Examples of using Scaffolds in English and their translations into Chinese
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Scaffolds created with FDM technology have excellent mechanical properties, but they require high temperatures and tend to shrink and distort when they cool.
By synthesizing these organic scaffolds that contain metal ions, he was able to 3D print metallic structures that are much smaller than previously possible.
Surgeons place the scaffolds at the injury site and the drugs diffuse out to make the repairs.
Now we need new scaffolds so we can print and support these cells to move closer to achieving full 3-D printing of functional tissues.
If you want to generate scaffolds including controllers and views, you can execute the following command instead of‘tspawn mm foo'.
We have grown some of these filaments on natural, removable linear scaffolds.
These“animal scaffolds” will be modified to remove all their cells.
Moreover, for OPEN we will need a Virtual Machine where network participants are able to execute Smart Contracts including Scaffolds.
Provide personal fall protection equipment and make sure it is used by all workers on suspension scaffolds.
The investigators say their next studies will test the scaffolds, for which they have a patent pending, in larger animals.
What's more, the process can be used to make delicate cell-laden scaffolds in which cells can develop in a pressure-free 3D environment.
These unwelcome children fill the jails and prisons, the asylums and hospitals, and they crowd the scaffolds.
Invented by professor Leon Neethling, ADAPT tissue technology is used to make durable, biocompatible scaffolds for soft tissue repair.
But with advancements in technology, it is used in making prosthetics, implants, scaffolds, organs, and surgical equipment.
We needn't bother with dividers, we need extensions of comprehension, scaffolds of sharing; that is actually what must be done in the quick future.”.
In principle, Lim said, scientists could engineer Notch to sense man-made molecules, including those in the scaffolds that researchers are using to build organs.
Two of these will be nanostructures comprising 8-arm and 12-arm branched DNA scaffolds, while the third is a DNA tetrahedral structure(see Figure 1).
The researchers found that the cells on these composite scaffolds proliferated quickly, likely due to the functional amino and hydroxyl groups introduced by the chitosan.
Karau said:“In the long term, we intend to develop polymeric scaffolds that could be colonised with living cells- creating a true biological implant.”.
Karau adds:“In the long term, we intend to develop polymeric scaffolds that could be colonized with living cells- creating a true biological implant.”.