Role of Interested Non-Scientists in Communicating Science

Overview

  • The video highlights the crucial role that interested non-scientists play in communicating science.
  • It starts with a group of scientists who communicate with each other, influence each other's activities and knowledge, and may know one another in person, meet at conferences, or read each other’s published literature.

Scientists and their networks

  • Scientists form a core group that communicates with each other and influences each other’s activities and knowledge.
  • They might know each other personally, meet at conferences, or publish literature that a scientist in the group reads.

Interested non-scientists: key groups and their connections to science

  • Museums: Someone visits a museum where work from one of the scientists informed exhibit content or the information that accompanies exhibits.
  • Doctors: A doctor interested in research around particular conditions or medications, potentially connected to the scientists’ work.
  • Children and teachers: A child who is keen on science and a teacher who is engaged in science education.
  • Collaboration and self-driven learning: Children and teachers may influence one another; they look up topics on the Internet to learn about their interests.
  • Shared interests: Some scientists’ work overlaps with what the museum visitors, doctors, or children are interested in.
  • Publications read by non-scientists: The scientist’s published articles may be found by children and teachers, influencing their understanding and curiosity.

Influence pathways among scientists and interested non-scientists

  • Scientists’ work can influence interested non-scientists, increasing knowledge and engagement.
  • The presence of interested non-scientists expands the reach of science beyond the immediate scientific community.
  • Even when focusing on a few groups, the broader population is engaged through overlapping interests and publications.

Expanded networks: beyond direct audiences

  • There are many other people in the community who aren’t science-focused, such as friends of museum visitors, patients of doctors, family friends, other teachers, and grandparents.
  • These individuals may not actively seek science information (e.g., avoiding articles in popular science outlets or online literature), but they interact with those who do.
  • Conversations among friends, family, colleagues, students, and teachers can spread science ideas indirectly.
  • Social sharing: People may share new findings on social media or in everyday conversations, propagating interest in science.

Examples of how influence propagates in everyday life

  • Museum visitor talking with a friend and the friend’s child about an exhibit, potentially sparking the child’s interest in science.
  • Doctor discussing new treatments or a relevant medical condition with a patient, leading the patient to explore the topic further.
  • Child and teacher sharing what they learned with others, prompting classmates and other teachers to engage or investigate further.
  • Teacher mentioning science topics at conferences or in staff rooms, potentially inspiring other teachers to try new approaches or topics.
  • Citizenscience projects as a bridge: a citizen science project could connect the needs of a class with a project that engages local communities.
  • A highly engaged child could influence friends at another school to participate in a citizen science project, expanding reach.
  • Grandparents, who may not have strong science backgrounds, could join in when a grandchild uses an app (e.g., frogs or birds) to learn, thereby spreading interest to older generations.

Central idea: the network effect of scientists and interested non-scientists

  • When scientists engage with interested non-scientists, a chain of information and influence flows from scientists outward through many people.
  • Interested non-scientists are the primary audience that scientists aim to reach through popular media and direct communication.
  • Without these interactions, the cascade of science communication could stall, leaving gaps in public engagement.

Why this matters: scale and impact

  • There are many more interested non-scientists than scientists, and even more non-interested members of the public who could be engaged through personal connections.
  • Effective communication with interested non-scientists creates a large, cascading impact across communities.

Practical implications for science communication

  • Leverage personal networks: encourage scientists to engage with non-scientists through everyday conversations, public exhibits, and community events.
  • Support citizen science: design projects that connect schools, families, and communities with real scientific research.
  • Create accessible content: produce information that can be read by non-scientists at museums, clinics, classrooms, and online.
  • Foster cross-disciplinary collaboration: enable collaboration among scientists and educators, healthcare professionals, and community leaders to broaden reach.
  • Encourage storytelling and sharing: motivate non-scientists to share what they learn with friends and family to amplify reach.

Final takeaway

  • Interested non-scientists are a vital bridge for communicating science, spreading ideas, and engaging the broader community.
  • By nurturing personal connections and leveraging social networks, scientists can extend their influence far beyond formal channels, creating a more scientifically informed public.