Public Engagement
Our public engagement plan
The large rift between the scientific realm and the general public is the result of a lack of successful communication between the two. This is caused by the difficult jargon that is unique to the sciences, particularly genetics, which can create a sense of fear and resentment towards certain topics, eg. genetically modified organisms (GMO’s). The problem is exacerbated by the inefficient explanation of scientific concepts by scientists themselves - a problem that we believe needs to be solved by our generation specifically. Our public engagement plan was built around the development of a solution for this problem and answers the question: how can we better communicate difficult biological concepts, such as the genetic modification of viruses, to the general public? Following our experience at the Bexley Grammar School, we felt that the best way to get others involved is by making the information engaging and interactive. Furthermore, we came to recognise that a large issue for those suffering with rare genetic diseases is the lack of information and resources available regarding their options. Consequently, we decided to carry out the following set of activities (click on them to find out more!):
To do so, we ventured away from our home in the heart of London city, across the green British fields and hilly pastures to spread the word of gene therapy! In this page we will take you through the events we joined and hosted as well as what we learnt and taught others along the way.
Bexley School Visit
The first stop on our journey was Bexley Grammar School, a prestigious secondary/sixth form college located in Welling, South-London with some of the highest achieving GCSE students in the country. Our aim here was to educate potential future synthetic biologists on the topic of synthetic biology using a range of interactive mediums. We first gave a presentation on who we were and a brief overview of what genetic engineering has done and is currently doing for the agricultural and medicinal industries. The team then divided the students and began their activities...
Abby and Jack wanted to teach the students about DNA profiling while placing emphasis on its importance within forensics so they created a murder mystery involving sets of DNA covered evidence alongside coroners notes which would inform the student investigators on what they had to analyse at a makeshift crime scene. The activities objective was to eliminate each of the five suspects until only one remained; the culprit of the murder. To eliminate a suspect the students had to collect and analyse the DNA from the evidence so that they could obtain its corresponding DNA profile which would allow a comparison to be made to the culprit’s DNA profile.
Christian and Dan created a game in which the students became ribosomes. A typical ribosome has the job of DNA translation within a cell and so the students had to produce protein chains from a pool of amino acid and anticodon complexes and an mRNA template. The ‘ribosomes’ were in a race against the clock and their peers to finish the protein and ensure that the sequence of amino acids were correct to claim their prize.
Steph’s activity got the students to build DNA molecules out of sweets. Strawberry cables acted as sugar phosphate backbones while marshmallows and gumdrops attached to toothpicks formed the base pairs and held the structures together.
Josephine and Megha wanted to get the students thinking about what they had previously learnt in their biology classes. Their activity used a range of seemingly random objects which the students had to relate to something within their GCSE biology syllabus.
After everybody had participated in all of the activities the team sat down with the students to have an ethical debate over the pros and cons of genetic engineering. Josephine mediated the discussion while the rest of the team sat amongst the students to help them back up their arguments. Our success at Bexley inspired some of the team to improve upon the design of their activities and make them available for other students to use.
What we gained from our experience at Bexley:
- Firstly, we saw that it is extremely important to get involved with kids from a young age, to help deter them from misconceptions that are present in society. We recognise that many of the school children were unaware that they had been misinformed, and working with younger children would also us to prevent the spread of misinformation earlier. From this, we decided to carry out further school visits and to create activities that are directed towards young children to teenagers.
- Secondly, we noticed that students engage to a large extent in debate and like to challenge their own and others’ beliefs. They responded well to in depth discussion. Thus, we wanted to continue to hold discussions that are casual yet profound. Thus, we decided that we would host discussion sessions and forums with various ages groups.
- Finally, we saw that the best way to get people involved and thinking about synthetic biology was to make the activities really hands-on and interactive, such as the building the DNA out of candy or interacting with different shapes. Thus, we decided to produce further more interactive activities that will stick with the individual who engages with them.
Creating resources about rare genetic diseases:
Mental Health and Well Being Guide
Rare genetic diseases are often overlooked due to the low incidence, however, there are around 400 million cases of rare genetic disease patients worldwide. Furthermore, 17 million people are diagnosed with cancer every year. It has been shown that cancer patients suffer depression and other forms of mental disorders much more often compared to the general population. Gene therapy, the focus of our project, is a developing technique that can target the disease-causing mutations, and thus, offer a cure for the above disorders. Additionally, our team decided to look into mental health issues of the potential target patients and create a guideline which would improve their psychological and physical health, thus contribute to a quicker recovery.