA

Mouse

Yes

Regulating adipose browning;

Down-regulating FGF21 expression

[44]

Endothelial cells

MiR-409-3p

Micro RNA

In vitro

Yes

Regulating glucose metabolism and insulin tolerance

Increasing energy expenditure

Decreasing expression of BAT markers

Improving BAT angiogenesis

[77]

  1. ANP atrial natriuretic peptide; AT adipose tissue; BAT brown adipose tissue; BNP brain natriuretic peptide; CTRPs C1q/TNF-related proteins; ER endoplasmic reticulum; FFA free fatty acid; FGF21 fibroblast growth factor 21; FSTL1 follistatin like 1; MED13 mediator complex subunit 13; MG53 mitsugumin 53; MSC mesenchymal stem cell; VAT visceral adipose tissue; WAT white adipose tissue