Treating murine inflammatory diseases with an anti-erythrocyte antibody.
Andrew R CrowRick KapurSandra KoernigIan K CampbellChao-Ching JenPatrick J MottDanielle MarjoramRamsha KhanMichael KimJennifer BrasseitYoelys Cruz-LealAlaa AmashSimrat KahlonIssaka YougbareHeyu NiAdrian W ZuercherFabian KäsermannJohn W SempleAlan H LazarusPublished in: Science translational medicine (2020)
Treatment of autoimmune and inflammatory diseases typically involves immune suppression. In an opposite strategy, we show that administration of the highly inflammatory erythrocyte-specific antibody Ter119 into mice remodels the monocyte cellular landscape, leading to resolution of inflammatory disease. Ter119 with intact Fc function was unexpectedly therapeutic in the K/BxN serum transfer model of arthritis. Similarly, it rapidly reversed clinical disease progression in collagen antibody-induced arthritis (CAIA) and collagen-induced arthritis and completely corrected CAIA-induced increase in monocyte Fcγ receptor II/III expression. Ter119 dose-dependently induced plasma chemokines CCL2, CCL5, CXCL9, CXCL10, and CCL11 with corresponding alterations in monocyte percentages in the blood and liver within 24 hours. Ter119 attenuated chemokine production from the synovial fluid and prevented the accumulation of inflammatory cells and complement components in the synovium. Ter119 could also accelerate the resolution of hypothermia and pulmonary edema in an acute lung injury model. We conclude that this inflammatory anti-erythrocyte antibody simultaneously triggers a highly efficient anti-inflammatory effect with broad therapeutic potential.
Keyphrases
- oxidative stress
- high glucose
- drug induced
- diabetic rats
- liver injury
- rheumatoid arthritis
- highly efficient
- endothelial cells
- dendritic cells
- pulmonary hypertension
- anti inflammatory
- type diabetes
- multiple sclerosis
- immune response
- single molecule
- adipose tissue
- induced apoptosis
- skeletal muscle
- insulin resistance
- signaling pathway
- brain injury
- cell cycle arrest
- stress induced