Tag: development

The advent of new high-speed micro-scale 3D printing technology is expected to promote the development of biomedicine and other fields titanium alloy metal

Scientists at Stanford College in the USA have established a brand-new high-speed micro-scale 3D printing technology – roll-to-roll constant liquid interface manufacturing (r2rCLIP), which can print 1 million very fine and customizable micro-particles per day. This achievement is anticipated to promote the growth of biomedicine and other areas. The pertinent paper was released in the most up to date problem of “Nature” on the 13th.

The advent of new high-speed micro-scale 3D printing technology is expected to promote the development of biomedicine and other fields titanium alloy metal插图

(3d printer)

Microparticles generated by 3D printing innovation are widely used in areas such as medicine and vaccine shipment, microelectronics, microfluidics, and complex manufacturing. Nonetheless, mass customization of such particles is extremely challenging.

r2rCLIP is based on the continuous liquid user interface production (CLIP) publishing technology established by Stanford University’s DiSimone Research laboratory in 2015. CLIP makes use of ultraviolet light to solidify the resin rapidly right into the preferred shape.

The leader of the latest research, Jason Kronenfeld of the Disimone Lab, described that they initially fed an item of movie right into a CLIP printer. At the printer, numerous forms are all at once published onto the film; the system after that continues to tidy, remedy, and eliminate the shapes, every one of which can be personalized to the desired shape and product; lastly, the film is rolled up. The whole procedure, for this reason the name roll-to-roll CLIP, makes it possible for mass production of distinctively shaped fragments smaller than the width of a human hair.

The advent of new high-speed micro-scale 3D printing technology is expected to promote the development of biomedicine and other fields titanium alloy metal插图1

(metal powder 3d printing)

Researchers claimed that before the arrival of r2rCLIP, if you intended to print a set of big bits, you required to process it by hand, and the process advanced slowly. Currently, r2rCLIP can produce as much as 1 million bits per day at unprecedented speeds. With new technologies, they can currently promptly create microparticles with even more intricate forms utilizing a range of products, such as porcelains and hydrogels, to create hard and soft bits. The hard fragments can be made use of in microelectronics producing, while the soft particles can be made use of in drug distribution within the body.

The study group mentioned that existing 3D printing technology needs to locate a balance in between resolution and rate. Some 3D printing technologies can generate smaller sized nanoscale bits yet at a slower speed; some 3D printing modern technologies can manufacture big products such as footwear, family products, equipment parts, football headgears, dentures, and listening device, yet they can not print Fine microparticles. The new approach locates a balance in between producing speed and fine scale.

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    Scientists at Stanford College in the USA have established a brand-new high-speed micro-scale 3D printing technology – roll-to-roll constant liquid interface manufacturing (r2rCLIP), which can […]

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    The application status and development direction of graphite in lithium batteries

    graphite: an ideal anode materials Natural graphite made of carbonaceous material organic origin under high temperatures It is a mixture of steel gray and black grey with semi-metallicluster. The hexagonal crystal system is the crystal structure. It features a hexagonal layered structure with high temperature resistance, heat conductivity and electrical conductivity. , Lubrication and plasticity.

    Graphite is an older negative electrode material. Graphite is a more desirable negative electrode material than carbon materials. Its conductivity, crystallinity, and good layered structure are all better than those of other carbon materials.

    Modifications: Optimize anode material performance

    Graphite Negative Electrodes generally use natural flake graphite. But there are a few drawbacks.

    (1) Flake graphite has a large surface area which has a greater influence on the first charge of the negative electrode and its discharge efficiency.
    (2) The graphite layer structure determines that Li+ cannot penetrate the material’s end and diffuse into the particles. Flake graphite has an anisotropy that makes the Li+ diffusion path long and uneven. This causes a low specific ability.
    (3) The graphite’s layer spacing is too small. This increases Li+’s diffusion resistance, but also makes it less efficient at delivering high rates of charge. Li+ can be easily deposited on graphite’s surface and formed lithium dendrites, which poses serious safety hazards.

    Natural graphite can be modified to address these issues using technologies such as surface oxidation and surface fluorination. After taking into account cost and performance, industrial graphite modification is mainly done using carbon coating. Modified natural graphite is a commercially available material with a specific capacity between 340 and370 mA*h/g. This has a coulombic efficiency in excess of 93% in the first week. The DOD cycle time of over 1,000 times can also be used to supply small electronic products. Specific requirements for battery performance.

    Innovation: Tap the Potential of Graphite Applications

    People are continuously aiming for the next technological direction of lithium-ion cells, which will offer higher performance and a longer lifespan. This results in a higher graphite-anode requirement.

    Graphite concentrate is able to be further processed to make graphite products. These include graphene (spheroidized graphite), flexible graphite (fluorinated graphite), nuclear graphite or silicon-impregnated graphite), flexible graphite (spheroidized graphite), flexible graphite and fluorinated graphite. This will allow graphite to be used in lithium batteries at a higher level. Graphene is a good conductor and can help reduce volume expansion in electrode materials. This will greatly increase the power battery’s performance. Graphene is widely used as a positive electrode, negative electrode, current collector, separator, and conductive additive in lithium-ion cells. The future market opportunities are very broad and the current focus of research is graphene. Spherical graphite features good electrical conductivity and high crystallinity. It is used to replace negative electrode materials in the production of lithium ion batteries, both at home and overseas.

    Tech Co., Ltd. is a graphite supplier that has more than 12 years of experience in chemical products development and research. We accept credit cards, T/T and Paypal payments. We will ship goods overseas via FedEx, DHL and by air or sea to our customers.
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    graphite: an ideal anode materials Natural graphite made of carbonaceous material organic origin under high temperatures It is a mixture of steel gray and black […]

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