KIAA0753 enhances osteoblast differentiation suppressed by diabetes

Author:

Li Mengxue1,Wang Yongqin2,Wu Xiangmei3,Chen Quanmei1,Huang Jianguo4,Zhu Huifang1,Yang Shengyong1,Wang Jichun1,Li Le Tai1,Liu Xianjun1,Fu Kang5,Song Fangzhou1,Wang Changdong1ORCID

Affiliation:

1. Department of Biochemistry and Molecular Biology, Molecular Medicine and Cancer Research Center, School of Basic Medical Sciences Chongqing Medical University Chongqing China

2. Department of Gastrointestinal Surgery Traditional Chinese Medicine Hospital of Shizhu Chongqing China

3. Department of Physiology, Molecular Medicine and Cancer Research Center, School of Basic Medical Sciences Chongqing Medical University Chongqing China

4. A Division of Providence Cancer Institute Earle A. Chiles Research Institute Portland Oregon USA

5. Sangon Biotech (Shanghai) Co., Ltd. Shanghai China

Abstract

AbstractDiabetes‐related bone loss represents a significant complication that persistently jeopardizes the bone health of individuals with diabetes. Primary cilia proteins have been reported to play a vital role in regulating osteoblast differentiation in diabetes‐related bone loss. However, the specific contribution of KIAA0753, a primary cilia protein, in bone loss induced by diabetes remains unclear. In this investigation, we elucidated the pivotal role of KIAA0753 as a promoter of osteoblast differentiation in diabetes. RNA sequencing demonstrated a marked downregulation of KIAA0753 expression in pro‐bone MC3T3 cells exposed to a high glucose environment. Diabetes mouse models further validated the downregulation of KIAA0753 protein in the femur. Diabetes was observed to inhibit osteoblast differentiation in vitro, evidenced by downregulating the protein expression of OCN, OPN and ALP, decreasing primary cilia biosynthesis, and suppressing the Hedgehog signalling pathway. Knocking down KIAA0753 using shRNA methods was found to shorten primary cilia. Conversely, overexpression KIAA0753 rescued these changes. Additional insights indicated that KIAA0753 effectively restored osteoblast differentiation by directly interacting with SHH, OCN and Gli2, thereby activating the Hedgehog signalling pathway and mitigating the ubiquitination of Gli2 in diabetes. In summary, we report a negative regulatory relationship between KIAA0753 and diabetes‐related bone loss. The clarification of KIAA0753's role offers valuable insights into the intricate mechanisms underlying diabetic bone complications.

Funder

Chongqing Medical University

Publisher

Wiley

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