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Cu-alginate hydrogels in microfluidic systems : a sustainable catalytic approach for click chemistry
ID
Ramšak, Arijana
(
Author
),
ID
Gazvoda, Martin
(
Author
),
ID
Plazl, Igor
(
Author
),
ID
Ambrožič, Rok
(
Author
)
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MD5: 0125ABE621603FFEB3B8440048F110F9
URL - Source URL, Visit
https://www.frontiersin.org/journals/chemical-engineering/articles/10.3389/fceng.2024.1434131/full
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Abstract
This work explores the innovative use of copper-alginate (Cu-alginate) hydrogels within microfluidic systems to catalyze dipolar cycloaddition reactions, emphasizing green chemistry principles and process intensification. Utilizing naturally occurring biopolymers, such as alginates, provides an environmentally friendly alternative to conventional catalyst supports due to their biocompatibility, biodegradability, and effective metal ion immobilization capabilities. The integration of these biopolymer-based catalysts into microfluidic devices allows for precise control over reaction conditions, leading to enhanced reaction kinetics and mass transfer efficiencies. Our results demonstrate that Cu-alginate hydrogels effectively catalyze the formation of 1,4-disubstituted 1,2,3-triazoles through [3 + 2] dipolar cycloaddition reactions with high regioselectivity and conversion. The microfluidic setup ensures rapid and efficient synthesis, surpassing traditional batch reaction methods in both reaction rate and environmental impact by reducing solvent usage and waste generation. Furthermore, the use of microfluidics contributes to the reproducibility and scalability of the synthesis process, important for industrial applications. The model-based design and its simulations have been employed to further understand and optimize the reaction system. Diffusion through the gel layer and catalytic reaction kinetics estimated from experimental data were included in the model, providing a theoretical foundation for a comprehensive process evaluation. This study not only advances the field of sustainable catalysis by demonstrating the practical utility of biopolymer-supported catalysts in microfluidic systems, but also sets the stage for further research into biopolymer applications in complex chemical syntheses.
Language:
English
Keywords:
copper-alginate hydrogels
,
microfluidic systems
,
green chemistry
,
coppper-catalyzed azide-alkyne cycloaddition (CuAAC)
,
model based design
,
click chemistry
Work type:
Article
Typology:
1.01 - Original Scientific Article
Organization:
FKKT - Faculty of Chemistry and Chemical Technology
Publication status:
Published
Publication version:
Version of Record
Year:
2024
Number of pages:
13 str.
Numbering:
Vol. 6, art. 1434131
PID:
20.500.12556/RUL-160002
UDC:
66.095.252.091.7:546.56:678
ISSN on article:
2673-2718
DOI:
10.3389/fceng.2024.1434131
COBISS.SI-ID:
201934083
Publication date in RUL:
07.08.2024
Views:
300
Downloads:
52
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Record is a part of a journal
Title:
Frontiers in chemical engineering
Shortened title:
Front. chem. eng.
Publisher:
Frontiers Media SA
ISSN:
2673-2718
COBISS.SI-ID:
56086787
Licences
License:
CC BY 4.0, Creative Commons Attribution 4.0 International
Link:
http://creativecommons.org/licenses/by/4.0/
Description:
This is the standard Creative Commons license that gives others maximum freedom to do what they want with the work as long as they credit the author.
Secondary language
Language:
Slovenian
Keywords:
bakrovi-alginatni hidrogeli
,
mikrofluidni sistemi
,
zelena kemija
,
azid-alkin cikloadicija katalizirana z bakrom (CuAAC)
,
modeliranje procesa
,
klik kemija
Projects
Funder:
ARRS - Slovenian Research Agency
Project number:
P2-0191
Name:
Kemijsko inženirstvo
Funder:
ARRS - Slovenian Research Agency
Project number:
L2-3161
Name:
Procesna intenzifikacija kontinuirne sinteze vodikovega peroksida visoke čistosti z uporabo elektrokatalitskega mikroreaktorja
Funder:
Other - Other funder or multiple funders
Project number:
Grant No. 9147
Funder:
EC - European Commission
Funding programme:
H2020
Project number:
958174
Name:
ERA-NET for research and innovation on materials and battery technologies, supporting the European Green Deal.
Acronym:
M-ERA.NET3
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