<?xml version="1.0"?>
<rdf:RDF xmlns:foaf="http://xmlns.com/foaf/0.1/" xmlns:owl="http://www.w3.org/2002/07/owl#" xmlns:rdfs="http://www.w3.org/2000/01/rdf-schema#" xmlns:rdf="http://www.w3.org/1999/02/22-rdf-syntax-ns#" xmlns:dcat="http://www.w3.org/ns/dcat#" xmlns:dct="http://purl.org/dc/terms/" xmlns:adms="http://www.w3.org/ns/adms#" xmlns:dc="http://purl.org/dc/elements/1.1/" xmlns:time="http://www.w3.org/2006/time#" xmlns:dcterms="http://purl.org/dc/terms/" xmlns:vcard="http://www.w3.org/2006/vcard/ns#"><dcat:Dataset rdf:about="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-humidified"><dct:title>Ar metastable densities (&#xB3;P&#x2082;) in the effluent of a filamentary atmospheric pressure plasma jet with humidified feed gas - dataset</dct:title><dct:description><![CDATA[<p>The Ar(³P₂) metastable density in the effluent of the cold atmospheric pressure plasma jet kINPen-sci was investigated as a function of the feed gas humidity, the gas curtain composition, and the distance from the nozzle by means of laser atomic absorption spectroscopy. The data set comprises the axial distributions of the Ar metastables as a function of these parameters.</p>
]]></dct:description><dcat:theme>Plasma Chemical Processes</dcat:theme><dct:identifier>a2cababb-9e9f-4767-9234-6de87886adc3</dct:identifier><dct:issued>2021-01-27T09:07:04+01:00</dct:issued><dct:modified>2021-09-22T10:56:04+02:00</dct:modified><dct:language>en</dct:language><dct:publisher>INP</dct:publisher><dcat:distribution rdf:resource="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-1"/><dcat:distribution rdf:resource="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-2"/><dcat:distribution rdf:resource="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-0"/><dcat:distribution rdf:resource="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-3"/><dcat:distribution rdf:resource="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-4"/><dcat:distribution rdf:resource="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-5"/><dcat:distribution rdf:resource="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-6"/><dcat:distribution rdf:resource="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-7"/><dcat:distribution rdf:resource="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-8"/><dcat:distribution rdf:resource="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-9"/><dcat:distribution rdf:resource="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-10"/><dcat:distribution rdf:resource="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-11"/><dcat:distribution rdf:resource="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-12"/><dcat:distribution rdf:resource="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-13"/><dcat:distribution rdf:resource="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-14"/><dcat:distribution rdf:resource="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-15"/><dcat:distribution rdf:resource="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-16"/><dcat:distribution rdf:resource="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-18"/><dcat:distribution rdf:resource="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-19"/><dcat:distribution rdf:resource="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-20"/><dcat:distribution rdf:resource="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-17"/><dcat:distribution rdf:resource="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-21"/><dcat:distribution rdf:resource="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-22"/><dcat:distribution rdf:resource="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-23"/><dcat:distribution rdf:resource="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-24"/><dcat:distribution rdf:resource="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-25"/></dcat:Dataset><dcat:Distribution rdf:about="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-1"><dct:title>Ar metastable densities in the effluent of a filamentary APPJ - Fig. 2a</dct:title><dct:description><![CDATA[<p>Fourier transform of the unfiltered detector signal. The laser beam was focused 0.1 mm below the nozzle. A feed gas of 3 slm. Ar with 70 ppm humidity was used, while a gas curtain of 5 slm O₂ was applied. – see Fig 2 in the publication.</p>
]]></dct:description><dct:issued>2021-05-31T12:11:36+02:00</dct:issued><dct:modified>2021-09-22T10:56:04+02:00</dct:modified><dcat:accessURL rdf:resource=""/><dcat:downloadURL rdf:resource="https://inptdat.de/system/files/node335_Fig2a.csv"/><dcat:mediaType>text/csv</dcat:mediaType><dct:format>csv</dct:format><dcat:byteSize>13387961</dcat:byteSize><foaf:page>https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-1</foaf:page></dcat:Distribution><dcat:Distribution rdf:about="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-2"><dct:title>Ar metastable densities in the effluent of a filamentary APPJ - Fig. 2b</dct:title><dct:description><![CDATA[<p>Fourier transform of the  filtered detector signal. The laser beam was focused 0.1 mm below the nozzle. A feed gas of 3 slm. Ar with 70 ppm humidity was used, while a gas curtain of 5 slm O₂ was applied. – see Fig 2 in the publication.</p>
]]></dct:description><dct:issued>2021-06-01T08:56:04+02:00</dct:issued><dct:modified>2021-09-22T10:56:04+02:00</dct:modified><dcat:accessURL rdf:resource=""/><dcat:downloadURL rdf:resource="https://inptdat.de/system/files/node335_Fig2b.csv"/><dcat:mediaType>text/csv</dcat:mediaType><dct:format>csv</dct:format><dcat:byteSize>27571590</dcat:byteSize><foaf:page>https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-2</foaf:page></dcat:Distribution><dcat:Distribution rdf:about="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-0"><dct:title>Ar metastable densities in the effluent of a filamentary APPJ - Fig. 4</dct:title><dct:description><![CDATA[<p>Example of the time evolution of the Ar* density at z = 0.1 mm, 70 ppm water in 3 slm Ar feed gas, and a gas curtain of 5 slm O₂, together with a fit of the exponential decay. – see Fig 4 in the publication.</p>
]]></dct:description><dct:issued>2021-06-01T09:02:14+02:00</dct:issued><dct:modified>2021-09-22T10:56:04+02:00</dct:modified><dcat:accessURL rdf:resource=""/><dcat:downloadURL rdf:resource="https://inptdat.de/system/files/node335_Fig4.csv"/><dcat:mediaType>text/csv</dcat:mediaType><dct:format>csv</dct:format><dcat:byteSize>83871</dcat:byteSize><foaf:page>https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-0</foaf:page></dcat:Distribution><dcat:Distribution rdf:about="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-3"><dct:title>Ar metastable densities in the effluent of a filamentary APPJ - Fig. 4_exponential decay (fit)</dct:title><dct:description><![CDATA[<p>Example of the time evolution of the Ar* density at z = 0.1 mm, 70 ppm water in 3 slm Ar feed gas, and a gas curtain of 5 slm O₂, together with a fit of the exponential decay. – see Fig 4 in the publication.</p>
]]></dct:description><dct:issued>2021-06-01T09:04:03+02:00</dct:issued><dct:modified>2021-09-22T10:56:04+02:00</dct:modified><dcat:accessURL rdf:resource=""/><dcat:downloadURL rdf:resource="https://inptdat.de/system/files/node335_Fig4_fit.csv"/><dcat:mediaType>text/csv</dcat:mediaType><dct:format>csv</dct:format><dcat:byteSize>17912</dcat:byteSize><foaf:page>https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-3</foaf:page></dcat:Distribution><dcat:Distribution rdf:about="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-4"><dct:title>Ar metastable densities in the effluent of a filamentary APPJ - Fig. 5a and 6a</dct:title><dct:description><![CDATA[<p>Absorbance as a function of time for 70 ppm humidity in the feed gas, while a gas curtain of 5 slm O₂ was applied. The distance to the nozzle was set to z = 0.1 mm. The highest absorption peaks are also shown as well as the mean absorbance. – see Fig 5 in the publication.</p>
]]></dct:description><dct:issued>2021-06-01T09:11:01+02:00</dct:issued><dct:modified>2021-09-22T10:56:04+02:00</dct:modified><dcat:accessURL rdf:resource=""/><dcat:downloadURL rdf:resource="https://inptdat.de/system/files/node335_Fig5a_Fig6a.csv"/><dcat:mediaType>text/csv</dcat:mediaType><dct:format>csv</dct:format><dcat:byteSize>28307506</dcat:byteSize><foaf:page>https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-4</foaf:page></dcat:Distribution><dcat:Distribution rdf:about="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-5"><dct:title>Ar metastable densities in the effluent of a filamentary APPJ - Fig. 5b and 6b</dct:title><dct:description><![CDATA[<p>Absorbance as a function of time for 879 ppm humidity in the feed gas, while a gas curtain of 5 slm O₂ was applied. The distance to the nozzle was set to z = 0.1 mm. The highest absorption peaks are also shown as well as the mean absorbance. – see Fig 5 in the publication.</p>
]]></dct:description><dct:issued>2021-06-01T09:11:48+02:00</dct:issued><dct:modified>2021-09-22T10:56:04+02:00</dct:modified><dcat:accessURL rdf:resource=""/><dcat:downloadURL rdf:resource="https://inptdat.de/system/files/node335_Fig5b_Fig6b.csv"/><dcat:mediaType>text/csv</dcat:mediaType><dct:format>csv</dct:format><dcat:byteSize>28307506</dcat:byteSize><foaf:page>https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-5</foaf:page></dcat:Distribution><dcat:Distribution rdf:about="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-6"><dct:title>Ar metastable densities in the effluent of a filamentary APPJ - Fig. 7a</dct:title><dct:description><![CDATA[<p>Ar* density as a function of time, the detected peaks, and the mean of the (20) highest peaks are shown together with a voltage signal with an arbitrary amplitude and phase, and a frequency equal to the operating frequency of the plasma jet. The humidity of the feed gas, the curtain gas composition, and the distance to the nozzle z were varied: humidity: 70 ppm, gas curtain: 5 slm O₂, z = 0.1 mm – see Fig 7 in the publication.</p>
]]></dct:description><dct:issued>2021-06-01T09:13:21+02:00</dct:issued><dct:modified>2021-09-22T10:56:04+02:00</dct:modified><dcat:accessURL rdf:resource=""/><dcat:downloadURL rdf:resource="https://inptdat.de/system/files/node335_Fig7a.csv"/><dcat:mediaType>text/csv</dcat:mediaType><dct:format>csv</dct:format><dcat:byteSize>268316</dcat:byteSize><foaf:page>https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-6</foaf:page></dcat:Distribution><dcat:Distribution rdf:about="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-7"><dct:title>Ar metastable densities in the effluent of a filamentary APPJ - Fig. 7b</dct:title><dct:description><![CDATA[<p>Ar* density as a function of time, the detected peaks, and the mean of the (20) highest peaks are shown together with a voltage signal with an arbitrary amplitude and phase, and a frequency equal to the operating frequency of the plasma jet. The humidity of the feed gas, the curtain gas composition, and the distance to the nozzle z were varied: humidity: 879 ppm water, gas curtain: 5 slm O₂, z = 0.1 mm – see Fig 7 in the publication.</p>
]]></dct:description><dct:issued>2021-06-01T09:14:59+02:00</dct:issued><dct:modified>2021-09-22T10:56:04+02:00</dct:modified><dcat:accessURL rdf:resource=""/><dcat:downloadURL rdf:resource="https://inptdat.de/system/files/node335_Fig7b.csv"/><dcat:mediaType>text/csv</dcat:mediaType><dct:format>csv</dct:format><dcat:byteSize>269520</dcat:byteSize><foaf:page>https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-7</foaf:page></dcat:Distribution><dcat:Distribution rdf:about="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-8"><dct:title>Ar metastable densities in the effluent of a filamentary APPJ - Fig. 7c</dct:title><dct:description><![CDATA[<p>Ar* density as a function of time, the detected peaks, and the mean of the (20) highest peaks are shown together with a voltage signal with an arbitrary amplitude and phase, and a frequency equal to the operating frequency of the plasma jet. The humidity of the feed gas, the curtain gas composition, and the distance to the nozzle z were varied:  humidity: 70 ppm, gas curtain: 5 slm O₂, z = 4.0 mm. - see Fig 7 in the publication.</p>
]]></dct:description><dct:issued>2021-06-01T09:19:30+02:00</dct:issued><dct:modified>2021-09-22T10:56:04+02:00</dct:modified><dcat:accessURL rdf:resource=""/><dcat:downloadURL rdf:resource="https://inptdat.de/system/files/node335_Fig7c.csv"/><dcat:mediaType>text/csv</dcat:mediaType><dct:format>csv</dct:format><dcat:byteSize>268290</dcat:byteSize><foaf:page>https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-8</foaf:page></dcat:Distribution><dcat:Distribution rdf:about="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-9"><dct:title>Ar metastable densities in the effluent of a filamentary APPJ - Fig. 7d</dct:title><dct:description><![CDATA[<p>Ar* density as a function of time, the detected peaks, and the mean of the (20) highest peaks are shown together with a voltage signal with an arbitrary amplitude and phase, and a frequency equal to the operating frequency of the plasma jet. The humidity of the feed gas, the curtain gas composition, and the distance to the nozzle z were varied: humidity: 75 ppm, gas curtain: 5 slm N₂, z = 0.1 mm. – see Fig 7 in the publication.</p>
]]></dct:description><dct:issued>2021-06-01T09:21:36+02:00</dct:issued><dct:modified>2021-09-22T10:56:04+02:00</dct:modified><dcat:accessURL rdf:resource=""/><dcat:downloadURL rdf:resource="https://inptdat.de/system/files/node335_Fig7d.csv"/><dcat:mediaType>text/csv</dcat:mediaType><dct:format>csv</dct:format><dcat:byteSize>263297</dcat:byteSize><foaf:page>https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-9</foaf:page></dcat:Distribution><dcat:Distribution rdf:about="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-10"><dct:title>Ar metastable densities in the effluent of a filamentary APPJ - Fig. 8a</dct:title><dct:description><![CDATA[<p>Ratio of the Fourier amplitudes of the first harmonic and the fundamental excitation frequency as a function of the feed gas humidity for the gas curtain compositions: 5 slm O₂  and various distances from the nozzle z. – see Fig 8 in the publication.</p>
]]></dct:description><dct:issued>2021-06-01T09:27:43+02:00</dct:issued><dct:modified>2021-09-22T10:56:04+02:00</dct:modified><dcat:accessURL rdf:resource=""/><dcat:downloadURL rdf:resource="https://inptdat.de/system/files/node335_Fig8a_0.csv"/><dcat:mediaType>text/csv</dcat:mediaType><dct:format>csv</dct:format><dcat:byteSize>601</dcat:byteSize><foaf:page>https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-10</foaf:page></dcat:Distribution><dcat:Distribution rdf:about="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-11"><dct:title>Ar metastable densities in the effluent of a filamentary APPJ - Fig. 8b</dct:title><dct:description><![CDATA[<p>Ratio of the Fourier amplitudes of the first harmonic and the fundamental excitation frequency as a function of the feed gas humidity for the gas curtain compositions:  5 slm N₂ and various distances from the nozzle z. – see Fig 8 in the publication.</p>
]]></dct:description><dct:issued>2021-06-01T09:34:59+02:00</dct:issued><dct:modified>2021-09-22T10:56:04+02:00</dct:modified><dcat:accessURL rdf:resource=""/><dcat:downloadURL rdf:resource="https://inptdat.de/system/files/node335_Fig8b_0.csv"/><dcat:mediaType>text/csv</dcat:mediaType><dct:format>csv</dct:format><dcat:byteSize>374</dcat:byteSize><foaf:page>https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-11</foaf:page></dcat:Distribution><dcat:Distribution rdf:about="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-12"><dct:title>Ar metastable densities in the effluent of a filamentary APPJ - Fig. 8c</dct:title><dct:description><![CDATA[<p>Ratio of the Fourier amplitudes of the first harmonic and the fundamental excitation frequency as a function of the feed gas humidity for the gas curtain composition: 1 slm O₂  and various distances from the nozzle z. – see Fig 8 in the publication.</p>
]]></dct:description><dct:issued>2021-06-01T09:36:25+02:00</dct:issued><dct:modified>2021-09-22T10:56:04+02:00</dct:modified><dcat:accessURL rdf:resource=""/><dcat:downloadURL rdf:resource="https://inptdat.de/system/files/node335_Fig8c_0.csv"/><dcat:mediaType>text/csv</dcat:mediaType><dct:format>csv</dct:format><dcat:byteSize>445</dcat:byteSize><foaf:page>https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-12</foaf:page></dcat:Distribution><dcat:Distribution rdf:about="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-13"><dct:title>Ar metastable densities in the effluent of a filamentary APPJ - Fig. 9a</dct:title><dct:description><![CDATA[<p>Mean of the effective lifetimes of the (20) highest Ar* absorption peaks at z = 0.1 mm, z = 2.0 mm, and z = 4.0 mm as a function of the feed gas humidity for the gas curtain composition 5 slm O₂ and various distances from the nozzle z. – see Fig 9 in the publication.</p>
]]></dct:description><dct:issued>2021-06-01T09:43:10+02:00</dct:issued><dct:modified>2021-09-22T10:56:04+02:00</dct:modified><dcat:accessURL rdf:resource=""/><dcat:downloadURL rdf:resource="https://inptdat.de/system/files/node335_Fig9a_0.csv"/><dcat:mediaType>text/csv</dcat:mediaType><dct:format>csv</dct:format><dcat:byteSize>664</dcat:byteSize><foaf:page>https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-13</foaf:page></dcat:Distribution><dcat:Distribution rdf:about="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-14"><dct:title>Ar metastable densities in the effluent of a filamentary APPJ - Fig. 9b</dct:title><dct:description><![CDATA[<p>Mean of the effective lifetimes of the (20) highest Ar* absorption peaks at z = 0.1 mm, z = 2.0 mm, and z = 4.0 mm as a function of the feed gas humidity for the gas curtain composition 5 slm N₂ and various distances from the nozzle z. – see Fig 9 in the publication.</p>
]]></dct:description><dct:issued>2021-06-01T09:46:28+02:00</dct:issued><dct:modified>2021-09-22T10:56:04+02:00</dct:modified><dcat:accessURL rdf:resource=""/><dcat:downloadURL rdf:resource="https://inptdat.de/system/files/node335_Fig9b_0.csv"/><dcat:mediaType>text/csv</dcat:mediaType><dct:format>csv</dct:format><dcat:byteSize>446</dcat:byteSize><foaf:page>https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-14</foaf:page></dcat:Distribution><dcat:Distribution rdf:about="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-15"><dct:title>Ar metastable densities in the effluent of a filamentary APPJ - Fig. 9c</dct:title><dct:description><![CDATA[<p>Mean of the effective lifetimes of the (20) highest Ar* absorption peaks at z = 0.1 mm, z = 2.0 mm, and z = 4.0 mm as a function of the feed gas humidity for the gas curtain composition 4 slm N₂ and 1 slm O₂  and various distances from the nozzle z. – see Fig 9 in the publication.</p>
]]></dct:description><dct:issued>2021-06-01T09:55:03+02:00</dct:issued><dct:modified>2021-09-22T10:56:04+02:00</dct:modified><dcat:accessURL rdf:resource=""/><dcat:downloadURL rdf:resource="https://inptdat.de/system/files/node335_Fig9c_0.csv"/><dcat:mediaType>text/csv</dcat:mediaType><dct:format>csv</dct:format><dcat:byteSize>535</dcat:byteSize><foaf:page>https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-15</foaf:page></dcat:Distribution><dcat:Distribution rdf:about="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-16"><dct:title>Ar metastable densities in the effluent of a filamentary APPJ - Fig. 10_4slmN&#x2082;1slmO&#x2082;</dct:title><dct:description><![CDATA[<p>Decay rates of the Ar* densities, obtained from the mean half time of the (20) highest peaks, as a function of the humidity content in the feed gas at z = 0.1 mm, z = 1.0 mm, z = 2.0 mm, z = 3.0 mm, and z = 4.0 mm, while the gas curtain was varied from 5 slm O₂ to 1 slm O₂ and 4 slm N₂, and to 5 slm N₂ (Fig10). Together with the decay rates, a linear fit of the data is given (Fig10_fit). – see Fig 10 in the publication.</p>
]]></dct:description><dct:issued>2021-06-01T09:57:19+02:00</dct:issued><dct:modified>2021-09-22T10:56:04+02:00</dct:modified><dcat:accessURL rdf:resource=""/><dcat:downloadURL rdf:resource="https://inptdat.de/system/files/node335_Fig10_4slmN21slmO2_0.csv"/><dcat:mediaType>text/csv</dcat:mediaType><dct:format>csv</dct:format><dcat:byteSize>1170</dcat:byteSize><foaf:page>https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-16</foaf:page></dcat:Distribution><dcat:Distribution rdf:about="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-18"><dct:title>Ar metastable densities in the effluent of a filamentary APPJ - Fig. 10_5slmN&#x2082;</dct:title><dct:description><![CDATA[<p>Decay rates of the Ar* densities, obtained from the mean half time of the (20) highest peaks, as a function of the humidity content in the feed gas at z = 0.1 mm, z = 1.0 mm, z = 2.0 mm, z = 3.0 mm, and z = 4.0 mm, while the gas curtain was varied from 5 slm O₂ to 1 slm O₂ and 4 slm N₂, and to 5 slm N₂ (Fig10). Together with the decay rates, a linear fit of the data is given (Fig10_fit). – see Fig 10 in the publication.</p>
]]></dct:description><dct:issued>2021-06-01T10:02:06+02:00</dct:issued><dct:modified>2021-09-22T10:56:04+02:00</dct:modified><dcat:accessURL rdf:resource=""/><dcat:downloadURL rdf:resource="https://inptdat.de/system/files/node335_Fig10_5slmN2_0.csv"/><dcat:mediaType>text/csv</dcat:mediaType><dct:format>csv</dct:format><dcat:byteSize>942</dcat:byteSize><foaf:page>https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-18</foaf:page></dcat:Distribution><dcat:Distribution rdf:about="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-19"><dct:title>Ar metastable densities in the effluent of a filamentary APPJ - Fig. 10_5slmO&#x2082;</dct:title><dct:description><![CDATA[<p>Decay rates of the Ar* densities, obtained from the mean half time of the (20) highest peaks, as a function of the humidity content in the feed gas at z = 0.1 mm, z = 1.0 mm, z = 2.0 mm, z = 3.0 mm, and z = 4.0 mm, while the gas curtain was varied from 5 slm O₂ to 1 slm O₂ and 4 slm N₂, and to 5 slm N₂ (Fig10). Together with the decay rates, a linear fit of the data is given (Fig10_fit). – see Fig 10 in the publication.</p>
]]></dct:description><dct:issued>2021-06-01T10:02:56+02:00</dct:issued><dct:modified>2021-09-22T10:56:04+02:00</dct:modified><dcat:accessURL rdf:resource=""/><dcat:downloadURL rdf:resource="https://inptdat.de/system/files/node335_Fig10_5slmO2_0.csv"/><dcat:mediaType>text/csv</dcat:mediaType><dct:format>csv</dct:format><dcat:byteSize>1452</dcat:byteSize><foaf:page>https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-19</foaf:page></dcat:Distribution><dcat:Distribution rdf:about="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-20"><dct:title>Ar metastable densities in the effluent of a filamentary APPJ - Fig. 10_decay rate (fit)</dct:title><dct:description><![CDATA[<p>Decay rates of the Ar* densities, obtained from the mean half time of the (20) highest peaks, as a function of the humidity content in the feed gas at z = 0.1 mm, z = 1.0 mm, z = 2.0 mm, z = 3.0 mm, and z = 4.0 mm, while the gas curtain was varied from 5 slm O₂ to 1 slm O₂ and 4 slm N₂, and to 5 slm N₂ (Fig10). Together with the decay rates, a linear fit of the data is given (Fig10_fit). – see Fig 10 in the publication.</p>
]]></dct:description><dct:issued>2021-06-01T10:03:42+02:00</dct:issued><dct:modified>2021-09-22T10:56:04+02:00</dct:modified><dcat:accessURL rdf:resource=""/><dcat:downloadURL rdf:resource="https://inptdat.de/system/files/node335_Fig10_fit.csv"/><dcat:mediaType>text/csv</dcat:mediaType><dct:format>csv</dct:format><dcat:byteSize>22651</dcat:byteSize><foaf:page>https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-20</foaf:page></dcat:Distribution><dcat:Distribution rdf:about="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-17"><dct:title>Ar metastable densities in the effluent of a filamentary APPJ - Fig. 11</dct:title><dct:description><![CDATA[<p>Ar* density at z = 0.1 mm as a function of the humidity content in the feed gas (Fig11) together with a fit for three different gas curtain compositions (Fig11_fit). – see Fig 11 in the publication.</p>
]]></dct:description><dct:issued>2021-06-01T11:42:57+02:00</dct:issued><dct:modified>2021-09-22T10:56:04+02:00</dct:modified><dcat:accessURL rdf:resource=""/><dcat:downloadURL rdf:resource="https://inptdat.de/system/files/node335_Fig11.csv"/><dcat:mediaType>text/csv</dcat:mediaType><dct:format>csv</dct:format><dcat:byteSize>809</dcat:byteSize><foaf:page>https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-17</foaf:page></dcat:Distribution><dcat:Distribution rdf:about="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-21"><dct:title>Ar metastable densities in the effluent of a filamentary APPJ - Fig. 11_gas curtain compositions (fit)</dct:title><dct:description><![CDATA[<p>Ar* density at z = 0.1 mm as a function of the humidity content in the feed gas (Fig11) together with a fit for three different gas curtain compositions (Fig11_fit). – see Fig 11 in the publication.</p>
]]></dct:description><dct:issued>2021-06-01T11:43:49+02:00</dct:issued><dct:modified>2021-09-22T10:56:04+02:00</dct:modified><dcat:accessURL rdf:resource=""/><dcat:downloadURL rdf:resource="https://inptdat.de/system/files/node335_Fig11_fit.csv"/><dcat:mediaType>text/csv</dcat:mediaType><dct:format>csv</dct:format><dcat:byteSize>21670</dcat:byteSize><foaf:page>https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-21</foaf:page></dcat:Distribution><dcat:Distribution rdf:about="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-22"><dct:title>Ar metastable densities in the effluent of a filamentary APPJ - Fig. 12a</dct:title><dct:description><![CDATA[<p>Axial Ar* densities for various humidity contents in the feed gas and the gas curtain composition: 5 slm O₂ and various distances from the nozzle z. – see Fig 12 in the publication.</p>
]]></dct:description><dct:issued>2021-06-01T11:46:49+02:00</dct:issued><dct:modified>2021-09-22T10:56:04+02:00</dct:modified><dcat:accessURL rdf:resource=""/><dcat:downloadURL rdf:resource="https://inptdat.de/system/files/node335_Fig12a.csv"/><dcat:mediaType>text/csv</dcat:mediaType><dct:format>csv</dct:format><dcat:byteSize>1382</dcat:byteSize><foaf:page>https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-22</foaf:page></dcat:Distribution><dcat:Distribution rdf:about="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-23"><dct:title>Ar metastable densities in the effluent of a filamentary APPJ - Fig. 12b</dct:title><dct:description><![CDATA[<p>Axial Ar* densities for various humidity contents in the feed gas and the gas curtain composition: 5 slm N₂ and various distances from the nozzle z. – see Fig 12 in the publication.</p>
]]></dct:description><dct:issued>2021-06-01T11:48:59+02:00</dct:issued><dct:modified>2021-09-22T10:56:04+02:00</dct:modified><dcat:accessURL rdf:resource=""/><dcat:downloadURL rdf:resource="https://inptdat.de/system/files/node335_Fig12b.csv"/><dcat:mediaType>text/csv</dcat:mediaType><dct:format>csv</dct:format><dcat:byteSize>809</dcat:byteSize><foaf:page>https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-23</foaf:page></dcat:Distribution><dcat:Distribution rdf:about="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-24"><dct:title>Ar metastable densities in the effluent of a filamentary APPJ - Fig. 12c</dct:title><dct:description><![CDATA[<p>Axial Ar* densities for various humidity contents in the feed gas and the gas curtain composition: 4 slm N₂, 1 slm O₂ and various distances from the nozzle z. – see Fig 12 in the publication.</p>
]]></dct:description><dct:issued>2021-06-01T11:51:09+02:00</dct:issued><dct:modified>2021-09-22T10:56:04+02:00</dct:modified><dcat:accessURL rdf:resource=""/><dcat:downloadURL rdf:resource="https://inptdat.de/system/files/node335_Fig12c.csv"/><dcat:mediaType>text/csv</dcat:mediaType><dct:format>csv</dct:format><dcat:byteSize>879</dcat:byteSize><foaf:page>https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-24</foaf:page></dcat:Distribution><dcat:Distribution rdf:about="https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-25"><dct:title>Ar metastable densities in the effluent of a filamentary APPJ - Fig. 13</dct:title><dct:description><![CDATA[<p>Upper limit of the OH and H density produced in the effluent and obtained from the dissociation of water by Ar*. – see Fig 13 in the publication.</p>
]]></dct:description><dct:issued>2021-06-01T11:52:17+02:00</dct:issued><dct:modified>2021-09-22T10:56:04+02:00</dct:modified><dcat:accessURL rdf:resource=""/><dcat:downloadURL rdf:resource="https://inptdat.de/system/files/node335_Fig13.csv"/><dcat:mediaType>text/csv</dcat:mediaType><dct:format>csv</dct:format><dcat:byteSize>772</dcat:byteSize><foaf:page>https://inptdat.de/dataset/ar-metastable-densities-%C2%B3p%E2%82%82-effluent-filamentary-atmospheric-pressure-plasma-jet-25</foaf:page></dcat:Distribution><foaf:Agent rdf:about="https://inptdat.de/publisher/n0"><foaf:name>DKAN</foaf:name><foaf:homepage>https://inptdat.de</foaf:homepage><dct:type rdf:resource="http://purl.org/adms/publishertype/NonProfitOrganisation"/></foaf:Agent></rdf:RDF>
