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Developmet the Complex Technology for Highly Concentrated Acid Solutions of Electroplating Industry Cover

Developmet the Complex Technology for Highly Concentrated Acid Solutions of Electroplating Industry

Open Access
|Jan 2025

Figures & Tables

Figure 1.

Dependence the initial iron ions concentration on the initial solution composition, which is passed through Dowex HCR S/S cationite in H+ form
Dependence the initial iron ions concentration on the initial solution composition, which is passed through Dowex HCR S/S cationite in H+ form

Figure 2.

Dependence the initial iron ions concentration on the initial solution composition, which is passed through Dowex HCR S/S cationite in H+ form
Dependence the initial iron ions concentration on the initial solution composition, which is passed through Dowex HCR S/S cationite in H+ form

Figure 3.

Dependence the initial copper ions concentration on the initial solution composition, which is passed through Dowex HCR S/S cationite in H+ form
Dependence the initial copper ions concentration on the initial solution composition, which is passed through Dowex HCR S/S cationite in H+ form

Figure 4.

Dependence the initial iron and copper concentration ions on the initial solution composition, which is passed through Dowex HCR S/S cationite in H+ form
Dependence the initial iron and copper concentration ions on the initial solution composition, which is passed through Dowex HCR S/S cationite in H+ form

Figure 5.

Basic technological scheme for ecologically safe galvanic waste processing
Basic technological scheme for ecologically safe galvanic waste processing

Dependence the ionite regeneration degree on the regeneration and initial compositions solutions, and the regeneration solution specific consumption (qs)

Regeneration solution compositionq*s, sm3/sm3Composition for sorptionZ, %Composition after regeneration
C(Cu2+), mg/dm3C(Fe2+), mg/dm3C(H2SO4), mg/dm3C(Fe2+), mg/dm3C(FeSO4), mg/dm3C(Cu2+), mg/dm3C(CuSO4), mg/dm3
5% H2SO45-1 000099,07 77228 690
5% H2SO45-1 00050095,514 61056 200
5% H2SO45-10001 20098,014 68054 540
5% H2SO45-1 0002 450100,014 75054 800
5% H2SO45-10003 500100,05 56020 800
10% H2SO45-5000500100,08 96033 200
10% H2SO45-5 0001 300100,020 48076 000
10% H2SO45-5 0003 000100,014 70054 600
10% H2SO45-5 0008 100100,014 42053 500
10% H2SO45-5 00013 000100,016 24060 200
5% H2SO45800--98,7 15 48053 900
10% H2SO451 000-1 200100,0 21 12073 590
10% H2SO452 0002 000300100,08 40031 2009 60033 600
5% H2SO45500500100100,05 96022 1506 81023 850
10% H2SO451 0005 000300100,012 15045 1302 7509 630
10% H2SO455005 000300100,016 80062 4001 9206 720
10% H2SO458005 0001500100,04 50016 7408002 800
DOI: https://doi.org/10.2478/acee-2024-0008 | Journal eISSN: 2720-6947 | Journal ISSN: 1899-0142
Language: English
Page range: 83 - 90
Submitted on: Oct 31, 2023
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Accepted on: Feb 1, 2024
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Published on: Jan 9, 2025
In partnership with: Paradigm Publishing Services
Publication frequency: 4 issues per year

© 2025 Olena IVANENKO, Sergii DOVHOLAP, Yuliia NOSACHOVA, Sergii PLASHYKHIN, Nonna PAVLIUK, Denys SKLADANNYY, published by Silesian University of Technology
This work is licensed under the Creative Commons Attribution-NonCommercial-NoDerivatives 4.0 License.