Cargando…
Computational analysis, Urbach energy and Judd–Ofelt parameter of warm Sm(3+) complexes having applications in photovoltaic and display devices
In this work, six reddish orange Sm(3+) complexes were synthesized using organic ligand (L) and secondary ligands having hetero atoms by a one-step significant liquid-assisted grinding method and were characterized by spectroscopic techniques. The Urbach energy and band gap energy of the complexes w...
Autores principales: | , , , , , , , |
---|---|
Formato: | Online Artículo Texto |
Lenguaje: | English |
Publicado: |
The Royal Society of Chemistry
2022
|
Materias: | |
Acceso en línea: | https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9753104/ https://www.ncbi.nlm.nih.gov/pubmed/36545065 http://dx.doi.org/10.1039/d2ra05796d |
_version_ | 1784850892792528896 |
---|---|
author | Kumari, Poonam Lather, Vaishnavi Khatri, Savita Ahlawat, Pratibha Sehrawat, Harkesh Khatkar, S. P. Taxak, V. B. Kumar, Rajesh |
author_facet | Kumari, Poonam Lather, Vaishnavi Khatri, Savita Ahlawat, Pratibha Sehrawat, Harkesh Khatkar, S. P. Taxak, V. B. Kumar, Rajesh |
author_sort | Kumari, Poonam |
collection | PubMed |
description | In this work, six reddish orange Sm(3+) complexes were synthesized using organic ligand (L) and secondary ligands having hetero atoms by a one-step significant liquid-assisted grinding method and were characterized by spectroscopic techniques. The Urbach energy and band gap energy of the complexes were inspected by a linear fit. Using a least square fitting method, the Judd–Ofelt parameter and radiative properties were also determined. Thermal analysis, colorimetric analysis, luminescence decay time and anti-microbial properties of complexes were studied. The luminescence emission spectra of binary and ternary complexes displayed three characteristic peaks at 565, 603 and 650 nm in the powder form and four peaks at 563, 605, 646 and 703 nm in a solution phase due to (4)G(5/2) → (6)H(5/2,)(4)G(5/2) → (6)H(7/2,)(4)G(5/2) → (6)H(9/2) and (4)G(5/2) → (6)H(11/2) transitions respectively. The most intense transition in the solid phase ((4)G(5/2) → (6)H(7/2)) is accountable for orange color, and in the solution form, the highly luminescent peak ((4)G(5/2) → (6)H(9/2)) is responsible for reddish orange color of Sm(3+) complexes. PXRD and SEM analyses suggested that the complexes possess a nanoparticle grain size with crystalline nature. The decent optoelectrical properties of title complexes in the orangish-red visible domain indicated possible applications in the manufacturing of display and optoelectronic devices. |
format | Online Article Text |
id | pubmed-9753104 |
institution | National Center for Biotechnology Information |
language | English |
publishDate | 2022 |
publisher | The Royal Society of Chemistry |
record_format | MEDLINE/PubMed |
spelling | pubmed-97531042022-12-20 Computational analysis, Urbach energy and Judd–Ofelt parameter of warm Sm(3+) complexes having applications in photovoltaic and display devices Kumari, Poonam Lather, Vaishnavi Khatri, Savita Ahlawat, Pratibha Sehrawat, Harkesh Khatkar, S. P. Taxak, V. B. Kumar, Rajesh RSC Adv Chemistry In this work, six reddish orange Sm(3+) complexes were synthesized using organic ligand (L) and secondary ligands having hetero atoms by a one-step significant liquid-assisted grinding method and were characterized by spectroscopic techniques. The Urbach energy and band gap energy of the complexes were inspected by a linear fit. Using a least square fitting method, the Judd–Ofelt parameter and radiative properties were also determined. Thermal analysis, colorimetric analysis, luminescence decay time and anti-microbial properties of complexes were studied. The luminescence emission spectra of binary and ternary complexes displayed three characteristic peaks at 565, 603 and 650 nm in the powder form and four peaks at 563, 605, 646 and 703 nm in a solution phase due to (4)G(5/2) → (6)H(5/2,)(4)G(5/2) → (6)H(7/2,)(4)G(5/2) → (6)H(9/2) and (4)G(5/2) → (6)H(11/2) transitions respectively. The most intense transition in the solid phase ((4)G(5/2) → (6)H(7/2)) is accountable for orange color, and in the solution form, the highly luminescent peak ((4)G(5/2) → (6)H(9/2)) is responsible for reddish orange color of Sm(3+) complexes. PXRD and SEM analyses suggested that the complexes possess a nanoparticle grain size with crystalline nature. The decent optoelectrical properties of title complexes in the orangish-red visible domain indicated possible applications in the manufacturing of display and optoelectronic devices. The Royal Society of Chemistry 2022-12-15 /pmc/articles/PMC9753104/ /pubmed/36545065 http://dx.doi.org/10.1039/d2ra05796d Text en This journal is © The Royal Society of Chemistry https://creativecommons.org/licenses/by/3.0/ |
spellingShingle | Chemistry Kumari, Poonam Lather, Vaishnavi Khatri, Savita Ahlawat, Pratibha Sehrawat, Harkesh Khatkar, S. P. Taxak, V. B. Kumar, Rajesh Computational analysis, Urbach energy and Judd–Ofelt parameter of warm Sm(3+) complexes having applications in photovoltaic and display devices |
title | Computational analysis, Urbach energy and Judd–Ofelt parameter of warm Sm(3+) complexes having applications in photovoltaic and display devices |
title_full | Computational analysis, Urbach energy and Judd–Ofelt parameter of warm Sm(3+) complexes having applications in photovoltaic and display devices |
title_fullStr | Computational analysis, Urbach energy and Judd–Ofelt parameter of warm Sm(3+) complexes having applications in photovoltaic and display devices |
title_full_unstemmed | Computational analysis, Urbach energy and Judd–Ofelt parameter of warm Sm(3+) complexes having applications in photovoltaic and display devices |
title_short | Computational analysis, Urbach energy and Judd–Ofelt parameter of warm Sm(3+) complexes having applications in photovoltaic and display devices |
title_sort | computational analysis, urbach energy and judd–ofelt parameter of warm sm(3+) complexes having applications in photovoltaic and display devices |
topic | Chemistry |
url | https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9753104/ https://www.ncbi.nlm.nih.gov/pubmed/36545065 http://dx.doi.org/10.1039/d2ra05796d |
work_keys_str_mv | AT kumaripoonam computationalanalysisurbachenergyandjuddofeltparameterofwarmsm3complexeshavingapplicationsinphotovoltaicanddisplaydevices AT lathervaishnavi computationalanalysisurbachenergyandjuddofeltparameterofwarmsm3complexeshavingapplicationsinphotovoltaicanddisplaydevices AT khatrisavita computationalanalysisurbachenergyandjuddofeltparameterofwarmsm3complexeshavingapplicationsinphotovoltaicanddisplaydevices AT ahlawatpratibha computationalanalysisurbachenergyandjuddofeltparameterofwarmsm3complexeshavingapplicationsinphotovoltaicanddisplaydevices AT sehrawatharkesh computationalanalysisurbachenergyandjuddofeltparameterofwarmsm3complexeshavingapplicationsinphotovoltaicanddisplaydevices AT khatkarsp computationalanalysisurbachenergyandjuddofeltparameterofwarmsm3complexeshavingapplicationsinphotovoltaicanddisplaydevices AT taxakvb computationalanalysisurbachenergyandjuddofeltparameterofwarmsm3complexeshavingapplicationsinphotovoltaicanddisplaydevices AT kumarrajesh computationalanalysisurbachenergyandjuddofeltparameterofwarmsm3complexeshavingapplicationsinphotovoltaicanddisplaydevices |