Difference between revisions of "Team:UMaryland/education"

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                     <img src="https://static.igem.org/mediawiki/2016/1/10/T--UMaryland--superorganisms.jpg" id="img-super"/img>
 
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                     <div><p>At this station, visitors were introduced to two catastrophic situations that they needed to solve using their imaginations: 1) Their friend accidentally fell off of a skyscraper, and 2) Their friend accidentally caused a massive oil spill in the ocean. Solving the first problem was easy; The kids designed a superhero that could shoot webs spiderwebs, fly, and ultimately catch their friend. After solving that problem, solving the second problem proved easy; The kids designed a super bacteria with superpowers such as oil detection, bioemulsification, and oil digestion that could clean the ocean. By the end of this experience, we hoped the kids viewed genetic engineering as a way of creating superheroes that could clean the environment.
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                     <div><p>At this station, visitors were introduced to two catastrophic situations that they needed to solve using their imaginations: 1) Their friend fell off of a skyscraper, and 2) Their friend caused a massive oil spill in the ocean. To tackle the first problem, kids designed a superhero that could shoot spiderwebs or fly to ultimately catch their friend. For the second problem, kids designed a super bacteria that could clean the ocean by detecting, degrading, or digesting oil. This activity served as a introduction of the possibilites of synthetic biology and genetic engineering to kids.
 
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                     <img src="https://static.igem.org/mediawiki/2016/1/1f/T--UMaryland--kitofparts.jpg" id="img-parts"/img>
 
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                     <div> <p> Visitors would learn about the concept of BioBricks and versatility of engineering cells to solve global issues. They were wooden model made of poles and color-coded parts that fit on the poles. Each color had a different function like red for production and blue for sensing. A visitor would pick a challenge card with an area of research on it ranging from making synthetic blood to treating malaria. On the back of the card was a description of a solution to the chosen problem using the parts given. </p> </div>
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                     <div> <p> Visitors would learn about the concept of BioBricks and versatility of engineering cells to solve global issues. They used a cell model made of wooden poles and color-coded parts that fit on the poles. Each color had a different function like red for production and blue for sensing. A visitor would pick a challenge card with an area of research on it ranging from making synthetic blood to treating malaria. Then she would make a cell that would solve the problem using a solution description on the back of the card. </p> </div>
 
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                     <img src="https://static.igem.org/mediawiki/2016/d/d2/T--UMaryland--biobistro.jpg" id="img-bistro"/img>
 
                     <img src="https://static.igem.org/mediawiki/2016/d/d2/T--UMaryland--biobistro.jpg" id="img-bistro"/img>
                     <div><p>Eat it? Think about it? No way? Visitors were introduced to a variety of engineered foods, both currently available and in development, and asked their opinion on consuming the goods. Items included vanilla flavoring, caffeine, and milk synthesized by yeast, a food pill that provided all daily nutrients, golden rice, and meat created in a lab. Participants were also introduced to different ways we have modified agriculture, such as selective breeding, genetic engineering, and synthetic biology, with common examples.</p></div>
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                     <div><p>Eat it? Think about it? No way? Visitors were introduced to a variety of engineered foods, both currently available and in development, and asked their opinion on consuming the goods. Items included vanilla flavoring, caffeine, and milk synthesized by yeast, a food pill that provided all daily nutrients, golden rice, and meat created in a lab. Participants were also introduced to different ways we have modified agriculture like selective breeding, genetic engineering, and synthetic biology.</p></div>
 
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                     <img src="https://static.igem.org/mediawiki/2016/8/8b/T--UMaryland--buildyourownbacteria.jpg" id="img-super"/img>
 
                     <img src="https://static.igem.org/mediawiki/2016/8/8b/T--UMaryland--buildyourownbacteria.jpg" id="img-super"/img>
                     <div><p>This station combines science, art and play to present an analogy for synthetic biology. First, participants used legos to build their own plasmid, mixing and matching different parts. Different legos were used as an analogy for BioBricks, and contained pieces such as promoters and terminators. Visitors were able to pick what physical characteristics they wanted their bacteria to have, such as body color and number of legs, by picking the appropriate lego BioBricks. Then, participants were able to draw the bacteria they just build on our worksheet. </p></div>
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                     <div><p>This station combines science, art and play to present an analogy for synthetic biology. First, participants used legos to build their own plasmid, mixing and matching different parts. Different legos were used as an analogy for BioBricks, and contained pieces such as promoters and terminators. Visitors were able to pick what physical characteristics they wanted their bacteria to have, such as body color and number of legs, by picking the appropriate lego BioBricks. Then, participants were able to draw the bacteria they just built on our worksheet. </p></div>
 
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                     <img src="https://static.igem.org/mediawiki/2016/3/3a/T--UMaryland--pipette.jpg" id="img-super"/img>
 
                     <img src="https://static.igem.org/mediawiki/2016/3/3a/T--UMaryland--pipette.jpg" id="img-super"/img>
                     <div><p>Science is an art! Participants were able to try their hand at using pipettes by pipetting food coloring into test tubes with water, and mixing different shades to make their own colorful creations.</p></div>
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                     <div><p>Science is an art! Participants were able to try pipetting food coloring into test tubes with water, and then mixing different shades to make their own colorful creations.</p></div>
 
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Revision as of 19:31, 8 August 2016

</div></div> Building with Biology

Education




Furthering a Dialogue Between Us and the Public

Building with Biology: Port Discovery




July 30th, 2016

We volunteered at the Building with Biology Event held at Port Discovery in Baltimore, Md to raise awareness about synthetic biology among children 8 and up. We manned six tables with different activities involving synthetic biology, which are described in more depth below.

Building with Biology Activities

Our Activities

Super Organisms!

Kit of Parts

Bio Bistro

Tech Tokens

At this station, visitors were introduced to two catastrophic situations that they needed to solve using their imaginations: 1) Their friend fell off of a skyscraper, and 2) Their friend caused a massive oil spill in the ocean. To tackle the first problem, kids designed a superhero that could shoot spiderwebs or fly to ultimately catch their friend. For the second problem, kids designed a super bacteria that could clean the ocean by detecting, degrading, or digesting oil. This activity served as a introduction of the possibilites of synthetic biology and genetic engineering to kids.

Visitors would learn about the concept of BioBricks and versatility of engineering cells to solve global issues. They used a cell model made of wooden poles and color-coded parts that fit on the poles. Each color had a different function like red for production and blue for sensing. A visitor would pick a challenge card with an area of research on it ranging from making synthetic blood to treating malaria. Then she would make a cell that would solve the problem using a solution description on the back of the card.

Eat it? Think about it? No way? Visitors were introduced to a variety of engineered foods, both currently available and in development, and asked their opinion on consuming the goods. Items included vanilla flavoring, caffeine, and milk synthesized by yeast, a food pill that provided all daily nutrients, golden rice, and meat created in a lab. Participants were also introduced to different ways we have modified agriculture like selective breeding, genetic engineering, and synthetic biology.

Visitors would be introduced to a wide range of applications for synthetic biology to start a conversation among the visitors on the level of importance of each application. Each visitor at the table was given a stack of colored coins to represent their opinion. They would place all their coins on the application(s) most important to them and then we would all discuss their choices and reasoning. An additional activity was to give each person at the table a character card with occupations ranging from president of the U.S. to Canadian college student. They would repeat the process of placing coins, but this time in the mindset of the occupation they were given.