Difference between revisions of "Team:Groningen/Integrated Practices"

 
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<h3 class="centrate"> <strong> Beyond the lab… To the understanding of the world </strong> </h3>
 
<h3 class="centrate"> <strong> Beyond the lab… To the understanding of the world </strong> </h3>
  
−
<p>How CryptoGErM was shaped for our Human Practices? How did we integrate the results of the small projects of our HP into the project? <strong>Every project of Human Practices have an intention </p>
+
<p>We invite you to discover how CryptoGErM was shaped for Human Practices and how we integrate the results of the small projects </p>
  
−
                 <p><strong>We invite you to discover the answer to those questions!</strong></p>
+
                 <p><strong>A detailed description can be found in every link</strong></p>
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</section>
+
−
+
−
<section>
+
−
<h3><strong><a href="/Team:Groningen/HP/Social">Social</a></strong></h3>
+
  
−
<p>Originally our idea was to send exclusively the key encrypted in bacteria, and once the receiver decrypted the key he could use it to access to the sensitive information previously stored in internet. However, immediately we figured out a drawback; if the information is already digitally accesible, it might be target of leaking. So we decided to send both, the original message encrypted and the key in the same package using the DNA of bacteria.</p>
+
<p>We contacted experts from the Cyber Security Centre from the Ministry of Security and Justice from the Netherlands, institution in charge of the cyber security in our country, to know what are the real challenges that they have to face in the field of encryption. This Institution made <a href="/Team:Groningen/HP/Social">comments on our project</a>, they told us that generally when a system is intended for the sending of information rather than just storing it, two questions are important:</p>
 +
      </section>
 +
        <figure>
 +
        <img src="https://static.igem.org/mediawiki/2016/b/b7/T--Groningen--Social-social1.png" alt="social1" />
 +
        </figure>
 +
        <div class="split">
 +
          <div class="left fltwo">   
 +
<p>The National Institution told us that when the message and the key are sent together in the same package the probability that the information is intercepted and decrypted is really high, therefore it must be ensured that either, the key, the message or both are safe and cannot be accessed easily. To approach that, we designed biological security layers to provide an extra lock. You and your receiver agreed on a biological key beforehand. Only with the biological key, the right treatment of the spores, the DNA of the <em>Bacillus subtilis</em> culture can be harvested and the genome will be sequenced. A wrong treatment will cause the loss of the desired DNA sequence and therefore the message cannot be read anymore. </p>
  
−
<p>With that idea in mind, we contacted the Cyber Security Centre from the Ministry of Security and Justice from the Netherlands, institution in charge of the cyber security in our country, to know what would be possible drawbacks of our idea, and what are the real challenges that they have to face in the field of encryption. This Institution made comments on our project, they told us that generally when a system is intended for the sending rather than just storing it, two questions are important:</p>
+
<p>To make it especially hard for unauthorized parties to access our key, the key-spores will be sent in a mixture of decoy spores. The decoy spores are present in a much higher ratio than the key-spores. The key-spores have to be recovered using a specific selection mechanism. We have developed a ciprofloxacin resistance cassette that can be integrated into the <em>B. subtilis</em> genome. Only the knowledge of this specific selection antibiotic will allow the recovery.</p>
 +
<p>After that contact, we realized that not only governments but also private companies could be interested in using our system. But, which requirements? Would private companies or institutions be interested in using CryptoGErM? Would be able to adapt our system to the conditions required for real users? Is it our system better in comparison with current technologies for the storing and sending of information?</p>
 +
            </div>
 +
          <div class="right flone">
 +
              <figure>
 +
              <img src="https://static.igem.org/mediawiki/2016/0/03/T--Groningen--tour-mediumdead.png" alt="tour" style=" width: 220px; height:425px;" />
 +
                <figcaption class="centrate">Under the wrong treatment, it will not be possible to retrieve the message</figcaption>
 +
              </figure>
 +
      </div>
 +
      </div>
 +
       
 +
        </section>
 +
        <section>
 +
        <div class="split">
 +
        <div class="right fltwo">
 +
<p>After that contact, we realized that not only governments could use our system, also private companies could be interested in using our system. We interviewed a potential user, the Groningen Archives; they store the entire historical information related with the province of Groningen in the Netherlands. As a result of this interview, we learned that paper (it is often the medium used for the storing of historical information) requires specific conditions that sometimes are not suitable for long-term storing, because they consume resources. In addition to that, paper it is a suitable for information storage just for a couple of hundreds of years. Actually, this Institution has been prepared for the change from physical to digital storing for the last years. The advantages of storing information in DNA is that spores are highly resistant entities that can survive harsh environments; actually spore of <em>Bacillus subtilis</em> can be found after several million years, as shown for the discoveries done in the last years. Besides that, DNA can store up to 10<sup>9</sup> GB/mm<sup>3</sup> which is a regally high density compared with the current technologies that can store only 10 GB/mm<sup>3</sup>; furthermore, the spores do not need strict environment for their conservation in comparison with paper or digital storage.</p>
  
−
<p>The first one, what do we do with key and how we keep it safe?</p>
+
<p>We learned also that a system intended for the long-term storing of information must be ensured with storability and accessibility, i. e. the nature of the medium used for the storing does not matter as long as it is insured that the stored information is completely preserved. He told us that DNA is a considerable option if the information does not though mutations. Therefore, we modelled how many times the random mutations could be present in our message by using computational tools, and we concluded that for our specific case the impact of the random mutations influencing our project was extremely low and that we could have safely saved our message.</p>
 +
          </div>
 +
        <div class="left flone">
 +
            <figure>
 +
            <img src="https://static.igem.org/mediawiki/2016/d/d0/T--Groningen--Social-social5.png" alt="social" />
 +
              <figcaption class="centrate">DNA, the next generation in the storing of information</figcaption>
 +
            </figure>
 +
      </div>
 +
      </div>
 +
      <section>
  
−
<p>This question changed deeply our project; the National Institution told us that when the message and the key are sent together in the same package the probability that the information is intercepted and decrypted is really high, therefore it must be ensured that either, the key, the message or both are safe and cannot be accessed easily if the package is intercepted. To overcome that, we propose the idea of using of biological security layers to provide an extra lock to access to the information; you and your receiver agreed on a biological key beforehand. This biological lock comprises the proper germination conditions for the key spores. A wrong treatment will cause the loss of the desired DNA sequence and therefore the message cannot be read anymore. Only with the biological key, the right treatment of the spores, the DNA of the <em>Bacillus subtilis</em> culture can be harvested and the genome will be sequenced<p>
+
<p>Additionally to the experts and the potential users, we started a survey to know what is the current perception of the society about the storing and sending of information. We wanted to achieve an extensive and broad range of people from different backgrounds and nationalities; however, though the years we have found out that most of the survey conducted by iGEM teams are in English which excludes people that do not speak this language; therefore, we developed versions of our survey in different languages together with iGEM Teams who shared them in their social media. Originally the survey was developed together with a psychologist to assure that the questions and the structure were correct to obtain the information intended.</p>
  
−
<p>The second question that the experts face when sending encrypted information is that how do we ensure that the information is securely decrypted?</p>
+
<p>Once the system fulfilled the requirements from experts, users and society; the next step was to explore the regulations for the <a href="/Team:Groningen/HP/Legal">shipping of our spores</a> containing the encrypted information.</p>
−
 
+
    </section>
−
<p>By thinking in this problem, we came out with a simple solution. We sent our spores with the message and the key together with a huge amount of decoys. If the information is intercepted and sequenced, they will find the DNA of the decoys, and since they are in a higher proportion than the correct bacteria, the message will get lost. We added a resistance to the bacteria with the message and the key to a photo switchable antibiotic, then the receiver has to irradiate the sample with the correct wavelength number to active the antibiotic.</p>
+
−
 
+
−
<p>After shaping our project based on the real challenges faced by the experts, we realized that not only governments could use our system, also private companies could be interested in using our system. But, which requirements? Would private companies or institutions be interested in our project? Would be able to adapt our system to the conditions required for real users? Is it our system better in comparison with current technologies for the storing and sending of information?
+
−
 
+
−
To answer this we interview a potential user, the Groningen Archives; they store the entire historical information related with the province of Groningen in the Netherlands. As a result of this interview, we learned that paper (it is often the medium used for the storing of historical information) requires specific conditions that sometimes are not suitable for long-term storing, because they consume resources. In addition to that, paper it is a suitable for information storage just for a couple of hundred of years. Actually, this Institution has been prepared for the change from physical to digital storing for the last years.</p>
+
−
 
+
−
<p>We learned also that a system intended for the long-term storing of information must be ensure its storability and accessibility, i. e. he nature of the medium used for the storing does not matter as long as it is insured that the stored information is completely preserved. He told us that DNA is a considerable option if the information does not though mutations.</p>
+
−
 
+
−
<p>So here, we found another problem: how we could be sure that the DNA would not suffer mutations or that the potential mutations? For that, our expert colleagues from Artificial Intelligence and after this interview, we realized how important a is to know the probability of mutation in the DNA of the spores of <em>Bacillus subtilis</em>, for that we applied Modeling by estimating the number of bases expected to mutate during the whole process from the insertion to the reading. In addition to that, we explore the literature to for the costs and fidelity of the sequencing of DNA associated with the reading of our project.</p>
+
−
 
+
−
<p>Additionally, we started a survey to know what is the current perception of the society about the storing and sending of information. We wanted to achieve an extensive and broad range of people from different backgrounds and nationalities, however, though the years we have found out that most of the survey conducted by iGEM teams are in English which excludes people that do not speak it. We were interested in a broader sample of the population and not limit our survey to people that speak English, so we developed versions of our survey in different languages together with the iGEM Teams. This surveys gave his the opportunity to reach more people making easier for them to understand the questions. Originally the survey was developed together with a psychologist to assure that the questions and the structure were correct to obtain the information intended.</p>
+
−
 
+
−
<p>We found out that our survey respondents send sensitive information through digital means but they do not trust it, because they feel their information is not secure. Our survey respondents also agree that a system for the storing and sending of information could be used by them for the storing of sensitive information that has not to be necessarily accessed immediately. Based on those results, we can trust that our system could be use also by general public. However, as a result of this survey we also found out that an important fraction of our survey respondents do not actually what bacteria are. So we dedicated our Education and Outreach sections to reach as much general public as possible to promote concepts of synthetic biology and our project.</p>
+
−
      </section>
+
  
 +
      <section>
 +
      <div class="split">
 +
      <div class="right flone">
 +
<p>The idea of our system is that the encrypted information contained on bacteria can be shipped freely around the world. So, the next important step for the Human Practices and was to look for the national and international legislations that regulate the sending of GMOs, to avoid potential risks to the environment and society. We contacted the National Institute for Public Health and the Environment for guidance in the Dutch Regulations. We found out what is the correct way for the sending of GMOs using conventional methods, such as post. GMOs receive a classification according to its nature, focusing on the fact if the GMOs meet the definition of infectious substances; in our case, the <em>Bacillus subtilis</em> spores with the message are not within this concept and they are assigned to the labelling UN3245. Besides that, we found out that for the shipping of GMOs we must use packings with strict specifications, for example, we used an leakproof envelopment using the labelling mentioned before. We discussed explicitly this in our <a href="/Team:Groningen/HP/Legal">legal section of Human Practices.</a></p>
 +
      </div>
 +
      <div class="left flone">
 +
          <figure>
 +
        <img src="https://static.igem.org/mediawiki/2016/7/7f/T--Groningen--Legal-legal5.png" alt="legal" />
 +
          <figcaption class="centrate">Our spores containing the message and the key moments before being sent</figcaption>
 +
            </figure>
 +
      </div>
 +
      </div>
 +
    </section>
 
     <section>
 
     <section>
−
           <h3><strong><a href="/Team:Groningen/HP/Legal">Legal</a></strong></h3>
+
        <div class="split">
−
<p>Once the system fulfilled the requirements from experts, users and society; the next step was to explore the shipping of our spores containing the encrypted information.</p>
+
                <div class="left flone">
 +
<p>The next step was looking for international regulations; we realized that the International shipping of GMOs is regulated from different legislations depending on the country that is intended for the access of the GMOs. We consulted the three more important guidelines and regulations for the sending to America, Europe and Asia of our system, the Cartagena Protocol in Biosafety, the national legislations from non-parties of the Cartagena Protocol and the guidelines of the World Health Organisation. In the case we want to send to countries outside Europe our <em>Bacillus subtilis</em> spores, we must follow those guidelines. </p>
 +
                </div>
 +
           <div class="right flone">
 +
            <h4>Sending of spores to our collaborators</h4>
 +
          <video controls preload="metadata">
 +
<source src="https://static.igem.org/mediawiki/2016/b/b6/T--Groningen--Results-sporesending.mp4" />
 +
</video>
 +
          </div>
 +
      </div>
 +
</section>
 +
<section>
 +
<p>We decided to <a href="/Team:Groningen/HP/Future">explore different aspects of our project</a> and the repercussions of its introduction as a daily-used system in the near and long future. These scenarios were based on current evidence and scientific researches. We present this fictional scenarios as digital newspapers, following the prediciton that by 2040 the physical newspapers will disappear. We explore the applications of our project that may result of the advantages that DNA has over others storage medium, such as minimal physical space and high density of storing; for example, we can store 10<sup>9</sup> GB/mm<sup>3</sup> in DNA leading to a decrease in the physical space required for the storing. This also leads to a high capacity to store large amount of data in DNA of bacteria.</p>
 +
    </section>
 +
    <section>
 +
          <div class="split">
 +
          <div class="left flone">
 +
<p> In our future scenarios we explored the cost and speed of sequencing DNA and the predictions made for those two in the upcoming years. The last step of our project includes the sequencing of the DNA that contains the key and the message, so it was important for us to know the current price and time required for reading our message. We found that the current price for sequencing a Megabase (less than one dollar) of DNA and that the time to read our message would be two hours if the laboratory have the required. One thing that support the use of our system in the near future is that the experts predict that in the near future the techniques used for the DNA sequencing will become better, cheaper and faster.</p>
  
−
<p>For that, we contacted the iGEM Team from Eindhoven to collaborate with us by decrypting our message… The bacteria would be sent to the iGEM Team by post.</p>  
+
<p>In addition, we created a fictional scenario where we explore the potential application of our system for the long-term information storage, because researches have shown that <em>Bacillus subtilis</em> spores can last intactly for thousands or even million of years. This fact give the opportunity for our system to be used as a capsule time.</p>
 +
        </div>
 +
          <div class="right flone">
 +
              <figure>
 +
                <img src="https://static.igem.org/mediawiki/2016/f/fc/T--Groningen--Legal-future1.png" alt="future" />
 +
                <figcaption>An example of a fictional digital new of our future scenarios</figcaption>
 +
                </figure>
 +
          </div>
 +
        </div>
  
−
<p>The idea of our system is that the encrypted information contained on bacteria can be shipped freely around the world. So, the next important step for the Human Practices and was to look for the national and international legislations that regulate the sending of GMOs. This is crucial for our project, because we cannot send the spores of <em>Bacillus subtilis</em> without following regulations because it might be that we put in the risk the environment or society. Since the legislations were really extensive, we contacted the for guidance in the Dutch Regulations for the sending of modified bacteria. We read all those regulations to find out what is the correct way for the sending of GMOs using conventional methods, such as post. We found out that the GMOs received a classification according to its nature, focusing on the fact if the GMOs pretending to be sent meet the definition of infectious substances; in our case, the spores are not within the concept of infectious substance and they are assigned to the labelling UN3245. Besides that, we found out that for the shipping of GMOs we must use packings with strict specifications. We discussed explicitly this in our legal section of Human Practices.</p>
+
<p> Finally we also did an extensive research about the current type of information that has been stored in DNA, and we found out that a company has successfully stored this year images in DNA; besides that we have successfully stored a complete message in the DNDA of <em>Bacillus subtilis</em>; as a result of that we present fiction al scenarios where a movie is stored in <em>Bacillus subtilis.</em></p>
−
 
+
      </section>
−
<p>The next step was looking for international regulations for the shipping of GMOs, because the perspectives of our system is the free shipping of encrypted information in our system around the world. We consulted the Cartagena Protocol. However, we realized that the International shipping of GMOs is regulated from different legislations depending on the country that is intended for the access of the GMOs. We consulted the three more important guidelines and regulations for the sending to America, Europe and Asia of our system. We followed a strict protocol for the sending of our spores to our Dutch iGEM Collaborators obeying the national and international recommendations.</p>
+
−
</section>
+
−
 
+
−
<section>
+
−
<h3><strong><a href="/Team:Groningen/HP/Future">Future scenarios</a></strong></h3>
+
−
 
+
−
<p>We decided to explore different aspects of our project and the repercussions of its introduction as a daily-used system in the near and long future. These scenarios were based on current evidence.We explore the applications of our project that may result of the advantages that DNA has over others storage medium, such as minimal physical space and high density of storing.
+
−
 
+
−
In addition, we created a fictional scenario where we explore the potential application of our system for the long-term information storage, because researches have shown that <em>Bacillus subtilis</em> spores can last intactly for thousands or even million of years. We also did an extensive research about the current type of information that has been stored in DNA, and awe found out that a company has successfully stored this year images in DNA; as a result of that we present fiction al scenarios where a movie is stored in <em>Bacillus subtilis</em>; finally in our future scenarios we explore the price and cost of sequencing DNA and the predictions made for those two in the upcoming years.</p>
+
−
.</p>
+
−
</section>
+
−
+
−
<section>
+
−
<h3><strong><a href="/Team:Groningen/HP/Education">Education</a> and <a href="/Team:Groningen/HP/Outreach">Outreach</a></strong></h3>
+
−
 
+
−
<p>One of our survey results motivated the Educational Part. One of our purposes was to make general audience and students get in touch with synthetic biology and our project</p>
+
−
 
+
−
<p>In collaboration with one of our sponsors, we received in our laboratory 9 High School students who developed lab work for their High School Thesis. We were their mentor and we advised them doing experiments in the CryptoGE<sup>R</sup>M laboratory. We were excited because we contributed to the academic formation of this new generation of scientists; highly motivated students that showed the high potential of the students in our country. These students came from different cities in the Netherlands to work with us. This shows that our project has impacted deeply the academic formation of young students.</p>
+
−
 
+
−
<p>Besides that we received over 150 students from different Dutch High Schools; we gave a lecture in synthetic biology and our project to these motivated students, and after that we made Bio-ART with them; they came to the laboratory with us to paint with bacteria, to show them how funny science is.</p>
+
−
 
+
−
<p>For the outreaching, we reached local audience in the North part of the Netherlands where local newspapers made articles about our project, we also reach a national audience when the Dutch National News Agency made an article and a video about our project. This raised the interest of our the country to the project! Besides that we attended different conferences around the Netherlands; the most significative one correspond to our participation in the European Campus Party where we gave a workshops haring our knowledge with European students.</p>
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−
        </section>
+
 
     </article>
 
     </article>
 
</html>
 
</html>
 
{{Groningen/footer}}
 
{{Groningen/footer}}

Latest revision as of 17:55, 19 October 2016

CryptoGE®M
CryptoGE®M
Team
Team
Members Supervisors Collaborations Achievements Contact
Project
Project
Tour Description Design Results Demonstrate Applications Future Notebook
Biology
Biology
Experiments Parts Safety Lab journal
Computing
Computing
Modelling Software Encoding Decoding
Human Practice
Human Practices
Human Practices Gold Silver
Acknowledgements
Support
Sponsors Attributions

Human Practices Projects of CryptoGErM

Beyond the lab… To the understanding of the world

We invite you to discover how CryptoGErM was shaped for Human Practices and how we integrate the results of the small projects

A detailed description can be found in every link

We contacted experts from the Cyber Security Centre from the Ministry of Security and Justice from the Netherlands, institution in charge of the cyber security in our country, to know what are the real challenges that they have to face in the field of encryption. This Institution made comments on our project, they told us that generally when a system is intended for the sending of information rather than just storing it, two questions are important:

social1

The National Institution told us that when the message and the key are sent together in the same package the probability that the information is intercepted and decrypted is really high, therefore it must be ensured that either, the key, the message or both are safe and cannot be accessed easily. To approach that, we designed biological security layers to provide an extra lock. You and your receiver agreed on a biological key beforehand. Only with the biological key, the right treatment of the spores, the DNA of the Bacillus subtilis culture can be harvested and the genome will be sequenced. A wrong treatment will cause the loss of the desired DNA sequence and therefore the message cannot be read anymore.

To make it especially hard for unauthorized parties to access our key, the key-spores will be sent in a mixture of decoy spores. The decoy spores are present in a much higher ratio than the key-spores. The key-spores have to be recovered using a specific selection mechanism. We have developed a ciprofloxacin resistance cassette that can be integrated into the B. subtilis genome. Only the knowledge of this specific selection antibiotic will allow the recovery.

After that contact, we realized that not only governments but also private companies could be interested in using our system. But, which requirements? Would private companies or institutions be interested in using CryptoGErM? Would be able to adapt our system to the conditions required for real users? Is it our system better in comparison with current technologies for the storing and sending of information?

tour
Under the wrong treatment, it will not be possible to retrieve the message

After that contact, we realized that not only governments could use our system, also private companies could be interested in using our system. We interviewed a potential user, the Groningen Archives; they store the entire historical information related with the province of Groningen in the Netherlands. As a result of this interview, we learned that paper (it is often the medium used for the storing of historical information) requires specific conditions that sometimes are not suitable for long-term storing, because they consume resources. In addition to that, paper it is a suitable for information storage just for a couple of hundreds of years. Actually, this Institution has been prepared for the change from physical to digital storing for the last years. The advantages of storing information in DNA is that spores are highly resistant entities that can survive harsh environments; actually spore of Bacillus subtilis can be found after several million years, as shown for the discoveries done in the last years. Besides that, DNA can store up to 109 GB/mm3 which is a regally high density compared with the current technologies that can store only 10 GB/mm3; furthermore, the spores do not need strict environment for their conservation in comparison with paper or digital storage.

We learned also that a system intended for the long-term storing of information must be ensured with storability and accessibility, i. e. the nature of the medium used for the storing does not matter as long as it is insured that the stored information is completely preserved. He told us that DNA is a considerable option if the information does not though mutations. Therefore, we modelled how many times the random mutations could be present in our message by using computational tools, and we concluded that for our specific case the impact of the random mutations influencing our project was extremely low and that we could have safely saved our message.

social
DNA, the next generation in the storing of information

Additionally to the experts and the potential users, we started a survey to know what is the current perception of the society about the storing and sending of information. We wanted to achieve an extensive and broad range of people from different backgrounds and nationalities; however, though the years we have found out that most of the survey conducted by iGEM teams are in English which excludes people that do not speak this language; therefore, we developed versions of our survey in different languages together with iGEM Teams who shared them in their social media. Originally the survey was developed together with a psychologist to assure that the questions and the structure were correct to obtain the information intended.

Once the system fulfilled the requirements from experts, users and society; the next step was to explore the regulations for the shipping of our spores containing the encrypted information.

The idea of our system is that the encrypted information contained on bacteria can be shipped freely around the world. So, the next important step for the Human Practices and was to look for the national and international legislations that regulate the sending of GMOs, to avoid potential risks to the environment and society. We contacted the National Institute for Public Health and the Environment for guidance in the Dutch Regulations. We found out what is the correct way for the sending of GMOs using conventional methods, such as post. GMOs receive a classification according to its nature, focusing on the fact if the GMOs meet the definition of infectious substances; in our case, the Bacillus subtilis spores with the message are not within this concept and they are assigned to the labelling UN3245. Besides that, we found out that for the shipping of GMOs we must use packings with strict specifications, for example, we used an leakproof envelopment using the labelling mentioned before. We discussed explicitly this in our legal section of Human Practices.

legal
Our spores containing the message and the key moments before being sent

The next step was looking for international regulations; we realized that the International shipping of GMOs is regulated from different legislations depending on the country that is intended for the access of the GMOs. We consulted the three more important guidelines and regulations for the sending to America, Europe and Asia of our system, the Cartagena Protocol in Biosafety, the national legislations from non-parties of the Cartagena Protocol and the guidelines of the World Health Organisation. In the case we want to send to countries outside Europe our Bacillus subtilis spores, we must follow those guidelines.

Sending of spores to our collaborators

We decided to explore different aspects of our project and the repercussions of its introduction as a daily-used system in the near and long future. These scenarios were based on current evidence and scientific researches. We present this fictional scenarios as digital newspapers, following the prediciton that by 2040 the physical newspapers will disappear. We explore the applications of our project that may result of the advantages that DNA has over others storage medium, such as minimal physical space and high density of storing; for example, we can store 109 GB/mm3 in DNA leading to a decrease in the physical space required for the storing. This also leads to a high capacity to store large amount of data in DNA of bacteria.

In our future scenarios we explored the cost and speed of sequencing DNA and the predictions made for those two in the upcoming years. The last step of our project includes the sequencing of the DNA that contains the key and the message, so it was important for us to know the current price and time required for reading our message. We found that the current price for sequencing a Megabase (less than one dollar) of DNA and that the time to read our message would be two hours if the laboratory have the required. One thing that support the use of our system in the near future is that the experts predict that in the near future the techniques used for the DNA sequencing will become better, cheaper and faster.

In addition, we created a fictional scenario where we explore the potential application of our system for the long-term information storage, because researches have shown that Bacillus subtilis spores can last intactly for thousands or even million of years. This fact give the opportunity for our system to be used as a capsule time.

future
An example of a fictional digital new of our future scenarios

Finally we also did an extensive research about the current type of information that has been stored in DNA, and we found out that a company has successfully stored this year images in DNA; besides that we have successfully stored a complete message in the DNDA of Bacillus subtilis; as a result of that we present fiction al scenarios where a movie is stored in Bacillus subtilis.

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