Difference between revisions of "Team:WashU StLouis"

 
(24 intermediate revisions by 2 users not shown)
Line 22: Line 22:
 
     left:30px;
 
     left:30px;
 
}
 
}
 +
 
/* Panels */
 
/* Panels */
 
.panel {
 
.panel {
 
     width:100%;
 
     width:100%;
−
     height:528px;
+
     height:527px;
 
     margin:0;
 
     margin:0;
 
     margin-bottom:0px;
 
     margin-bottom:0px;
Line 49: Line 50:
 
     background:transparent;
 
     background:transparent;
 
}
 
}
 +
 +
.topbanner{
 +
    margin-top: -15 px;
 +
    margin-bottom: 10px;
 +
}
 +
 
/* Project Panels*/
 
/* Project Panels*/
 
.subpanel1 { /* Overview */
 
.subpanel1 { /* Overview */
 
     float:left;
 
     float:left;
−
     width:78%;
+
     width:77%;
−
     height:600px;
+
     height:475px;
 
     margin-top:75px;
 
     margin-top:75px;
 
     background:transparent;
 
     background:transparent;
Line 59: Line 66:
 
.spdesc { /* Overview content */
 
.spdesc { /* Overview content */
 
     display:none;
 
     display:none;
−
     height:100px;
+
     height:500px;
 
     color:rgb(0, 0, 0);
 
     color:rgb(0, 0, 0);
 +
    margin-bottom:0px;
 
}
 
}
 
.cont { /* Overview content */
 
.cont { /* Overview content */
Line 70: Line 78:
 
}
 
}
 
.cont p {
 
.cont p {
−
    line-height:28px;
 
 
     width:auto;
 
     width:auto;
 
     height:auto;
 
     height:auto;
−
     margin:5% 2%;
+
     margin:0% 2%;
 +
    font-size:30px;
 
}
 
}
 
.subpanel2 { /* Projects */
 
.subpanel2 { /* Projects */
 
     float:left;
 
     float:left;
 
     width:10%;
 
     width:10%;
−
     height:492px;
+
     height:420px;
 
     font-size:22px;
 
     font-size:22px;
 
     text-align:center;
 
     text-align:center;
Line 99: Line 107:
 
     width:23.5%;
 
     width:23.5%;
 
     margin-right:18px;
 
     margin-right:18px;
 +
    margin-top:0px;
 
     border-radius:7px;
 
     border-radius:7px;
 
     overflow:hidden;
 
     overflow:hidden;
−
     background:#36486b;  
+
     background:#4d6799;  
 
     color:white;
 
     color:white;
 
}
 
}
 
.subpanel8 img {
 
.subpanel8 img {
 
     margin-top:16px;
 
     margin-top:16px;
−
     background:#36486b;  
+
     background:#d6699;  
 
}
 
}
 
.subpanel8 img:hover {
 
.subpanel8 img:hover {
−
     background:#36486b;
+
     background:#4d6799;
 
}
 
}
 
</style>
 
</style>
Line 127: Line 136:
 
    <div class="cont">
 
    <div class="cont">
 
      <p style="font-size:14px;font-family: 'Josefin Sans'">
 
      <p style="font-size:14px;font-family: 'Josefin Sans'">
−
The purpose of this project is to genetically engineer <I>E. coli</i> and yeast to detect the presence of wheat stem rust, Puccinia graminis f. sp. tritici (Pgt), a fungus which can infect and kill entire fields of wheat. Many different strains of this fungus are in circulation around the globe but recently, several very destructive races have emerged, including TTKSK in East Africa, TTTTF in Italy, and TKTTF in the Middle East, East Africa, and Europe. These races of Pgt have proven virulent to several wheat resistance genes that usually protect the crop from other races of stem rust. In some cases of field infection, these virulent races can cause a 100% loss of viable crops. Hover over these panels to read about our three methods of testing.
+
Virulent races of Puccinia graminis f. sp. tritici (Pgt), or wheat stem rust, have caused devastating effects on cereal grains worldwide, impacting global food security. We are engineering <I>Escherichia coli DH5α</I> and <I>Saccharomyces cerevisiae EBY100</I> to detect Pgt and improve response times to virulent strains. To detect Pgt, we are creating a device that will germinate spores from the Puccinia genus. The germinated spores produce ribitol, a sugar unique to Pgt. Our engineered <I>DH5α</I> will produce a fluorescent signal in the presence of ribitol, thus detecting Pgt. To detect specific virulent races of Pgt, we will modify yeast to contain the stem rust resistance gene Sr35 from Triticum monococcum; Sr35 recognizes its corresponding effector AvrSr35, secreted by Pgt, as part of the plant’s innate immune system. Using bimolecular fluorescence complementation, our yeast will detect AvrSr35, a first step in being able to indicate the virulence of the germinated Pgt spores.
 
      </p>
 
      </p>
 
    </div>
 
    </div>
 
    <div id="psdesc" class="spdesc">
 
    <div id="psdesc" class="spdesc">
 
      <div class="cont">
 
      <div class="cont">
−
<p style="font-size:26px;font-family: 'Josefin Sans'">Transform <i>E. coli</i> with a plasmid carrying a promoter induced by ribitol, a compound unique to infectious structures formed by fungal spores, upstream of a fluorescent protein.</p>
+
<p style="font-size:26px;font-family: 'Josefin Sans'">Transform <I>Escherichia coli DH5α</I> with a plasmid carrying a promoter induced by ribitol, a compound unique to infectious structures formed by fungal spores, upstream of a fluorescent protein.</p>
 
      </div>
 
      </div>
 
    </div>
 
    </div>
 
    <div id="dsdesc" class="spdesc">
 
    <div id="dsdesc" class="spdesc">
 
      <div class="cont">
 
      <div class="cont">
−
<p style="font-size:26px;font-family: 'Josefin Sans'">Express wheat resistance genes in transformed yeast to detect virulence factors released by Pgt to distinguish between virulent and non-virulent strains</p>
+
<p style="font-size:26px;font-family: 'Josefin Sans'">Express wheat resistance genes in transformed <I>Saccharomyces cerevisiae EBY100</I> to detect virulence factors released by Pgt to distinguish whether or not the race of Pgt present is virulent to the strain of wheat.</p>
 
      </div>    
 
      </div>    
 
    </div>
 
    </div>
 
    <div id="tcdesc" class="spdesc">
 
    <div id="tcdesc" class="spdesc">
 
      <div class="cont">
 
      <div class="cont">
−
<p style="font-size:26px;font-family: 'Josefin Sans'">Diva pls explain</p>
+
<p style="font-size:26px;font-family: 'Josefin Sans'"></p>
 
      </div>
 
      </div>
 
    </div>
 
    </div>
Line 153: Line 162:
 
  <div class="titlebox">
 
  <div class="titlebox">
 
    <center><img src="https://static.igem.org/mediawiki/2018/6/6a/T--WashU_StLouis--detect.png" style="height:60px;margin-bottom:20px;"/></center>
 
    <center><img src="https://static.igem.org/mediawiki/2018/6/6a/T--WashU_StLouis--detect.png" style="height:60px;margin-bottom:20px;"/></center>
−
    <div style="width:60%;margin-left:20%;margin-bottom:20px;"><hr></div>
+
    <div style="width:60%;margin-left:20%;margin-bottom:0px;"><hr></div>
 
    Detect
 
    Detect
 
  </div>
 
  </div>
Line 163: Line 172:
 
  <div class="titlebox">
 
  <div class="titlebox">
 
    <center><img src="https://static.igem.org/mediawiki/2018/8/82/T--WashU_StLouis--profiling.png" style="height:60px;margin-bottom:20px;"/></center>
 
    <center><img src="https://static.igem.org/mediawiki/2018/8/82/T--WashU_StLouis--profiling.png" style="height:60px;margin-bottom:20px;"/></center>
−
    <div style="width:60%;margin-left:20%;margin-bottom:20px;"><hr></div>
+
    <div style="width:60%;margin-left:20%;margin-bottom:0px;"><hr></div>
 
    Profile
 
    Profile
 
  </div>
 
  </div>
Line 205: Line 214:
 
   --!>
 
   --!>
 
</div>
 
</div>
 +
 
</html>
 
</html>

Latest revision as of 16:32, 17 October 2018

OUR NOVEL MULTISTEP APPROACH

Virulent races of Puccinia graminis f. sp. tritici (Pgt), or wheat stem rust, have caused devastating effects on cereal grains worldwide, impacting global food security. We are engineering Escherichia coli DH5α and Saccharomyces cerevisiae EBY100 to detect Pgt and improve response times to virulent strains. To detect Pgt, we are creating a device that will germinate spores from the Puccinia genus. The germinated spores produce ribitol, a sugar unique to Pgt. Our engineered DH5α will produce a fluorescent signal in the presence of ribitol, thus detecting Pgt. To detect specific virulent races of Pgt, we will modify yeast to contain the stem rust resistance gene Sr35 from Triticum monococcum; Sr35 recognizes its corresponding effector AvrSr35, secreted by Pgt, as part of the plant’s innate immune system. Using bimolecular fluorescence complementation, our yeast will detect AvrSr35, a first step in being able to indicate the virulence of the germinated Pgt spores.

Transform Escherichia coli DH5α with a plasmid carrying a promoter induced by ribitol, a compound unique to infectious structures formed by fungal spores, upstream of a fluorescent protein.

Express wheat resistance genes in transformed Saccharomyces cerevisiae EBY100 to detect virulence factors released by Pgt to distinguish whether or not the race of Pgt present is virulent to the strain of wheat.
Detect
Profile