Author
Listed:
- Jong-Sung Park
(Johns Hopkins University School of Medicine
Johns Hopkins University School of Medicine)
- Yumin Oh
(Johns Hopkins University School of Medicine
Johns Hopkins University School of Medicine)
- Yong Joo Park
(Johns Hopkins University School of Medicine
Johns Hopkins University School of Medicine)
- Ogyi Park
(Johns Hopkins University School of Medicine
Johns Hopkins University School of Medicine
Theraly Fibrosis Inc.)
- Hoseong Yang
(Johns Hopkins University School of Medicine)
- Stephanie Slania
(Johns Hopkins University School of Medicine)
- Laura K. Hummers
(Johns Hopkins University School of Medicine)
- Ami A. Shah
(Johns Hopkins University School of Medicine)
- Hyoung-Tae An
(Johns Hopkins University School of Medicine
Johns Hopkins University School of Medicine)
- Jiyeon Jang
(Johns Hopkins University School of Medicine
Johns Hopkins University School of Medicine)
- Maureen R. Horton
(Johns Hopkins University School of Medicine)
- Joseph Shin
(Johns Hopkins University School of Medicine)
- Harry C. Dietz
(Johns Hopkins University School of Medicine)
- Eric Song
(Yale University School of Medicine)
- Dong Hee Na
(Chung-Ang University)
- Eun Ji Park
(Chung-Ang University)
- Kwangmeyung Kim
(Korea Institute of Science and Technology)
- Kang Choon Lee
(SungKyunKwan University)
- Viktor V. Roschke
(Theraly Fibrosis Inc.)
- Justin Hanes
(Johns Hopkins University School of Medicine
Johns Hopkins University School of Medicine)
- Martin G. Pomper
(Johns Hopkins University School of Medicine
Johns Hopkins University)
- Seulki Lee
(Johns Hopkins University School of Medicine
Johns Hopkins University School of Medicine
Johns Hopkins University)
Abstract
Scleroderma is an autoimmune rheumatic disorder accompanied by severe fibrosis in skin and other internal organs. During scleroderma progression, resident fibroblasts undergo activation and convert to α-smooth muscle actin (α-SMA) expressing myofibroblasts (MFBs) with increased capacity to synthesize collagens and fibrogenic components. Accordingly, MFBs are a major therapeutic target for fibrosis in scleroderma and treatment with blocking MFBs could produce anti-fibrotic effects. TLY012 is an engineered human TNF-related apoptosis-inducing ligand (TRAIL) which induces selective apoptosis in transformed cells expressing its cognate death receptors (DRs). Here we report that TLY012 selectively blocks activation of dermal fibroblasts and induces DR-mediated apoptosis in α-SMA+ MFBs through upregulated DR5 during its activation. In vivo, TLY012 reverses established skin fibrosis to near-normal skin architecture in mouse models of scleroderma. Thus, the TRAIL pathway plays a critical role in tissue remodeling and targeting upregulated DR5 in α-SMA+ MFBs is a viable therapy for fibrosis in scleroderma.
Suggested Citation
Jong-Sung Park & Yumin Oh & Yong Joo Park & Ogyi Park & Hoseong Yang & Stephanie Slania & Laura K. Hummers & Ami A. Shah & Hyoung-Tae An & Jiyeon Jang & Maureen R. Horton & Joseph Shin & Harry C. Diet, 2019.
"Targeting of dermal myofibroblasts through death receptor 5 arrests fibrosis in mouse models of scleroderma,"
Nature Communications, Nature, vol. 10(1), pages 1-11, December.
Handle:
RePEc:nat:natcom:v:10:y:2019:i:1:d:10.1038_s41467-019-09101-4
DOI: 10.1038/s41467-019-09101-4
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