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A tantalum-containing zirconium-based metallic glass with superior endosseous implant relevent properties (xenograft)

ABSTRACT: A tantalum-containing zirconium-based metallic glass with superior endosseous implant relevent properties (xenograft)

PROVIDER: PRJNA1061521 | ENA |

REPOSITORIES: ENA

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			Action	DRS
	SRR27442842_1.fastq.gz	Fastqsanger.gz
	SRR27442842_2.fastq.gz	Fastqsanger.gz
	SRR27442843_1.fastq.gz	Fastqsanger.gz
	SRR27442843_2.fastq.gz	Fastqsanger.gz
	SRR27442844_1.fastq.gz	Fastqsanger.gz

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A tantalum-containing zirconium-based metallic glass with superior endosseous implant relevent properties

Project description:A tantalum-containing zirconium-based metallic glass with superior endosseous implant relevent properties

| PRJNA1061777 | ENA

A tantalum-containing zirconium-based metallic glass with superior endosseous implant relevant properties (HUVEC)

Project description:Tantalum (Ta) metal is well known for its ideal corrosion resistance and biological effects as endosseous implants. However, the metal has a elastic modulus as high as 186GPa which is not comparable to the natural bone (10-40GPa), and it also has a relative high cost. Here, to fully exploit the advantages of Ta as endosseous implants, a small amount of Ta (as low as 3 at.%) was successfully added into a zirconium-based metallic glass (MG) to generate an advanced functional endosseous implant, Zr58Cu25Al14Ta3 MG, with superior comprehensive properties. Upon carefully dissecting the surface chemistry and atomic structure, the results show that amorphization of Ta enable the uniform distribution in material surface, leading to a significantly improved chemical stability and extensive material-cell contact regulation. Systematical analyses on the immunological, angiogenesis and osteogenesis capability of the material is carried out by utilizing the next-generation sequencing, revealing that Zr58Cu25Al14Ta3 MG can regulate angiogenesis through VEFG signaling pathway and osteogenesis via BMP signaling pathway. Animal experiment further confirms a sound osseointegration of Zr58Cu25Al14Ta3 MG in achieving better bone-implant-contact and inducing faster peri-implant bone formation.

2024-05-29 | GSE252670 | GEO

A tantalum-containing zirconium-based metallic glass with superior endosseous implant relevant properties (BMSC)

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A tantalum-containing zirconium-based metallic glass with superior endosseous implant relevent properties (xenograft)

2024-05-29 | GSE252618 | GEO

A tantalum-containing zirconium-based metallic glass with superior endosseous implant relevant properties (HUVEC)

Project description:A tantalum-containing zirconium-based metallic glass with superior endosseous implant relevant properties (HUVEC)

| PRJNA1061779 | ENA

A tantalum-containing zirconium-based metallic glass with superior endosseous implant relevant properties (BMSC)

Project description:A tantalum-containing zirconium-based metallic glass with superior endosseous implant relevant properties (BMSC)

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A tantalum-containing zirconium-based metallic glass with superior endosseous implant relevent properties

Project description:This SuperSeries is composed of the SubSeries listed below.

2024-05-29 | GSE252671 | GEO

Transcriptomic profile of Lin negative, LEPR positive cells of human peri-implant fibrous tissue and peri-implant bone

Project description:Peri-implant fibrosis is one of the most common reasons for implant failure and surgical revision after prosthetic joint replacement. This type of surgical revisionis associated with substantial additional morbidity and healthcare costs. However, the cellular and molecular mediators of peri-implant fibrosis remain unclear. Here, we show that peri-implant fibrotic tissue in mice and humans is largely composed of a specific population of leptin receptor-expressing(LEPR+) cells and that these LEPR+cells are necessary and sufficient to both generate and maintain peri-implant fibrotic tissue. Genetic ablation of LEPR+cells prevents peri-implant fibrosis, and implantation of LEPR+cells from peri-implant fibrotic tissue is sufficient to induce fibrosis in secondary hosts. We further identify adhesion G protein-coupled receptorF5 (ADGRF5) as a crucial mediator of the fibrotic response by LEPR+cells, as conditional deletion of ADGRF5 in LEPR+cells attenuates peri-implant fibrosis while augmenting peri-implant bone formation. Finally, we demonstrate that inhibition of ADGRF5 by intra articular or systemic administration of neutralizing anti-ADGRF5prevents and reverses peri-implant fibrosis. Thus, pharmaceutical agents that inhibit the ADGRF5 pathway inLEPR+cells may represent a new approach to prevent and treat peri-implant fibrosis.

2024-03-10 | GSE227128 | GEO

Differential gene expression between Salmonella Typhimurium biofilms on glass vs cholesterol surfaces

Project description:Salmonella spp. biofilms have been implicated in persistence in the environment and plant surfaces. In addition, Salmonella is able to form biofilms on the surface on cholesterol gallstones. The ability of Salmonella spp. on these surfaces is superior to biofilm formation on surfaces on glass or plastic. Thus, we hypothesized that Salmonella gene expression is specific during biofilm development on cholesterol surfaces.

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Superior tensile ductility in bulk metallic glass with gradient amorphous structure.

Project description:Over centuries, structural glasses have been deemed as a strong yet inherently 'brittle' material due to their lack of tensile ductility. However, here we report bulk metallic glasses exhibiting both a high strength of ~2 GPa and an unprecedented tensile elongation of 2-4% at room temperature. Our experiments have demonstrated that intense structural evolution can be triggered in theses glasses by the carefully controlled surface mechanical attrition treatment, leading to the formation of gradient amorphous microstructures across the sample thickness. As a result, the engineered amorphous microstructures effectively promote multiple shear banding while delay cavitation in the bulk metallic glass, thus resulting in superior tensile ductility. The outcome of our research uncovers an unusual work-hardening mechanism in monolithic bulk metallic glasses and demonstrates a promising yet low-cost strategy suitable for producing large-sized, ultra-strong and stretchable structural glasses.

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