Fig. 3 Shape of the stripe-type micro pattern.
In this paper, we produced a Cu alloy microstructure on a stripe-type micro-patterned substrate.
The fabricated oil detector consisted of two stripe-type metal patterns with Cu alloy electrodeposited structures.
To analyze the effects of the OAR variations, a stripe-type micro-pattern was formed using a photolithography process.
We evaluate the preferred slanted angles of the lenticular film for the stripe-type sub-pixel structure liquid crystal display (LCD) panel.
Figure 7 shows a camera image of the fabricated oil detector and an SEM image of the Cu alloy structure on the stripe-type metal patterns.
The greenish ink with nano-particle pigments was injected in the stripe-type pattern with 90 μm in width and 250 μm in length by pre-designed inkjet head and driving system, and only green color was tested.
A DSSC module, which consists of five stripe-type working electrodes on a 5 cm × 5 cm, embedded silver grid FTO glass substrate, shows stable performance with an energy conversion efficiency of 5.45% under standard test conditions.
To confirm the industrial effectiveness of a Cu alloy electrodeposited structure on a micro-pattern, Cu alloy structures on a stripe-type micro-pattern were applied to the fabrication of an oil detector.
While the dynamic treatment, where the treated surface was moved relative to the plasma source, led to a homogeneous process, the treatment in static conditions resulted in a stripe-type pattern on the surface of the samples reflecting the electrode structure of the plasma source.
