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This sounds like an engaging way to combine science, art and local studies while helping children develop a deeper connection with their environment. I particularly like the idea of using materials collected during the nature walk, as it allows pupils to bring a piece of their local ecosystem into their artwork and makes the learning experience more meaningful. The visits to Charleville Castle woods and the Grand Canal provide excellent opportunities for observation and investigation of biodiversity in the local area. This project also encourages children to slow down, notice details in nature and develop their identification skills. It is a great example of how STEM learning can extend beyond the classroom and how creativity can be used to communicate scientific understanding.
Taking inspiration from the modules in this course, I would plan a class project exploring the scientific and natural heritage of Kilbeggan and the wider Westmeath area. An important local scientist I would introduce to the pupils is Kenneth Essex Edgeworth, who was born in Streete, Co. Westmeath. As an engineer and astronomer, his work on the region of icy objects beyond Neptune, now known as the Kuiper Belt, provides an excellent link to our Looking Out: Telescopes and Astronomy module. Pupils could investigate space, telescopes and how scientists make discoveries about objects they cannot directly see. The project could also include local biodiversity surveys, mapping habitats, studying weather patterns and exploring engineering features in the area. Running across the school year, pupils could record observations, create models, use digital resources and present their findings. This would encourage curiosity, collaboration and a deeper appreciation of the scientific heritage within their own community.
The Martello tower is a great example of how engineering was used to solve real-world problems, and it would provide a very engaging starting point for a STEM project. I like the idea of pupils not only recreating the original design features but also challenging themselves to improve and adapt the structure. This would encourage creativity, problem-solving and critical thinking as they consider stability, materials and purpose. An engineering fair would also be a great way for pupils to explain their design choices and reflect on their learning. It would be a wonderful opportunity to integrate history, science, mathematics and technology while helping children see the engineering ideas present in their own local environment.
I would use a local engineering feature such as Kilbeggan Bridge over the River Brosna as inspiration for a classroom design and make project. We would begin by exploring the bridge through photographs, maps or a local visit, encouraging pupils to observe its design, materials and purpose. The class would investigate what makes a bridge strong and stable before working collaboratively to design and construct their own model bridges using a range of materials. Mathematical thinking would be integrated through measuring, estimating, comparing lengths and exploring shapes, symmetry and structure appropriate to the pupils’ level. Pupils could test their bridges by adding weights and recording results using tables, graphs and data analysis. This project would provide opportunities to develop problem-solving, creativity and teamwork while showing children how engineering is connected to their local environment. It would also highlight the STEM concepts behind structures they see in their everyday lives.
I really enjoyed reading your post. It’s great that you recognised how much biodiversity can still be found in an urban setting. Having Castle Park nearby is a fantastic resource, and involving the post-primary students in making bee hotels is a brilliant way to encourage collaboration across the school. I also liked the reminder that we don’t need to be experts ourselves—allowing children to ask questions and explore is such an important part of meaningful STEM and biodiversity learning.
I would use the resources from this module to plan a seasonal biodiversity project that would run throughout the school year. Each month, the class would spend time outdoors observing changes in the school grounds, such as flowering plants, trees, insects and birds. Pupils would use simple identification guides and recording sheets to document their observations, take photographs and compare findings across the seasons. We could also contribute our records to the National Biodiversity Data Centre, helping pupils understand the value of citizen science. The project would integrate Science, Geography, Mathematics and English, with pupils creating graphs, maps, nature journals and reports based on their observations. Art could be incorporated through nature sketching, while SPHE would encourage discussions about caring for the environment. Regular outdoor learning, ideally every two to three weeks, would help pupils develop observation skills, curiosity and a deeper appreciation of biodiversity in their local area while making learning meaningful and enjoyable.
This is a great example of pupils taking ownership of their learning while developing important STEM and digital skills. I especially like how the children identify both biodiversity hotspots and areas for improvement, as it encourages them to think critically about their environment and how they can make a positive impact. Creating a digital map that is displayed for the whole school is a great way to share their learning and inspire others to get involved. I also like the questions you use to prompt discussion, particularly how the environment has changed over time. This has given me some great ideas for incorporating mapping and digital tools into local studies and environmental awareness projects with my own class.
Exploring online tools such as Geohive, Google Maps and Met Éireann has shown me how valuable local data can be in supporting meaningful learning across the curriculum. I would use these resources to investigate the area around our school, looking at land use, local habitats, weather patterns and nearby natural features. Pupils could compare aerial maps with what they observe during a local walk, identifying green spaces, rivers, roads and buildings before discussing how the local environment has changed over time. We could also use weather data from Met Éireann to record and compare rainfall or temperature, linking this with mathematics through data handling and graphing. These activities would integrate Geography, Science, Mathematics and Digital Learning while encouraging observation, inquiry and critical thinking. Using real information about their own locality helps pupils develop a stronger sense of place and understand how digital mapping tools can be used to explore and care for their environment.
I agree that hands-on learning is one of the most effective ways to engage children in STEM, and I like how you combine the structure of the classroom’s Science programme with opportunities for investigation and discovery. Bringing learning outdoors is such a valuable approach, as it allows pupils to see science in action and make meaningful connections with their everyday environment. I also think your focus on developing curiosity, critical thinking and problem-solving skills reflects the key messages from Liston (2018). Your post has given me some ideas about making greater use of the outdoor environment to support STEM learning in my own classroom.
This module has increased my confidence in teaching astronomy by showing how practical, inquiry-based activities can make complex concepts accessible to primary pupils. Learning about telescopes, light, and our night sky has highlighted the importance of encouraging children to observe, question, and investigate the world around them. In my classroom, I would use simple activities such as observing the Moon’s phases, exploring how mirrors and lenses work, and creating models of telescopes to develop pupils’ understanding. I would also draw on the resources provided by ESERO and the inspiring scientific heritage of Birr Castle Demesne to show pupils that world-class astronomy has strong Irish connections. These experiences support the STEM Education Policy Statement by promoting curiosity, collaboration, critical thinking, and hands-on learning across the curriculum. By linking science with history, technology, and engineering, I can help pupils develop both scientific knowledge and an appreciation of Ireland’s important contribution to astronomy.
I really like how this lesson combines science with a fun, hands-on activity. Starting with the rocket launch video is a great way to capture the children’s interest and provide a real-world connection before they begin their own investigation. The paper rocket activity encourages students to make observations and explore how different amounts of force affect the distance their rockets travel. I also like that you’ve included rocket races, as this adds an element of teamwork and excitement while reinforcing the learning. The discussion at the end is a great opportunity for children to reflect on their findings and use scientific vocabulary such as push, pull, force, and launch to explain their thinking. Overall, this sounds like an engaging inquiry-based lesson that will help First Class pupils develop both their scientific understanding and their problem-solving skills.
I would use the Dancing Raisins activity as an engaging way to introduce my students to scientific inquiry and observation. I would begin the lesson by showing the class a glass of sparkling water and a handful of raisins, asking them to predict what they think will happen when the raisins are dropped into the water. Students would share their ideas and explain the reasoning behind their predictions before carrying out the investigation.
As the raisins begin to rise and fall, students would carefully observe what is happening and record their observations through drawings or simple written notes, depending on their age. We would then discuss why the raisins move, exploring how bubbles of carbon dioxide attach to the rough surface of the raisins, making them float before the bubbles burst and the raisins sink again.
To extend the activity, students could investigate whether other small objects, such as dried cranberries or pasta, behave in the same way. This would encourage them to ask questions, test their ideas, and compare results. I like this activity because it is simple, inexpensive, and highly engaging while promoting key science skills such as predicting, observing, recording, and communicating findings. It also demonstrates that science is about asking questions, investigating evidence, and learning through exploration, making it an excellent inquiry-based activity for the primary classroom.
I really enjoyed reading your lesson plan. Using the story as a starting point is a fantastic way to engage young learners, and I like how you revisit the book to encourage discussion and develop their understanding. Asking children how they think each animal keeps warm is a great inquiry-based approach, as it encourages them to make predictions and explain their thinking before introducing the scientific concepts.
The Vaseline experiment is an excellent follow-up activity because it gives children a hands-on way to investigate how blubber helps animals survive in cold environments. I also like that your lesson incorporates literacy, science, and oral language, making it highly interactive and meaningful. This sounds like a fun and memorable lesson that would spark curiosity while helping children understand how animals adapt to their environments.
I would choose the Hands-on Classroom Themed Activities because I believe children learn science best through active exploration and investigation. One activity I would use is a simple engineering challenge where pupils work in small groups to design and build the tallest free-standing tower using only paper, straws, and tape. Before they begin, I would ask students to predict which shapes and designs they think will make the strongest structure and encourage them to explain their reasoning.
Throughout the activity, pupils would test their designs, identify what worked well, and make improvements based on their observations. Rather than providing the answers, I would guide their learning by asking open-ended questions that encourage problem-solving and critical thinking. At the end of the lesson, each group would share their design, discuss any challenges they faced, and reflect on what they would change if they were to build another tower.
This activity promotes inquiry-based learning by encouraging students to investigate, collaborate, and learn through trial and error. It also develops important STEM skills such as creativity, communication, resilience, and engineering design. I would extend the activity by having students record their predictions, results, and reflections in a STEM journal, allowing them to track their learning over time. I believe hands-on STEM activities like this help build confidence, foster curiosity, and show students that making mistakes is an important part of the learning process.
I really like how you’ve adapted this activity specifically for your junior ASD class, especially the focus on visual supports, choice, and flexible communication methods. Starting with discussion around what living things need is a strong way to build understanding and make the idea of “aliens” more meaningful rather than purely imaginative. It also provides a nice link between science and real-world knowledge.
The create-an-alien task itself is very inclusive, and I think allowing students to choose features like eyes, arms, and colours gives them a sense of control and encourages engagement. I also like that you’ve built in opportunities for communication afterwards, whether through words, visuals, or their preferred communication system, as this ensures every student can participate at their own level.
The links to maths through counting and comparing body parts is a great extension, and it helps reinforce learning across different areas of the curriculum. Overall, this sounds like a very well thought-out, accessible, and engaging lesson that balances creativity with clear learning goals.