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| 1 | Tetrabromobisphenol A(TBBPA): A controversial environmental pollutant显示文摘Tetrabromobisphenol A(TBBPA)is one of the most widely used brominated flame retardants and is extensively used in electronic equipment,furniture,plastics,and textiles.It is frequently detected in water,soil,air,and organisms,including humans,and has raised concerns in the scientific community regarding its potential adverse health effects.Human exposure to TBBPA is mainly via diet,respiration,and skin contact.Various in vivo and in vitro studies based on animal and cell models have demonstrated that TBBPA can induce multifaceted effects in cells and animals,and potentially exert hepatic,renal,neural,cardiac,and reproductive toxicities.Nevertheless,other reports have claimed that TBBPA might be a safe chemical.In this review,we re-evaluated most of the published TBBPA toxicological assessments with the goal of reaching a conclusion about its potential toxicity.We concluded that,although low TBBPA exposure levels and rapid metabolism in humans may signify that TBBPA is a safe chemical for the general population,particular attention should be paid to the potential effects of TBBPA on early developmental stages. | Hui Zhou Nuoya Yin Francesco Faiola | 2020 | Journal of Environmental Sciences2020，32，11： | 6 |
| 2 | Bioinspired hybrid patches with self-adhesive hydrogel and piezoelectric nanogenerator for promoting skin wound healing显示文摘Wound management is a crucial measure for skin wound healing and is significantly important to maintaining the integrity of skins and their functions.Electrical stimulation at the wound site is a compelling strategy for skin wound repair.However,there has been an urgent need for wearable and point-of-care electrical stimulation devices that have self-adhesive and mechanical properties comparable to wound tissue.Herein,we develop a bioinspired hybrid patch with self-adhesive and piezoelectric nanogenerator(HPSP)for promoting skin wound healing,which is composed of a mussel-inspired hydrogel matrix and a piezoelectric nanogenerator based on aligned electrospun poly(vinylidene fluoride)nanofibers.The device with optimized modulus and permeability for skin wear can self-adhere to the wound site and locally produce a dynamic voltage caused by motion.We show that the HPSP not only promotes fibroblast proliferation and migration in vitro,but also effectively facilitates the collagen deposition,angiogenesis,and re-epithelialization in vivo with the increased expressions of crucial growth factors.The HPSP reduces the wound closure time of full-thickness skin defects by about 1/3,greatly accelerating the healing process.This patch can serve as wearable and real-time electrical stimulation devices,potentially useful in clinical applications of skin wound healing. | Shuo Du Nuoya Zhou Yujie Gao Ge Xie Hongyao Du Hao Jiang Uanbin Zhang Juan Tao Jintao Zhu | 2020 | Nano Research2020，13，9： | 3 |
| 3 | Transparent photo thermal hydrogels for wound visualization and accelerated healing显示文摘Utilizing photothermal hydrogels as a wound dressing is a promising strategy to accelerate wound healing.Usually,a photothermal hydrogel has a strong light-absorbing capability,and hence its transparency can be largely sacrificed,which is unbeneficial for the visual monitoring of wound states.It remains challenging to balance the trade-off between the photothermal conversion and wound visualization for the photothermal hydrogel dressing.Herein,a composite photothermal hydrogel film with high transparency is presented for the visual monitor of the wound,which is constructed by incorporating CsxW03 nanorods into the networks of polyacrylamide hydrogels.The composite photothermal hydrogel film exhibits high light absorption in the near-infrared region and high transmittance in the visible light region.Under 980 nm laser irradiation,the composite hydrogel can be heated up to 45°C.In vivo animal experiment on mouse skin wound model shows that the composite hydrogel film can locally heat the skin wound to accelerate healing while maintaining more than 70%transparency to realize real-time observation of the wound.This study provides the first attempt to solve the problem of opacity in photothermal hydrogel dressings,promoting the possibility of its clinical applications. | Ge Xie Nuoya Zhou Shuo Du Yujie Gao Huinan Suo Jing Yang Juan Tao Jintao Zhu Lianbin Zhang | 2022 | Fundamental Research2022，2，2： | 0 |
| 4 | Yes-associated protein contributes to magnesium alloy-derivedinflammation in endothelial cells显示文摘Magnesium alloy(Mg alloy)has attracted massive attention in the potential applications of cardiovascular stents because of its good biocompatibility and degradability.However,whether and how the Mg alloy induces inflammation in endothelial cells remains unclear.In the present work,we investigated the activation of Yes-associated protein(YAP)upon Mg alloy stimuli and unveiled the transcriptional function in Mg alloy-induced inflammation.Quantitative RT–PCR,western blotting and immunofluorescence staining showed that Mg alloy inhibited the Hippo pathway to facilitate nuclear shuttling and activation of YAP in human coronary artery endothelial cells(HCAECs).Chromatin immunoprecipitation followed sequencing was carried out to explore the transcriptional function of YAP in Mg alloy-derived inflammation.This led to the observation that nuclear YAP further bonded to the promoter region of inflammation transcription factors and co-transcription factors.This binding event activated their transcription and modified mRNA methylation of inflammation-related genes through regulating the expression of N6-methyladenosine modulators(METTL3,METTL14,FTO and WTAP).This then promoted inflammation-related gene expression and aggravated inflammation in HCAECs.In YAP deficiency cells,Mg alloy-induced inflammation was reduced.Collectively,our data suggest that YAP contributes to the Mg alloy-derived inflammation in HCAECs and may provide a potential therapeutic target that alleviates inflammation after Mg alloy stent implantation. | Hongchi Yu Zhe Hou Nuoya Chen Rifang Luo Li Yang Michael Miao Xiaoyi Ma Lifeng Zhou Fugui He Yang Shen Xiaoheng Liu Yunbing Wang | 2022 | Regenerative Biomaterials2022，9，1： | 0 |
| 5 | The biological responses and mechanisms of endothelial cells to magnesium alloy显示文摘Due to its good biocompatibility and degradability,magnesium alloy(Mg alloy)has shown great promise in cardiovascular stent applications.Rapid stent re-endothelialization is derived from migrated and adhered endothelial cells(ECs),which is an effective way to reduce late thrombosis and inhibit hyperplasia.However,fundamental questions regarding Mg alloy affecting migration and adhesion of ECs are not fully understood.Here,we evaluated the effects of Mg alloy on the ECs proliferation,adhesion and migration.A global gene expression profiling of ECs co-culturing with Mg alloy was conducted,and the adhesion-and migration-related genes were examined.We found that Mg alloy had no adverse effects on ECs viability but significantly affected ECs migration and adhesion.Co-cultured with Mg alloy extract,ECs showed contractive adhesion morphology and decreased motility,which was supported by the down-regulation of adhesion-related genes(Paxillin and Vinculin)and migration-related genes(RAC 1,Rho A and CDC 42).Accordingly,the re-endothelialization of Mg alloy stent was inhibited in vivo.Our results may provide new inspiration for improving the broad application of Mg alloy stents. | Zhe Hou Maolong Xiang Nuoya Chen Xiao Cai Bo Zhang Rifang Luo Li Yang Xiaoyi Ma Lifeng Zhou Fugui He Hongchi Yu Yunbing Wang | 2021 | Regenerative Biomaterials2021，8，3： | 0 |
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