https://projectswiki.eleceng.adelaide.edu.au/projects/api.php?action=feedcontributions&feedformat=atom&user=A1667582 2026-05-05T09:46:49Z User contributions MediaWiki 1.31.4 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2018s1-195_Novel_Flexible_Materials_for_Wearable_Antennas&diff=11557 2018-10-18T11:27:12Z

<p>A1667582: /* Fabrication */</p> <hr /> <div>= Project Team =<br /> <br /> Donald Dong Zhang<br /> <br /> Dennis David Kimtai<br /> <br /> = Supervisors =<br /> <br /> Professor Christophe Fumeaux<br /> <br /> Dr Shengjian (Jammy) Chen<br /> <br /> = Introduction =<br /> <br /> Natural Rubber, Buffalo Leather and Blue Foam are used as substrates for the realization of wearable antennas integrated into clothing.<br /> <br /> = Background and Motivation =<br /> <br /> The reliability of wearable communication systems can benefit from high performance antennas integrated into clothing. Emerging wearable communications systems will increasingly require flexible antennas which can be integrated into clothing and are able to adapt their shape to various movement of the body. This will allow exploiting the area of clothing to create efficient antennas in critical applications such as communications and tracking for defence or safety personnel, or monitoring of patients in a hospital.<br /> <br /> [[File: Wearable antennas in defence.jpg|left|500px|thumb|Fig 1. Wearable antennas in defence]]<br /> <br /> [[File: Wearable antennas in health care.jpg|center|500px|thumb|Fig 2. Wearable antennas in health care]]<br /> <br /> = Aims and Objectives =<br /> <br /> This project considers the use of widely available flexible materials as substrates for the realization of wearable antennas. The project focuses on material characterization and related design aspects. It involves antenna theory and computer-assisted design with state of the art electromagnetic simulations tools.<br /> <br /> = Material Characterization =<br /> <br /> The substrates materials should be lightweight, small size, flexible and robust to achieve good communication characteristics without much variation in performance.<br /> <br /> [[File: Materials properties.jpg|center|500px|thumb|Fig 3. Materials properties]]<br /> <br /> = Design Aspect =<br /> <br /> In this project antenna theory and computer simulation software (CST) was used to evaluate the use of different materials for two different types of wearable antennas:<br /> *Monopole Antenna<br /> *Planar Inverted-F Antenna (PIFA)<br /> == Monopole Antenna ==<br /> <br /> [[File: Monopole Antenna using Leather substrate.png |center|500px|thumb|Fig 4. Monopole Antenna using Leather substrate]] <br /> [[File: Monopole Antenna using Rubber substrate.png |center|500px|thumb|Fig 5. Monopole Antenna using Rubber substrate]] <br /> [[File: Monopole Antenna using Foam substrate.png |center|500px|thumb|Fig 6. Monopole Antenna using Foam substrate]] <br /> <br /> == Planar Inverted-F Antenna (PIFA) ==<br /> <br /> [[File: PIFA Antenna using Leather substrate.jpg|center|500px|thumb|Fig 7. PIFA Antenna using Leather substrate]]<br /> [[File: PIFA Antenna using Rubber substrate.jpg|center|500px|thumb|Fig 8. PIFA Antenna using Rubber substrate]]<br /> [[File: PIFA Antenna using Foam substrate.jpg|center|500px|thumb|Fig 9. PIFA Antenna using Foam substrate]]<br /> <br /> = Simulation Results =<br /> <br /> == Reflection Coefficient ==<br /> <br /> === Monopole ===<br /> <br /> [[File: Reflection Coefficient for Monopole Antenna using Leather Substrate.png.png|center|500px|thumb|Fig 10. Reflection coefficient for Monopole Antenna (Leather Substrate)]]<br /> [[File: Reflection Coefficient for Monopole Antenna using Rubber Substrate.png.png|center|500px|thumb|Fig 11. Reflection coefficient for Monopole Antenna (Rubber Substrate)]]<br /> [[File: Reflection Coefficient for Monopole Antenna using Foam Substrate.png.png|center|500px|thumb|Fig 12. Reflection coefficient for Monopole Antenna (Foam Substrate)]]<br /> <br /> === PIFA ===<br /> <br /> [[File: Reflection Coefficient for PIFA Antenna using Leather Substrate.jpg|center|500px|thumb|Fig 13. Reflection coefficient for PIFA Antenna (Leather Substrate)]]<br /> [[File: Reflection Coefficient for PIFA Antenna using Rubber Substrate.jpg|center|500px|thumb|Fig 14. Reflection coefficient for PIFA Antenna (Rubber Substrate)]]<br /> [[File: Reflection Coefficient for PIFA Antenna using Foam Substrate.jpg|center|500px|thumb|Fig 15. Reflection coefficient for PIFA Antenna (Foam Substrate)]]<br /> <br /> == Directivity and Efficiency ==<br /> <br /> === Monopole ===<br /> <br /> [[File: Directivity and Efficiency for Monopole Antenna using Leather Substrate.png|center|500px|thumb|Fig 16. Directivity and Efficiency for Monopole Antenna (Leather Substrate)]]<br /> [[File: Directivity and Efficiency for Monopole Antenna using Rubber Substrate.png|center|500px|thumb|Fig 17. Directivity and Efficiency for Monopole Antenna (Rubber Substrate)]]<br /> [[File: Directivity and Efficiency for Monopole Antenna using Foam Substrate.png|center|500px|thumb|Fig 18. Directivity and Efficiency for Monopole Antenna (Foam Substrate)]]<br /> <br /> === PIFA ===<br /> <br /> [[File: Directivity and Efficiency for PIFA Antenna using Leather Substrate.jpg.jpg|center|500px|thumb|Fig 19. Directivity and Efficiency for PIFA Antenna (Leather Substrate)]]<br /> [[File: Directivity and Efficiency for PIFA Antenna using Rubber Substrate.jpg.jpg|center|500px|thumb|Fig 20. Directivity and Efficiency for PIFA Antenna (Rubber Substrate)]]<br /> [[File: Directivity and Efficiency for PIFA Antenna using Foam Substrate.jpg.jpg|center|500px|thumb|Fig 21. Directivity and Efficiency for PIFA Antenna (Foam Substrate)]]<br /> <br /> == E field distribution ==<br /> <br /> [[File: Planar Monopole Antenna_3e_buffalo_01.gif|Fig 22. E field distribution for Monopole Antenna (Leather Substrate)]]<br /> <br /> = Fabrication =<br /> <br /> == Monopole Antenna (Foam Substrate) ==<br /> <br /> [[File: Monopole Antenna fabricated using Foam Substrate.jpg|center|500px|thumb|Fig 23. Monopole Antenna fabricated using Foam Substrate)]]<br /> <br /> == PIFA (Rubber Substrate) ==<br /> <br /> [[File: PIFA Antenna fabricated using Rubber Substrate.jpg|center|500px|thumb|Fig 24. PIFA Antenna fabricated using Rubber Substrate)]]<br /> <br /> = Achievements =<br /> <br /> Fabrication results are expected to match the results from simulation.</div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2018s1-195_Novel_Flexible_Materials_for_Wearable_Antennas&diff=11556 2018-10-18T11:26:07Z

<p>A1667582: /* Directivity and Efficiency */</p> <hr /> <div>= Project Team =<br /> <br /> Donald Dong Zhang<br /> <br /> Dennis David Kimtai<br /> <br /> = Supervisors =<br /> <br /> Professor Christophe Fumeaux<br /> <br /> Dr Shengjian (Jammy) Chen<br /> <br /> = Introduction =<br /> <br /> Natural Rubber, Buffalo Leather and Blue Foam are used as substrates for the realization of wearable antennas integrated into clothing.<br /> <br /> = Background and Motivation =<br /> <br /> The reliability of wearable communication systems can benefit from high performance antennas integrated into clothing. Emerging wearable communications systems will increasingly require flexible antennas which can be integrated into clothing and are able to adapt their shape to various movement of the body. This will allow exploiting the area of clothing to create efficient antennas in critical applications such as communications and tracking for defence or safety personnel, or monitoring of patients in a hospital.<br /> <br /> [[File: Wearable antennas in defence.jpg|left|500px|thumb|Fig 1. Wearable antennas in defence]]<br /> <br /> [[File: Wearable antennas in health care.jpg|center|500px|thumb|Fig 2. Wearable antennas in health care]]<br /> <br /> = Aims and Objectives =<br /> <br /> This project considers the use of widely available flexible materials as substrates for the realization of wearable antennas. The project focuses on material characterization and related design aspects. It involves antenna theory and computer-assisted design with state of the art electromagnetic simulations tools.<br /> <br /> = Material Characterization =<br /> <br /> The substrates materials should be lightweight, small size, flexible and robust to achieve good communication characteristics without much variation in performance.<br /> <br /> [[File: Materials properties.jpg|center|500px|thumb|Fig 3. Materials properties]]<br /> <br /> = Design Aspect =<br /> <br /> In this project antenna theory and computer simulation software (CST) was used to evaluate the use of different materials for two different types of wearable antennas:<br /> *Monopole Antenna<br /> *Planar Inverted-F Antenna (PIFA)<br /> == Monopole Antenna ==<br /> <br /> [[File: Monopole Antenna using Leather substrate.png |center|500px|thumb|Fig 4. Monopole Antenna using Leather substrate]] <br /> [[File: Monopole Antenna using Rubber substrate.png |center|500px|thumb|Fig 5. Monopole Antenna using Rubber substrate]] <br /> [[File: Monopole Antenna using Foam substrate.png |center|500px|thumb|Fig 6. Monopole Antenna using Foam substrate]] <br /> <br /> == Planar Inverted-F Antenna (PIFA) ==<br /> <br /> [[File: PIFA Antenna using Leather substrate.jpg|center|500px|thumb|Fig 7. PIFA Antenna using Leather substrate]]<br /> [[File: PIFA Antenna using Rubber substrate.jpg|center|500px|thumb|Fig 8. PIFA Antenna using Rubber substrate]]<br /> [[File: PIFA Antenna using Foam substrate.jpg|center|500px|thumb|Fig 9. PIFA Antenna using Foam substrate]]<br /> <br /> = Simulation Results =<br /> <br /> == Reflection Coefficient ==<br /> <br /> === Monopole ===<br /> <br /> [[File: Reflection Coefficient for Monopole Antenna using Leather Substrate.png.png|center|500px|thumb|Fig 10. Reflection coefficient for Monopole Antenna (Leather Substrate)]]<br /> [[File: Reflection Coefficient for Monopole Antenna using Rubber Substrate.png.png|center|500px|thumb|Fig 11. Reflection coefficient for Monopole Antenna (Rubber Substrate)]]<br /> [[File: Reflection Coefficient for Monopole Antenna using Foam Substrate.png.png|center|500px|thumb|Fig 12. Reflection coefficient for Monopole Antenna (Foam Substrate)]]<br /> <br /> === PIFA ===<br /> <br /> [[File: Reflection Coefficient for PIFA Antenna using Leather Substrate.jpg|center|500px|thumb|Fig 13. Reflection coefficient for PIFA Antenna (Leather Substrate)]]<br /> [[File: Reflection Coefficient for PIFA Antenna using Rubber Substrate.jpg|center|500px|thumb|Fig 14. Reflection coefficient for PIFA Antenna (Rubber Substrate)]]<br /> [[File: Reflection Coefficient for PIFA Antenna using Foam Substrate.jpg|center|500px|thumb|Fig 15. Reflection coefficient for PIFA Antenna (Foam Substrate)]]<br /> <br /> == Directivity and Efficiency ==<br /> <br /> === Monopole ===<br /> <br /> [[File: Directivity and Efficiency for Monopole Antenna using Leather Substrate.png|center|500px|thumb|Fig 16. Directivity and Efficiency for Monopole Antenna (Leather Substrate)]]<br /> [[File: Directivity and Efficiency for Monopole Antenna using Rubber Substrate.png|center|500px|thumb|Fig 17. Directivity and Efficiency for Monopole Antenna (Rubber Substrate)]]<br /> [[File: Directivity and Efficiency for Monopole Antenna using Foam Substrate.png|center|500px|thumb|Fig 18. Directivity and Efficiency for Monopole Antenna (Foam Substrate)]]<br /> <br /> === PIFA ===<br /> <br /> [[File: Directivity and Efficiency for PIFA Antenna using Leather Substrate.jpg.jpg|center|500px|thumb|Fig 19. Directivity and Efficiency for PIFA Antenna (Leather Substrate)]]<br /> [[File: Directivity and Efficiency for PIFA Antenna using Rubber Substrate.jpg.jpg|center|500px|thumb|Fig 20. Directivity and Efficiency for PIFA Antenna (Rubber Substrate)]]<br /> [[File: Directivity and Efficiency for PIFA Antenna using Foam Substrate.jpg.jpg|center|500px|thumb|Fig 21. Directivity and Efficiency for PIFA Antenna (Foam Substrate)]]<br /> <br /> == E field distribution ==<br /> <br /> [[File: Planar Monopole Antenna_3e_buffalo_01.gif|Fig 22. E field distribution for Monopole Antenna (Leather Substrate)]]<br /> <br /> = Fabrication =<br /> <br /> Monopole Antenna (Foam Substrate)<br /> <br /> [[File: Monopole Antenna fabricated using Foam Substrate.jpg|center|500px|thumb|Fig 23. Monopole Antenna fabricated using Foam Substrate)]]<br /> <br /> PIFA (Rubber Substrate)<br /> <br /> [[File: PIFA Antenna fabricated using Rubber Substrate.jpg|center|500px|thumb|Fig 24. PIFA Antenna fabricated using Rubber Substrate)]]<br /> <br /> = Achievements =<br /> <br /> Fabrication results are expected to match the results from simulation.</div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2018s1-195_Novel_Flexible_Materials_for_Wearable_Antennas&diff=11555 2018-10-18T11:25:20Z

<p>A1667582: /* Reflection Coefficient */</p> <hr /> <div>= Project Team =<br /> <br /> Donald Dong Zhang<br /> <br /> Dennis David Kimtai<br /> <br /> = Supervisors =<br /> <br /> Professor Christophe Fumeaux<br /> <br /> Dr Shengjian (Jammy) Chen<br /> <br /> = Introduction =<br /> <br /> Natural Rubber, Buffalo Leather and Blue Foam are used as substrates for the realization of wearable antennas integrated into clothing.<br /> <br /> = Background and Motivation =<br /> <br /> The reliability of wearable communication systems can benefit from high performance antennas integrated into clothing. Emerging wearable communications systems will increasingly require flexible antennas which can be integrated into clothing and are able to adapt their shape to various movement of the body. This will allow exploiting the area of clothing to create efficient antennas in critical applications such as communications and tracking for defence or safety personnel, or monitoring of patients in a hospital.<br /> <br /> [[File: Wearable antennas in defence.jpg|left|500px|thumb|Fig 1. Wearable antennas in defence]]<br /> <br /> [[File: Wearable antennas in health care.jpg|center|500px|thumb|Fig 2. Wearable antennas in health care]]<br /> <br /> = Aims and Objectives =<br /> <br /> This project considers the use of widely available flexible materials as substrates for the realization of wearable antennas. The project focuses on material characterization and related design aspects. It involves antenna theory and computer-assisted design with state of the art electromagnetic simulations tools.<br /> <br /> = Material Characterization =<br /> <br /> The substrates materials should be lightweight, small size, flexible and robust to achieve good communication characteristics without much variation in performance.<br /> <br /> [[File: Materials properties.jpg|center|500px|thumb|Fig 3. Materials properties]]<br /> <br /> = Design Aspect =<br /> <br /> In this project antenna theory and computer simulation software (CST) was used to evaluate the use of different materials for two different types of wearable antennas:<br /> *Monopole Antenna<br /> *Planar Inverted-F Antenna (PIFA)<br /> == Monopole Antenna ==<br /> <br /> [[File: Monopole Antenna using Leather substrate.png |center|500px|thumb|Fig 4. Monopole Antenna using Leather substrate]] <br /> [[File: Monopole Antenna using Rubber substrate.png |center|500px|thumb|Fig 5. Monopole Antenna using Rubber substrate]] <br /> [[File: Monopole Antenna using Foam substrate.png |center|500px|thumb|Fig 6. Monopole Antenna using Foam substrate]] <br /> <br /> == Planar Inverted-F Antenna (PIFA) ==<br /> <br /> [[File: PIFA Antenna using Leather substrate.jpg|center|500px|thumb|Fig 7. PIFA Antenna using Leather substrate]]<br /> [[File: PIFA Antenna using Rubber substrate.jpg|center|500px|thumb|Fig 8. PIFA Antenna using Rubber substrate]]<br /> [[File: PIFA Antenna using Foam substrate.jpg|center|500px|thumb|Fig 9. PIFA Antenna using Foam substrate]]<br /> <br /> = Simulation Results =<br /> <br /> == Reflection Coefficient ==<br /> <br /> === Monopole ===<br /> <br /> [[File: Reflection Coefficient for Monopole Antenna using Leather Substrate.png.png|center|500px|thumb|Fig 10. Reflection coefficient for Monopole Antenna (Leather Substrate)]]<br /> [[File: Reflection Coefficient for Monopole Antenna using Rubber Substrate.png.png|center|500px|thumb|Fig 11. Reflection coefficient for Monopole Antenna (Rubber Substrate)]]<br /> [[File: Reflection Coefficient for Monopole Antenna using Foam Substrate.png.png|center|500px|thumb|Fig 12. Reflection coefficient for Monopole Antenna (Foam Substrate)]]<br /> <br /> === PIFA ===<br /> <br /> [[File: Reflection Coefficient for PIFA Antenna using Leather Substrate.jpg|center|500px|thumb|Fig 13. Reflection coefficient for PIFA Antenna (Leather Substrate)]]<br /> [[File: Reflection Coefficient for PIFA Antenna using Rubber Substrate.jpg|center|500px|thumb|Fig 14. Reflection coefficient for PIFA Antenna (Rubber Substrate)]]<br /> [[File: Reflection Coefficient for PIFA Antenna using Foam Substrate.jpg|center|500px|thumb|Fig 15. Reflection coefficient for PIFA Antenna (Foam Substrate)]]<br /> <br /> == Directivity and Efficiency ==<br /> <br /> [[File: Directivity and Efficiency for Monopole Antenna using Leather Substrate.png|center|500px|thumb|Fig 16. Directivity and Efficiency for Monopole Antenna (Leather Substrate)]]<br /> [[File: Directivity and Efficiency for Monopole Antenna using Rubber Substrate.png|center|500px|thumb|Fig 17. Directivity and Efficiency for Monopole Antenna (Rubber Substrate)]]<br /> [[File: Directivity and Efficiency for Monopole Antenna using Foam Substrate.png|center|500px|thumb|Fig 18. Directivity and Efficiency for Monopole Antenna (Foam Substrate)]]<br /> <br /> [[File: Directivity and Efficiency for PIFA Antenna using Leather Substrate.jpg.jpg|center|500px|thumb|Fig 19. Directivity and Efficiency for PIFA Antenna (Leather Substrate)]]<br /> [[File: Directivity and Efficiency for PIFA Antenna using Rubber Substrate.jpg.jpg|center|500px|thumb|Fig 20. Directivity and Efficiency for PIFA Antenna (Rubber Substrate)]]<br /> [[File: Directivity and Efficiency for PIFA Antenna using Foam Substrate.jpg.jpg|center|500px|thumb|Fig 21. Directivity and Efficiency for PIFA Antenna (Foam Substrate)]]<br /> <br /> == E field distribution ==<br /> <br /> [[File: Planar Monopole Antenna_3e_buffalo_01.gif|Fig 22. E field distribution for Monopole Antenna (Leather Substrate)]]<br /> <br /> = Fabrication =<br /> <br /> Monopole Antenna (Foam Substrate)<br /> <br /> [[File: Monopole Antenna fabricated using Foam Substrate.jpg|center|500px|thumb|Fig 23. Monopole Antenna fabricated using Foam Substrate)]]<br /> <br /> PIFA (Rubber Substrate)<br /> <br /> [[File: PIFA Antenna fabricated using Rubber Substrate.jpg|center|500px|thumb|Fig 24. PIFA Antenna fabricated using Rubber Substrate)]]<br /> <br /> = Achievements =<br /> <br /> Fabrication results are expected to match the results from simulation.</div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2018s1-195_Novel_Flexible_Materials_for_Wearable_Antennas&diff=11338 2018-10-17T13:48:38Z

<p>A1667582: /* E field distribution */</p> <hr /> <div>= Project Team =<br /> <br /> Donald Dong Zhang<br /> <br /> Dennis David Kimtai<br /> <br /> = Supervisors =<br /> <br /> Professor Christophe Fumeaux<br /> <br /> Dr Shengjian (Jammy) Chen<br /> <br /> = Introduction =<br /> <br /> Natural Rubber, Buffalo Leather and Blue Foam are used as substrates for the realization of wearable antennas integrated into clothing.<br /> <br /> = Background and Motivation =<br /> <br /> The reliability of wearable communication systems can benefit from high performance antennas integrated into clothing. Emerging wearable communications systems will increasingly require flexible antennas which can be integrated into clothing and are able to adapt their shape to various movement of the body. This will allow exploiting the area of clothing to create efficient antennas in critical applications such as communications and tracking for defence or safety personnel, or monitoring of patients in a hospital.<br /> <br /> [[File: Wearable antennas in defence.jpg|center|500px|thumb|Fig 1. Wearable antennas in defence]]<br /> <br /> [[File: Wearable antennas in health care.jpg|center|500px|thumb|Fig 2. Wearable antennas in health care]]<br /> <br /> = Aims and Objectives =<br /> <br /> This project considers the use of widely available flexible materials as substrates for the realization of wearable antennas. The project focuses on material characterization and related design aspects. It involves antenna theory and computer-assisted design with state of the art electromagnetic simulations tools.<br /> <br /> = Material Characterization =<br /> <br /> The substrates materials should be lightweight, small size, flexible and robust to achieve good communication characteristics without much variation in performance.<br /> <br /> [[File: Materials properties.jpg|center|500px|thumb|Fig 3. Materials properties]]<br /> <br /> = Design Aspect =<br /> <br /> In this project antenna theory and computer simulation software (CST) was used to evaluate the use of different materials for two different types of wearable antennas:<br /> *Monopole Antenna<br /> *Planar Inverted-F Antenna (PIFA)<br /> <br /> [[File: Monopole Antenna using Leather substrate.jpg|center|500px|thumb|Fig 4. Monopole Antenna using Leather substrate]]<br /> <br /> [[File: PIFA Antenna using Rubber substrate.jpg|center|500px|thumb|Fig 5. PIFA Antenna using Rubber substrate]]<br /> <br /> = Simulation Results =<br /> <br /> Reflection Coefficient<br /> <br /> [[File: Reflection coefficient for Monopole Antenna (Leather Substrate).jpg|center|500px|thumb|Fig 6. Reflection coefficient for Monopole Antenna (Leather Substrate)]]<br /> <br /> [[File: Reflection coefficient for PIFA Antenna (RubberSubstrate).jpg|center|500px|thumb|Fig 7. Reflection coefficient for PIFA Antenna (Rubber Substrate)]]<br /> <br /> Directivity and Efficiency<br /> <br /> [[File: Directivity and Efficiency for Monopole Antenna (Leather Substrate).jpg.jpg|center|500px|thumb|Fig 8. Directivity and Efficiency for Monopole Antenna (Leather Substrate)]]<br /> <br /> [[File: Directivity and Efficiency for PIFA Antenna (Rubber Substrate).jpg.jpg|center|500px|thumb|Fig 9. Directivity and Efficiency for PIFA Antenna (Rubber Substrate)]]<br /> <br /> == E field distribution ==<br /> <br /> [[File: Planar Monopole Antenna_3e_buffalo_01.gif|Fig 10. E field distribution for Monopole Antenna (Leather Substrate)]]<br /> <br /> = Fabrication =<br /> <br /> Monopole Antenna (Foam Substrate)<br /> <br /> [[File: Monopole Antenna fabricated using Foam Substrate.jpg|center|500px|thumb|Fig 11. Monopole Antenna fabricated using Foam Substrate)]]<br /> <br /> PIFA (Rubber Substrate)<br /> <br /> [[File: PIFA Antenna fabricated using Rubber Substrate.jpg|center|500px|thumb|Fig 12. PIFA Antenna fabricated using Rubber Substrate)]]<br /> <br /> = Achievements =<br /> <br /> Fabrication results are expected to match the results from simulation.</div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2018s1-195_Novel_Flexible_Materials_for_Wearable_Antennas&diff=11337 2018-10-17T13:46:31Z

<p>A1667582: /* E field distribution */</p> <hr /> <div>= Project Team =<br /> <br /> Donald Dong Zhang<br /> <br /> Dennis David Kimtai<br /> <br /> = Supervisors =<br /> <br /> Professor Christophe Fumeaux<br /> <br /> Dr Shengjian (Jammy) Chen<br /> <br /> = Introduction =<br /> <br /> Natural Rubber, Buffalo Leather and Blue Foam are used as substrates for the realization of wearable antennas integrated into clothing.<br /> <br /> = Background and Motivation =<br /> <br /> The reliability of wearable communication systems can benefit from high performance antennas integrated into clothing. Emerging wearable communications systems will increasingly require flexible antennas which can be integrated into clothing and are able to adapt their shape to various movement of the body. This will allow exploiting the area of clothing to create efficient antennas in critical applications such as communications and tracking for defence or safety personnel, or monitoring of patients in a hospital.<br /> <br /> [[File: Wearable antennas in defence.jpg|center|500px|thumb|Fig 1. Wearable antennas in defence]]<br /> <br /> [[File: Wearable antennas in health care.jpg|center|500px|thumb|Fig 2. Wearable antennas in health care]]<br /> <br /> = Aims and Objectives =<br /> <br /> This project considers the use of widely available flexible materials as substrates for the realization of wearable antennas. The project focuses on material characterization and related design aspects. It involves antenna theory and computer-assisted design with state of the art electromagnetic simulations tools.<br /> <br /> = Material Characterization =<br /> <br /> The substrates materials should be lightweight, small size, flexible and robust to achieve good communication characteristics without much variation in performance.<br /> <br /> [[File: Materials properties.jpg|center|500px|thumb|Fig 3. Materials properties]]<br /> <br /> = Design Aspect =<br /> <br /> In this project antenna theory and computer simulation software (CST) was used to evaluate the use of different materials for two different types of wearable antennas:<br /> *Monopole Antenna<br /> *Planar Inverted-F Antenna (PIFA)<br /> <br /> [[File: Monopole Antenna using Leather substrate.jpg|center|500px|thumb|Fig 4. Monopole Antenna using Leather substrate]]<br /> <br /> [[File: PIFA Antenna using Rubber substrate.jpg|center|500px|thumb|Fig 5. PIFA Antenna using Rubber substrate]]<br /> <br /> = Simulation Results =<br /> <br /> Reflection Coefficient<br /> <br /> [[File: Reflection coefficient for Monopole Antenna (Leather Substrate).jpg|center|500px|thumb|Fig 6. Reflection coefficient for Monopole Antenna (Leather Substrate)]]<br /> <br /> [[File: Reflection coefficient for PIFA Antenna (RubberSubstrate).jpg|center|500px|thumb|Fig 7. Reflection coefficient for PIFA Antenna (Rubber Substrate)]]<br /> <br /> Directivity and Efficiency<br /> <br /> [[File: Directivity and Efficiency for Monopole Antenna (Leather Substrate).jpg.jpg|center|500px|thumb|Fig 8. Directivity and Efficiency for Monopole Antenna (Leather Substrate)]]<br /> <br /> [[File: Directivity and Efficiency for PIFA Antenna (Rubber Substrate).jpg.jpg|center|500px|thumb|Fig 9. Directivity and Efficiency for PIFA Antenna (Rubber Substrate)]]<br /> <br /> == E field distribution ==<br /> <br /> [[File: Planar Monopole Antenna_3e_buffalo_01.gif|center|500px|thumb|Fig 10. E field distribution for Monopole Antenna (Leather Substrate)]]<br /> <br /> [[File:Original_E_field.gif]]<br /> <br /> [[File:Planar Monopole Antenna_3e_buffalo_01.gif]]<br /> <br /> = Fabrication =<br /> <br /> Monopole Antenna (Foam Substrate)<br /> <br /> [[File: Monopole Antenna fabricated using Foam Substrate.jpg|center|500px|thumb|Fig 11. Monopole Antenna fabricated using Foam Substrate)]]<br /> <br /> PIFA (Rubber Substrate)<br /> <br /> [[File: PIFA Antenna fabricated using Rubber Substrate.jpg|center|500px|thumb|Fig 12. PIFA Antenna fabricated using Rubber Substrate)]]<br /> <br /> = Achievements =<br /> <br /> Fabrication results are expected to match the results from simulation.</div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2018s1-195_Novel_Flexible_Materials_for_Wearable_Antennas&diff=11336 2018-10-17T13:38:12Z

<p>A1667582: /* Simulation Results */</p> <hr /> <div>= Project Team =<br /> <br /> Donald Dong Zhang<br /> <br /> Dennis David Kimtai<br /> <br /> = Supervisors =<br /> <br /> Professor Christophe Fumeaux<br /> <br /> Dr Shengjian (Jammy) Chen<br /> <br /> = Introduction =<br /> <br /> Natural Rubber, Buffalo Leather and Blue Foam are used as substrates for the realization of wearable antennas integrated into clothing.<br /> <br /> = Background and Motivation =<br /> <br /> The reliability of wearable communication systems can benefit from high performance antennas integrated into clothing. Emerging wearable communications systems will increasingly require flexible antennas which can be integrated into clothing and are able to adapt their shape to various movement of the body. This will allow exploiting the area of clothing to create efficient antennas in critical applications such as communications and tracking for defence or safety personnel, or monitoring of patients in a hospital.<br /> <br /> [[File: Wearable antennas in defence.jpg|center|500px|thumb|Fig 1. Wearable antennas in defence]]<br /> <br /> [[File: Wearable antennas in health care.jpg|center|500px|thumb|Fig 2. Wearable antennas in health care]]<br /> <br /> = Aims and Objectives =<br /> <br /> This project considers the use of widely available flexible materials as substrates for the realization of wearable antennas. The project focuses on material characterization and related design aspects. It involves antenna theory and computer-assisted design with state of the art electromagnetic simulations tools.<br /> <br /> = Material Characterization =<br /> <br /> The substrates materials should be lightweight, small size, flexible and robust to achieve good communication characteristics without much variation in performance.<br /> <br /> [[File: Materials properties.jpg|center|500px|thumb|Fig 3. Materials properties]]<br /> <br /> = Design Aspect =<br /> <br /> In this project antenna theory and computer simulation software (CST) was used to evaluate the use of different materials for two different types of wearable antennas:<br /> *Monopole Antenna<br /> *Planar Inverted-F Antenna (PIFA)<br /> <br /> [[File: Monopole Antenna using Leather substrate.jpg|center|500px|thumb|Fig 4. Monopole Antenna using Leather substrate]]<br /> <br /> [[File: PIFA Antenna using Rubber substrate.jpg|center|500px|thumb|Fig 5. PIFA Antenna using Rubber substrate]]<br /> <br /> = Simulation Results =<br /> <br /> Reflection Coefficient<br /> <br /> [[File: Reflection coefficient for Monopole Antenna (Leather Substrate).jpg|center|500px|thumb|Fig 6. Reflection coefficient for Monopole Antenna (Leather Substrate)]]<br /> <br /> [[File: Reflection coefficient for PIFA Antenna (RubberSubstrate).jpg|center|500px|thumb|Fig 7. Reflection coefficient for PIFA Antenna (Rubber Substrate)]]<br /> <br /> Directivity and Efficiency<br /> <br /> [[File: Directivity and Efficiency for Monopole Antenna (Leather Substrate).jpg.jpg|center|500px|thumb|Fig 8. Directivity and Efficiency for Monopole Antenna (Leather Substrate)]]<br /> <br /> [[File: Directivity and Efficiency for PIFA Antenna (Rubber Substrate).jpg.jpg|center|500px|thumb|Fig 9. Directivity and Efficiency for PIFA Antenna (Rubber Substrate)]]<br /> <br /> == E field distribution ==<br /> <br /> [[File: Planar Monopole Antenna_3e_buffalo_01.gif|center|500px|thumb|Fig 10. E field distribution for Monopole Antenna (Leather Substrate)]]<br /> <br /> = Fabrication =<br /> <br /> Monopole Antenna (Foam Substrate)<br /> <br /> [[File: Monopole Antenna fabricated using Foam Substrate.jpg|center|500px|thumb|Fig 11. Monopole Antenna fabricated using Foam Substrate)]]<br /> <br /> PIFA (Rubber Substrate)<br /> <br /> [[File: PIFA Antenna fabricated using Rubber Substrate.jpg|center|500px|thumb|Fig 12. PIFA Antenna fabricated using Rubber Substrate)]]<br /> <br /> = Achievements =<br /> <br /> Fabrication results are expected to match the results from simulation.</div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=File:Planar_Monopole_Antenna_3e_buffalo_01.gif&diff=11335 2018-10-17T13:34:57Z

<p>A1667582: A1667582 uploaded a new version of &amp;quot;File:Planar Monopole Antenna 3e buffalo 01.gif&amp;quot;</p> <hr /> <div></div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2018s1-195_Novel_Flexible_Materials_for_Wearable_Antennas&diff=11334 2018-10-17T13:25:59Z

<p>A1667582: /* Fabrication */</p> <hr /> <div>= Project Team =<br /> <br /> Donald Dong Zhang<br /> <br /> Dennis David Kimtai<br /> <br /> = Supervisors =<br /> <br /> Professor Christophe Fumeaux<br /> <br /> Dr Shengjian (Jammy) Chen<br /> <br /> = Introduction =<br /> <br /> Natural Rubber, Buffalo Leather and Blue Foam are used as substrates for the realization of wearable antennas integrated into clothing.<br /> <br /> = Background and Motivation =<br /> <br /> The reliability of wearable communication systems can benefit from high performance antennas integrated into clothing. Emerging wearable communications systems will increasingly require flexible antennas which can be integrated into clothing and are able to adapt their shape to various movement of the body. This will allow exploiting the area of clothing to create efficient antennas in critical applications such as communications and tracking for defence or safety personnel, or monitoring of patients in a hospital.<br /> <br /> [[File: Wearable antennas in defence.jpg|center|500px|thumb|Fig 1. Wearable antennas in defence]]<br /> <br /> [[File: Wearable antennas in health care.jpg|center|500px|thumb|Fig 2. Wearable antennas in health care]]<br /> <br /> = Aims and Objectives =<br /> <br /> This project considers the use of widely available flexible materials as substrates for the realization of wearable antennas. The project focuses on material characterization and related design aspects. It involves antenna theory and computer-assisted design with state of the art electromagnetic simulations tools.<br /> <br /> = Material Characterization =<br /> <br /> The substrates materials should be lightweight, small size, flexible and robust to achieve good communication characteristics without much variation in performance.<br /> <br /> [[File: Materials properties.jpg|center|500px|thumb|Fig 3. Materials properties]]<br /> <br /> = Design Aspect =<br /> <br /> In this project antenna theory and computer simulation software (CST) was used to evaluate the use of different materials for two different types of wearable antennas:<br /> *Monopole Antenna<br /> *Planar Inverted-F Antenna (PIFA)<br /> <br /> [[File: Monopole Antenna using Leather substrate.jpg|center|500px|thumb|Fig 4. Monopole Antenna using Leather substrate]]<br /> <br /> [[File: PIFA Antenna using Rubber substrate.jpg|center|500px|thumb|Fig 5. PIFA Antenna using Rubber substrate]]<br /> <br /> = Simulation Results =<br /> <br /> Reflection Coefficient<br /> <br /> [[File: Reflection coefficient for Monopole Antenna (Leather Substrate).jpg|center|500px|thumb|Fig 6. Reflection coefficient for Monopole Antenna (Leather Substrate)]]<br /> <br /> [[File: Reflection coefficient for PIFA Antenna (RubberSubstrate).jpg|center|500px|thumb|Fig 7. Reflection coefficient for PIFA Antenna (Rubber Substrate)]]<br /> <br /> Directivity and Efficiency<br /> <br /> [[File: Directivity and Efficiency for Monopole Antenna (Leather Substrate).jpg.jpg|center|500px|thumb|Fig 8. Directivity and Efficiency for Monopole Antenna (Leather Substrate)]]<br /> <br /> [[File: Directivity and Efficiency for PIFA Antenna (Rubber Substrate).jpg.jpg|center|500px|thumb|Fig 9. Directivity and Efficiency for PIFA Antenna (Rubber Substrate)]]<br /> <br /> == Simulation Results ==<br /> <br /> E field distribution<br /> <br /> [[File: Planar Monopole Antenna_3e_buffalo_01.gif|center|500px|thumb|Fig 10. E field distribution for Monopole Antenna (Leather Substrate)]]<br /> <br /> = Fabrication =<br /> <br /> Monopole Antenna (Foam Substrate)<br /> <br /> [[File: Monopole Antenna fabricated using Foam Substrate.jpg|center|500px|thumb|Fig 11. Monopole Antenna fabricated using Foam Substrate)]]<br /> <br /> PIFA (Rubber Substrate)<br /> <br /> [[File: PIFA Antenna fabricated using Rubber Substrate.jpg|center|500px|thumb|Fig 12. PIFA Antenna fabricated using Rubber Substrate)]]<br /> <br /> = Achievements =<br /> <br /> Fabrication results are expected to match the results from simulation.</div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2018s1-195_Novel_Flexible_Materials_for_Wearable_Antennas&diff=11333 2018-10-17T13:25:19Z

<p>A1667582: /* Simulation Results */</p> <hr /> <div>= Project Team =<br /> <br /> Donald Dong Zhang<br /> <br /> Dennis David Kimtai<br /> <br /> = Supervisors =<br /> <br /> Professor Christophe Fumeaux<br /> <br /> Dr Shengjian (Jammy) Chen<br /> <br /> = Introduction =<br /> <br /> Natural Rubber, Buffalo Leather and Blue Foam are used as substrates for the realization of wearable antennas integrated into clothing.<br /> <br /> = Background and Motivation =<br /> <br /> The reliability of wearable communication systems can benefit from high performance antennas integrated into clothing. Emerging wearable communications systems will increasingly require flexible antennas which can be integrated into clothing and are able to adapt their shape to various movement of the body. This will allow exploiting the area of clothing to create efficient antennas in critical applications such as communications and tracking for defence or safety personnel, or monitoring of patients in a hospital.<br /> <br /> [[File: Wearable antennas in defence.jpg|center|500px|thumb|Fig 1. Wearable antennas in defence]]<br /> <br /> [[File: Wearable antennas in health care.jpg|center|500px|thumb|Fig 2. Wearable antennas in health care]]<br /> <br /> = Aims and Objectives =<br /> <br /> This project considers the use of widely available flexible materials as substrates for the realization of wearable antennas. The project focuses on material characterization and related design aspects. It involves antenna theory and computer-assisted design with state of the art electromagnetic simulations tools.<br /> <br /> = Material Characterization =<br /> <br /> The substrates materials should be lightweight, small size, flexible and robust to achieve good communication characteristics without much variation in performance.<br /> <br /> [[File: Materials properties.jpg|center|500px|thumb|Fig 3. Materials properties]]<br /> <br /> = Design Aspect =<br /> <br /> In this project antenna theory and computer simulation software (CST) was used to evaluate the use of different materials for two different types of wearable antennas:<br /> *Monopole Antenna<br /> *Planar Inverted-F Antenna (PIFA)<br /> <br /> [[File: Monopole Antenna using Leather substrate.jpg|center|500px|thumb|Fig 4. Monopole Antenna using Leather substrate]]<br /> <br /> [[File: PIFA Antenna using Rubber substrate.jpg|center|500px|thumb|Fig 5. PIFA Antenna using Rubber substrate]]<br /> <br /> = Simulation Results =<br /> <br /> Reflection Coefficient<br /> <br /> [[File: Reflection coefficient for Monopole Antenna (Leather Substrate).jpg|center|500px|thumb|Fig 6. Reflection coefficient for Monopole Antenna (Leather Substrate)]]<br /> <br /> [[File: Reflection coefficient for PIFA Antenna (RubberSubstrate).jpg|center|500px|thumb|Fig 7. Reflection coefficient for PIFA Antenna (Rubber Substrate)]]<br /> <br /> Directivity and Efficiency<br /> <br /> [[File: Directivity and Efficiency for Monopole Antenna (Leather Substrate).jpg.jpg|center|500px|thumb|Fig 8. Directivity and Efficiency for Monopole Antenna (Leather Substrate)]]<br /> <br /> [[File: Directivity and Efficiency for PIFA Antenna (Rubber Substrate).jpg.jpg|center|500px|thumb|Fig 9. Directivity and Efficiency for PIFA Antenna (Rubber Substrate)]]<br /> <br /> == Simulation Results ==<br /> <br /> E field distribution<br /> <br /> [[File: Planar Monopole Antenna_3e_buffalo_01.gif|center|500px|thumb|Fig 10. E field distribution for Monopole Antenna (Leather Substrate)]]<br /> <br /> = Fabrication =<br /> <br /> Monopole Antenna (Foam Substrate)<br /> <br /> [[File: Monopole Antenna fabricated using Foam Substrate.jpg|center|500px|thumb|Fig 10. Monopole Antenna fabricated using Foam Substrate)]]<br /> <br /> PIFA (Rubber Substrate)<br /> <br /> [[File: PIFA Antenna fabricated using Rubber Substrate.jpg|center|500px|thumb|Fig 11. PIFA Antenna fabricated using Rubber Substrate)]]<br /> <br /> = Achievements =<br /> <br /> Fabrication results are expected to match the results from simulation.</div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=File:Planar_Monopole_Antenna_3e_buffalo_01.gif&diff=11332 2018-10-17T13:20:49Z

<p>A1667582: </p> <hr /> <div></div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2018s1-195_Novel_Flexible_Materials_for_Wearable_Antennas&diff=11331 2018-10-17T12:45:02Z

<p>A1667582: /* Design Aspect */</p> <hr /> <div>= Project Team =<br /> <br /> Donald Dong Zhang<br /> <br /> Dennis David Kimtai<br /> <br /> = Supervisors =<br /> <br /> Professor Christophe Fumeaux<br /> <br /> Dr Shengjian (Jammy) Chen<br /> <br /> = Introduction =<br /> <br /> Natural Rubber, Buffalo Leather and Blue Foam are used as substrates for the realization of wearable antennas integrated into clothing.<br /> <br /> = Background and Motivation =<br /> <br /> The reliability of wearable communication systems can benefit from high performance antennas integrated into clothing. Emerging wearable communications systems will increasingly require flexible antennas which can be integrated into clothing and are able to adapt their shape to various movement of the body. This will allow exploiting the area of clothing to create efficient antennas in critical applications such as communications and tracking for defence or safety personnel, or monitoring of patients in a hospital.<br /> <br /> [[File: Wearable antennas in defence.jpg|center|500px|thumb|Fig 1. Wearable antennas in defence]]<br /> <br /> [[File: Wearable antennas in health care.jpg|center|500px|thumb|Fig 2. Wearable antennas in health care]]<br /> <br /> = Aims and Objectives =<br /> <br /> This project considers the use of widely available flexible materials as substrates for the realization of wearable antennas. The project focuses on material characterization and related design aspects. It involves antenna theory and computer-assisted design with state of the art electromagnetic simulations tools.<br /> <br /> = Material Characterization =<br /> <br /> The substrates materials should be lightweight, small size, flexible and robust to achieve good communication characteristics without much variation in performance.<br /> <br /> [[File: Materials properties.jpg|center|500px|thumb|Fig 3. Materials properties]]<br /> <br /> = Design Aspect =<br /> <br /> In this project antenna theory and computer simulation software (CST) was used to evaluate the use of different materials for two different types of wearable antennas:<br /> *Monopole Antenna<br /> *Planar Inverted-F Antenna (PIFA)<br /> <br /> [[File: Monopole Antenna using Leather substrate.jpg|center|500px|thumb|Fig 4. Monopole Antenna using Leather substrate]]<br /> <br /> [[File: PIFA Antenna using Rubber substrate.jpg|center|500px|thumb|Fig 5. PIFA Antenna using Rubber substrate]]<br /> <br /> = Simulation Results =<br /> <br /> Reflection Coefficient<br /> <br /> [[File: Reflection coefficient for Monopole Antenna (Leather Substrate).jpg|center|500px|thumb|Fig 6. Reflection coefficient for Monopole Antenna (Leather Substrate)]]<br /> <br /> [[File: Reflection coefficient for PIFA Antenna (RubberSubstrate).jpg|center|500px|thumb|Fig 7. Reflection coefficient for PIFA Antenna (Rubber Substrate)]]<br /> <br /> Directivity and Efficiency<br /> <br /> [[File: Directivity and Efficiency for Monopole Antenna (Leather Substrate).jpg.jpg|center|500px|thumb|Fig 8. Directivity and Efficiency for Monopole Antenna (Leather Substrate)]]<br /> <br /> [[File: Directivity and Efficiency for PIFA Antenna (Rubber Substrate).jpg.jpg|center|500px|thumb|Fig 9. Directivity and Efficiency for PIFA Antenna (Rubber Substrate)]]<br /> <br /> = Fabrication =<br /> <br /> Monopole Antenna (Foam Substrate)<br /> <br /> [[File: Monopole Antenna fabricated using Foam Substrate.jpg|center|500px|thumb|Fig 10. Monopole Antenna fabricated using Foam Substrate)]]<br /> <br /> PIFA (Rubber Substrate)<br /> <br /> [[File: PIFA Antenna fabricated using Rubber Substrate.jpg|center|500px|thumb|Fig 11. PIFA Antenna fabricated using Rubber Substrate)]]<br /> <br /> = Achievements =<br /> <br /> Fabrication results are expected to match the results from simulation.</div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2018s1-195_Novel_Flexible_Materials_for_Wearable_Antennas&diff=9827 2018-03-28T10:08:28Z

<p>A1667582: </p> <hr /> <div>= Project Team =<br /> <br /> Donald Dong Zhang<br /> <br /> Dennis David Kimtai<br /> <br /> = Supervisors =<br /> <br /> Professor Christophe Fumeaux<br /> <br /> Dr Shengjian (Jammy) Chen<br /> <br /> = Introduction =<br /> <br /> The reliability of wearable communication systems can benefit from high performance antennas integrated into clothing. Emerging wearable communications systems will increasingly require flexible antennas which can be integrated into clothing and are able to adapt their shape to various movement of the body. This will allow exploiting the area of clothing to create efficient antennas in critical applications such as communications and tracking for defence or safety personnel, or monitoring of patients in a hospital.<br /> <br /> = Comparison Materials Properties =<br /> <br /> [[File:ComparisonMaterials.PNG|center|500px|thumb|Fig 1. Comparison of the textile materials used to design wearable antennas]]</div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2018s1-195_Novel_Flexible_Materials_for_Wearable_Antennas&diff=9826 2018-03-28T10:05:03Z

<p>A1667582: </p> <hr /> <div>= Project Team =<br /> <br /> Donald Dong Zhang<br /> <br /> Dennis David Kimtai<br /> <br /> = Supervisors =<br /> <br /> Professor Christophe Fumeaux<br /> <br /> Dr Shengjian (Jammy) Chen<br /> <br /> = Introduction =<br /> <br /> The reliability of wearable communication systems can benefit from high performance antennas integrated into clothing. Emerging wearable communications systems will increasingly require flexible antennas which can be integrated into clothing and are able to adapt their shape to various movement of the body. This will allow exploiting the area of clothing to create efficient antennas in critical applications such as communications and tracking for defence or safety personnel, or monitoring of patients in a hospital.<br /> <br /> = Comparison Materials Properties =<br /> <br /> [[File:ComparisonMaterials.PNG|center|500px|thumb|Fig 1. Comparison Materials]]</div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2018s1-195_Novel_Flexible_Materials_for_Wearable_Antennas&diff=9825 2018-03-28T10:04:36Z

<p>A1667582: </p> <hr /> <div>= Project Team =<br /> <br /> Donald Dong Zhang<br /> <br /> Dennis David Kimtai<br /> <br /> = Supervisors =<br /> <br /> Professor Christophe Fumeaux<br /> <br /> Dr Shengjian (Jammy) Chen<br /> <br /> = Introduction =<br /> <br /> The reliability of wearable communication systems can benefit from high performance antennas integrated into clothing. Emerging wearable communications systems will increasingly require flexible antennas which can be integrated into clothing and are able to adapt their shape to various movement of the body. This will allow exploiting the area of clothing to create efficient antennas in critical applications such as communications and tracking for defence or safety personnel, or monitoring of patients in a hospital.<br /> <br /> = Comparison Materials Properties =<br /> <br /> [[File:ComparisonMaterials.PNG|center|500px|thumb|Comparison Materials]]</div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2018s1-195_Novel_Flexible_Materials_for_Wearable_Antennas&diff=9824 2018-03-28T09:55:09Z

<p>A1667582: </p> <hr /> <div>= Project Team =<br /> <br /> Donald Dong Zhang<br /> <br /> Dennis David Kimtai<br /> <br /> = Supervisors =<br /> <br /> Professor Christophe Fumeaux<br /> <br /> Dr Shengjian (Jammy) Chen<br /> <br /> = Introduction =<br /> <br /> The reliability of wearable communication systems can benefit from high performance antennas integrated into clothing. Emerging wearable communications systems will increasingly require flexible antennas which can be integrated into clothing and are able to adapt their shape to various movement of the body. This will allow exploiting the area of clothing to create efficient antennas in critical applications such as communications and tracking for defence or safety personnel, or monitoring of patients in a hospital.<br /> <br /> = Comparison Materials Properties =<br /> <br /> [[File:ComparisonMaterials.PNG|center|500px|Comparison Materials]]<br /> [[File:History Wikipedia English SOPA 2012 Blackout2.jpg|thumb|right|Wikipedia blackout protest against [[Stop Online Piracy Act|SOPA]] on January 18, 2012]]</div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=File:ComparisonMaterials.PNG&diff=9823 2018-03-28T09:36:42Z

<p>A1667582: A1667582 uploaded a new version of &amp;quot;File:ComparisonMaterials.PNG&amp;quot;</p> <hr /> <div></div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2018s1-195_Novel_Flexible_Materials_for_Wearable_Antennas&diff=9822 2018-03-28T09:36:15Z

<p>A1667582: </p> <hr /> <div>= Project Team =<br /> <br /> Donald Dong Zhang<br /> <br /> Dennis David Kimtai<br /> <br /> = Supervisors =<br /> <br /> Professor Christophe Fumeaux<br /> <br /> Dr Shengjian (Jammy) Chen<br /> <br /> = Introduction =<br /> <br /> The reliability of wearable communication systems can benefit from high performance antennas integrated into clothing. Emerging wearable communications systems will increasingly require flexible antennas which can be integrated into clothing and are able to adapt their shape to various movement of the body. This will allow exploiting the area of clothing to create efficient antennas in critical applications such as communications and tracking for defence or safety personnel, or monitoring of patients in a hospital.<br /> <br /> = Comparison Materials Properties =<br /> <br /> [[File:ComparisonMaterials.PNG|center|500px|Comparison Materials]]</div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2018s1-195_Novel_Flexible_Materials_for_Wearable_Antennas&diff=9821 2018-03-28T09:35:17Z

<p>A1667582: </p> <hr /> <div>= Project Team =<br /> <br /> Donald Dong Zhang<br /> <br /> Dennis David Kimtai<br /> <br /> = Supervisors =<br /> <br /> Professor Christophe Fumeaux<br /> <br /> Dr Shengjian (Jammy) Chen<br /> <br /> = Introduction =<br /> <br /> The reliability of wearable communication systems can benefit from high performance antennas integrated into clothing. Emerging wearable communications systems will increasingly require flexible antennas which can be integrated into clothing and are able to adapt their shape to various movement of the body. This will allow exploiting the area of clothing to create efficient antennas in critical applications such as communications and tracking for defence or safety personnel, or monitoring of patients in a hospital.<br /> <br /> = Comparison Materials Properties =</div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2018s1-195_Novel_Flexible_Materials_for_Wearable_Antennas&diff=9820 2018-03-28T09:30:07Z

<p>A1667582: </p> <hr /> <div>= Project Team =<br /> <br /> Donald Dong Zhang<br /> <br /> Dennis David Kimtai<br /> <br /> = Supervisors =<br /> <br /> Professor Christophe Fumeaux<br /> <br /> Dr Shengjian (Jammy) Chen<br /> <br /> = Introduction =<br /> <br /> The reliability of wearable communication systems can benefit from high performance antennas integrated into clothing. Emerging wearable communications systems will increasingly require flexible antennas which can be integrated into clothing and are able to adapt their shape to various movement of the body. This will allow exploiting the area of clothing to create efficient antennas in critical applications such as communications and tracking for defence or safety personnel, or monitoring of patients in a hospital.<br /> <br /> = Comparison Materials Properties =<br /> <br /> [[File:ComparisonMaterials.PNG|center|500px|Comparison Materials]]</div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2018s1-195_Novel_Flexible_Materials_for_Wearable_Antennas&diff=9819 2018-03-28T09:29:24Z

<p>A1667582: </p> <hr /> <div>= Project Team =<br /> <br /> Donald Dong Zhang<br /> <br /> Dennis David Kimtai<br /> <br /> = Supervisors =<br /> <br /> Professor Christophe Fumeaux<br /> <br /> Dr Shengjian (Jammy) Chen<br /> <br /> = Introduction =<br /> <br /> The reliability of wearable communication systems can benefit from high performance antennas integrated into clothing. Emerging wearable communications systems will increasingly require flexible antennas which can be integrated into clothing and are able to adapt their shape to various movement of the body. This will allow exploiting the area of clothing to create efficient antennas in critical applications such as communications and tracking for defence or safety personnel, or monitoring of patients in a hospital.<br /> <br /> = Comparison Materials Properties =</div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=File:ComparisonMaterials.PNG&diff=9818 2018-03-28T09:24:26Z

<p>A1667582: </p> <hr /> <div></div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2018s1-195_Novel_Flexible_Materials_for_Wearable_Antennas&diff=9817 2018-03-28T09:23:18Z

<p>A1667582: /* Comparison Materials Properties */</p> <hr /> <div>= Project Team =<br /> <br /> Donald Dong Zhang<br /> <br /> Dennis David Kimtai<br /> <br /> = Supervisors =<br /> <br /> Professor Christophe Fumeaux<br /> <br /> Dr Shengjian (Jammy) Chen<br /> <br /> = Introduction =<br /> <br /> The reliability of wearable communication systems can benefit from high performance antennas integrated into clothing. Emerging wearable communications systems will increasingly require flexible antennas which can be integrated into clothing and are able to adapt their shape to various movement of the body. This will allow exploiting the area of clothing to create efficient antennas in critical applications such as communications and tracking for defence or safety personnel, or monitoring of patients in a hospital.<br /> <br /> = Comparison Materials Properties =<br /> <br /> [[File:ComparisonMaterials.PNG|center|500px|Comparison Materials]]</div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2018s1-195_Novel_Flexible_Materials_for_Wearable_Antennas&diff=9816 2018-03-28T09:20:58Z

<p>A1667582: /* Comparison Materials Properties */</p> <hr /> <div>= Project Team =<br /> <br /> Donald Dong Zhang<br /> <br /> Dennis David Kimtai<br /> <br /> = Supervisors =<br /> <br /> Professor Christophe Fumeaux<br /> <br /> Dr Shengjian (Jammy) Chen<br /> <br /> = Introduction =<br /> <br /> The reliability of wearable communication systems can benefit from high performance antennas integrated into clothing. Emerging wearable communications systems will increasingly require flexible antennas which can be integrated into clothing and are able to adapt their shape to various movement of the body. This will allow exploiting the area of clothing to create efficient antennas in critical applications such as communications and tracking for defence or safety personnel, or monitoring of patients in a hospital.<br /> <br /> = Comparison Materials Properties =<br /> <br /> [[File:Comparison.PNG|center|500px|Comparison]]</div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2018s1-195_Novel_Flexible_Materials_for_Wearable_Antennas&diff=9815 2018-03-28T09:18:01Z

<p>A1667582: /* Comparison Materials Properties */</p> <hr /> <div>= Project Team =<br /> <br /> Donald Dong Zhang<br /> <br /> Dennis David Kimtai<br /> <br /> = Supervisors =<br /> <br /> Professor Christophe Fumeaux<br /> <br /> Dr Shengjian (Jammy) Chen<br /> <br /> = Introduction =<br /> <br /> The reliability of wearable communication systems can benefit from high performance antennas integrated into clothing. Emerging wearable communications systems will increasingly require flexible antennas which can be integrated into clothing and are able to adapt their shape to various movement of the body. This will allow exploiting the area of clothing to create efficient antennas in critical applications such as communications and tracking for defence or safety personnel, or monitoring of patients in a hospital.<br /> <br /> = Comparison Materials Properties =<br /> <br /> [[File:Example.PNG]]</div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2018s1-195_Novel_Flexible_Materials_for_Wearable_Antennas&diff=9814 2018-03-28T09:16:29Z

<p>A1667582: /* Comparison Materials Properties */</p> <hr /> <div>= Project Team =<br /> <br /> Donald Dong Zhang<br /> <br /> Dennis David Kimtai<br /> <br /> = Supervisors =<br /> <br /> Professor Christophe Fumeaux<br /> <br /> Dr Shengjian (Jammy) Chen<br /> <br /> = Introduction =<br /> <br /> The reliability of wearable communication systems can benefit from high performance antennas integrated into clothing. Emerging wearable communications systems will increasingly require flexible antennas which can be integrated into clothing and are able to adapt their shape to various movement of the body. This will allow exploiting the area of clothing to create efficient antennas in critical applications such as communications and tracking for defence or safety personnel, or monitoring of patients in a hospital.<br /> <br /> = Comparison Materials Properties =<br /> <br /> [[File:Phase3malConfidence.PNG|center|500px|Testing accuracy for each confidence boundary of Phase 3 malicious classification.]]</div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2018s1-195_Novel_Flexible_Materials_for_Wearable_Antennas&diff=9813 2018-03-28T09:16:06Z

<p>A1667582: /* Comparison Materials Properties */</p> <hr /> <div>= Project Team =<br /> <br /> Donald Dong Zhang<br /> <br /> Dennis David Kimtai<br /> <br /> = Supervisors =<br /> <br /> Professor Christophe Fumeaux<br /> <br /> Dr Shengjian (Jammy) Chen<br /> <br /> = Introduction =<br /> <br /> The reliability of wearable communication systems can benefit from high performance antennas integrated into clothing. Emerging wearable communications systems will increasingly require flexible antennas which can be integrated into clothing and are able to adapt their shape to various movement of the body. This will allow exploiting the area of clothing to create efficient antennas in critical applications such as communications and tracking for defence or safety personnel, or monitoring of patients in a hospital.<br /> <br /> = Comparison Materials Properties =<br /> <br /> [[File:Capture.PNG|center|500px|Compare]]</div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2018s1-195_Novel_Flexible_Materials_for_Wearable_Antennas&diff=9812 2018-03-28T09:15:20Z

<p>A1667582: /* Comparison Materials Properties */</p> <hr /> <div>= Project Team =<br /> <br /> Donald Dong Zhang<br /> <br /> Dennis David Kimtai<br /> <br /> = Supervisors =<br /> <br /> Professor Christophe Fumeaux<br /> <br /> Dr Shengjian (Jammy) Chen<br /> <br /> = Introduction =<br /> <br /> The reliability of wearable communication systems can benefit from high performance antennas integrated into clothing. Emerging wearable communications systems will increasingly require flexible antennas which can be integrated into clothing and are able to adapt their shape to various movement of the body. This will allow exploiting the area of clothing to create efficient antennas in critical applications such as communications and tracking for defence or safety personnel, or monitoring of patients in a hospital.<br /> <br /> = Comparison Materials Properties =<br /> <br /> [[File:Capture.PNG|center|500px|Testing accuracy for each confidence boundary of Phase 3 malicious classification.]]</div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2018s1-195_Novel_Flexible_Materials_for_Wearable_Antennas&diff=9811 2018-03-28T09:14:53Z

<p>A1667582: /* Comparison Materials Properties */</p> <hr /> <div>= Project Team =<br /> <br /> Donald Dong Zhang<br /> <br /> Dennis David Kimtai<br /> <br /> = Supervisors =<br /> <br /> Professor Christophe Fumeaux<br /> <br /> Dr Shengjian (Jammy) Chen<br /> <br /> = Introduction =<br /> <br /> The reliability of wearable communication systems can benefit from high performance antennas integrated into clothing. Emerging wearable communications systems will increasingly require flexible antennas which can be integrated into clothing and are able to adapt their shape to various movement of the body. This will allow exploiting the area of clothing to create efficient antennas in critical applications such as communications and tracking for defence or safety personnel, or monitoring of patients in a hospital.<br /> <br /> = Comparison Materials Properties =<br /> <br /> [[File:Phase3malConfidence.PNG|center|500px|Testing accuracy for each confidence boundary of Phase 3 malicious classification.]]</div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2018s1-195_Novel_Flexible_Materials_for_Wearable_Antennas&diff=9810 2018-03-28T09:08:12Z

<p>A1667582: /* Comparison Materials Properties */</p> <hr /> <div>= Project Team =<br /> <br /> Donald Dong Zhang<br /> <br /> Dennis David Kimtai<br /> <br /> = Supervisors =<br /> <br /> Professor Christophe Fumeaux<br /> <br /> Dr Shengjian (Jammy) Chen<br /> <br /> = Introduction =<br /> <br /> The reliability of wearable communication systems can benefit from high performance antennas integrated into clothing. Emerging wearable communications systems will increasingly require flexible antennas which can be integrated into clothing and are able to adapt their shape to various movement of the body. This will allow exploiting the area of clothing to create efficient antennas in critical applications such as communications and tracking for defence or safety personnel, or monitoring of patients in a hospital.<br /> <br /> = Comparison Materials Properties =<br /> <br /> [[File:Capture.jpg]]</div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2018s1-195_Novel_Flexible_Materials_for_Wearable_Antennas&diff=9809 2018-03-28T09:04:26Z

<p>A1667582: /* CAMPARISON materials PROPERTIES */</p> <hr /> <div>= Project Team =<br /> <br /> Donald Dong Zhang<br /> <br /> Dennis David Kimtai<br /> <br /> = Supervisors =<br /> <br /> Professor Christophe Fumeaux<br /> <br /> Dr Shengjian (Jammy) Chen<br /> <br /> = Introduction =<br /> <br /> The reliability of wearable communication systems can benefit from high performance antennas integrated into clothing. Emerging wearable communications systems will increasingly require flexible antennas which can be integrated into clothing and are able to adapt their shape to various movement of the body. This will allow exploiting the area of clothing to create efficient antennas in critical applications such as communications and tracking for defence or safety personnel, or monitoring of patients in a hospital.<br /> <br /> = Comparison Materials Properties =</div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2018s1-195_Novel_Flexible_Materials_for_Wearable_Antennas&diff=9808 2018-03-28T09:03:11Z

<p>A1667582: /* information */</p> <hr /> <div>= Project Team =<br /> <br /> Donald Dong Zhang<br /> <br /> Dennis David Kimtai<br /> <br /> = Supervisors =<br /> <br /> Professor Christophe Fumeaux<br /> <br /> Dr Shengjian (Jammy) Chen<br /> <br /> = Introduction =<br /> <br /> The reliability of wearable communication systems can benefit from high performance antennas integrated into clothing. Emerging wearable communications systems will increasingly require flexible antennas which can be integrated into clothing and are able to adapt their shape to various movement of the body. This will allow exploiting the area of clothing to create efficient antennas in critical applications such as communications and tracking for defence or safety personnel, or monitoring of patients in a hospital.<br /> <br /> = CAMPARISON materials PROPERTIES =</div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2018s1-195_Novel_Flexible_Materials_for_Wearable_Antennas&diff=9807 2018-03-28T09:01:55Z

<p>A1667582: /* Introduction */</p> <hr /> <div>= Project Team =<br /> <br /> Donald Dong Zhang<br /> <br /> Dennis David Kimtai<br /> <br /> = Supervisors =<br /> <br /> Professor Christophe Fumeaux<br /> <br /> Dr Shengjian (Jammy) Chen<br /> <br /> = Introduction =<br /> <br /> The reliability of wearable communication systems can benefit from high performance antennas integrated into clothing. Emerging wearable communications systems will increasingly require flexible antennas which can be integrated into clothing and are able to adapt their shape to various movement of the body. This will allow exploiting the area of clothing to create efficient antennas in critical applications such as communications and tracking for defence or safety personnel, or monitoring of patients in a hospital.<br /> <br /> = information =</div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2018s1-195_Novel_Flexible_Materials_for_Wearable_Antennas&diff=9806 2018-03-28T08:59:30Z

<p>A1667582: </p> <hr /> <div>= Project Team =<br /> <br /> Donald Dong Zhang<br /> <br /> Dennis David Kimtai<br /> <br /> = Supervisors =<br /> <br /> Professor Christophe Fumeaux<br /> <br /> Dr Shengjian (Jammy) Chen<br /> <br /> = Introduction =<br /> = information =</div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2018s1-195_Novel_Flexible_Materials_for_Wearable_Antennas&diff=9805 2018-03-28T08:57:57Z

<p>A1667582: /* */</p> <hr /> <div>= Project Team =<br /> <br /> = Project Team =<br /> <br /> Donald Dong Zhang<br /> <br /> Dennis David Kimtai<br /> <br /> = Supervisors =<br /> <br /> Professor Christophe Fumeaux<br /> <br /> Dr Shengjian (Jammy) Chen<br /> <br /> = Introduction =</div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2018s1-195_Novel_Flexible_Materials_for_Wearable_Antennas&diff=9804 2018-03-28T08:56:11Z

<p>A1667582: </p> <hr /> <div>= =<br /> = Project Team =<br /> <br /> Donald Dong Zhang<br /> <br /> Dennis David Kimtai<br /> <br /> = Supervisors =<br /> <br /> Professor Christophe Fumeaux<br /> <br /> Dr Shengjian (Jammy) Chen<br /> <br /> = Introduction =</div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2018s1-195_Novel_Flexible_Materials_for_Wearable_Antennas&diff=9803 2018-03-28T08:53:43Z

<p>A1667582: /* */</p> <hr /> <div>= Project Team =<br /> <br /> Donald Dong Zhang<br /> <br /> Dennis David Kimtai<br /> <br /> = Supervisors =<br /> <br /> Professor Christophe Fumeaux<br /> <br /> Dr Shengjian (Jammy) Chen<br /> <br /> = Introduction =</div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2018s1-195_Novel_Flexible_Materials_for_Wearable_Antennas&diff=9802 2018-03-28T08:52:04Z

<p>A1667582: </p> <hr /> <div>= =<br /> = Project Team =<br /> <br /> Donald Dong Zhang<br /> <br /> Dennis David Kimtai<br /> <br /> = Supervisors =<br /> <br /> Professor Christophe Fumeaux<br /> <br /> Dr Shengjian (Jammy) Chen<br /> <br /> = Introduction =</div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2018s1-195_Novel_Flexible_Materials_for_Wearable_Antennas&diff=9801 2018-03-28T08:20:06Z

<p>A1667582: </p> <hr /> <div>= Project Team =<br /> <br /> Donald Dong Zhang<br /> <br /> Dennis David Kimtai<br /> <br /> = Supervisors =<br /> <br /> Professor Christophe Fumeaux<br /> <br /> Dr Shengjian (Jammy) Chen<br /> <br /> = Introduction =</div>

A1667582 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2018s1-195_Novel_Flexible_Materials_for_Wearable_Antennas&diff=9800 2018-03-28T08:15:46Z

<p>A1667582: Created page with &quot;Project Team Donald Dong Zhang Dennis David Kimtai Supervisors Professor Christophe Fumeaux Dr Shengjian (Jammy) Chen Introduction&quot;</p> <hr /> <div>Project Team<br /> Donald Dong Zhang<br /> Dennis David Kimtai<br /> Supervisors<br /> Professor Christophe Fumeaux<br /> Dr Shengjian (Jammy) Chen<br /> Introduction</div>

A1667582