Because it is very difficult to achieve the exact desired resonant frequency from the fabricated device, a post-fabrication process is generally required to tune the deviated resonant frequency back to the designed value.
This simple, but effective post-fabrication process of porous scaffolds has great potential to resolve unmet needs of biometals for biomedical applications.
Our proposed device integrates a planar microcoil array and a microfluidic structure on a single chip, without any post-fabrication process.
During the pre- and post-fabrication process, availability of the trapped charges is quite common and cannot be neglected in nanoscale devices.
Most macropore-forming techniques also involve non-physiological conditions, such that cells can only be seeded in a post-fabrication process, which often leads to low cell seeding efficiency and uneven cell distribution.
The micro-scaffolds (widths < 100 μm) were made by dewetting of poly(lactic-co-glycolic acid) thin films containing parallel strips, and cells were seeded to form cell/polymer micro-constructs during or post the micro-scaffold fabrication process.
Electrospun mats of various polar and non-polar polymers were subjected to post-electrospinning process to monitor the fabrication process.
The fabrication process is compatible with post-CMOS and plastic substrate integration as it can be completed at temperatures below 150 °C with good yield and repeatability.
This great difference between both processes is associated to the use of a specific protective agent (PAA-AgNPs) in the LbL-E films, which prevents the agglomeration of the AgNPs during the fabrication process and after thermal post-treatment.
In addition, the great importance of using a protective agent such as PAA-AgNPs in the LbL-E deposition technique is to prevent the aggregation of the AgNPs during the fabrication process and after thermal post-treatment.
