1. Overview
2. Offline Activities
3. Online Activities
4. Education Materials
5. Summary
Our team carried out a series of educational activities aimed at promoting scientific literacy and healthy living concepts among the public. These activities included both offline and online formats, covering topics such as basic PCR knowledge, synthetic biology, and the benefits of natural sweeteners like erythritol.
In the offline segment, we organized a community education event in Yuxin Garden, where we introduced the fundamentals of DNA through interactive lectures and hands-on model-building. We also participated in our school’s Science Fair, presenting displays on PCR technology and our team’s research on erythritol. These activities allowed us to communicate directly with children, parents, and schoolmates, receiving valuable feedback and encouraging interest in biotechnology.
Meanwhile, we developed a DNA base-pairing game to help users learn through play, and we established official social media accounts on WeChat and Rednote to regularly share popular science content related to synthetic biology and healthy eating.
In addition, we designed educational materials such as badges, posters, and a daily sugar intake self-check table to visually and practically convey the advantages of erythritol and the importance of sugar reduction.
Through these multi-channel efforts, we effectively enhanced public understanding of synthetic biology and healthy lifestyle choices, while also strengthening our team’s science communication and organizational skills.
During the summer vacation, we came to Yuxin Garden Community and organized a education activity about “The Magic of DNA”. Our activity was structured into two parts: an lecture and a hands-on workshop.
In the first part, we introduced the fundamental concept of DNA through an accessible and engaging presentation. Beginning with visible traits such as variations in skin and eye color, we illustrated how DNA determines individual characteristics. The session also included a brief introduction to the four DNA bases—Adenine, Thymine, Cytosine, and Guanine—and explained their complementary pairing rules.
Figure 1 Members Explaining Knowledge about DNA
The second part involved a practical model-building activity. Using pipe cleaners and colored markers, the children constructed their own DNA models. Each color represented a specific base (A, T, C, or G), allowing participants to visualize the structure and pairing of nucleotides. To conclude, the children presented their models and shared what they had learned about DNA’s role in living organisms.
Figure 2 Children Played with Pipe Cleaners
We gathered feedback from parents following the event. They indicated that the activity was highly effective in disseminating basic knowledge of DNA and appreciated the hands-on approach using pipe cleaners, which significantly enhanced the children’s engagement. The complexity of the content was deemed appropriate for the age group, making learning both effective and enjoyable.
Figure 3 We talked with Parents
Some parents suggested incorporating more interactive elements, such as additional Q&A sessions during the explanation phase, to foster even greater participation. Based on children’s responses during the model-making activity and a follow-up quiz, we observed that the session successfully broadened their understanding of DNA and sparked interest in its biological functions.
We effectively leveraged our school's Science Fair as a platform to conduct an educational outreach event focused on synthetic biology. Our team independently designed and produced visually appealing and informative display boards.
Figure 4 Our Appealing Display Board
The core content of our exhibition highlighted the history, fundamental principles, and diverse real-world applications of PCR technology.
Figure 5 We Introduced our Project with Teacher
Additionally, we prominently featured our team's research on the natural sweetener, erythritol, clearly outlining our unique research focus and advantages. During the event, we engaged in in-depth discussions with visiting students and teachers through on-site explanations, interactive Q&A sessions, and the distribution of educational materials.
The outreach activity received positive and enthusiastic feedback. Many visitors, especially students interested in biotechnology, expressed that our presentation provided them with a more intuitive understanding of PCR technology and sparked a strong interest in the health benefits of erythritol. This event not only successfully enhanced participants' awareness of cutting-edge fields in synthetic biology but also significantly improved our team’s skills in science communication and organizational coordination, fostering a positive atmosphere for scientific exploration within our school.
We conducted an educational activity for eighth graders on the magic of DNA—making DNA models. First, we introduced what DNA is and its importance in life. We also taught the basic principles of base pairing and how ATCG functions in the body to form characteristics. The students were very interested and actively raised their hands to discuss this. Next, we had the students build a DNA model. The eighth graders used a twisting rod to construct the DNA structure, colored it with watercolor pens, explained the roles and functions of ATCG, and finally connected it into a long DNA chain.
Figure 6 We introduced the DNA
Figure 7 Students made DNA with Pipe Cleaners
Figure 8 Students showed Their Works
Figure 9 Students' Feedback
After the activity, we collected feedback from the students. Most of them were very satisfied and found the activity both fun and engaging. Some students suggested that the content could be slightly more challenging. We truly appreciate this valuable input and will take it into consideration to improve future activities.
Click on the link below to have a try:

Figure 10 Game Illustration
To help a broader audience grasp the fundamental base-pairing rules (A-T, C-G) and understand how subtle changes in DNA can lead to significant trait variations, our team developed an interactive matching game. Players drag and drop puzzle pieces labeled A, T, C, and G to form correct pairs. Each successful match alters one feature of a character’s appearance, and completing the entire sequence reveals the full figure.
Figure 11 Our Wechat Official Account
Figure 12 Our Rednote Account
To promote synthetic biology and the natural sugar substitute erythritol to the general public, we launched official accounts on Rednote and WeChat. Through these platforms, we introduced the scientific principles and practical applications of synthetic biology, and explained the important role of erythritol as a safe, low-calorie natural sweetener in a healthy diet. By sharing engaging and easy-to-understand content, we helped the public build a scientific understanding of sugar substitutes, clarified common misconceptions about sweeteners, and aimed to promote awareness of healthy eating habits.


Figure 13 Our team's Badge
We have designed some badges that use vibrant and engaging visuals to draw public attention to erythritol as a healthy sugar alternative. Each badge creatively combines candy motifs with our team’s symbols, making the concept both appealing and educational. Wearing them not only encourages a sense of involvement but also sparks conversation around sugar reduction and healthier lifestyle choices.
Figure 14 Our Poster
This poster provides a scientific introduction to erythritol, detailing its properties as a four-carbon sugar alcohol produced through glucose fermentation, along with its refreshing sweetness, high stability, and cooling sensation. It also contrasts genetic engineering with synthetic biology, which aims to create artificial biological systems.
Figure 15 Daily Sugar Intake Self-Check
This self-check table offers a practical way for individuals to monitor their daily sugar intake and compare it with the recommended usage. Designed for ease of use, it includes reference values for sugar content in common foods and suggests healthier alternatives. By encouraging self-assessment and gradual habit change, this tool supports a conscious transition toward a reduced-sugar lifestyle.
Through the implementation of various educational activities, we successfully introduced basic concepts of DNA and synthetic biology to different audiences, including children, parents, and schoolmates. The offline community event and science fair allowed us to engage in face-to-face communication, where the combination of explanation and hands-on experience proved effective in stimulating interest and deepening understanding.
The online game and social media outreach further expanded our reach, enabling more people to learn about scientific topics in an accessible and interactive way. The educational materials we designed not only reinforced the key messages but also provided practical tools for the public to reflect on their dietary habits.
Feedback from participants confirmed that our content was well-received and age-appropriate, while also offering constructive suggestions for future improvements, such as increasing interactive segments. These activities not only disseminated scientific knowledge but also fostered a greater awareness of healthy living.
Overall, these education activities provided our team with valuable experience in planning and executing science outreach. More importantly, it instilled greater confidence for our continued efforts in public engagement around synthetic biology and health education.