Microstructure and Platelet Adhesion Behavior of Titanium Oxide Films Synthesized by Reactive High-Power Pulse Magnetron Sputtering

Yin, T.L.; Jing, Fengjuan; Sun, Hong; Leng, Y.X.; Yukimura, Ken; Huang, Nan

doi:10.1109/tps.2013.2250528

Cited by 6 publications

(2 citation statements)

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“…Ti and Ti-O films were deposited by Jing and Yin [30].The result shows that the varied pulse width can affect the surface quality of thin film in a certain voltage and argon pressure, the discharge current and power was calculated as shown in figure 1, when the pulse width is wider, the average power is greater . The Ti-O film was deposited at different pressure (O 2 /Ar) in a certain pulse width 180µs.The film surface anticoagulation property quality is also better when O 2 /Ar was10/60 [31]. [32] studied the different frequencies effect on the Ti-O film.…”

Section: Thin Films Prepared By Hipimsmentioning

confidence: 99%

New Plasma Surface Processing Technology and its Application

Cao

Chen

2014

AMM

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Plasma surface processing technology can improve the mechanical properties, the corrosion resistance and chemical properties of the parts; therefore it has been widely used in industrial field. Advanced plasma surface processing technology is also constantly innovation, high power pulsed magnetron sputtering technique has been studied and explored by many scholars in recent years, and also gradually began to be used in the industry . This paper mainly introduces the study of HiPIMS dynamic and application over the past ten years. The HiPIMS discharge mechanism research method and theory is summarized .And the influence of the preparation process parameters about voltage, pressure, pulse width and frequency to compound film performance is systematically described, a detection method for thin film by HiPIMS is also introduced. These will provide guidance for the preparation of reactive HiPIMS.

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Section: Thin Films Prepared By Hipimsmentioning

confidence: 99%

New Plasma Surface Processing Technology and its Application

Cao

Chen

2014

AMM

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“…This high efficiency provides a strong motivation for the pursuit of relevant technologies, such as the lineartransformer-driver (LTD), which was initiated by the High Current Electron Institute (HCEI) in Russia [8][9][10][11][12][13][14]. Considerable work [15][16][17][18][19][20][21][22][23][24][25][26][27][28][29][30][31][32][33] has been conducted worldwide over the past 15 years in development of LTD components and systems.…”

Section: Introductionmentioning

confidence: 99%

Design of a 5-MA 100-ns linear-transformer-driver accelerator for wire array Z-pinch experiments

Zhou

Wang

et al. 2016

Phys. Rev. Accel. Beams

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The linear-transformer-driver (LTD) is a recently developed pulsed-power technology that shows great promise for a number of applications. These include a Z-pinch-driven fission-fusion-hybrid reactor that is being developed by the Chinese Academy of Engineering Physics. In support of the reactor development effort, we are planning to build an LTD-based accelerator that is optimized for driving wire-array Z-pinch loads. The accelerator comprises six modules in parallel, each of which has eight series 0.8-MA LTD cavities in a voltage-adder configuration. Vacuum transmission lines are used from the interior of the adder to the central vacuum chamber where the load is placed. Thus the traditional stack-flashover problem is eliminated. The machine is 3.2 m tall and 12 m in outer diameter including supports. A prototype cavity was built and tested for more than 6000 shots intermittently at a repetition rate of 0.1 Hz. A novel trigger, in which only one input trigger pulse is needed by utilizing an internal trigger brick, was developed and successfully verified in these shots. A full circuit modeling was conducted for the accelerator. The simulation result shows that a current pulse rising to 5.2 MA in 91 ns (10%-90%) can be delivered to the wire-array load, which is 1.5 cm in height, 1.2 cm in initial radius, and 1 mg in mass. The maximum implosion velocity of the load is 32 cm=μs when compressed to 0.1 of the initial radius. The maximum kinetic energy is 78 kJ, which is 11.7% of the electric energy stored in the capacitors. This accelerator is supposed to enable a radiation energy efficiency of 20%-30%, providing a high efficient facility for research on the fast Z pinch and technologies for repetition-rate-operated accelerators.

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