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STEAM enrichment

Science, Technology, Engineering, Art and Mathematics (STEAM) is an interdisciplinary approach to learning where academic concepts are coupled with real-world lessons.

STEAM education encourages and empowers every student to use their creativity and to develop their critical thinking skills. It promotes teamwork, resilience and a growth mindset.

‍Actualise Learning designs learning experiences that encourage students to apply their science, technology, engineering, and mathematics knowledge in contexts that make connections between the classroom and the world around them.  All learning experiences can be personalised to meet the needs and interests of the students.

Here are some approaches to STEAM that we integrate into our learning experiences.

1.Design and build projects: Students can apply their knowledge of science, technology, engineering, arts, and mathematics to design and construct projects. For example, they can create and test a model bridge, build a solar-powered device, or design and 3D print an object.

2.Conduct experiments and investigations: Students can engage in hands-on experiments and investigations that involve scientific inquiry. They can formulate hypotheses, collect data, analyse results, and draw conclusions. This process helps develop their critical thinking and problem-solving skills.

3.Solve real-world problems: Students can use STEAM principles to tackle real-world problems. They can identify an issue, research possible solutions, and design and implement prototypes or models to address the problem. This approach encourages creativity and innovation.

4.Explore coding and robotics: Students can learn coding languages and use them to program robots or other devices. This allows them to understand the fundamentals of computer science, logical thinking, and automation.

5.Integrate arts and creativity: Students can incorporate arts into their STEAM projects, such as creating visual representations of scientific concepts or designing aesthetically pleasing structures. They can use their artistic skills to enhance the overall presentation and communication of their work.

6.Collaborate in teams: STEAM projects often involve collaboration and teamwork. Students can work in groups to solve complex problems, combining their knowledge and skills to achieve common goals. This promotes effective communication, cooperation, and the development of interpersonal skills.

7.Use technology and digital tools: Students can utilize various technology tools and software to enhance their STEAM projects. They can use computer-aided design (CAD) software, simulation tools, data analysis programs, or programming environments to support their work.

8.Engage in inquiry-based learning: Students can ask questions, explore topics of interest, and conduct research to deepen their understanding of STEAM subjects. They can investigate phenomena, analyse data, and draw conclusions, fostering a sense of curiosity and a scientific mindset.

Using these approaches, students have access to materials, resources, and guidance to explore STEAM concepts. By encouraging hands-on, experiential learning, teachers can inspire students to actively engage with STEAM and develop a passion for these disciplines.

Here’s what a STEAM enrichment learning experience could look like in your school

Activity: Building a Solar-Powered Oven

Objective: To explore solar energy and its practical application while integrating science, technology, engineering, arts, and mathematics.

Materials Needed:

  1. Cardboard box
  2. Aluminium foil
  3. Black construction paper
  4. Thermometer
  5. Clear plastic wrap
  6. Tape
  7. Scissors
  8. Ruler
  9. Pencil
  10. Small cooking pots or pans
  11. Small food items (marshmallows, chocolate squares, etc.)

Instructions:

1.Introduction (Science and Engineering):

  • Begin by introducing the concept of solar energy and its benefits.
  • Discuss how sunlight can be harnessed and converted into usable heat energy.
  • Explain the engineering challenge of designing a solar-powered oven.

2.Design and Construction (Engineering and Arts):

  • Divide students into small groups and provide each group with the materials.
  • Instruct them to design and construct a solar-powered oven using the cardboard box as the base structure.
  • Encourage creativity in designing the shape and size of the oven.
  • Students can use aluminium foil to line the inside of the box, maximizing reflectivity.
  • Help them cut a small window on the box’s lid and cover it with clear plastic wrap.
  • Inside the box, line the bottom with black construction paper to absorb heat.

3.Testing and Measurement (Mathematics and Science):

  • Take the students outside on a sunny day and place their ovens in direct sunlight.
  • Have them place a thermometer inside the oven to monitor the temperature.
  • Students can place small cooking pots or pans with food items inside the ovens.
  • Let the ovens sit in the sun for a designated time (e.g., 30 minutes).
  • Afterward, students can measure and record the temperatures inside the ovens.
  • They can also observe and record the changes in the food items.

4.Analysis and Reflection (Science and Mathematics):

  • Bring the students back inside and facilitate a group discussion.
  • Help them analyse the recorded data, comparing the temperature changes in different ovens.
  • Encourage students to discuss why certain ovens performed better than others.
  • Guide them in identifying the factors that affected the effectiveness of their ovens.
  • Discuss the importance of insulation, reflectivity, and maximizing heat absorption.
  • Help students draw conclusions about solar energy and its potential applications.

5.Culinary Celebration (Arts and Engineering):

  • Finally, let the students enjoy the results of their solar-powered ovens.
  • Students can taste the cooked food items (marshmallows, chocolate, etc.) and discuss the flavours and textures.
  • Encourage them to share their experiences and reflections on the activity.

This enrichment activity allows primary school students to engage in hands-on learning, explore the principles of solar energy, and apply their knowledge to a practical and creative project.

It incorporates elements of science, technology, engineering, arts, and mathematics while fostering teamwork, critical thinking, and problem-solving skills.

'Classroom ready’ Resources

We have a range of ready to deliver and individualised enrichment workshops to support young people with mental health and wellbeing and STEM topics.

Visit our store to see the full range and purchase ‘classroom ready’ resources.

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