Difference between revisions of "Team:BGU ISRAEL/HP/Gold"

 
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                         <p>
 
                         <p>
                             Every science research first requires a collect of information and introducing of the field. One of our major goals in the
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                             As an initial step to solve the plastic waste problem, <b>we read the literature, learned what have already been done and met with several experts in different aspects of plastic waste:
                            project, was to raise awareness of the plastic hazard. Thus, before we could pass our knowledge to others, we did a  
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Prof. Alex Sivan</b>, a scientist from the Ben-Gurion University who is an expert in microbial degradation of plastic waste. We consulted Prof. Sivan about our approach to a new solution for plastic degradation and learned that LC-Cutinase is an enzyme that is known for his ability to break PET bonds into two monomers: ethylene glycol and terephthalic acid. After learning about the LC-Cutinase, and making a comprehensive research about its properties we decided to focus on improving its PET degrading activity.
                            comprehensive investigation of plastic's implications. We met senior professors and researchers who focuses on different
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                            aspects of plastic waste.
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                         </p>
 
                         </p>
 
                         <p>
 
                         <p>
                            <b>Prop. Alex Sivan</b>, a researcher from our university that one of his research interests is Microbial degradation of
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Next, we consulted Dr. Sarel Fleishman, a scientist from Department of Biological Chemistry, Weizmann Institute of Science, Israel, who is expert in computational protein design to improve enzyme activity. Dr. Fleishman helped us design the LC-Cutinase variants in order to improve its activity. We used his recently published algorithm- PROSS (Netzer and Fleishman, Science 2016), and designed rational mutations to make a thermodynamic stable protein. We found that the coding optimized as well as few variants improved the LC-Cutinase activity and its ability to degrade PET.
                            plastic wastes. We consulted prop. Sivan about the enzyme we should work with. Along to wide Literature research, we have
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At the same time, we investigated the metabolic pathway that is required for our project. We found that the <i>Pseudomonas putida</i> bacterium has the qualities and requirements to engineer for a biodegradation product. We contacted <b>Prof. Victor De Lorenzo</b>, who uses advanced molecular biology and genetic engineering of microorganisms, like <i>P. Putida</i>, for biomonitoring and bioremediation.  Prof. De Lorenzo contributed from his extensive knowledge and sent us the pSEVA plasmids that suitable for genetic engineering of <i>P. Putida</i>.  We also contacted <b>Prof. Dan Tawfik</b> and <b>Dr. Halim Jubran</b> from the Department of Bimolecular Sciences, Weizmann Institute of Science, who provided the <i>P. Putida</i> KT 2440.
                            learned that LC - Cutinase is an enzyme who knows for his ability to break PET first bond in the metabolic degradation pathway. We noticed that there is an extend research about this enzyme property. From that point we decided to work with LC - Cutinase as the PET first bond breaker.
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                            <b>Dr. Sarel Flaysman </b>- Principal investigator from Department of Biological Chemistry, Weizmann Institute of Science.
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                            We contact Dr. Flaysman in order to introduce him our project. Dr. Flaysman suggest us to use his algorithm- PROSS, who
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                            preform rational mutations in proteins and improve their activity by making them more thermodynamic stable.
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                         </p>
 
                         </p>
 
                         <p>
 
                         <p>
                            After we collect that info, we were ready to start the lab research. For that we met <b>Prof. Amir Aharoni</b>  
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In addition we met <b>Prof. Amir Aharoni</b> and <b>Dr. Shimon Bershtein</b>, two scientists from our university who are expert in protein engineering who study and improve complex biological processes. They advised us how to design the metabolic pathways in <i>P.putida</i> and provide important advices about genetic engineering. Finally, we discussed our plan and the project's design with our PIs concluding the valuable information to start wet lab work on our project.
                            - a researcher from our university that focus in Protein Engineering for the study of complex biological processes. Prof.
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                            Aharoni helped us to apply our theoretical knowledge to lab terms. Meanwhile we also investigated the metabolic pathway
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                            part, we read lot of article and found out about the <i>Pseudomonas putida</i> bacterium.
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                         </p>
 
                         </p>
 
                         <p>
 
                         <p>
                            <b>Prop. De Lorenzo</b> - his research exploits advanced molecular biology and genetic engineering of microorganisms for the
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Furthermore, we done a comprehensive investigation of plastic's implications in order to learn and be able to raise awareness of the plastic hazard. Throughout the project, we met experts from the industry who utilize plastic in its raw state - <b>Coca-Cola Company, Genome compiler and many more</b>. We have learned about plastic's convenient properties such as flexibility, rigidity and lucidity that make plastic a popular raw material in the industry.
                            sake of biomonitoring, bioremediation etc. He use in particular <i>P.Putida</i>. We contact him and ask about the <i>P.Putida</i> bacterium. 
+
                        </p>
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                        <p>
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                            Prop. De Lorenzo answered our questions, sent us pSEVA plasmids and turned us to<b> Prof. Dan Tawfik </b>and <b>Dr. Halim
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                                Jubran</b>, Department of Bimolecular Sciences, Weizmann Institute of Science, That provided us with the <i>P.putida</i> KT
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                            2440. We also consulate<b> Dr. Shimon Bershtein</b>, Faculty of Natural Sciences, Ben-Gurion University of the Negev,  
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                            about Assistance with <i>P.putida</i> resistances and genetic engineering. As we gather information about our Substrate we
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                            moved to design our science research. Thus we address our PIs for science advises and met diverse researchers who helped
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                            us combine an efficient work patterns.
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                        </p>
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                        <p>
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                            All project long we continued to encounter experts who deal with plastic as a raw material in industrial ways, the main ones
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                            was - <b> Coca-Cola Company, Genome compiler </b> and <b> Carasso Science Park </b>. We have learned about plastic's  
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                            convenient properties that makes him so popular and easy to use, such as- flexibility, rigidity, lucidity and much more.
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                         </p>
 
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                         <p>
                            Finally, we aimed to get familiar with plastic waste degradation solutions. Therefore, we visit <b>'Neot Hovav- eco industrial
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                          Finally, we aimed to learn about the current solutions for plastic waste. We visited several leading industrial companies, such as <b>'Neot Hovav- eco industrial park', 'Aviv- Recycling Industries'</b> and <b>'ADAMA Agricultural Solutions'</b> to learn about their way of dealing with plastic waste. By visiting at Aviv recycling company, we saw and learned the process of plastic recycling – from the arrival of the plastic bottle to the plant to its reduction into raw plastic material made for the creation of other products. One of the most interesting and important things we have learned is that 99% of the recycled raw plastic material is being used for products that cannot be recycled again. Discovering that the current recycling process produces plastic waste that is not recyclable was eye opener, as it emphasizes the unmet need for biodegradation of plastic waste.  
                                park', 'Aviv- Recycling Industries' </b>and <b>'ADAMA Agricultural Solutions' </b>. At our visit in Aviv recycling plant
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                            we saw and understood the process of plastic recycling – from the arrival of the plastic bottle to the plant, to
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                            transforming it to raw material for other products.
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                                 <img class="img-thumbnail knowledgePics" src="https://static.igem.org/mediawiki/2016/7/70/AvivIndust1BGU.jpg">
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                                 <img class="img-thumbnail" src="https://static.igem.org/mediawiki/2016/7/70/AvivIndust1BGU.jpg">
 
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                         <p>
 
                         <p>
                            One of the most interesting and important things we've learned during the tour is that 99% of the raw material (the output
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With the acquired knowledge, the magnitude of damage of plastic waste, and it became clear to us that we must find an effective and fast solution to deal with this problem.
                            of the recycle process) is than used to producing products that cannot go through the recycle process again. It was here,
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                            that we really understood the enormous damage lies in plastic waste and that we have to find a different solution to deal  
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                            with this problem.
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                        </p>
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                        <br>
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                        <p>
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                            The investigate process we have done helped us understand how major and severe the issue of accumulate of plastic waste is.
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                            This increase our motivation and drove us to work harder in order to find an efficient solution.  
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                         </p>
 
                         </p>
  

Latest revision as of 21:34, 19 October 2016

PlastiCure

Acquiring Knowledge


As an initial step to solve the plastic waste problem, we read the literature, learned what have already been done and met with several experts in different aspects of plastic waste: Prof. Alex Sivan, a scientist from the Ben-Gurion University who is an expert in microbial degradation of plastic waste. We consulted Prof. Sivan about our approach to a new solution for plastic degradation and learned that LC-Cutinase is an enzyme that is known for his ability to break PET bonds into two monomers: ethylene glycol and terephthalic acid. After learning about the LC-Cutinase, and making a comprehensive research about its properties we decided to focus on improving its PET degrading activity.

Next, we consulted Dr. Sarel Fleishman, a scientist from Department of Biological Chemistry, Weizmann Institute of Science, Israel, who is expert in computational protein design to improve enzyme activity. Dr. Fleishman helped us design the LC-Cutinase variants in order to improve its activity. We used his recently published algorithm- PROSS (Netzer and Fleishman, Science 2016), and designed rational mutations to make a thermodynamic stable protein. We found that the coding optimized as well as few variants improved the LC-Cutinase activity and its ability to degrade PET. At the same time, we investigated the metabolic pathway that is required for our project. We found that the Pseudomonas putida bacterium has the qualities and requirements to engineer for a biodegradation product. We contacted Prof. Victor De Lorenzo, who uses advanced molecular biology and genetic engineering of microorganisms, like P. Putida, for biomonitoring and bioremediation. Prof. De Lorenzo contributed from his extensive knowledge and sent us the pSEVA plasmids that suitable for genetic engineering of P. Putida. We also contacted Prof. Dan Tawfik and Dr. Halim Jubran from the Department of Bimolecular Sciences, Weizmann Institute of Science, who provided the P. Putida KT 2440.

In addition we met Prof. Amir Aharoni and Dr. Shimon Bershtein, two scientists from our university who are expert in protein engineering who study and improve complex biological processes. They advised us how to design the metabolic pathways in P.putida and provide important advices about genetic engineering. Finally, we discussed our plan and the project's design with our PIs concluding the valuable information to start wet lab work on our project.

Furthermore, we done a comprehensive investigation of plastic's implications in order to learn and be able to raise awareness of the plastic hazard. Throughout the project, we met experts from the industry who utilize plastic in its raw state - Coca-Cola Company, Genome compiler and many more. We have learned about plastic's convenient properties such as flexibility, rigidity and lucidity that make plastic a popular raw material in the industry.

Finally, we aimed to learn about the current solutions for plastic waste. We visited several leading industrial companies, such as 'Neot Hovav- eco industrial park', 'Aviv- Recycling Industries' and 'ADAMA Agricultural Solutions' to learn about their way of dealing with plastic waste. By visiting at Aviv recycling company, we saw and learned the process of plastic recycling – from the arrival of the plastic bottle to the plant to its reduction into raw plastic material made for the creation of other products. One of the most interesting and important things we have learned is that 99% of the recycled raw plastic material is being used for products that cannot be recycled again. Discovering that the current recycling process produces plastic waste that is not recyclable was eye opener, as it emphasizes the unmet need for biodegradation of plastic waste.

With the acquired knowledge, the magnitude of damage of plastic waste, and it became clear to us that we must find an effective and fast solution to deal with this problem.

Address:

Ben-Gurion University of the Negev
Ben Gurion 1, Beer Sheva 8410501, Israel

Mail: igembgu2016@gmail.com

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