We all know that using antibiotics too much or in the wrong way is a big problem that affects everyone. It's often because people don't have all the right information, and this can lead to bacteria becoming resistant to many different types of antibiotics.
Just imagine a situation where the very medicines that are supposed to make us better suddenly stop working against these tiny enemies. There's even a special name for them:
These are special little organisms that have evolved and learned how to resist lots of different antibiotics. This makes them really tough to treat.
Realizing this problem, us, the iGEM-USP team, understand how important it is to find answers to this ongoing challenge in today's world. Our project is all about making sure that scientific information is spread out in a way that everyone can get it, understand it, and see
Right from the start, we wanted Human Practices to be a big part of our project. We sat down and figured out the changes we wanted to bring about in the world and planned activities to show how our work would affect society.
To make all this happen and get everyone involved, we needed a team with lots of different skills and experiences. We looked beyond just science and got right into the heart of what we were studying.
In iGEM projects, stakeholders are super important because they can help in all sorts of ways. They can give money, share their technical know-how, offer guidance on ethics, provide access to labs, and even team up with us. Lots of different groups have been curious about our work, from scientists and medical researchers to companies involved in making bio-stuff.
But we don't stop at the interested folks. We also think about who might not be in the loop or could be affected in not-so-good ways. We know that finding better ways to do things might bring up challenges for folks used to the old methods of making antibiotics. That's why our social responsibility pushes us to think about these tricky situations as we move forward, making sure that our impact is good and fair for everyone involved.
Luiza Hesketh - iGEM Ambassador in Brazil
Helped us get organized and develop the team. Also, she gave us the lowdown on setting up a killer entrepreneurship and social media strategy.
Regina Markus - Professor at the Biosciences Institute of the University of São Paulo and Senior Researcher at CNPq. Member of the Academies of Sciences of the State of São Paulo (ACIESP, 1980) and Brazilian (ABC, 2012)
Was our go-to for understanding how SARP and bacterial metabolism team up to create compounds that can wipe out bacteria. Plus, she helped us think big picture, considering everything from the lab bench to actual use.
Renata Furlan - Professor at the Institute of Biomedical Science of the University of São Paulo and General Coordinator of the project Young Bioscientist
Guided us in educational projects, giving us awesome insights, expertise, and support to make sure what we were doing had a real impact on learning.
These awesome folks from UNILA teamed up with us closely, sharing all they knew about the iGEM competition and Synthetic Biology. They were key players in getting all the science parts of our project just right.
Our pals from iGEM-USP over at the Lorena campus made a huge difference in the Brazilian Synthetic Biology Olympics (OBBS) project we were working on. They brought their A-game and made sure it all came together just right.
The iGEM crew from the State University of Campinas (UNICAMP) gave us a mind-blowing workshop on metabolic simulation. This totally amped up what our Dry Lab group could do. Plus, they gave us priceless tips for tackling project hurdles and finding kick-butt solutions.
Our team set out on a grand adventure to tinker with the Streptomyces olindensis bacterium. Our mission was crystal clear: find new tricks for tweaking and modeling this bacterial species.
Our dream was twofold: (1) come up with fresh genetic parts and (2) dive deep into how the regulatory protein SARP and DNA sequences team up. The big goal? Boost the production of cosmomycin D, a super strong compound that fights bacteria and tumors [1].
To kick off the idea, we needed to pick the brains of a bunch of experts for advice and thumbs-up on our concepts. First stop, university professors. We chatted with Professor Gabriel Padilla from the Institute of Biomedical Sciences at the University of São Paulo, Professor Elizabeth Bilsland from the Department of Structural and Functional Biology (Cell Biology area) at the Institute of Biology, State University of Campinas (UNICAMP), and Professor Reinaldo Giudici from the Chemical Engineering Department at the University of São Paulo. These rockstars gave us the lowdown on Streptomyces, handed us specific steps, and even hooked us up with the strain of Streptomyces olindensis that makes cosmomycin D. They also provided vectors and other stuff that was gold for our scientific journey. Their big-hearted help made our project a hit.
As we nailed our proof of concept, a bigger picture started to form. It wasn't just about amping up one compound's production; it was about proving that we could efficiently and massively edit Streptomyces.
To keep this impulse going and broaden
Another light bulb moment was thinking more broadly about how Cosmomycin D would interact with the body. We based this on Regina Quattrochi's "From bench to bedside" theory.
From there, we knew we needed help from math whizzes. That's when we sat down with Professor Ana Katerine de Carvalho Lima Lobato from the Graduate Program in Chemical Engineering at the Federal University of Bahia. Professor Ana Katerine provided a mathematical model for our metabolic production, proving essential in optimizing the production of Cosmomycin D in our project. Her technical guidance was crucial in achieving our goals effectively.
This new understanding opened doors to a universe of possibilities. We could now go beyond the usual E. coli and S. cerevisiae and diversify the bio-products. These bacteria, although super common, often fell short due to how they made stuff [2, 3]. The impact of our work could be huge for society.
But with great power comes great responsibility. We had to think about the ethics. How would we decide which needs and values to put first in our design? It was a balancing act between what we wanted to achieve scientifically and what would be best for society. We had to make compromises, weighing the best way to produce against the organism's ability to survive.
Plus, we had to be careful about possible misuse and unexpected consequences. We didn't want our solution to one problem to create new ones. The iGEM community expected nothing less than safety and responsibility both inside and outside the lab. We knew we had to hold ourselves to high standards in synthetic biology.
To really make the connection between our design and what we wanted to happen, we knew we had to believe in a philosophy of always getting better. Therefore, we started our validation process with companies. First, we selected some pharmaceutical and biotechnology companies that might be interested in our idea. Then, we put together our media kit, a material that presented the mission, values, and vision of the project. We contacted several companies and received responses from Merck, P&G, and BioBreyer. BioBreyer provided valuable feedback on our market vision and sponsorship marketing; through them, we had the opportunity to enhance our material.
And to take our project even further, we linked up with other Brazilian teams to organize our research better. Among these teams are
>Our journey was far from over, but with every experiment, every result, we were one step closer to turning our vision of using Streptomyces to change bio-production and help people into reality.
To kickstart our human practices, the team gathered for a brainstorming session, considering not only scientific aspects but also ethical, social, and commercial dimensions.
After consulting experts and laying the foundation for our scientific project, we realized the importance of delving into the context of our work. So, we connected with other scientific communities and deepened our understanding of synthetic biology. We believed that our knowledge could empower students from various universities to explore the potential of synthetic biology.
We reached out to several universities, including the State University of Campinas (UNICAMP). At UNICAMP, we organized the "iGEM Workshop: Breaking the Barriers Between Synthetic Biology and Society" for students. The workshop introduced concepts of synthetic biology, biological parts modeling, and design, while also discussing the history of iGEM in Brazil and sharing the experiences of Brazilian teams in the competition. This event played a pivotal role in gathering feedback on our team and project.
Another external partnership outside the University of São Paulo was with the online conference organized by Synbio Brasil, a Brazilian institution that connects students, researchers, and enthusiasts in the field of synthetic biology. During this event, we presented an overview of the Strep by Strep project and had the chance to connect with other Brazilian iGEM teams. This conference significantly boosted the visibility of our project within this specialized community, allowing us to receive valuable feedback and gain insights from diverse perspectives.
Another university we had contact with was the University of Brasília (UnB), where we conducted the workshop "Use of Bioinformatics Tools in Biotechnological Analysis" as part of the VI Biotechnology Integration Week of the University of Brasília (UnB). This online event, held on March 1st and 2nd, 2023, targeted undergraduate students in the biotechnology program at UnB. The first day covered general concepts related to synthetic biology, metabolic engineering, and Clustered Regularly Interspaced Short Palindromic Repeats (CRISPR). The second day focused on genetic analysis, molecular docking, structural modeling of proteins, and molecular docking techniques.
We forged various connections within the University of São Paulo. One such endeavor was the presentation of the mini-course "Industry 4.0: Synthetic Biology and the Impact of its Innovations"" during the "Biological Thematic Week," an event organized by the Academic Center of the Institute of Biosciences at the University of Sao Paulo (USP). Professor Gisele Monteiro, the coordinator of iGEM USP BR team since 2018, conducted the course, which was streamed on our YouTube channel. The course aimed to introduce undergraduate and postgraduate students to the field of synthetic biology, encouraging interest in synbio research and promoting its use in sustainable human development.
Partnering with the “Young BioScientist” initiative within the University of São Paulo was a valuable experience. This collaboration involved providing social media training for the members, where we shared insights on content dissemination through various platforms. Topics covered included content standardization, language use, and optimal posting schedules. The collaboration received enthusiastic feedback from the “Young BioScientist” members, who described it as an exceptionally fruitful exchange that facilitated networking for all involved parties.
We also participated in the event called “Welcome Week” at the School of Pharmaceutical Sciences, Institute of Biology, and Institute of Biomedical Sciences. This week-long event is an opportunity for upperclassmen to introduce the university to incoming freshmen, and our team couldn't pass up the chance to present iGEM and invite students to join us in the future. Additionally, we enlightened the new students about Synthetic Biology and its potential societal impact, igniting the interest of future biotechnology enthusiasts.
We spotlighted the 'Adopt a Bacterium' project, a brainchild of dedicated undergraduate Biomedical Sciences students in the 10th edition of the Bacteriology course. This innovative digital comic book, centered around Escherichia coli, was created last year, aiming to captivate both students and the general public by intertwining microbiology with superheroes. Alongside exploring E. coli infections, it addresses critical subjects like self-medication dangers. Professor Rita Café Ferreira leads this project. We amplified its reach through OBBS (Brazilian Synthetic Biology Olympiad) social media channels, effectively engaging students in microbiology discussions.
However, these were just our initial steps. We aimed to reach the broader society. To seize the opportunity presented by a science outreach event named "Bio on the Street," we organized a booth to promote the iGEM USP BR team and share information about our project with the general public.
The booth featured a microscope to allow hands-on experience in microorganism observation, Petri dishes with Streptomyces colonies (used to demonstrate their characteristic odor after rain), and a drawing board to explaindifferent type of bacteria (gram-positive and gram-negative), the functioning of antibiotics, and the artificial selection caused by their misuse, contributing to the emergence of multidrug-resistant bacteria.
With this goal in mind, we created the game "Bacteria and Antibiotics", where players used cards representing bacteria to compete for survival and progress on the board. Meanwhile, a mediator used antibiotic cards to influence the outcomes. We also incorporated game mechanics to address the topic of resistance development, blending playfulness with educational conversation.
The reception to the activity was overwhelmingly positive, with audiences of all ages expressing interest and asking questions. This allowed us to connect scientific topics with everyday life, breaking down the barrier between the university and society. While children enjoyed the game, adults reconsidered the misuse of medications and recognized the importance of projects like ours in addressing the growing threat of superbugs.
The "Bacteria and Antibiotics" game was also presented to students of the course "BIB 0446 - Biology and Evolution in Prokaryotes", offered by the Institute of Biosciences at the University of São Paulo during the second semester of 2023. The teaching proposal for the course involved creating a card game centered around bacteria, archaea, and their characteristics. Our game served as a reference for the professor to suggest new gamification approaches in teaching to her students.
We also created a guide for a comic book story explaining pathogenic and non-pathogenic bacteria, highlighting their benefits in the fields of health, environment, and food. The story started with:
"Professor João has just arrived in the classroom to begin explaining initial concepts about bacteria. João is a young biology teacher. In this class, the differences between pathogenic and non-pathogenic bacteria will be addressed for 5th-grade students. The students are not yet familiar with the subject to be discussed in class."
Our aim was to make this story available for people to learn about microbiology in a fun and relaxed manner.
Another significant activity was the science outreach event held on one of the busiest avenues in São Paulo: Avenida Paulista. This event was the result of extensive research conducted beforehand - primarily with our social media followers, but also with education and outreach professionals. We inquired about their interests and preferences for activities they would like to be a part of if approached by strangers on Paulista Avenue.
During this event, team members conducted a dynamic called "Fact or Fake," where we asked people to answer whether a statement was true or false. These questions consisted of everyday topics for individuals and were linked to our team's project, such as "Can you take medication with juices and sodas?" and "When taking antibiotics, do you continue taking them even after the symptoms subside?". When responding, the team provided a brief explanation of the correct answer. Another dynamic used at this event was presenting a story involving Streptomyces, inviting people to respond whether they believed in what we were telling, thus giving us the opportunity to explain our project and validate it with society.
Our second step towards integrating society into research was to acquaint ourselves with the diverse individuals who practice and study science. Our aim was to connect with people from different backgrounds, which led us to conduct interviews with scientists who have disabilities (PWD - People with Disabilities).
We had the tremendous opportunity to converse with Professor José Otávio Motta Pompeu e Silva, who is diagnosed with Autism Spectrum Disorder (ASD) and teaches the interdisciplinary course "Maps: Unraveling the Mind and Space," focusing on the well-being of over 800 students from various courses at UFRJ (Federal University of Rio de Janeiro). Following the interview, the professor invited us to lecture in the course and present on biotechnology and synthetic biology. Another collaboration with the professor was to connect him with the iGEM USP-EEL team.
We also interviewed scientist Nuccia Nicole Theodoro De Cicco, who has bilateral profound deafness with communicative ability in Brazilian Sign Language (Libras). She is the coordinator of the "Ladics UFRJ" Extension Project, which teaches science to deaf youth, providing accessibility to science.
Furthermore, we sought to democratize science through our social media platforms, primarily on Instagram and YouTube. We utilized these platforms to widely disseminate information about synthetic biology and, above all, science, making it accessible to everyone, from academics to the general public.
Entrepreneurship is a dynamic field that demands not only innovation but also a solid business strategy. At the beginning of our venture, we focused on creating a robust business model. To effectively communicate our proposal, we developed a detailed media kit outlining our mission, vision, and values. This material became our central tool for presenting our project clearly and convincingly.
During the validation process, we reached out to notable companies such as Biobreyer, P&G, and Merck. With Biobreyer, we had a valuable exchange of ideas. They shared insightful perspectives on product development stages, guiding us on how to enhance our sales approach, especially in clinical contexts. This guidance was invaluable, providing precise direction for our market strategy.
P&G, a global consumer goods powerhouse, offered a fresh perspective on how to sell and establish markets. Their insights helped us refine our sales and marketing strategies.
Merck initially provided valuable support to our project by supplying essential laboratory materials. Although subsequent contact did not materialize, we deeply appreciated the initial support we received.
These interactions with companies and partners taught us the importance of adaptation, continuous innovation, and the ability to swiftly adjust to market changes. Our entrepreneurial journey was enriched by these experiences, reinforcing our commitment to building a successful and sustainable business.
Another entrepreneurial initiative involves our collaboration with the Operon USP team. In December 2022, the iGEM-USP Brazil team was invited by Operon USP a Synthetic Biology Club at the School of Arts, Sciences, and Humanities of the University of São Paulo, which was in its formative stage. In this entrepreneurial context, Operon USP sought assistance from the iGEM-USP Brazil team for the administrative and structural planning of the club, as well as for defining themes for the meetings scheduled for 2023. Our team recognizing the importance of entrepreneurship in academia, so we shared our experiences and knowledge, providing crucial guidance for the formation of the club.
During this collaboration, not only internal organization strategies for Operon USP were explored but also possible partnerships and joint projects between the two academic entities were discussed. In a broader context, our team emphasized the significance of an active synthetic biology club to attract and nurture future members, who could represent Brazil and the university in upcoming entrepreneurial competitions.
Last but not least, we were invited to present our project in the Synthetic Biology module at CEPID B³ (Center for Research on Bacteria and Bacteriophages Biology), with the possibility of regular participation. Specifically, we would be involved in CEPID B3, which focuses on investigating virulence factors and bacterial resistance against antibiotics, as well as proposing new molecules with clinical potential. This collaboration represents a valuable opportunity for us, we would receive mentorship from respected professors in the field of microbiology and the chance to enhance our knowledge in this area. Additionally, we could share our findings with other teams, contributing to the scientific community.
However, we believe this was just the first step in popularizing synthetic biology in society. One of our significant educational initiatives is the Brazilian Synthetic Biology Olympiad (OBBS), where the company Fractal provides technical support. Fractal is responsible for the online platform of OBBS and conducts the competition's examination nationwide. This collaboration has been crucial in strengthening our online presence and expanding the competition's reach, allowing more people to participate and engage with the field of synthetic biology.
The dissemination of Synthetic Biology plays a crucial role in education, and our group has been wholeheartedly committed to this cause. Over time, we have developed a series of projects ranging from formal education to raising awareness in society at large. The main objective of these initiatives is to spread knowledge and understanding of Synthetic Biology. With projects like the Brazilian Synthetic Biology Olympiad (OBBS), the "Biology on the Street" initiative, and the scientific camp at schools, we are dedicated to engaging students, teachers, and the general public in a constructive dialogue about the possibilities and challenges of this innovative field.
The dissemination of Synthetic Biology plays a crucial role in education, and our group has been wholeheartedly committed to this cause. Over time, we have developed a series of projects ranging from formal education to raising awareness in society at large. The main objective of these initiatives is to spread knowledge and understanding of Synthetic Biology. With projects like the Brazilian Synthetic Biology Olympiad (OBBS), the "Biology on the Street" initiative, and the scientific camp at schools, we are dedicated to engaging students, teachers, and the general public in a constructive dialogue about the possibilities and challenges of this innovative field.
The Brazilian Synthetic Biology Olympiad (Olimpíada Brasileira de Biologia Sintética/OBBS) is a pioneering initiative that emerged from our Let it Bee project in 2021. Recognizing its untapped potential, we were determined to expand its reach and impact across Brazil. Tailored for high school students nationwide, what sets OBBS apart is its inclusive approach — no prior knowledge beyond the standard high school curriculum is required. Through an investigative teaching methodology, participants not only take an exam but embark on a journey to grasp the foundational principles of synthetic biology, biotechnology, and molecular biology. This practical understanding enables them to appreciate the real-world applications of synthetic biology, bridging a crucial gap often left unaddressed in traditional classroom settings.
But OBBS is more than just an online exam. It's a journey of discovery and empowerment. Our top performers are rewarded with an immersive experience in synthetic biology, engaging with cutting-edge concepts and methodologies right from their own homes.
The impact of OBBS extends far beyond the virtual learning environment. We receive overwhelmingly positive feedback from participants, many of whom initially had little or no exposure to synthetic biology. Countless testimonies attest to their newfound fascination, with some now considering academic pursuits in related fields. We've been approached by participants eager to form iGEM teams and delve deeper into the world of synthetic biology, showcasing the profound influence OBBS has on igniting scientific passion.
Championing Inclusivity: In Brazil, educational opportunities often hinge on whether one attends a public or private school. Private institutions typically offer extensive courses in biology, physics, and chemistry from middle school onwards. In contrast, public schools often provide more limited coverage, reducing these subjects to a generalized 'science' curriculum in high school. This divide exacerbates existing challenges in ensuring equitable access, particularly for marginalized groups facing the deeply ingrained issues of structural racism and xenophobia in Brazilian society.
This year marks a major milestone. We've substantially increased participation from public schools, affirming our commitment to inclusive education. Over the past three years, we've meticulously analyzed student engagement in OBBS across both public and private schools, providing invaluable insights into its impact on diverse educational backgrounds. Our outreach strategy has cast a wide net, resulting in a rich tapestry of student representation. The forthcoming 'OBBS Participation by School Type' graph will vividly illustrate this comparative perspective.
We've also made remarkable strides in promoting gender inclusivity. This year, approximately 60% of OBBS participants are female. This is an encouraging trend, as it indicates that OBBS is providing a platform for young women to explore and excel in the fields of synthetic biology, science, and technology — areas where they have been historically underrepresented. We believe that fostering this inclusivity is not only a testament to OBBS' commitment to equality but also an essential step in driving progress and innovation in these fields.
Our ongoing collaboration with various Olympiads, organizations, and institutions underscores our dedication to accessibility. Through this dynamic exchange, we've gained invaluable insights into OBBS' format, administration, and promotion, making it ever more inclusive. For instance, our dialogue with the Brazilian Biology Olympiad (OBB) was instrumental in mentoring on accessibility, organization, and promotion.
This approach allows us to closely examine the progress of students, contributing to a more equitable access to educational opportunities. It's a testament to OBBS' unwavering commitment to leveling the playing field and empowering students from all walks of life.
In 2023, OBBS received an astounding 4,000+ registrations, demonstrating the growing interest and impact of our initiative. This surge in participation further reinforces our belief in the power of inclusive education to inspire the next generation of scientists.
The success of OBBS is not achieved in isolation. It is the result of a collective endeavor, brought to fruition through the combined efforts of educators, schools, students, iGEM teams, synthetic biology clubs across Brazil, and our esteemed partners at the Vertere Institute, a non-profit organization affiliated with Fractal, a distinguished company in the realm of digital learning. Their invaluable contribution includes hosting and providing the online platform that facilitates the Olympiad. It is through this extensive network of collaboration that we are able to extend the reach of OBBS, ensuring its accessibility to a diverse array of students across Brazil and impacting the lives of thousands of Brazilians through synthetic biology!
Furthermore, with the aim of broadening students' access to science, we established the Scientific Camp: an event specifically tailored for students within the age range of 12 to 15 from public schools. This choice was motivated by the goal of providing these students with a fundamental understanding of science concepts, empowering them to participate in the OBBS exam should they choose to pursue this path. Additionally, the camp was designed to foster the development of both hard and soft skills essential for their educational journey and future endeavors in the field of science.
The decision to target public school students was driven by the identified need. Additionally, we selected a school in close proximity to our university. Often, students perceive our university as a park due to its extensive green space and limited information accessibility. Similarly, many students hold the misconception that public universities in Brazil require tuition fees, whereas they are a right for every Brazilian citizen.
To generate engagement and interest, we incorporated inclusive teaching techniques, with a particular focus on gamification.
In 2021, we held the inaugural edition of this event remotely (due to the pandemic) with the Let.it.Bee project by Team iGEM USP-Brazil 2021 . This edition concentrated on developing soft skills and structuring activities spanning a week, each lasting a day. However, as they were online activities, students didn't have as much freedom of choice to carry out them because the activities and the narrativa were designed by videos. Therefore, some students couldn’t getting much help readily. Positively, this edition helped to reduce school dropouts during the pandemic, beside that, the students learned aspects of biology, physics and chemistry.
Upon the return to in-person activities in 2022, a reshaping of the event's goals and approaches was essential, we concentrated on organizing dynamic activities collaboratively and interdisciplinarity. In this year, after the initial arrangement, we compiled the activities developed and organized them around a common theme, based on student feedback obtained through a survey regarding their preferences and interests in cultural products. From there, we crafted a narrative centered on "learning while having fun" employing the following steps: 1. purpose; 2. means; 3. objective; 4. motivators; 5. prototype; 6. management and production; 7. feedback (for future improvements).
Located in Vila Dalva, the Samuel Klabin State School, it was the place that embraced our innovative approach. In its second edition, the gamification method was intensified through the creation of groups and the introduction of thematic stations. These stations offered adaptable storylines and multiple pathways for children to explore, covering themes such as microbiology, health, hygiene, and fundamental concepts of cells and synthetic biology. This captivating narrative encouraged group discussions, inspiring children to work together to find answers and advance in their adventure.
We collaborated with the school principal to create an event that was accessible and inclusive for all students, to fulfill this goal, we developed these activities to use different tools as images, hands-on activities, also we used acting techniques to accommodate students who may not yet have developed reading skills.
Incorporating games and challenges to address children's everyday concerns creates a meaningful and hands-on learning experience. This approach fosters increased social engagement, promoting both collaboration and friendly competition among participants. It enhances teamwork and communication skills among students, rendering the learning process more captivating and interactive.
The event took place at the school , and based on the surroundings, we constructed scenes resembling local businesses, simulating a video game scenario, and effectively creating a real-life RPG (role-playing game). With a total of 67 children, they were divided into groups of "Guardians”, assisted by the staff-volunteer monitors from our university. They followed a pre-planned path through classrooms and the courtyard to make the adventure safer to all students, due to great amount of kids in the event.
The narrative unfolded across roughly four hours, with a new segment of the story being unveiled every 40 minutes. At the conclusion of each segment, iGEM, symbolizing an organization entrusted with safeguarding all of humanity's knowledge and possessing the information needed to save the world in this context, assisted the students in crafting hypotheses about the events that had occurred. This ultimately led to the unveiling of the Biobrick.
All materials used in the scenario were recyclable, reflecting our concern for the environment and the importance of demonstrating how materials can be repurposed. Additionally, we collaborated with individuals from other outreach programs (such as "Chemistry in Action" and "EB").
We received assistance from Maria Elisa, a member of the previous team, in the beginning of the planning.
This approach effectively aligned the methodology with the practical application, and we achieved our intended objectives, delivering numerous benefits to society.
The Scientific Camp project, which has already demonstrated its success over time, is poised for substantial expansion and enhancement in the future. Within this developmental framework, we plan to reach to a larger number of schools in diverse communities, to facilitate event replication, the project plans to create a comprehensive guide and developing a specialized training program for teachers.
In summary, the Scientific Camp is more than an educational initiative, it is a transformative space where curiosity is nurtured, collaboration is encouraged, and knowledge is cultivated.
Our project has showcased its capacity to align with the UN's global goals, marking significant progress not only in the realm of science but also in contributing significantly to UN objectives concerning Quality Education (SDG 4) and Industry, Innovation, and Infrastructure (SDG 9).
Through our human practices and our steadfast commitment to education, our initiatives have seamlessly integrated with the promotion of innovation and sustainable infrastructure. By actively engaging with the community, we've assumed the role of change agents, dedicating ourselves to creating a positive impact in our immediate environment and beyond. SDG 9 underscores the importance of developing sustainable technologies and infrastructures to drive economic and social growth. By fostering innovation, research, and development, we're pioneering solutions that not only enhance the quality of life but also diminish societal disparities.
In our human practices, we approached these projects mindful of ethical considerations and social responsibility. We prioritized needs and values, emphasizing social impact, and struck a balance between scientific objectives and societal concerns to ensure overall benefit for the society. This holistic approach not only reflects our dedication to making a meaningful difference but also underscores our commitment to a future that is both innovative and inclusive."
[1] CASTILLO ARTEAGA, R. D. et al. Mycothiol Peroxidase Activity as a Part of the Self-Resistance Mechanisms against the Antitumor Antibiotic Cosmomycin D. Microbiology Spectrum, v. 10, n. 3, p. e0049322, 29 jun. 2022.
[2] PHELAN, R. M. et al. Development of Next Generation Synthetic Biology Tools for Use in Streptomyces venezuelae. ACS Synthetic Biology, v. 6, n. 1, p. 159–166, 20 jan. 2017.
[3] HWANG, K.-S. et al. Systems biology and biotechnology of Streptomyces species for the production of secondary metabolites. Biotechnology Advances, v. 32, n. 2, p. 255–268, 1 mar. 2014.