Yousfi et al., 2011 - Google Patents
Non thermal plasma sources of production of active species for biomedical uses: analyses, optimization and prospectYousfi et al., 2011
View HTML- Document ID
- 749594226057400186
- Author
- Yousfi M
- Merbahi N
- Sarrette J
- Eichwald O
- Ricard A
- Gardou J
- Ducasse O
- Benhenni M
- Publication year
- Publication venue
- Biomedical engineering-frontiers and challenges
External Links
Snippet
Non thermal and low temperature plasmas in air or in another gas or gas mixtures at atmospheric pressure or at reduced pressure are very efficient sources of active species (radicals, excited species, charged particles, photons emission covering UV up to IR …
- 210000002381 Plasma 0 title abstract description 95
Similar Documents
Publication | Publication Date | Title |
---|---|---|
Yousfi et al. | Non thermal plasma sources of production of active species for biomedical uses: analyses, optimization and prospect | |
Chu et al. | Low temperature plasma technology: methods and applications | |
Abdelaziz et al. | Characterization of surface dielectric barrier discharge influenced by intermediate frequency for ozone production | |
Abdelaziz et al. | Quantitative analysis of ozone and nitrogen oxides produced by a low power miniaturized surface dielectric barrier discharge: effect of oxygen content and humidity level | |
Sousa et al. | Cold atmospheric pressure plasma jets as sources of singlet delta oxygen for biomedical applications | |
Lietz et al. | Air plasma treatment of liquid covered tissue: long timescale chemistry | |
Murakami et al. | Afterglow chemistry of atmospheric-pressure helium–oxygen plasmas with humid air impurity | |
Moss et al. | An investigation of CO2 splitting using nanosecond pulsed corona discharge: effect of argon addition on CO2 conversion and energy efficiency | |
Wagenaars et al. | Two-photon absorption laser-induced fluorescence measurements of atomic nitrogen in a radio-frequency atmospheric-pressure plasma jet | |
Lu et al. | The roles of the various plasma agents in the inactivation of bacteria | |
Machala et al. | Emission spectroscopy of atmospheric pressure plasmas for bio-medical and environmental applications | |
Bobkova et al. | Modeling chemical composition for an atmospheric pressure dc discharge in air with water cathode by 0-d model | |
Krčma et al. | Microwave micro torch generated in argon based mixtures for biomedical applications | |
Lu et al. | Grand challenges in low temperature plasmas | |
Sun et al. | Quantitative behavior of vibrational excitation in AC plasma assisted dry reforming of methane | |
Brandenburg et al. | Barrier discharges in science and technology since 2003: a tribute and update | |
Blajan et al. | Surface treatment of glass by microplasma | |
Ferreira et al. | Air–water microwave plasma torch as a NO source for biomedical applications | |
Silva et al. | Modeling the time evolution of the dissociation fraction in low-pressure CO2 plasmas | |
Kim et al. | Formation of NOx from air and N2/O2 mixtures using a nonthermal microwave plasma system | |
Cheng et al. | Synergistic CO2 plasma catalysis: CO production pathways and effects of vibrationally excited species | |
Ning et al. | Global model of plasma‐activated water over long time scale: pulsed discharge and afterglow | |
Ding et al. | Reaction pathways for bio-active species in a He/H2O atmospheric pressure capacitive discharge | |
Malik et al. | Coupled sliding discharges: a scalable nonthermal plasma system utilizing positive and negative streamers on opposite sides of a dielectric layer | |
Zhang et al. | Kinetic model of grating-like DBD fed with flowing humid air |