Noncoding RNA Terc-53 and hyaluronan receptor Hmmr regulate aging in mice

One of the basic questions in the aging field is whether there is a fundamental difference between the aging of lower invertebrates and mammals. A major difference between the lower invertebrates and mammals is the abundancy of noncoding RNAs, most of which are not conserved. We have previously iden...

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Veröffentlicht in:Protein & cell 2025-01, Vol.16 (1), p.28-48
Hauptverfasser: Wu, Sipeng, Cai, Yiqi, Zhang, Lixiao, Li, Xiang, Liu, Xu, Zhou, Guangkeng, Luo, Hongdi, Li, Renjian, Huo, Yujia, Zhang, Zhirong, Chen, Siyi, Huang, Jinliang, Shi, Jiahao, Ding, Shanwei, Sun, Zhe, Zhou, Zizhuo, Wang, Pengcheng, Wang, Geng
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container_title Protein & cell
container_volume 16
creator Wu, Sipeng
Cai, Yiqi
Zhang, Lixiao
Li, Xiang
Liu, Xu
Zhou, Guangkeng
Luo, Hongdi
Li, Renjian
Huo, Yujia
Zhang, Zhirong
Chen, Siyi
Huang, Jinliang
Shi, Jiahao
Ding, Shanwei
Sun, Zhe
Zhou, Zizhuo
Wang, Pengcheng
Wang, Geng
description One of the basic questions in the aging field is whether there is a fundamental difference between the aging of lower invertebrates and mammals. A major difference between the lower invertebrates and mammals is the abundancy of noncoding RNAs, most of which are not conserved. We have previously identified a noncoding RNA Terc-53 that is derived from the RNA component of telomerase Terc. To study its physiological functions, we generated two transgenic mouse models overexpressing the RNA in wild-type and early-aging Terc-/- backgrounds. Terc-53 mice showed age-related cognition decline and shortened life span, even though no developmental defects or physiological abnormality at an early age was observed, indicating its involvement in normal aging of mammals. Subsequent mechanistic study identified hyaluronan-mediated motility receptor (Hmmr) as the main effector of Terc-53. Terc-53 mediates the degradation of Hmmr, leading to an increase of inflammation in the affected tissues, accelerating organismal aging. adeno-associated virus delivered supplementation of Hmmr in the hippocampus reversed the cognition decline in Terc-53 transgenic mice. Neither Terc-53 nor Hmmr has homologs in C. elegans. Neither do arthropods express hyaluronan. These findings demonstrate the complexity of aging in mammals and open new paths for exploring noncoding RNA and Hmmr as means of treating age-related physical debilities and improving healthspan.
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title Noncoding RNA Terc-53 and hyaluronan receptor Hmmr regulate aging in mice
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