Difference between revisions of "Team:Dalhousie/HP/Silver"

 
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       <li class="active" ><a href="https://2017.igem.org/Team:Dalhousie/test3" style=" color: white;">Home</a></li>
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           <li><a href="https://2017.igem.org/Team:Dalhousie/Design">Design</a></li>
 
           <li><a href="https://2017.igem.org/Team:Dalhousie/Design">Design</a></li>
 
  <li><a href="https://2017.igem.org/Team:Dalhousie/Requirements">Requirements</a></li>
 
  <li><a href="https://2017.igem.org/Team:Dalhousie/Requirements">Requirements</a></li>
<li><a href="https://2017.igem.org/Team:Dalhousie/Entrepreneurship">Entrepreneurship</a></li>
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         <li><a href="https://2017.igem.org/Team:Dalhousie/Human_Practices">Summary</a></li>
 
         <li><a href="https://2017.igem.org/Team:Dalhousie/Human_Practices">Summary</a></li>
           <li><a href="https://2017.igem.org/Team:Dalhousie/HP/Silver">Silver HP</a></li>
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           <li><a href="https://2017.igem.org/Team:Dalhousie/HP/Silver">Science Communication</a></li>
 
           <li><a href="https://2017.igem.org/Team:Dalhousie/HP/Gold_Integrated">Integrated and Gold</a></li>
 
           <li><a href="https://2017.igem.org/Team:Dalhousie/HP/Gold_Integrated">Integrated and Gold</a></li>
 
           <li><a href="https://2017.igem.org/Team:Dalhousie/Engagement">Public Engagement</a></li>
 
           <li><a href="https://2017.igem.org/Team:Dalhousie/Engagement">Public Engagement</a></li>
        <li><a href="https://2017.igem.org/Team:Dalhousie/HP/Ethics">Ethics</a></li>
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<li><a href="https://2017.igem.org/Team:Dalhousie/SocialMedia">Social Media</a></li>
 
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<div class="top" ><div class="title" >silver int</div></div>
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<div class="top" ><div class="title" >Science Communication</div></div>
  
 
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<div style="background-color: rgba(35,47,19,1); width: 95%; padding-left: 50px; padding-right: 50px; float: center; margin-top: 20px; margin-left: 30px;">
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<h1><font color= "#C1D35D">Introduction</font></h1></br>
  
</br></br></br></br>Talking with Experts</br></br>
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<font color= "#C1D35D">What is Science Communication?</font></br>
  
Su-Ling Brooks, PhD, Department of Process Engineering and Applied Science, Dalhousie University, Halifax, Canada</br>
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Science communication distills complex topics into more accessible lay language, to be shared with a non-expert audience. Effective communication helps the public understand the relevance of scientific research to their everyday lives. Effective science communication takes a lot of practice, and scientists are often worried that important (and exciting!) information will be lost in the translation to lay terms. Over the course of the summer, we continuously sought to improve our own abilities as science communicators. As we became more experienced, we developed communication tools, like analogies, to support discussions of complex topics. </br></br>
Dr. Brooks’ research revolves around bioprocessing, food engineering,
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fermentation, extraction of natural products, and waste utilization and
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<font color= "#C1D35D">What are the Problems Facing Science Literacy?</font></br>
treatment. For this reason, we eagerly wanted to speak to her about the
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The general public often lack the tools to distinguish between legitimate science and pseudoscience. Social media has accelerated the sharing of information, but often this information has not been carefully vetted. Rigorous, peer-reviewed science and pseudoscience both spread rapidly on social media. The public would greatly benefit from greater exposure to the scientific method, and tools to enable critical analysis of information. Increased access to reliable sources of scientific content, presented in an accessible manner, is necessary to counter the spread of pseudoscience. </br></br>
biofuel component of our project, and our ideas surrounding bioreactor
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construction. We presented her with two bioreactor ideas (see images
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below). The first option involved two bioreactors, one specifically for E. coli to
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<h1><font color= "#C1D35D">Our Project</font></h1></br>
degrade cellulose into glucose, and another for yeast to convert glucose into
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ethanol. The second option involved one bioreactor and a E. coli-yeast co-culture.
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This year, the theme for our human practices was science communication and science literacy. To efficiently explore this theme, we divided it into component parts. On this webpage, we describe our science communication efforts. We strove to raise awareness about the importance of science literacy and to establish communication platforms between our lab and the public.</br></br>
During the course of our presentation, Dr. Brooks
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posed many insightful questions primarily surrounding the logistics of co-cultures, and the requirements of
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<font color= "#C1D35D">What did we do?</font></br>
our organisms. At the end of the meeting we came away realizing that we still had a lot to learn
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about bioreactors. It was at this meeting that we began drawing up plans for future shake flask
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We created a survey early in the summer to gain insight into how our surveyed population felt about interpreting science-based news articles. This survey was distributed around the world and received 271 responses in a span of a month. Afterwards, we formulated questions that reflected some of the surprising results collected from the survey. We then asked these questions to a series of experts in hopes of better understanding our results. </br></br>
experiments. </br></br>
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Here are a few <b>key results</b> of the survey (focusing on the population who identified as having a university education):</br></br>
Mark Dubé, Port Hawkesbury Paper, Cape Breton, Canada</br>
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<ol>
Mark elaborated on the cellulose waste treatment at the Port Hawkesbury pulp and paper mill
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<li>Approximately a quarter our surveyed population, who identified as having an university education, claimed to not be very comfortable interpreting scientific news publications.</li></br>
in Cape Breton and identified two main types of waste: bark chips and a mix of clay, cellulose,
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and organic phosphates. All this waste goes into a biomass boiler to produce the steam needed
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<li>Most of our surveyed population, who identified as having an university education, claimed to trust scientific reports with dramatic and opinionated language to some extent.</li></br>
to dry the paper in downstream processes. “We have looked into biofuel production, but it is
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too expensive…the technology isn’t efficient enough.” Currently, Port Hawkesbury Paper buys
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<li>More than half of our surveyed population, who identified as having an university education, claimed that half the time they would not verify new scientific claims with a credible source.</li> </br>
wood waste from surrounding companies to fill it’s need for steam.
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 +
<li>A small portion of our surveyed population, who identified as having an university education, claimed to share scientific news articles on social media based solely on the title.</li></br>
 +
</ol>
 +
 
 +
<font color= "#C1D35D">Interviews and Questionnaires</font></br>
 +
 
 +
The interviewees are as follows:
 +
<ul>
 +
<li><a href="https://2017.igem.org/Team:Dalhousie/ScienceSam" style="color: #C1D35D">Science Sam</a>: PhD Candidate at University of Toronto studying Cell Biology and Neuroscience who blogs about lab science on Instagram</li>
 +
<li><a href="https://2017.igem.org/Team:Dalhousie/BobMcdonald" style="color: #C1D35D">Bob McDonald</a>: Canadian author and science journalist, currently hosing the CBC radio program - Quirks and Quarks</li>
 +
<li><a href="https://2017.igem.org/Team:Dalhousie/DanFalk" style="color: #C1D35D">Dan Falk</a>: Canadian science journalist, broadcaster and author (most recent publication: The Science of Shakespeare: A Look at the Playwright's Universe, 2014)</li>
 +
<li><a href="https://2017.igem.org/Team:Dalhousie/CatherineReeves" style="color: #C1D35D">Dr. Catherine Reeve</a>: Psychology and Neuroscience professor at Dalhousie University </li>
 +
<li><a href="https://2017.igem.org/Team:Dalhousie/UofT" style="color: #C1D35D">University of Toronto iGEM team</a>: one of our collaborators</li>
 +
<li><a href="https://2017.igem.org/Team:Dalhousie/ORoberts" style="color: #C1D35D">Olivia Roberts</a>: member of the general public, with a post-secondary degree in music</li>
 +
</ul>
 
</br></br>
 
</br></br>
Dr. Eddy Rubin, Chief Science Officer, Metabiota, San Francisco, USA</br>
 
Dr. Rubin has years of metagenomics under his belt, so we asked him which was better:
 
sequencing-based or functional metagenomics? “Well, functional is great but I’m a sequencing
 
guy... I’m interested in scalable things.” Dr. Rubin’s argument was with the advent of next
 
generation sequencing and better DNA synthesis, you can produce terabytes of data and
 
synthesize whatever you want from it. This is a much more scalable process, you don’t have to
 
spend years designing functional assays.</br>
 
See the rest of Dr. Rubin’s interview here. (link out)</br></br>
 
  
David Lloyd, Co-founder and Director, FREDsense, Calgary, Canada</br>
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<font color= "#C1D35D">Interview Response Conclusions</font></br>
David Lloyd was involved in iGEM during his undergraduate degree at University of Alberta and
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<ol>
as a mentor during his Masters degree at University of Calgary. During his time at the University
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<li>Journalists and scientists who write articles are sometimes biased or exaggerate the results to grab the attention of the public.</li>
of Calgary he, and a team of students, developed a biosensor which morphed into the company
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FREDsense. We asked for his insight on how to develop an iGEM project into a company.
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“Spend your time really figuring out what the value your product is going to provide to that
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customer base. Picking up the phone and having those conversations is really important. It
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was through that process […] we ended up changing the sensor we were building to look at
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other market opportunities.”</br>
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See the rest of David Lloyd’s interview here. (link out)</br></br>
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Scott Doncaster, Vice President, Manufacturing Technologies and Engineering, BioVectra, Charlottetown, Canada</br>
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<li>People often assume that science-based news articles are credible because they are “science.”</li>
BioVectra is a contract pharmaceutical fermentation plant that using bacteria and fungi to
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produce small molecule drugs or biologics. Being in charge of manufacturing and engineering,
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Scott is well versed in safety practices. Although BioVectra works with BSL-1 organisms, the
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volume of organisms they use requires them to treat the bacteria or fungi as if they were BSL-2.
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We asked Scott what safety mechanisms must be in place for large scale fermentation to work.
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“Containment is key! Rooms have slanted floors so [if a spill were to happen] it all goes into a
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contained grate, that would get autoclaved in emergencies. The building has been built with
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special air circulation, sterilization tools, air locks, temperature control and much more.”</br></br>
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Stephen Snobelen, PhD, Associate Professor of Humanities, University of King’s, Halifax, Canada</br>
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<li>Having a post-secondary education does not mean the person has all the skills required to assess and interpret a scientific article properly. Depending on the degree, and the  quality of their education, the person might interpret science in a different way.</li>
 +
</ol>
 +
</br></br>
  
Some of Dr. Snobelen’s research interest include science in popular culture, and the
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<font color= "#C1D35D">Infographic Summary</font></br>
popularization of science, therefore we knew we wanted to meet with him to discuss our
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science literacy survey. We did not have much previous survey planning experience to draw
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upon, and thus it was great to get an expert opinion on how to form unbiased questions. Dr.
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Snobelen advised us not to use the phrase “science illiterate” as it could potentially polarize the
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audience. Furthermore, we discussed that people are not scientifically literate or illiterate. For
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instance, someone could be literate in biology, but have a poor understanding about physics.
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For this reason, we tried to instead paint the idea that science literacy is a spectrum.</br></br>
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Our final initiative was to summarize all of our science communication and literacy findings into a brief <a href="https://static.igem.org/mediawiki/2017/0/00/Scicomm.png" style="color: #C1D35D">infographic</a>. This informational material is going to be distributed to the greater Halifax community, as well as online, to raise awareness about to appropriately interpret science-based news articles.</br> </br>
<div class="container" style="height:450px; width:100%; position: relative;">
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<font color= "#C1D35D">Limitations</font></br>
            <div class="inner">
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<ol>
</br></br></br></br>Safety</br></br>
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<li>Our sample size was not big enough to represent the entire global community.</li>
      After speaking with Scott Doncaster from the fermentation company, BioVectra, it was
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<li>Most of our respondents were university students or members of other iGEM teams.</li>
clear that there were a few safety aspects to consider if our project were to make it to the
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<li>We did not analyze our results based on the types of post-secondary degrees.</li>
bioreactor stage. In this section, we hope to address two questions: (1) is our design safe? and
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</ol>
(2) what are the major concerns for companies?</br></br>
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</br></br>
  
Whenever organisms are genetically modified to do something they wouldn’t normally
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<h1><font color= "#C1D35D">Conversations with Communicators</font></h1></br>
do, safety is definitely something worth considering. Furthermore, because genetic
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<font color= "#C1D35D">How can Scientists do a Better Job at Communicating Science?</font></br></br>
modification is such a contentious topic it is important to be very clear about the control
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mechanisms and safe-guards surrounding these organisms. While we are not yet at the stage of
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introducing our bacteria into a bioreactor we have been thinking about possible ways to make
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our project safer. During our tour of the bioreactors at BioVectra the most obvious safety
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feature was the slanted floors to collect any fluid that may leak. All of this collected
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biohazardous material could then be correctly disposed of via an autoclave. There are
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additional ways to safe-guard our biofuel design that do not involve infrastructure, and instead
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involve the organism itself. We first brainstormed potential “kill switches” which would ensure
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that if our organism escapes it would not be able to survive long in the wild. The problem with
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kill switches, however, is that they can sometimes suffer from selective pressure. We were then
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inspired by the publication by Mandell et al. (2015) where the researchers altered the genetic
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code of an organism to confer metabolic dependency on nonstandard amino acids.</br>
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</br>
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Furthermore, the system these researchers developed blocked incoming and outgoing
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horizontal gene transfer with natural organisms. Whether it be by controlling the environment,
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controlling the organism, or both, we have been thinking about safety since the start of our
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project. We are eager to ensure that our cellulose-degrading E. coli offers a safe and efficient
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alternative to current biofuel systems.</br>
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</br>
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In talking to representatives at BioVectra we learned about biosafety in an industrial
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environment. While the people we spoke to did not voice any concerns regarding the current
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state of our project, they did provide us with things to consider if we were to scale-up our
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project for their reactors. Firstly, there bioreactors do not support a co-culture system and
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therefore our design would have to include multiple reactors. Secondly, an E. coli organism may
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be just BSL-1, but when it is found in large quantities, such as in a 3000 L bioreactor, it has to be
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treated as a BSL-2 organism. Finally, biosafety is not just to protect us and the outside from the
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organism, but to also protect the organism from us.</br>
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</br>
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In speaking with representatives from BioVectra we gained valuable insight into the
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logistics of running a large biofuel-production system. In the future when we are prepared to
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scale-up our safe system, and when we have thoroughly tested the efficiency of our organism,
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we will know what to expect when approaching companies.</br></br>
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 +
<img src="https://static.igem.org/mediawiki/2017/0/00/ScienceSam.jpg" style="padding-right:20px" align="left" height="180px" Width="138px">“Science is lacking in trendiness. Our goal is to bring people into science and change mindsets as much as possible. If we want to do that we need to target younger people, and if we want to target younger people we need to be cooler.” Sam believes communicating science involves all platforms, “why aren’t more people live streaming, why aren’t more people snapchatting from lab? Often the science videos you see are so boring, science is exciting, and we should try to communicate that."</br></br>
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</br></br><img src="https://static.igem.org/mediawiki/2017/e/e3/DanFalk.jpg" align="right" height="175px" Width="138px"></br></br>
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“Scientists should be more open by talking to journalists. When a journalist calls, you [a scientist] should welcome it. Scientists, many of whom are partly funded by the public, have a responsibility to talk openly about what they are doing. I appreciate that this is a complicated subject and so that there is no easy fix.”</br></br>
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</br></br><img src="https://static.igem.org/mediawiki/2017/d/d4/BobMcDonald.jpg" style="padding-right:20px" align="left" height="125px" Width="167px">
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“You’ve got to put your story in human terms so the people who don’t understand the science will understand. So first set the scene, then get into what you’re doing, and do it in terms of what people might understand…So start there, start with storytelling and set the context. If you want to get into the science of it, you don’t have to teach them everything about the science. You can introduce them to the science, and if they want to know more then give it to them. The journalist has to understand that language and translate it over here for the audience who doesn’t speak that language. We are translators."</br></br>
 +
 +
<font color= "#C1D35D">How can the Public tell when Science-Based Media is Sketchy? </font></br></br>
 +
 +
<img src="https://static.igem.org/mediawiki/2017/0/00/ScienceSam.jpg" align="right" height="180px" Width="138px">“That’s really tough. See it’s tough to put the burden on the reader to go look it up. Where would they even look? That being said, any absolutes or anything that sounds too certain is probably fake. Science is all about probabilities. The biggest warning sign is if the article isn’t cited. That’s a pretty standard thing in journalism; [the journalist] should always mention the study.” Other things to look for are if the authors of the article are quoted. "That’s a pretty good sign the article is good."</br></br></br>
 +
 +
</br></br><img src="https://static.igem.org/mediawiki/2017/e/e3/DanFalk.jpg" style="padding-right:20px" align="left" height="175px" Width="138px">“Going to other popular media accounts to check their portrayal of the story. If multiple sources are reporting it the same way than that is a strong indication what they are reporting it factually correct. The biggest red flag is when something just sounds wrong. Unfortunately, we all have prejudges towards what we want to believe and therefore you may not just be reading the news but an interpretation of the news.” </br> </br></br></br>
 +
 +
</br></br><img src="https://static.igem.org/mediawiki/2017/d/d4/BobMcDonald.jpg" style="padding-left:20px" align="right" height="125px" Width="167px">“As long as it’s a notable publisher or university, then you are doing well. Again, it’s the source. It doesn’t matter where you’re getting it, you always have to look at the source. If it’s coming from a reputable organization then it’s probably fine. It is important to identify if you are reading an opinion piece, or something sponsored by a company with a hidden agenda. Science is not based on toughts or opinions, it’s based on evidence and experimental results. So again, separate the science from the opinions.”</br></br></br></div style>
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</br></br></br></br>Researching companies</br></br>
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<p style="text-align: center; ">
      There are five major biofuel companies in Canada each doing something slightly
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<a href="http://www.plosibilities.wordpress.com"><img src="https://static.igem.org/mediawiki/2017/archive/8/8c/20171031235427%21Dalscreen.png" height="20%" width="20%" ></a>
different. Here are summaries of those five major companies.</br></br>
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<img src="https://static.igem.org/mediawiki/parts/d/d7/Porcupinelogo2017.png" height="20%" width="20%" >
Iogen Corporation is one of the longest withstanding biofuel companies in Canada. They
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<img src="https://static.igem.org/mediawiki/2017/e/ef/Whitetigerlogo.png" height="20%" width="20%" >
were founded in 1975, in East Ottawa, and have been producing cellulosic ethanol since 2004.
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</p>
They focus on plant fiber and enzymatic hydrolysis in order to produce a dilute ethanol stream,
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which is further concentrated to commercial-grade fuel.</br></br>
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The St. Clair ethanol plant from Suncor Company, has been producing 400 million tons
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of biofuel per year. This facility in the Sarnia-Lambton region has been running since 2006, and
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it has been named the largest ethanol plant in Canada. Suncor uses corn fiber to produce their
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strain of ethanol. They have partnered with Petro-Canada to blend their ethanol with Petro-
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Canada’s gasoline. Although this does not diminish greenhouse gases completely, the use of
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blended ethanol-gasoline fuel has been reported to reduce CO 2 emissions by up to 300,000 tons
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per year.</br></br>
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Evoleum Biofuel is located in Saint-Jean- sur-Richelieu, Quebec. It is a major producer
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for biofuels from second generation raw material. At Evoleum, the second generation materials
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used are exclusively vegetable oil. They have created 95% biodegradable biodiesel, that
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produces no greenhouse gas emission. Since 2010, the use of the recycled materials for biofuel
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in Montreal, from Evoleum, showed a decrease of 4.8 cents a liter on biodiesel.
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In Nova Scotia, the CelluFuel Company uses low-value wood fiber to convert into
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renewable diesel. They receive their wood fiber from Freeman’s Lumber in Greenfield, Nova
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Scotia. The wood fiber undergoes a series of catalytic induced depolymerisation’s to produce
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the renewable diesel. Today, CelluFuel is currently in its demonstration phase, and once they
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have successfully completed this project they will begin producing commercial-grade fuel.  
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Another upcoming company for biofuel production in Canada, is Woodland Biofuel,
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Incorporation. They are currently in their demonstrative phase with their start up plant located
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in Sarnia, Ontario. Woodland is interested in cellulosic ethanol production, using agriculture
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and forestry waste. The President, Greg Nuttal, states that it will be one of the lowest fuel
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productive costs, not just for ethanol but other fuel industries, including gasoline. He suggests
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the company will produce 200 million gallons per year. As of now, this company is looking into
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another plant location in Merritt, British Columbia.</br></br>
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Clearly biofuel production is a popular industry sector with each of the aforementioned
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companies carving out a particular niche for themselves. We believe that in this competitive
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field, our project could have potential to hold its own. Firstly, our project would utilize
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cellulose-containing waste from various industries and therefore our feedstock substrate would
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not be limited to one particular area. This could be important in the future when certain
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resources become scarce. As long as our substrate contained cellulose we could convert it!
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Secondly, these companies still seem dependent on chemicals, water, or heat to aid in the
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production process. Our project would utilize the enzymatic capabilities of microorganisms to
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convert cellulose into glucose. Furthermore, we could modify this process to enhance for
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production, for example, by modifying our organism. While we are a while away from making a
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name for ourselves in the Canadian biofuel game, we have found our own niche within the
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market.</br></br>
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Latest revision as of 03:03, 2 November 2017

Science Communication

Introduction


What is Science Communication?
Science communication distills complex topics into more accessible lay language, to be shared with a non-expert audience. Effective communication helps the public understand the relevance of scientific research to their everyday lives. Effective science communication takes a lot of practice, and scientists are often worried that important (and exciting!) information will be lost in the translation to lay terms. Over the course of the summer, we continuously sought to improve our own abilities as science communicators. As we became more experienced, we developed communication tools, like analogies, to support discussions of complex topics.

What are the Problems Facing Science Literacy?
The general public often lack the tools to distinguish between legitimate science and pseudoscience. Social media has accelerated the sharing of information, but often this information has not been carefully vetted. Rigorous, peer-reviewed science and pseudoscience both spread rapidly on social media. The public would greatly benefit from greater exposure to the scientific method, and tools to enable critical analysis of information. Increased access to reliable sources of scientific content, presented in an accessible manner, is necessary to counter the spread of pseudoscience.

Our Project


This year, the theme for our human practices was science communication and science literacy. To efficiently explore this theme, we divided it into component parts. On this webpage, we describe our science communication efforts. We strove to raise awareness about the importance of science literacy and to establish communication platforms between our lab and the public.

What did we do?
We created a survey early in the summer to gain insight into how our surveyed population felt about interpreting science-based news articles. This survey was distributed around the world and received 271 responses in a span of a month. Afterwards, we formulated questions that reflected some of the surprising results collected from the survey. We then asked these questions to a series of experts in hopes of better understanding our results.

Here are a few key results of the survey (focusing on the population who identified as having a university education):

  1. Approximately a quarter our surveyed population, who identified as having an university education, claimed to not be very comfortable interpreting scientific news publications.

  2. Most of our surveyed population, who identified as having an university education, claimed to trust scientific reports with dramatic and opinionated language to some extent.

  3. More than half of our surveyed population, who identified as having an university education, claimed that half the time they would not verify new scientific claims with a credible source.

  4. A small portion of our surveyed population, who identified as having an university education, claimed to share scientific news articles on social media based solely on the title.

Interviews and Questionnaires
The interviewees are as follows:
  • Science Sam: PhD Candidate at University of Toronto studying Cell Biology and Neuroscience who blogs about lab science on Instagram
  • Bob McDonald: Canadian author and science journalist, currently hosing the CBC radio program - Quirks and Quarks
  • Dan Falk: Canadian science journalist, broadcaster and author (most recent publication: The Science of Shakespeare: A Look at the Playwright's Universe, 2014)
  • Dr. Catherine Reeve: Psychology and Neuroscience professor at Dalhousie University
  • University of Toronto iGEM team: one of our collaborators
  • Olivia Roberts: member of the general public, with a post-secondary degree in music


Interview Response Conclusions
  1. Journalists and scientists who write articles are sometimes biased or exaggerate the results to grab the attention of the public.
  2. People often assume that science-based news articles are credible because they are “science.”
  3. Having a post-secondary education does not mean the person has all the skills required to assess and interpret a scientific article properly. Depending on the degree, and the quality of their education, the person might interpret science in a different way.


Infographic Summary
Our final initiative was to summarize all of our science communication and literacy findings into a brief infographic. This informational material is going to be distributed to the greater Halifax community, as well as online, to raise awareness about to appropriately interpret science-based news articles.

Limitations
  1. Our sample size was not big enough to represent the entire global community.
  2. Most of our respondents were university students or members of other iGEM teams.
  3. We did not analyze our results based on the types of post-secondary degrees.


Conversations with Communicators


How can Scientists do a Better Job at Communicating Science?

“Science is lacking in trendiness. Our goal is to bring people into science and change mindsets as much as possible. If we want to do that we need to target younger people, and if we want to target younger people we need to be cooler.” Sam believes communicating science involves all platforms, “why aren’t more people live streaming, why aren’t more people snapchatting from lab? Often the science videos you see are so boring, science is exciting, and we should try to communicate that."





“Scientists should be more open by talking to journalists. When a journalist calls, you [a scientist] should welcome it. Scientists, many of whom are partly funded by the public, have a responsibility to talk openly about what they are doing. I appreciate that this is a complicated subject and so that there is no easy fix.”



“You’ve got to put your story in human terms so the people who don’t understand the science will understand. So first set the scene, then get into what you’re doing, and do it in terms of what people might understand…So start there, start with storytelling and set the context. If you want to get into the science of it, you don’t have to teach them everything about the science. You can introduce them to the science, and if they want to know more then give it to them. The journalist has to understand that language and translate it over here for the audience who doesn’t speak that language. We are translators."

How can the Public tell when Science-Based Media is Sketchy?

“That’s really tough. See it’s tough to put the burden on the reader to go look it up. Where would they even look? That being said, any absolutes or anything that sounds too certain is probably fake. Science is all about probabilities. The biggest warning sign is if the article isn’t cited. That’s a pretty standard thing in journalism; [the journalist] should always mention the study.” Other things to look for are if the authors of the article are quoted. "That’s a pretty good sign the article is good."




“Going to other popular media accounts to check their portrayal of the story. If multiple sources are reporting it the same way than that is a strong indication what they are reporting it factually correct. The biggest red flag is when something just sounds wrong. Unfortunately, we all have prejudges towards what we want to believe and therefore you may not just be reading the news but an interpretation of the news.”





“As long as it’s a notable publisher or university, then you are doing well. Again, it’s the source. It doesn’t matter where you’re getting it, you always have to look at the source. If it’s coming from a reputable organization then it’s probably fine. It is important to identify if you are reading an opinion piece, or something sponsored by a company with a hidden agenda. Science is not based on toughts or opinions, it’s based on evidence and experimental results. So again, separate the science from the opinions.”