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900628

Sigma-Aldrich

Gelatin methacryloyl

gel strength 90-110 g Bloom, degree of substitution 60%

Sinônimo(s):

GelMA, Gelatin methacrylamide, Gelatin methacrylate, GelMa, Gelatin Methacrylate

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1 G
R$ 778,00

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1 G
R$ 778,00

About This Item

Fórmula linear:
(C40H59N11O13)n
Código UNSPSC:
12352202
NACRES:
NA.23

R$ 778,00

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Nível de qualidade

100

Formulário

solid

temperatura de armazenamento

2-8°C

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Categorias relacionadas

Aplicação

Gelatin methacrylate can be used to form cross-linked hydrogels for tissue engineering[1] and 3D printings.[2][3][4] It has been used for endothelial cell morphogenesis,[5] cardiomyocytes,[6] epidermal tissue,[7] injectable tissue constructs,[8] bone differentiation,[9] and cartilage regeneration.[10] Gelatin-methacrylate has been explored in drug delivery applications in the form of microspheres[11] and hydrogels.[12]

Código de classe de armazenamento

11 - Combustible Solids

Classe de risco de água (WGK)

WGK 3

Ponto de fulgor (°F)

Not applicable

Ponto de fulgor (°C)

Not applicable

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Certificados de análise (COA)

Lot/Batch Number
MKCS2033
MKCM3559
MKCD5511

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Gelatin methacryloyl gel strength 300 g Bloom, degree of substitution 60%

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Gelatin methacryloyl gel strength 300 g Bloom, degree of substitution 40%

Sigma-Aldrich

900629

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Gelatin methacryloyl gel strength 170-195 g Bloom, degree of substitution: 60%

Sigma-Aldrich

900741

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Thiol functionalized gelatin

Sigma-Aldrich

904643

Thiol functionalized gelatin

TissueFab® bioink  (Gel)ma -UV/365 nm

Sigma-Aldrich

905429

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TissueFab® bioink  Sacrificial

Sigma-Aldrich

906905

TissueFab® bioink 

Acrylic acid N-hydroxysuccinimide ester ≥90% (GC)

Sigma-Aldrich

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Gelatina Type A, lyophilized powder, γ-irradiated, BioXtra, suitable for cell culture

Sigma-Aldrich

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Gelatina

Xin Zhao et al.
Advanced healthcare materials, 5(1), 108-118 (2015-04-17)
Natural hydrogels are promising scaffolds to engineer epidermis. Currently, natural hydrogels used to support epidermal regeneration are mainly collagen- or gelatin-based, which mimic the natural dermal extracellular matrix but often suffer from insufficient and uncontrollable mechanical and degradation properties. In
Kelly M C Tsang et al.
Advanced functional materials, 25(6), 977-986 (2015-09-04)
Hydrogels are often employed as temporary platforms for cell proliferation and tissue organization in vitro. Researchers have incorporated photodegradable moieties into synthetic polymeric hydrogels as a means of achieving spatiotemporal control over material properties. In this study protein-based photodegradable hydrogels
Anh H Nguyen et al.
Acta biomaterialia, 13, 101-110 (2014-12-03)
Gelatin has been commonly used as a delivery vehicle for various biomolecules for tissue engineering and regenerative medicine applications due to its simple fabrication methods, inherent electrostatic binding properties, and proteolytic degradability. Compared to traditional chemical cross-linking methods, such as
Jason W Nichol et al.
Biomaterials, 31(21), 5536-5544 (2010-04-27)
The cellular microenvironment plays an integral role in improving the function of microengineered tissues. Control of the microarchitecture in engineered tissues can be achieved through photopatterning of cell-laden hydrogels. However, despite high pattern fidelity of photopolymerizable hydrogels, many such materials
Chaenyung Cha et al.
Biomacromolecules, 15(1), 283-290 (2013-12-19)
Microfabrication technology provides a highly versatile platform for engineering hydrogels used in biomedical applications with high-resolution control and injectability. Herein, we present a strategy of microfluidics-assisted fabrication photo-cross-linkable gelatin microgels, coupled with providing protective silica hydrogel layer on the microgel
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