Tips to ensure every student develops a positive chemistry identity and achieves success

A student’s experience in upper secondary school influences whether they will pursue a career in chemistry. Forming a chemistry identity is critical to this process and is closely linked to the practices and norms that students experience in chemistry lessons. Concerningly, student uptake of chemistry has decreased across many countries; therefore, helping every student develop a positive chemistry identity should be of interest to all chemistry teachers.

Cartoon of students in a lab

Source: © Lemono/Shutterstock

How can you foster a culture of coperation and collaboration among learners in both the lab and the classroom?

A recent study looked at 47 students in three upper secondary schools in Denmark. It used a combination of focus groups and classroom observations to answer two research questions:

  • What behaviours do teachers and learners celebrate in chemistry lessons?
  • How do established practices and norms in chemistry classes impact students’ chemistry identities, especially in relation to gender and science capital?

A recent study looked at 47 students in three upper secondary schools in Denmark. It used a combination of focus groups and classroom observations to answer two research questions: what behaviours do teachers and learners celebrate in chemistry lessons, and how do established practices and norms in chemistry classes impact students’ chemistry identities, especially in relation to gender and science capital?

The researchers found that students see chemistry taking place in two ‘figured worlds’: the laboratory and the classroom. In some cases, these were also two physically different spaces.

Teaching tips

  • Allocate roles for practical work to avoid certain students being relegated to less meaningful tasks.
  • Explicitly celebrate good performance in the lab. Set success criteria for practical activities and provide feedback on performance.
  • Help students make the link between the lab and the classroom by explicitly linking macroscopic observations to submicroscopic explanations.
  • Show learners where new knowledge and skills are relevant to real-world examples.

In the lab

Freedom to make mistakes

In the focus groups, students reported they liked that chemistry labs were ‘real’ and hands-on. For example, they valued practical activities, such as determining the vitamin C content of a tablet, over simulated practicals they experienced in other science classes, such as simulating a meteor falling in physics.

The students believed that lab work is the essence of chemistry. They reported that in the lab, teachers and learners value curiosity, creativity and co-operation, and place greater emphasis on the process than the result. Students did not view mistakes as being indicative of poor performance in the chemistry lab.

The researchers observed that gender and science capital influenced the roles that students performed in practical actitivies in the lab. Students displaying classical masculinity often took control of lab activities. Those with less science capital performed fewer tasks, and any tasks they did perform were less meaningful, for example announcing the results of the measurements. 

The individual or the team?

In the classroom

Students reported that they felt pressure to display accurate knowledge in the classroom, in contrast to the celebration of mistakes in the lab. They also viewed the classroom as a place for individual performance instead of co-operation. Although the students reported that lab activities are the essence of chemistry, they believed that performance in the classroom is what determined their standing as a chemistry student.

The researchers identified that the norms and practices of the classroom are valued more than those of the lab. They found that work done in the lab was often the gatekeeper to the formation of a chemistry identity. Students with lower science capital are appointed to less meaningful roles with girls often being appointed to secretarial type roles.

Colin McGill

Reference

J Niemann et alChem. Educ. Res. Pract., 2024, 25, 1289–1310 (doi: 10.1039/d4rp00145a)