Effect of electrical field resonances due to perturbation slit tunnel junction for a potential solar energy collector at 10 micrometer radiation
A potential solar energy collector is proposed. The design is a new rectangular antenna with perturbation slit tunnel junction that exhibits highly confined electrical-field at 10 micrometer radiation. The configuration operates at the centre resonant for thermal radiation spectrum. The vital idea b...
Saved in:
Main Authors: | , , , , , |
---|---|
Format: | Conference or Workshop Item |
Published: |
2015
|
Subjects: | |
Online Access: | http://eprints.utm.my/id/eprint/61173/ https://www.scientific.net/AMM.781.458 |
Tags: |
Add Tag
No Tags, Be the first to tag this record!
|
Institution: | Universiti Teknologi Malaysia |
id |
my.utm.61173 |
---|---|
record_format |
eprints |
spelling |
my.utm.611732017-08-13T08:26:20Z http://eprints.utm.my/id/eprint/61173/ Effect of electrical field resonances due to perturbation slit tunnel junction for a potential solar energy collector at 10 micrometer radiation Esa, Mazlina Ismail, Mohd. Khairul Hisham Murad, Noor Asniza Nik Abd Malik, Nik Noordini Mohd. Yusoff, Mohd. Fairus Hamzah, Shipun Anuar TK Electrical engineering. Electronics Nuclear engineering A potential solar energy collector is proposed. The design is a new rectangular antenna with perturbation slit tunnel junction that exhibits highly confined electrical-field at 10 micrometer radiation. The configuration operates at the centre resonant for thermal radiation spectrum. The vital idea behind this proposed design is to trap and guide out the electrical-field using slit tunnel into a convenient location for potential solar energy collector. The trapping electrical field achieved is enhanced up to 110 V/m with an excitation plane wave of 1 V/m. Meanwhile, a wider half-field strength bandwidth up to 13.5 THz is successfully excited to cover most of the thermal radiation spectrum. By the introduction of a tunnel junction of 0.1 micrometer for diode integration, the electrical field magnitude slightly decreased to 98.3 V/m with half-field strength bandwidth of 12 THz. Furthermore, the promising results generated by finite integration technique (FIT) method offers the proposed design to be a potential candidate for energy harvesting devices at 10 micrometer thermal radiation of the sun. 2015 Conference or Workshop Item PeerReviewed Esa, Mazlina and Ismail, Mohd. Khairul Hisham and Murad, Noor Asniza and Nik Abd Malik, Nik Noordini and Mohd. Yusoff, Mohd. Fairus and Hamzah, Shipun Anuar (2015) Effect of electrical field resonances due to perturbation slit tunnel junction for a potential solar energy collector at 10 micrometer radiation. In: Applied Mechanics and Materials/IEECON2015, 18-20 Mar, 2015, Thailand. https://www.scientific.net/AMM.781.458 |
institution |
Universiti Teknologi Malaysia |
building |
UTM Library |
collection |
Institutional Repository |
continent |
Asia |
country |
Malaysia |
content_provider |
Universiti Teknologi Malaysia |
content_source |
UTM Institutional Repository |
url_provider |
http://eprints.utm.my/ |
topic |
TK Electrical engineering. Electronics Nuclear engineering |
spellingShingle |
TK Electrical engineering. Electronics Nuclear engineering Esa, Mazlina Ismail, Mohd. Khairul Hisham Murad, Noor Asniza Nik Abd Malik, Nik Noordini Mohd. Yusoff, Mohd. Fairus Hamzah, Shipun Anuar Effect of electrical field resonances due to perturbation slit tunnel junction for a potential solar energy collector at 10 micrometer radiation |
description |
A potential solar energy collector is proposed. The design is a new rectangular antenna with perturbation slit tunnel junction that exhibits highly confined electrical-field at 10 micrometer radiation. The configuration operates at the centre resonant for thermal radiation spectrum. The vital idea behind this proposed design is to trap and guide out the electrical-field using slit tunnel into a convenient location for potential solar energy collector. The trapping electrical field achieved is enhanced up to 110 V/m with an excitation plane wave of 1 V/m. Meanwhile, a wider half-field strength bandwidth up to 13.5 THz is successfully excited to cover most of the thermal radiation spectrum. By the introduction of a tunnel junction of 0.1 micrometer for diode integration, the electrical field magnitude slightly decreased to 98.3 V/m with half-field strength bandwidth of 12 THz. Furthermore, the promising results generated by finite integration technique (FIT) method offers the proposed design to be a potential candidate for energy harvesting devices at 10 micrometer thermal radiation of the sun. |
format |
Conference or Workshop Item |
author |
Esa, Mazlina Ismail, Mohd. Khairul Hisham Murad, Noor Asniza Nik Abd Malik, Nik Noordini Mohd. Yusoff, Mohd. Fairus Hamzah, Shipun Anuar |
author_facet |
Esa, Mazlina Ismail, Mohd. Khairul Hisham Murad, Noor Asniza Nik Abd Malik, Nik Noordini Mohd. Yusoff, Mohd. Fairus Hamzah, Shipun Anuar |
author_sort |
Esa, Mazlina |
title |
Effect of electrical field resonances due to perturbation slit tunnel junction for a potential solar energy collector at 10 micrometer radiation |
title_short |
Effect of electrical field resonances due to perturbation slit tunnel junction for a potential solar energy collector at 10 micrometer radiation |
title_full |
Effect of electrical field resonances due to perturbation slit tunnel junction for a potential solar energy collector at 10 micrometer radiation |
title_fullStr |
Effect of electrical field resonances due to perturbation slit tunnel junction for a potential solar energy collector at 10 micrometer radiation |
title_full_unstemmed |
Effect of electrical field resonances due to perturbation slit tunnel junction for a potential solar energy collector at 10 micrometer radiation |
title_sort |
effect of electrical field resonances due to perturbation slit tunnel junction for a potential solar energy collector at 10 micrometer radiation |
publishDate |
2015 |
url |
http://eprints.utm.my/id/eprint/61173/ https://www.scientific.net/AMM.781.458 |
_version_ |
1643655092100923392 |