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此商品 | GREL5 | Z742616 | GE80648470 |
|---|---|---|---|
| manufacturer/tradename G-BioSciences 786-947 | manufacturer/tradename Millipore | manufacturer/tradename G-BioSciences 786-948 | manufacturer/tradename Cytiva 80-6484-70 |
| packaging pkg of 10 ea | packaging pkg of 5 packs | packaging pkg of 30 ea | packaging pkg of 50 samples |
| feature 10 columns | feature - | feature 30 columns | feature wetted part: no |
| storage temp. 2-8°C | storage temp. - | storage temp. 2-8°C | storage temp. - |
应用
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]
储存分类代码
11 - Combustible Solids
WGK
WGK 3
闪点(°F)
Not applicable
闪点(°C)
Not applicable
法规信息
监管及禁止进口产品
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
Mehdi Nikkhah et al.
Biomaterials, 33(35), 9009-9018 (2012-09-29)
Engineering of organized vasculature is a crucial step in the development of functional and clinically relevant tissue constructs. A number of previous techniques have been proposed to spatially regulate the distribution of angiogenic biomolecules and vascular cells within biomaterial matrices
商品
Discussion of synthetic modifications to gelatin, improving the three-dimensional (3D) print resolution, and resulting material properties.
Professor Shrike Zhang (Harvard Medical School, USA) discusses advances in 3D-bioprinted tissue models for in vitro drug testing, reviews bioink selections, and provides application examples of 3D bioprinting in tissue model biofabrication.
实验方案
Frequently asked questions (FAQs) for KAPA SYBR® FAST One-Step qRT-PCR Kits.
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