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描述
Filament diameter: 1.75 ± 0.05 mm
Filament roundness: ≥ 95%
Melt flow rate: 39 cc/10 min
Melt temperature: ±180 °C
Print temperature: ±220-260 °C
Specific gravity: 1.14 g/cc
Spool Hub Diameter: 52 mm
Spool Size (D x H): 200 mm x 55 mm
Viscat softening temperature: ±90 °C
表单
solid (filament)
硬度
45D (, Shore D Hardness)
颜色
blue
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此商品 | 245739 | 513040 | 40220 |
|---|---|---|---|
| assay 99.5% | assay 99% | assay 98% | assay ≥99.0% (NT) |
| Quality Level 100 | Quality Level 200 | Quality Level 100 | Quality Level 100 |
| form solid | form solid | form - | form solid |
| mp 169-174 °C (lit.) | mp 169-174 °C (lit.) | mp 114-117 °C (lit.) | mp 169-174 °C (lit.), 171-173 °C |
| purified by sublimation | purified by - | purified by - | purified by - |
一般描述
Flexible Thermoplastic Copolyester (TPC) Printing Filament is a rubber-like 3D printer filament with a shore hardness of 45D that allows for the printing of flexible objects. This flexible filament will not deform or break when stressed by bending (charpy notched impact strength test) and has shown ″flexural memory″ which allows materials to return to their original shape after being bent, dented, or folded. In addition to its high flexibility, this filament features many additional beneficial properties such as high temperature resistance, good chemical resistance, high strength, and excellent UV resistance. Due to its ester linkages, this filament is degradable by hydrolysis and is made partially from renewable carbon content (e.g. bio-based oils). When not in use, the filament should be stored at room temperature in dry conditions, such as in a sealed plastic bag or in a closed container with desiccant. Recommended initial printer settings can be found in the ′General Print Settings′ file.
应用
Flexible thermoplastic copolyester (TPC) printing filament is a polyester-based material with properties similar to polyurethane-based (TPU) filaments. Due to their flexibility and stability, TPU has been used to synthesize nanoparticles for cartilage tissue engineering[1], peripheral nerve conduits[2], and tracheal scaffolds.[3] Due to its ester linkages, thermoplastic copolyesters are able to undergo hydrolytic degradation more readily than polyurethanes[4], making them more suitable for biomedical applications. Cabrera et al. used thermoplastic copolyesters to print self-expandable polymer stents that can be implanted in a minimally invasive manner.[5] These rapidly prototyped structures were shown to have properties similar to that of nitinol-based stents and to degrade via hydrolysis. Based upon these ideal properties, thermoplastic copolyester filaments have great potential in additional bioengineering applications.
法律信息
Product of Formfutura VOF
FlexiFil™ is a trademark of Formfutura VOF
FlexiFil™ is a trademark of Formfutura VOF
FlexiFil is a trademark of Formfutura VOF
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
新产品
Synthesis and 3D printing of biodegradable polyurethane elastomer by a water-based process for cartilage tissue engineering applications.
Hung, et al.
Advanced Helathcare Materials, 3(10), 1578-1587 (2014)
Biomedical applications of biodegradable polymers
Ulery, B.D. et al.
Journal of Polymer Science. Part B, Polymer Physics, 49(12), 832-864 (2011)
Novel flexible nerve conduits made of water-based biodegradable polyurethane for peripheral nerve regeneration
Hsu, S.-H. et al.
Journal of Biomedical Materials Research Part A, 105A, 1383-1392 (2017)
Kun-Che Hung et al.
Advanced healthcare materials, 3(10), 1578-1587 (2014-04-15)
Biodegradable materials that can undergo degradation in vivo are commonly employed to manufacture tissue engineering scaffolds, by techniques including the customized 3D printing. Traditional 3D printing methods involve the use of heat, toxic organic solvents, or toxic photoinitiators for fabrication
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