https://projectswiki.eleceng.adelaide.edu.au/projects/api.php?action=feedcontributions&feedformat=atom&user=A1670552 2026-05-16T15:13:10Z User contributions MediaWiki 1.31.4 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2017s1-191_Power_Electronics_for_Inductive_Power_Transfer_(IPT)&diff=8470 2017-09-18T07:17:44Z

<p>A1670552: </p> <hr /> <div><br /> == Project Title- Pacemaker Wireless Charging System ==<br /> <br /> [[File:Pacemaker_system1.jpg]]<br /> <br /> == Project team ==<br /> Garth Fernandez<br /> <br /> Tuo Jiang <br /> <br /> Delana Seneviratne<br /> <br /> Supervisor- Dr Andrew Allison<br /> <br /> Advisor- Dr Said Al-Sarawi<br /> <br /> == Abstract ==<br /> Conventional pacemaker technology currently relies on non-rechargeable batteries to power a cardiac pacemaker. This technology has resulted in patient deaths due to the invasive surgery component of replacing the non-rechargeable battery when battery capacity diminishes. The project explores the benefits of a wireless charging system to power a rechargeable battery inside the body. These benefits include longevity and a reduced need for repetitive surgery. The pacemaker will be treated as a black box. The system needs to provide desirable voltage and current characteristics to charge the battery efficiently, such that the patient doesn’t have to wear the transmitter coil for extended lengths. The wireless charging system consists of a set of transmitter and receiver coils, electronics and a rechargeable battery. The transmitter coil will sit on the skin near the left shoulder while a smaller receiver will be implanted at a distance of up to 1cm in the skin.<br /> <br /> <br /> == Background ==<br /> [[File:Pacemaker_module_.jpg]]<br /> <br /> Pacemaker consists of three main modules which are power source, pulse generator and electrodes. Pacemakers monitors heart activity through the electrode leads connected to the heart. The electrodes send a signal to the pulse generator to excite an electrical pulse to control abnormal heart rhythms.<br /> <br /> == Aim ==<br /> Develop wireless charging system for pacemaker<br /> <br /> Utilize a simple circuit model for a pacemaker to build WPT charging system.<br /> <br /> <br /> == System Design ==<br /> The system includes three modules, which are transmitter module(with coil), receiver module(with coil) and battery charging module.<br /> <br /> <br /> == Performance ==<br /> The system can provide around 400mA to the rechargeable battery.<br /> <br /> <br /> == Challenges ==<br /> The feedback and the battery capacity are two main challenges for the project.<br /> <br /> == Conclusion ==<br /> <br /> <br /> == References ==</div>

A1670552 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2017s1-191_Power_Electronics_for_Inductive_Power_Transfer_(IPT)&diff=8469 2017-09-18T07:14:44Z

<p>A1670552: /* Project Title- Pacemaker Wireless Charging System */</p> <hr /> <div><br /> == Project Title- Pacemaker Wireless Charging System ==<br /> <br /> [[File:Pacemaker_system1.jpg]]<br /> <br /> == Project team ==<br /> Garth Fernandez (a1670552), Tuo Jiang (a1656056) and Delana Seneviratne (1670515)<br /> <br /> Supervisor- Dr Andrew Allison<br /> <br /> Advisor- Dr Said Al-Sarawi<br /> <br /> == Abstract ==<br /> Conventional pacemaker technology currently relies on non-rechargeable batteries to power a cardiac pacemaker. This technology has resulted in patient deaths due to the invasive surgery component of replacing the non-rechargeable battery when battery capacity diminishes. The project explores the benefits of a wireless charging system to power a rechargeable battery inside the body. These benefits include longevity and a reduced need for repetitive surgery. The pacemaker will be treated as a black box. The system needs to provide desirable voltage and current characteristics to charge the battery efficiently, such that the patient doesn’t have to wear the transmitter coil for extended lengths. The wireless charging system consists of a set of transmitter and receiver coils, electronics and a rechargeable battery. The transmitter coil will sit on the skin near the left shoulder while a smaller receiver will be implanted at a distance of up to 1cm in the skin.<br /> <br /> <br /> == Background ==<br /> [[File:Pacemaker_module_.jpg]]<br /> <br /> Pacemaker consists of three main modules which are power source, pulse generator and electrodes. Pacemakers monitors heart activity through the electrode leads connected to the heart. The electrodes send a signal to the pulse generator to excite an electrical pulse to control abnormal heart rhythms.<br /> <br /> == Aim ==<br /> Develop wireless charging system for pacemaker<br /> <br /> Utilize a simple circuit model for a pacemaker to build WPT charging system.<br /> <br /> <br /> == System Design ==<br /> The system includes three modules, which are transmitter module(with coil), receiver module(with coil) and battery charging module.<br /> <br /> <br /> == Performance ==<br /> The system can provide around 400mA to the rechargeable battery.<br /> <br /> <br /> == Challenges ==<br /> The feedback and the battery capacity are two main challenges for the project.<br /> <br /> == Conclusion ==<br /> <br /> <br /> == References ==</div>

A1670552 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=File:Pacemaker_system1.jpg&diff=8468 2017-09-18T07:14:17Z

<p>A1670552: </p> <hr /> <div></div>

A1670552 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=File:Pacemaker_module1_.jpg&diff=8467 2017-09-18T07:13:12Z

<p>A1670552: </p> <hr /> <div></div>

A1670552 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2017s1-191_Power_Electronics_for_Inductive_Power_Transfer_(IPT)&diff=8466 2017-09-18T07:12:38Z

<p>A1670552: /* Project Title- Pacemaker Wireless Charging System */</p> <hr /> <div><br /> == Project Title- Pacemaker Wireless Charging System ==<br /> <br /> == Project team ==<br /> Garth Fernandez (a1670552), Tuo Jiang (a1656056) and Delana Seneviratne (1670515)<br /> <br /> Supervisor- Dr Andrew Allison<br /> <br /> Advisor- Dr Said Al-Sarawi<br /> <br /> == Abstract ==<br /> Conventional pacemaker technology currently relies on non-rechargeable batteries to power a cardiac pacemaker. This technology has resulted in patient deaths due to the invasive surgery component of replacing the non-rechargeable battery when battery capacity diminishes. The project explores the benefits of a wireless charging system to power a rechargeable battery inside the body. These benefits include longevity and a reduced need for repetitive surgery. The pacemaker will be treated as a black box. The system needs to provide desirable voltage and current characteristics to charge the battery efficiently, such that the patient doesn’t have to wear the transmitter coil for extended lengths. The wireless charging system consists of a set of transmitter and receiver coils, electronics and a rechargeable battery. The transmitter coil will sit on the skin near the left shoulder while a smaller receiver will be implanted at a distance of up to 1cm in the skin.<br /> <br /> <br /> == Background ==<br /> [[File:Pacemaker_module_.jpg]]<br /> <br /> Pacemaker consists of three main modules which are power source, pulse generator and electrodes. Pacemakers monitors heart activity through the electrode leads connected to the heart. The electrodes send a signal to the pulse generator to excite an electrical pulse to control abnormal heart rhythms.<br /> <br /> == Aim ==<br /> Develop wireless charging system for pacemaker<br /> <br /> Utilize a simple circuit model for a pacemaker to build WPT charging system.<br /> <br /> <br /> == System Design ==<br /> The system includes three modules, which are transmitter module(with coil), receiver module(with coil) and battery charging module.<br /> <br /> <br /> == Performance ==<br /> The system can provide around 400mA to the rechargeable battery.<br /> <br /> <br /> == Challenges ==<br /> The feedback and the battery capacity are two main challenges for the project.<br /> <br /> == Conclusion ==<br /> <br /> <br /> == References ==</div>

A1670552 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2017s1-191_Power_Electronics_for_Inductive_Power_Transfer_(IPT)&diff=8465 2017-09-18T07:12:16Z

<p>A1670552: /* Project Title- Pacemaker Wireless Charging System */</p> <hr /> <div><br /> == Project Title- Pacemaker Wireless Charging System ==<br /> [[File:Pacemakersystem.jpeg]]<br /> <br /> == Project team ==<br /> Garth Fernandez (a1670552), Tuo Jiang (a1656056) and Delana Seneviratne (1670515)<br /> <br /> Supervisor- Dr Andrew Allison<br /> <br /> Advisor- Dr Said Al-Sarawi<br /> <br /> == Abstract ==<br /> Conventional pacemaker technology currently relies on non-rechargeable batteries to power a cardiac pacemaker. This technology has resulted in patient deaths due to the invasive surgery component of replacing the non-rechargeable battery when battery capacity diminishes. The project explores the benefits of a wireless charging system to power a rechargeable battery inside the body. These benefits include longevity and a reduced need for repetitive surgery. The pacemaker will be treated as a black box. The system needs to provide desirable voltage and current characteristics to charge the battery efficiently, such that the patient doesn’t have to wear the transmitter coil for extended lengths. The wireless charging system consists of a set of transmitter and receiver coils, electronics and a rechargeable battery. The transmitter coil will sit on the skin near the left shoulder while a smaller receiver will be implanted at a distance of up to 1cm in the skin.<br /> <br /> <br /> == Background ==<br /> [[File:Pacemaker_module_.jpg]]<br /> <br /> Pacemaker consists of three main modules which are power source, pulse generator and electrodes. Pacemakers monitors heart activity through the electrode leads connected to the heart. The electrodes send a signal to the pulse generator to excite an electrical pulse to control abnormal heart rhythms.<br /> <br /> == Aim ==<br /> Develop wireless charging system for pacemaker<br /> <br /> Utilize a simple circuit model for a pacemaker to build WPT charging system.<br /> <br /> <br /> == System Design ==<br /> The system includes three modules, which are transmitter module(with coil), receiver module(with coil) and battery charging module.<br /> <br /> <br /> == Performance ==<br /> The system can provide around 400mA to the rechargeable battery.<br /> <br /> <br /> == Challenges ==<br /> The feedback and the battery capacity are two main challenges for the project.<br /> <br /> == Conclusion ==<br /> <br /> <br /> == References ==</div>

A1670552 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=File:Pacemaker_system.jpg&diff=8464 2017-09-18T07:09:55Z

<p>A1670552: </p> <hr /> <div></div>

A1670552 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2017s1-191_Power_Electronics_for_Inductive_Power_Transfer_(IPT)&diff=8463 2017-09-18T07:08:37Z

<p>A1670552: /* Background */</p> <hr /> <div><br /> == Project Title- Pacemaker Wireless Charging System ==<br /> <br /> == Project team ==<br /> Garth Fernandez (a1670552), Tuo Jiang (a1656056) and Delana Seneviratne (1670515)<br /> <br /> Supervisor- Dr Andrew Allison<br /> <br /> Advisor- Dr Said Al-Sarawi<br /> <br /> == Abstract ==<br /> Conventional pacemaker technology currently relies on non-rechargeable batteries to power a cardiac pacemaker. This technology has resulted in patient deaths due to the invasive surgery component of replacing the non-rechargeable battery when battery capacity diminishes. The project explores the benefits of a wireless charging system to power a rechargeable battery inside the body. These benefits include longevity and a reduced need for repetitive surgery. The pacemaker will be treated as a black box. The system needs to provide desirable voltage and current characteristics to charge the battery efficiently, such that the patient doesn’t have to wear the transmitter coil for extended lengths. The wireless charging system consists of a set of transmitter and receiver coils, electronics and a rechargeable battery. The transmitter coil will sit on the skin near the left shoulder while a smaller receiver will be implanted at a distance of up to 1cm in the skin.<br /> <br /> <br /> == Background ==<br /> [[File:Pacemaker_module_.jpg]]<br /> <br /> Pacemaker consists of three main modules which are power source, pulse generator and electrodes. Pacemakers monitors heart activity through the electrode leads connected to the heart. The electrodes send a signal to the pulse generator to excite an electrical pulse to control abnormal heart rhythms.<br /> <br /> == Aim ==<br /> Develop wireless charging system for pacemaker<br /> <br /> Utilize a simple circuit model for a pacemaker to build WPT charging system.<br /> <br /> <br /> == System Design ==<br /> The system includes three modules, which are transmitter module(with coil), receiver module(with coil) and battery charging module.<br /> <br /> <br /> == Performance ==<br /> The system can provide around 400mA to the rechargeable battery.<br /> <br /> <br /> == Challenges ==<br /> The feedback and the battery capacity are two main challenges for the project.<br /> <br /> == Conclusion ==<br /> <br /> <br /> == References ==</div>

A1670552 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=File:Pacemaker_module_.jpg&diff=8462 2017-09-18T07:07:04Z

<p>A1670552: </p> <hr /> <div></div>

A1670552 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2017s1-191_Power_Electronics_for_Inductive_Power_Transfer_(IPT)&diff=8461 2017-09-18T07:06:36Z

<p>A1670552: /* Background */</p> <hr /> <div><br /> == Project Title- Pacemaker Wireless Charging System ==<br /> <br /> == Project team ==<br /> Garth Fernandez (a1670552), Tuo Jiang (a1656056) and Delana Seneviratne (1670515)<br /> <br /> Supervisor- Dr Andrew Allison<br /> <br /> Advisor- Dr Said Al-Sarawi<br /> <br /> == Abstract ==<br /> Conventional pacemaker technology currently relies on non-rechargeable batteries to power a cardiac pacemaker. This technology has resulted in patient deaths due to the invasive surgery component of replacing the non-rechargeable battery when battery capacity diminishes. The project explores the benefits of a wireless charging system to power a rechargeable battery inside the body. These benefits include longevity and a reduced need for repetitive surgery. The pacemaker will be treated as a black box. The system needs to provide desirable voltage and current characteristics to charge the battery efficiently, such that the patient doesn’t have to wear the transmitter coil for extended lengths. The wireless charging system consists of a set of transmitter and receiver coils, electronics and a rechargeable battery. The transmitter coil will sit on the skin near the left shoulder while a smaller receiver will be implanted at a distance of up to 1cm in the skin.<br /> <br /> <br /> == Background ==<br /> Pacemaker consists of three main modules which are power source, pulse generator and electrodes. Pacemakers monitors heart activity through the electrode leads connected to the heart. The electrodes send a signal to the pulse generator to excite an electrical pulse to control abnormal heart rhythms.<br /> <br /> == Aim ==<br /> Develop wireless charging system for pacemaker<br /> <br /> Utilize a simple circuit model for a pacemaker to build WPT charging system.<br /> <br /> <br /> == System Design ==<br /> The system includes three modules, which are transmitter module(with coil), receiver module(with coil) and battery charging module.<br /> <br /> <br /> == Performance ==<br /> The system can provide around 400mA to the rechargeable battery.<br /> <br /> <br /> == Challenges ==<br /> The feedback and the battery capacity are two main challenges for the project.<br /> <br /> == Conclusion ==<br /> <br /> <br /> == References ==</div>

A1670552 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2017s1-191_Power_Electronics_for_Inductive_Power_Transfer_(IPT)&diff=8460 2017-09-18T07:01:22Z

<p>A1670552: </p> <hr /> <div><br /> == Project Title- Pacemaker Wireless Charging System ==<br /> <br /> == Project team ==<br /> Garth Fernandez (a1670552), Tuo Jiang (a1656056) and Delana Seneviratne (1670515)<br /> <br /> Supervisor- Dr Andrew Allison<br /> <br /> Advisor- Dr Said Al-Sarawi<br /> <br /> == Abstract ==<br /> Conventional pacemaker technology currently relies on non-rechargeable batteries to power a cardiac pacemaker. This technology has resulted in patient deaths due to the invasive surgery component of replacing the non-rechargeable battery when battery capacity diminishes. The project explores the benefits of a wireless charging system to power a rechargeable battery inside the body. These benefits include longevity and a reduced need for repetitive surgery. The pacemaker will be treated as a black box. The system needs to provide desirable voltage and current characteristics to charge the battery efficiently, such that the patient doesn’t have to wear the transmitter coil for extended lengths. The wireless charging system consists of a set of transmitter and receiver coils, electronics and a rechargeable battery. The transmitter coil will sit on the skin near the left shoulder while a smaller receiver will be implanted at a distance of up to 1cm in the skin.<br /> <br /> <br /> == Background ==<br /> Pacemaker consists of three main modules which are power source, pulse generator and electrodes. Pacemakers monitors heart activity through the electrode leads connected to the heart. The electrodes send a signal to the pulse generator to excite an electrical pulse to control abnormal heart rhythms.<br /> <br /> <br /> == Aim ==<br /> Develop wireless charging system for pacemaker<br /> <br /> Utilize a simple circuit model for a pacemaker to build WPT charging system.<br /> <br /> <br /> == System Design ==<br /> The system includes three modules, which are transmitter module(with coil), receiver module(with coil) and battery charging module.<br /> <br /> <br /> == Performance ==<br /> The system can provide around 400mA to the rechargeable battery.<br /> <br /> <br /> == Challenges ==<br /> The feedback and the battery capacity are two main challenges for the project.<br /> <br /> == Conclusion ==<br /> <br /> <br /> == References ==</div>

A1670552 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2017s1-191_Power_Electronics_for_Inductive_Power_Transfer_(IPT)&diff=8459 2017-09-18T06:53:33Z

<p>A1670552: </p> <hr /> <div><br /> == Project Title- Pacemaker Wireless Charging System ==<br /> <br /> == Project team ==<br /> Garth Fernandez (a1670552), Tuo Jiang (a1656056) and Delana Seneviratne (1670515)<br /> <br /> Supervisor- Dr Andrew Allison<br /> <br /> Advisor- Dr Said Al-Sarawi<br /> <br /> == Abstract ==<br /> Conventional pacemaker technology currently relies on non-rechargeable batteries to power a cardiac pacemaker. This technology has resulted in patient deaths due to the invasive surgery component of replacing the non-rechargeable battery when battery capacity diminishes. The project explores the benefits of a wireless charging system to power a rechargeable battery inside the body. These benefits include longevity and a reduced need for repetitive surgery. The pacemaker will be treated as a black box. The system needs to provide desirable voltage and current characteristics to charge the battery efficiently, such that the patient doesn’t have to wear the transmitter coil for extended lengths. The wireless charging system consists of a set of transmitter and receiver coils, electronics and a rechargeable battery. The transmitter coil will sit on the skin near the left shoulder while a smaller receiver will be implanted at a distance of up to 1cm in the skin.<br /> <br /> <br /> == Aim ==<br /> Develop wireless charging system for pacemaker<br /> <br /> Utilize a simple circuit model for a pacemaker to build WPT charging system.<br /> <br /> <br /> == System Design ==<br /> The system includes three modules, which are transmitter module(with coil), receiver module(with coil) and battery charging module.<br /> <br /> <br /> == Performance ==<br /> The system can provide around 400mA to the rechargeable battery.<br /> <br /> <br /> == Challenges ==<br /> The feedback and the battery capacity are two main challenges for the project.<br /> <br /> == Conclusion ==<br /> <br /> <br /> == References ==</div>

A1670552 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2017s1-191_Power_Electronics_for_Inductive_Power_Transfer_(IPT)&diff=8458 2017-09-18T06:37:56Z

<p>A1670552: </p> <hr /> <div><br /> == Project Title- Pacemaker Wireless Charging System ==<br /> <br /> == Project team ==<br /> Garth Fernandez (a1670552), Tuo Jiang (a1656056) and Delana Seneviratne (1670515)<br /> <br /> Supervisor- Dr Andrew Allison<br /> <br /> Advisor- Dr Said Al-Sarawi<br /> <br /> == Abstract ==<br /> Conventional pacemaker technology currently relies on non-rechargeable batteries to power a cardiac pacemaker. This technology has resulted in patient deaths due to the invasive surgery component of replacing the non-rechargeable battery when battery capacity diminishes. The project explores the benefits of a wireless charging system to power a rechargeable battery inside the body. These benefits include longevity and a reduced need for repetitive surgery. The pacemaker will be treated as a black box. The system needs to provide desirable voltage and current characteristics to charge the battery efficiently, such that the patient doesn’t have to wear the transmitter coil for extended lengths. The wireless charging system consists of a set of transmitter and receiver coils, electronics and a rechargeable battery. The transmitter coil will sit on the skin near the left shoulder while a smaller receiver will be implanted at a distance of up to 1cm in the skin.<br /> <br /> <br /> == Aim ==<br /> <br /> <br /> == Motivation ==<br /> <br /> <br /> == System Design ==<br /> <br /> <br /> == Performance ==<br /> <br /> <br /> == Challenges ==<br /> <br /> <br /> == Conclusion ==<br /> <br /> <br /> == References ==</div>

A1670552 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Projects:2017s1-191_Power_Electronics_for_Inductive_Power_Transfer_(IPT)&diff=8457 2017-09-18T06:31:07Z

<p>A1670552: Created page with &quot; == Project Title- Pacemaker Wireless Charging System == == Project team == Garth Fernandez (a1670552), Tuo Jiang (a1656056) and Delana Seneviratne (1670515) Supervisor- Dr...&quot;</p> <hr /> <div><br /> == Project Title- Pacemaker Wireless Charging System ==<br /> <br /> == Project team ==<br /> Garth Fernandez (a1670552), Tuo Jiang (a1656056) and Delana Seneviratne (1670515)<br /> <br /> Supervisor- Dr Andrew Allison<br /> <br /> Advisor- Dr Said Al-Sarawi<br /> <br /> == Abstract ==<br /> Conventional pacemaker technology currently relies on non-rechargeable batteries to power a cardiac pacemaker. This technology has resulted in patient deaths due to the invasive surgery component of replacing the non-rechargeable battery when battery capacity diminishes. The project explores the benefits of a wireless charging system to power a rechargeable battery inside the body. These benefits include longevity and a reduced need for repetitive surgery. The pacemaker will be treated as a black box. The system needs to provide desirable voltage and current characteristics to charge the battery efficiently, such that the patient doesn’t have to wear the transmitter coil for extended lengths. The wireless charging system consists of a set of transmitter and receiver coils, electronics and a rechargeable battery. The transmitter coil will sit on the skin near the left shoulder while a smaller receiver will be implanted at a distance of up to 1cm in the skin.<br /> <br /> <br /> <br /> <br /> <br /> <br /> <br /> <br /> == References ==</div>

A1670552 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Literature_Search_Training&diff=7638 2017-02-28T04:34:07Z

<p>A1670552: </p> <hr /> <div>== 2017 Semester 1 ==<br /> <br /> Please enter your project group number in the confirmed LST slot.<br /> <br /> {| class=&quot;wikitable&quot;<br /> |- <br /> ! Week 1 !! Sunday !! Monday !! Tuesday !! Wednesday !! Thursday !! Friday !! Saturday<br /> |- <br /> ! 8am || 00 || || || || || || <br /> |- <br /> ! 9am || || || || || || || <br /> |-<br /> !10am || || || || || 106 || || <br /> |- <br /> !11am || || || || 140 || ||183 || <br /> |- <br /> !12pm || || || || Briefing || ||176 || <br /> |- <br /> ! 1pm || || || || Briefing || || || <br /> |- <br /> ! 2pm || || || || 105 || || || <br /> |- <br /> ! 3pm || || || || || || ||<br /> |- <br /> ! 4pm || || || 135 (4:30 - 5:30) || || || || <br /> |- <br /> ! 5pm || || || || || || || <br /> |}<br /> <br /> {| class=&quot;wikitable&quot;<br /> |- <br /> ! Week 2 !! Sunday !! Monday !! Tuesday !! Wednesday !! Thursday !! Friday !! Saturday<br /> |- <br /> ! 8am || || || || || || || <br /> |- <br /> ! 9am || || || || || || || <br /> |-<br /> !10am || || || 109 || || || || <br /> |- <br /> !11am || || || || || || || <br /> |- <br /> !12pm || || || || || || || <br /> |- <br /> ! 1pm || || || 103 || || || || <br /> |- <br /> ! 2pm || || || || || || || <br /> |- <br /> ! 3pm || || || || || || ||<br /> |- <br /> ! 4pm || || 107 || || || || <br /> |- <br /> ! 5pm || || || || || || || <br /> |}<br /> <br /> {| class=&quot;wikitable&quot;<br /> |- <br /> ! Week 3 !! Sunday !! Monday !! Tuesday !! Wednesday !! Thursday !! Friday !! Saturday<br /> |- <br /> ! 8am || || || || || || || <br /> |- <br /> ! 9am || || || || || || || <br /> |-<br /> !10am || || || || || || || <br /> |- <br /> !11am || || || || || || || <br /> |- <br /> !12pm || || || || Workshop || || || <br /> |- <br /> ! 1pm || || || || Workshop || || || <br /> |- <br /> ! 2pm || || || || || || || <br /> |- <br /> ! 3pm || || || || || || ||<br /> |- <br /> ! 4pm || || || || || || || <br /> |- <br /> ! 5pm || || || || || || || <br /> |}</div>

A1670552 https://projectswiki.eleceng.adelaide.edu.au/projects/index.php?title=Literature_Search_Training&diff=7637 2017-02-28T04:13:40Z

<p>A1670552: </p> <hr /> <div>== 2017 Semester 1 ==<br /> <br /> Please enter your project group number in the confirmed LST slot.<br /> <br /> {| class=&quot;wikitable&quot;<br /> |- <br /> ! Week 1 !! Sunday !! Monday !! Tuesday !! Wednesday !! Thursday !! Friday !! Saturday<br /> |- <br /> ! 8am || 00 || || || || || || <br /> |- <br /> ! 9am || || || || || 191 || || <br /> |-<br /> !10am || || || || || 106 || || <br /> |- <br /> !11am || || || || 140 || ||183 || <br /> |- <br /> !12pm || || || || Briefing || ||176 || <br /> |- <br /> ! 1pm || || || || Briefing || || || <br /> |- <br /> ! 2pm || || || || 105 || || || <br /> |- <br /> ! 3pm || || || || || || ||<br /> |- <br /> ! 4pm || || || 135 (4:30 - 5:30) || || || || <br /> |- <br /> ! 5pm || || || || || || || <br /> |}<br /> <br /> {| class=&quot;wikitable&quot;<br /> |- <br /> ! Week 2 !! Sunday !! Monday !! Tuesday !! Wednesday !! Thursday !! Friday !! Saturday<br /> |- <br /> ! 8am || || || || || || || <br /> |- <br /> ! 9am || || || || || || || <br /> |-<br /> !10am || || || 109 || || || || <br /> |- <br /> !11am || || || || || || || <br /> |- <br /> !12pm || || || || || || || <br /> |- <br /> ! 1pm || || || 103 || || || || <br /> |- <br /> ! 2pm || || || || || || || <br /> |- <br /> ! 3pm || || || || || || ||<br /> |- <br /> ! 4pm || || 107 || || || || <br /> |- <br /> ! 5pm || || || || || || || <br /> |}<br /> <br /> {| class=&quot;wikitable&quot;<br /> |- <br /> ! Week 3 !! Sunday !! Monday !! Tuesday !! Wednesday !! Thursday !! Friday !! Saturday<br /> |- <br /> ! 8am || || || || || || || <br /> |- <br /> ! 9am || || || || || || || <br /> |-<br /> !10am || || || || || || || <br /> |- <br /> !11am || || || || || || || <br /> |- <br /> !12pm || || || || Workshop || || || <br /> |- <br /> ! 1pm || || || || Workshop || || || <br /> |- <br /> ! 2pm || || || || || || || <br /> |- <br /> ! 3pm || || || || || || ||<br /> |- <br /> ! 4pm || || || || || || || <br /> |- <br /> ! 5pm || || || || || || || <br /> |}</div>

A1670552