Team:Peking/Team/Notebook/Protocols

From 2013.igem.org

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            <h2 id="PageSubTitle1"> Attributions </h2>
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<h2 id="PageSubTitle1"> Strains and Growth Media </h2>
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<B>ZHENG Pu</B> is the team leader of the Peking 2013 iGEM team. He mainly focused on the design of biosensor system. He was involved in team interaction and academic communication. He was also trying to design applications for our aromatic bionsensors.
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E. coli Top10 was used for all the experiments and grown in Luria–Bertani (LB) medium or M9 minimal medium using glycerin as carbon source. Kanamycin (10 μg/mL), ampicillin (50 μg/mL) and chloramphenicol (170μg/mL) were added as appropriate
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<B>SHI Hailing</B> is the vice captain of the Peking 2013 iGEM team. She also managed the team during the team leader’s absence. She constructed a biosensor adapter, NahF, and did test for our devices. She was also responsible for the presentation of Biosensors section.
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<B>HE Shuaixin </B>is the lab manager of the Peking 2013 iGEM this summer. Apart from the laboratory management, she made great contribution to biosensor construction, tuning of biosensors and construction of biosensor adopters, XylB and XylC.
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<B>XUE Haoran </B>was responsible for all the induction and the characterization of biosensors, adopters and band pass filter. He also handled daily affairs of the team.
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<B>HOU Yuhang </B>was in charge of the modeling of project. He constructed band pass filter and wrote simulation for the band pass filter. He also constructed a biosensor and did a part of test for this biosensor.
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<B>PAN Xingjie </B>is a member of the modeling group in the Peking 2013 iGEM team and he was involved in the construction of band pass filter. He greatly attributed to
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the biosensor mining program and he was also responsible for wiki construction. He was in charge of the presentation of the Band pass filter.
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<h2 id="PageSubTitle2"> Five Kinds of Protocols </h2>
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<B>LIU Shiyu </B>made his efforts in constructing several biosensors in E.coli and the tuning of biosensors. He is also involved in the construction of band pass
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filter.
 
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<B>WANG Huan</B> is the financial manager of the team. She was responsible for financial affairs and travel arrangements. She also contributed to the construction of
 
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two aromatic biosensors.
 
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<B>CUI Can </B>was involved in construction of band pass filter, and she also contributed to human practice.
 
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<B>LIANG Jing </B>was in charge of human practice. She managed the human practice and some travel arrangement. She also helped SHI Hailing to manage the laboratory.
 
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<B>ZHANG Yihao </B>is the art designer of the Peking 2013 iGEM team. He exercised his talents on our logo, wiki, poster, PowerPoint template, booklet and team shirts.
 
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He also constructed a aromatic  biosensor.
 
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<B>Helena Viets</B> made a great contribution at the first time when she came to Peking iGEM. She focused the construction of several biosensors and constructed a RBS
 
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library for the biosensors to tune their behavior.
 
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</p>
 
<p id="Content2">
<p id="Content2">
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<B>Peking iGEM 2013 team highly acknowledges following insitutes:</B>
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<B>Protocol 1</B></br>
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</br>School of Life Sciences, Peking University
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</br>Office of Educational Administration, Peking University
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</br>Center for Quantitative Biology, Peking University
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</br>School of Physics, Peking University
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</br>College of Chemistry and Molecular Engineering, Peking University
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</br>School of Basic Medical Sciences, Peking University
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</br>Institute of Microbiology, Chinese Academy of Sciences
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</br></br>
</br></br>
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</br>We especially thank Dr. Chunbo Lou for providing us the plasmid of φR73δ and CI.</br>
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E. coli was grown overnight in LB medium at 37 °C and then diluted 100-fold in fresh LB medium in 96-well plates (Corning Incorporated, 3599). Then each culture (200 μL) was induced for 12 hours at 30°C with inducers of different concentrations. Then the fluorescence intensity of cultures was measured by microplate reader (Thermo) or LSRFortessa flow cytometer (BD Biosciences).
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</br><b>We highly appreciate Prof. de Lorenzo, Prof. Shingler and Prof. Van de Meer’s generous material assistance:</b>
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</br>We thank professor Victor de Lorenzo for he had given our TOL pWW0 plasmid in <i>Pseudomonas putida</i> mt-2 and pCON924 with XylR5 on it.
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</br>
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We thank professor Shingler for her twice generous help. Her plasmid containing DmpR was used in our program.
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We also thank professor Van de Meer for giving our HbpR coding sequence and promoter.  
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</br>We thank the following professors from Peking University for supporting our project with equipment, chemicals and computer programs:
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<B>Protocol 2</B> </br>
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</br>Prof. Qi Ouyang
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E. coli was grown overnight in LB medium at 37 °C and then diluted 100-fold in fresh LB medium in 96-well plates (Corning Incorporated, 3599). After 3 hours’ culture at 30 °C, each culture (200 μL) was induced for 7 hours with inducers of different concentrations. Then the fluorescence intensity of cultures was measured by microplate reader (Thermo) or LSRFortessa flow cytometer (BD Biosciences).
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</br>Prof. Luhua Lai
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</br></br>
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</br>Prof. Zhen Yang
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<B>Protocol 3</B></br>
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</br>Prof. Junfeng Hu
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E. coli was grown overnight in LB medium at 37 °C and then diluted 100-fold in fresh LB medium in 96-well plates (Corning Incorporated, 3599). After 6 hours’ culture at 30 °C, each culture (200 μL) was centrifuged at 4000 r.p.m. for 10 minutes and was suspended in 200 μL of fresh LB medium containing inducers of different concentrations for 4 hours. Then the fluorescence intensity of cultures was measured by microplate reader (Thermo) or LSRFortessa flow cytometer (BD Biosciences).
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</br>Prof. Chongren Xu
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</br></br>
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</br>Prof. Xinqiang He
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<B>Protocol 4</B></br>
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</br>Prof. Shuguang Xie
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E. coli was grown overnight in LB medium at 37 °C and then diluted 100-fold in fresh LB medium in 96-well plates (Corning Incorporated, 3599). Then each culture (200 μL) was induced for 12 hours at 37°C with inducers of different concentrations. Then the fluorescence intensity of cultures was measured by microplate reader (Thermo) or LSRFortessa flow cytometer (BD Biosciences).
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</br>Prof. Chunxiong Luo
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</br></br>
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</br>Prof. Ge Gao
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<B>Protocol 5</B></br>
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</br>Dr. Zailing Bai
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E. coli was grown overnight in LB medium at 37 °C and then diluted 100-fold in fresh M9 minimal medium in 96-well plates (Corning Incorporated, 3599). Then each culture (200 μL) was induced for 12 hours at 30°C with inducers of different concentrations. Then the fluorescence intensity of cultures was measured by microplate reader (Thermo) or LSRFortessa flow cytometer (BD Biosciences).
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</br><br/>We also thank the Bureau of Environment Protection in Beijing for helping our human practice.
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<h3 id="PageSubTitle3"> Four Types of Test </h3>
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<p id="Content3">
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</br></br>The kind and concentration of aromatic compounds are different in these four types of test.</br>
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<B>Primary test<B></br>
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Primary test is aims to reveal whether a certain biosensor can be induced by the compounds mentioned in previous research papers.</br>
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Inducers (found in previous research papers) were added into the LB medium at 1000 μM (for nontoxic compounds) or 100 μM (for toxic compounds).
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</br></br>
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<B>ON-OFF test</B></br>
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ON-OFF test functions to land aromatic compounds that can induce a certain biosensor.</br>
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78 kinds of aromatic compounds were added into the LB medium at 1000 μM (for nontoxic compounds), 100 μM (for toxic compounds) or 10μM (for benzene).
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</br></br>
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<B>Dose-response Curve test</B></br>
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Dose-response Curve test is to deeply characterize the relationship between fluorescence intensity (or induction ratio) and the concentration of inducers.</br>
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Inducers found in previous on-off test were added respectively into the LB medium at concentration ranging from micro-molar to mili-molar.
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</br></br>
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<B>Orthogonality test</B></br>
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Orthogonality test is to prove that a compound which is not an inducer will not influence the detection of inducers.</br>
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Two kinds of aromatic compounds (one is an inducer while the other isn’t) were added together into the LB medium at concentration ranging from micro-molar to mili-molar.
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</br></br></br>
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</p>
  </div>
  </div>

Revision as of 11:45, 25 September 2013

Attributions

We Want to Say Thank You!

Acknowledgement

Strains and Growth Media



E. coli Top10 was used for all the experiments and grown in Luria–Bertani (LB) medium or M9 minimal medium using glycerin as carbon source. Kanamycin (10 μg/mL), ampicillin (50 μg/mL) and chloramphenicol (170μg/mL) were added as appropriate


Five Kinds of Protocols

Protocol 1


E. coli was grown overnight in LB medium at 37 °C and then diluted 100-fold in fresh LB medium in 96-well plates (Corning Incorporated, 3599). Then each culture (200 μL) was induced for 12 hours at 30°C with inducers of different concentrations. Then the fluorescence intensity of cultures was measured by microplate reader (Thermo) or LSRFortessa flow cytometer (BD Biosciences).

Protocol 2
E. coli was grown overnight in LB medium at 37 °C and then diluted 100-fold in fresh LB medium in 96-well plates (Corning Incorporated, 3599). After 3 hours’ culture at 30 °C, each culture (200 μL) was induced for 7 hours with inducers of different concentrations. Then the fluorescence intensity of cultures was measured by microplate reader (Thermo) or LSRFortessa flow cytometer (BD Biosciences).

Protocol 3
E. coli was grown overnight in LB medium at 37 °C and then diluted 100-fold in fresh LB medium in 96-well plates (Corning Incorporated, 3599). After 6 hours’ culture at 30 °C, each culture (200 μL) was centrifuged at 4000 r.p.m. for 10 minutes and was suspended in 200 μL of fresh LB medium containing inducers of different concentrations for 4 hours. Then the fluorescence intensity of cultures was measured by microplate reader (Thermo) or LSRFortessa flow cytometer (BD Biosciences).

Protocol 4
E. coli was grown overnight in LB medium at 37 °C and then diluted 100-fold in fresh LB medium in 96-well plates (Corning Incorporated, 3599). Then each culture (200 μL) was induced for 12 hours at 37°C with inducers of different concentrations. Then the fluorescence intensity of cultures was measured by microplate reader (Thermo) or LSRFortessa flow cytometer (BD Biosciences).

Protocol 5
E. coli was grown overnight in LB medium at 37 °C and then diluted 100-fold in fresh M9 minimal medium in 96-well plates (Corning Incorporated, 3599). Then each culture (200 μL) was induced for 12 hours at 30°C with inducers of different concentrations. Then the fluorescence intensity of cultures was measured by microplate reader (Thermo) or LSRFortessa flow cytometer (BD Biosciences).


Four Types of Test



The kind and concentration of aromatic compounds are different in these four types of test.
Primary test
Primary test is aims to reveal whether a certain biosensor can be induced by the compounds mentioned in previous research papers.
Inducers (found in previous research papers) were added into the LB medium at 1000 μM (for nontoxic compounds) or 100 μM (for toxic compounds).

ON-OFF test
ON-OFF test functions to land aromatic compounds that can induce a certain biosensor.
78 kinds of aromatic compounds were added into the LB medium at 1000 μM (for nontoxic compounds), 100 μM (for toxic compounds) or 10μM (for benzene).

Dose-response Curve test
Dose-response Curve test is to deeply characterize the relationship between fluorescence intensity (or induction ratio) and the concentration of inducers.
Inducers found in previous on-off test were added respectively into the LB medium at concentration ranging from micro-molar to mili-molar.

Orthogonality test
Orthogonality test is to prove that a compound which is not an inducer will not influence the detection of inducers.
Two kinds of aromatic compounds (one is an inducer while the other isn’t) were added together into the LB medium at concentration ranging from micro-molar to mili-molar.