Glucose metabolism |
|
|
Insulin |
Promoting glycolysis in monocyte-phagocytes to enhance phagocytosis on tumor cells |
[124] |
β-Glucan |
Promoting glycolysis in macrophages and thereby inducing M1-like polarization |
[125] |
Fucoidan |
Inhibiting the oxidation reaction of macrophages, promoting glycolysis, inducing M1 polarization, and playing an anti-tumor effect |
[126] |
Ibrutinib |
Inhibiting glycolysis in monocyte-phagocyte and weakening its phagocytosis on tumor cells |
[124] |
Lipid metabolism |
|
|
Simvastatin |
Consuming lipids and transforming M2-like macrophages to M1-like |
[127] |
Rapamycin + Hydroxychloroquine |
Disrupting FAO in macrophages to inhibit M2-like polarization |
[128] |
Perhexiline |
Inhibiting oxidative phosphorylation and fatty acid metabolism to promote M1-like polarization |
[129] |
Metformin |
Inhibiting FAO to induce macrophage polarization to M1 phenotype, suppressing anti-inflammatory macrophage infiltration through decreasing COX2 and PGE2 |
[29, 130] |
Indomethacin |
Inhibiting COX and PGE2, inducing anti-tumor effect by macrophages |
[131] |
Isoliquiritigenin |
Inhibition of PGE2 production and reduction of M2-like polarization |
[132] |
Salvia miltiorrhiza Bunge aqueous extract |
Inhibiting COX-2, reducing PGE2 production, decreasing tumor-promoting macrophage infiltration, and mediating anti-tumor immune responses |
[133] |
Fe-5,5′-azosalicylic acid nanoscale coordination polymer nanomedicines |
Producing 5-aminosalicylic acid to reduce COX-2 and PGE2 expression, conversely, generating Fe3 + to induce M1-like polarization |
[134] |
5-Aminolevulinic Acid |
Inhibiting COX-2 and PGE2 expressions, suppressing tumor by macrophages |
[135] |
Lactic acid metabolism |
|
|
3-Bromopyruvate |
Inhibiting tumor-promoting macrophages by decreasing lactate production |
[136] |
Albiziabioside A + Dichloroacetate acid |
Inhibiting lactate accumulation to reduce M2 macrophages and reprogram anti-tumor microenvironment |
[137] |
Dual PI3Kδ/γ Inhibitor RP6530 |
Reducing lactate, inducing M1-like polarization and inhibiting tumor progression |
[138] |
Amino acid metabolism |
|
|
6-Diazo-5-oxo-l-norleucine |
Inhibiting glutamine metabolism, suppressing IDO expression, and inducing pro-inflammatory macrophages |
[139] |
6-Gingerol |
Inhibiting ARG expression, promoting iNOS and NO expression, enhancing M1-like polarization, and exerting anti-tumor effect |
[140] |
Triptolide |
Reducing ARG1 expression and decreasing M2-like polarization |
[141] |
1,3-Diaryl-pyrazin-6-one-5-carboxamides |
Inhibiting IDO level and reducing immunosuppressive macrophage infiltration |
[142] |
Sulfasalazine |
Inhibiting cystine-glutamate exchange (xCT) and thereby inducing M2-like polarization |
[143] |
Acid–base metabolism |
|
|
Anti‐V‐ATPase‐V0a2 antibody |
Inhibiting proton pump activity to induce M1-like macrophage |
[144] |
Pantoprazole |
Inhibiting proton pump to induce M1-like polarization and activating anti-tumor immunity |
[145] |
Iron metabolism |
|
|
Iron oxide nanoparticles |
Iron absorbed by macrophages and thereby replenished to promote M1-like polarization |
[146] |
Iron chelated melanin-like nanoparticles |
Iron supplemented by macrophages to induce M1-like polarization |
[147] |
Intracellular iron chelator (TC3-S)2 |
Transforming macrophage to iron-absorbing M1-like phenotype to play anti-tumor effects |
[148] |