The surface morphology and roughness were also dependent on the treatment power.
This ability is now used towards innovative processes in wastewater treatment, power generation, production of fuels and biochemicals, bioremediation, desalination and resource recovery, among others.
However, pHIFU could induce hyperthermia into the target tissue by an increasing the treatment power, resulting in occurring histopathological abnormalities in the target tissue.
The amorphous IGZO films on SiO2/ITO glass achieved transmittance higher than 90% in the wavelength range of 350 1000 nm, and it could be further enhanced with increasing plasma treatment power.
The surface free energies of the stainless steel plates were improved with plasma treatment and the optimum plasma treatment conditions such as plasma treatment time, plasma treatment power, gas flow rate, gap distance between power source and substrates and aging time after plasma treatment were investigated.
Seventeen microorganisms were inoculated in distilled water, treated by US and the number of survivors was assessed immediately after the treatment; power (20 80%), duration (2 8 min) and pulse (2 6 s) varied according to a fractional design.
Through the analysis of the contact angle and surface-free energy, the optimum plasma treatment conditions were also obtained, including the treatment time of 60 s, the treatment power of 120 W and the aging time of 3 to 5 min in air.
The amorphous IGZO TFTs with plasma treatment power at 400 W exhibited the field effect mobility, sub-threshold swing, on-current to off-current ratio, interfacial trap density and threshold voltage of 33.5 cm2/V s, 0.10 V/dec, 107, 1.2 × 1012 cm− 2 eV− 1 and 0.77 V, respectively.
Typical treatment power was 40 to 45 W.
The main causes of such progress are the development of better diagnostic tools and an improvement in methods of treatment (power Doppler ultrasound or C-arm X-ray).
