Mass transfer and flow rate measurements for a system of two rotating disc electrodes with an axial electrolyte inlet
ISSN: |
1572-8838
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Source: |
Springer Online Journal Archives 1860-2000
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Topics: |
Chemistry and Pharmacology
Electrical Engineering, Measurement and Control Technology
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Notes: |
Abstract Limiting currents and volume flow rates in the self pumping regime were measured on a model rotating electrolyzer with a variable geometry. The volume flow rate depends not only on the radius of the inlet orifice, outer disc radius, and angular velocity, but also on the interelectrode distance. Experimental mean current densities are compared with those calculated by the finite-element method, from an equation based on the theory of similarity of the diffusion layer, and from the theory of the rotating disc electrode with a ring.
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Type of Medium: |
Electronic Resource
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URL: |
_version_ | 1798296401527963649 |
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autor | Šimek, M. Roušar, I. |
autorsonst | Šimek, M. Roušar, I. |
book_url | http://dx.doi.org/10.1007/BF01024845 |
datenlieferant | nat_lic_papers |
hauptsatz | hsatz_simple |
identnr | NLM193300524 |
issn | 1572-8838 |
journal_name | Journal of applied electrochemistry |
materialart | 1 |
notes | Abstract Limiting currents and volume flow rates in the self pumping regime were measured on a model rotating electrolyzer with a variable geometry. The volume flow rate depends not only on the radius of the inlet orifice, outer disc radius, and angular velocity, but also on the interelectrode distance. Experimental mean current densities are compared with those calculated by the finite-element method, from an equation based on the theory of similarity of the diffusion layer, and from the theory of the rotating disc electrode with a ring. |
package_name | Springer |
publikationsjahr_anzeige | 1991 |
publikationsjahr_facette | 1991 |
publikationsjahr_intervall | 8009:1990-1994 |
publikationsjahr_sort | 1991 |
publisher | Springer |
reference | 21 (1991), S. 583-587 |
search_space | articles |
shingle_author_1 | Šimek, M. Roušar, I. |
shingle_author_2 | Šimek, M. Roušar, I. |
shingle_author_3 | Šimek, M. Roušar, I. |
shingle_author_4 | Šimek, M. Roušar, I. |
shingle_catch_all_1 | Šimek, M. Roušar, I. Mass transfer and flow rate measurements for a system of two rotating disc electrodes with an axial electrolyte inlet Abstract Limiting currents and volume flow rates in the self pumping regime were measured on a model rotating electrolyzer with a variable geometry. The volume flow rate depends not only on the radius of the inlet orifice, outer disc radius, and angular velocity, but also on the interelectrode distance. Experimental mean current densities are compared with those calculated by the finite-element method, from an equation based on the theory of similarity of the diffusion layer, and from the theory of the rotating disc electrode with a ring. 1572-8838 15728838 Springer |
shingle_catch_all_2 | Šimek, M. Roušar, I. Mass transfer and flow rate measurements for a system of two rotating disc electrodes with an axial electrolyte inlet Abstract Limiting currents and volume flow rates in the self pumping regime were measured on a model rotating electrolyzer with a variable geometry. The volume flow rate depends not only on the radius of the inlet orifice, outer disc radius, and angular velocity, but also on the interelectrode distance. Experimental mean current densities are compared with those calculated by the finite-element method, from an equation based on the theory of similarity of the diffusion layer, and from the theory of the rotating disc electrode with a ring. 1572-8838 15728838 Springer |
shingle_catch_all_3 | Šimek, M. Roušar, I. Mass transfer and flow rate measurements for a system of two rotating disc electrodes with an axial electrolyte inlet Abstract Limiting currents and volume flow rates in the self pumping regime were measured on a model rotating electrolyzer with a variable geometry. The volume flow rate depends not only on the radius of the inlet orifice, outer disc radius, and angular velocity, but also on the interelectrode distance. Experimental mean current densities are compared with those calculated by the finite-element method, from an equation based on the theory of similarity of the diffusion layer, and from the theory of the rotating disc electrode with a ring. 1572-8838 15728838 Springer |
shingle_catch_all_4 | Šimek, M. Roušar, I. Mass transfer and flow rate measurements for a system of two rotating disc electrodes with an axial electrolyte inlet Abstract Limiting currents and volume flow rates in the self pumping regime were measured on a model rotating electrolyzer with a variable geometry. The volume flow rate depends not only on the radius of the inlet orifice, outer disc radius, and angular velocity, but also on the interelectrode distance. Experimental mean current densities are compared with those calculated by the finite-element method, from an equation based on the theory of similarity of the diffusion layer, and from the theory of the rotating disc electrode with a ring. 1572-8838 15728838 Springer |
shingle_title_1 | Mass transfer and flow rate measurements for a system of two rotating disc electrodes with an axial electrolyte inlet |
shingle_title_2 | Mass transfer and flow rate measurements for a system of two rotating disc electrodes with an axial electrolyte inlet |
shingle_title_3 | Mass transfer and flow rate measurements for a system of two rotating disc electrodes with an axial electrolyte inlet |
shingle_title_4 | Mass transfer and flow rate measurements for a system of two rotating disc electrodes with an axial electrolyte inlet |
sigel_instance_filter | dkfz geomar wilbert ipn albert fhp |
source_archive | Springer Online Journal Archives 1860-2000 |
timestamp | 2024-05-06T09:51:30.196Z |
titel | Mass transfer and flow rate measurements for a system of two rotating disc electrodes with an axial electrolyte inlet |
titel_suche | Mass transfer and flow rate measurements for a system of two rotating disc electrodes with an axial electrolyte inlet |
topic | V ZN |
uid | nat_lic_papers_NLM193300524 |