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Using the Dúchas Folklore Commission as an example, I have decided to consider a school project that involves gathering Piseógs/Traditions/Stories of the Night. Students will gain a greater understanding of the night sky’s significance beyond its astronomical value thanks to this engaging activity that effectively links the scientific study of the sky with our cultural history.
I would discuss the idea of folklore and tradition at the beginning of this project, emphasising how earlier generations made sense of the environment around them—particularly the night sky—by using stories and beliefs. To obtain a sense of the type of stories we are searching for, we would examine a few samples from the Dúchas collection.
The project’s main goal is for the students to serve as our class’s “Folklore Commission.” They would be required to interview their parents, grandparents, or other community elders in order to gather nighttime customs, beliefs (piseógs), and stories. Together, we would come up with a list of guiding questions, like “Did people have ways of predicting the weather by looking at the night sky?” “Are there any stories about the stars or constellations you remember?” or “Were there any beliefs about what certain moon phases meant?”
The gathered stories would be kept in a digital archive or a class folklore book. The narrative itself, the identity of the storyteller, and a brief student reflection on what the story teaches us about the past would all be included in each entry. In addition to improving their writing and interviewing abilities, this method would allow them to gain firsthand knowledge of their family’s past. Lastly, students will be able to share their favourite stories at a “Folklore Sharing” day. By doing so, we would be able to bridge the gap between our cultural past and our scientific present by comparing and contrasting the many traditions gathered and talking about how these ancient tales and beliefs relate to our current scientific understanding of astronomy.
This is a fantastic, practical approach to introduce pupils to the idea of Dark Sky Places. Assigning multiple participant responsibilities is a fantastic way to encourage critical thinking about the diverse requirements and viewpoints involved in developing and overseeing a protected area, and I really like the idea behind it. The “Design Your Own Dark Sky Place” project seems like a truly impactful and unforgettable educational opportunity.
I’ve decided to consider how I would include nocturnal species’ requirements—particularly those that depend on dark skies—into a school biodiversity strategy. Students have a great opportunity to go beyond observation and into real-world, practical action with this project.
Making the children “biodiversity consultants” for our school grounds would be my first step. With a twist, we would start with an environmental audit and look at the grounds from the perspective of a nocturnal animal. We would chart the locations of the lights and the ways in which their glow impacts various regions, determining what a moth or hedgehog would perceive as a “bright spot” and what a hedgehog would consider a “dark spot.”After this audit, the students would study particular nocturnal animals in our neighbourhood. They would look into what kind of habitat they need and how artificial light affects them. They might discover, for instance, that light pollution can discourage hedgehogs from their foraging routes or that many moths are important pollinators and that bright lights can disrupt their foraging.
Students would work together to create a Dark-Sky-Friendly Biodiversity Plan for the school as the primary component of the project. Actionable suggestions derived from their research would be part of their plan, including:
Lighting Solutions: To lessen light spill, it is suggested that bright, upward-shining lights be swapped out for motion-sensor lights that face downward and have low intensity.
Habitat Creation: It is suggested that in order to draw moths and provide bats with food, we plant a garden with night-scented flowers, such as honeysuckle or night-scented stock.
Shelter Construction: Creating and constructing tiny wooden hedgehog shelters in a shady, peaceful area of the school’s grounds.
Awareness: Making a “nocturnal species trail” or educational placards to alert the larger school community about the value of dark sky.Lastly, the students would advocate for the adoption of their plan by presenting it to the Green Schools Committee or the school principle. In addition to teaching children about biodiversity and light pollution, this method gives them the tools they need to improve their own surroundings.
This idea is excellent and very practical. I like how you’re making the problem and its solutions seem so noticeable by relating the school’s biodiversity plan to actual locations like Phoenix Park. The concept of student-led nighttime surveys and lighting audits is a great method to engage kids in the cause of preserving the nocturnal animals in the area.
I have decided to use the “Globe at Night” citizen science program to create a teaching resource. By including students in an international scientific investigation, this program provides a hands-on and interesting method to teach them about light pollution.
Using a short video or a class discussion about why it’s so difficult to view stars in our neighbourhood, my teaching resource would start by presenting the idea of light pollution in a realistic way. This would prepare us for the primary task, which is to measure and report on the brightness of the local sky using the “Globe at Night” application.A detailed instruction manual for educators and learners would be part of the resource. The first step would be to choose a clear night without a moon within one of the two-week observation periods offered by the program. A copy of the Bortle scale, which measures the sky’s darkness, and printed-out “Globe at Night” star maps would then be provided to the students. First, we would work on recognising constellations indoors.
With parental assistance, kids would be required to go outside on the selected night, wait at least ten minutes for their eyes to acclimatise to the darkness, and then locate the constellation on their chart. They would be able to rate their local night sky on the Bortle scale by comparing the amount of stars they could see with the various charts.We would compile our findings in class the following day. As a class, we would enter the information into the “Globe at Night” website and then examine the outcomes. A sense of collective scientific discovery would be fostered as students could examine how their data compared to other places worldwide. We would also talk about the possible reasons behind our results and come up with ideas for how to lessen light pollution in our neighbourhood. In addition to teaching science, this project fosters data literacy, problem-solving skills, and a greater understanding of the night sky.
It’s a great and thorough method to address light pollution with your 5th Class! You’ve organised the group work so that students may go extensively into various affects, and I especially like the KWL chart method. For them, it becomes much more relevant and interesting when you tie it to your neighbourhood, especially Shannon Airport. Garden birds and other local fauna are excellent examples of how to make the abstract idea relatable.
I chose to design an autumn observation schedule that emphasises the planets that are visible in the evening sky. This exercise offers a methodical, inquiry-based way to observe the stars.
Creating a Planetary Observing Plan for Autumn 2025: I would make developing a planetary observing plan a group, practical effort to get pupils interested in stargazing. Students will learn how to use celestial navigation instruments, recognise planets and stars, and record their observations over time with this project.
The ecliptic—the hypothetical route the Sun, Moon, and planets take across the sky—would be the first idea presented to the class. We would learn that planets in our solar system are expected to be found along this path because they all revolve on a plane that is essentially the same.
Our strategy would concentrate on a few important planets that are visible on autumn evenings, based on astronomical data for the Northern Hemisphere. Saturn is a popular target in September. It rises when the sun sets on September 21st, when it reaches opposition, when it is brightest and most visible. This would be the ideal time to try to see its rings using binoculars or a telescope. Venus, which will momentarily reappear in the western sky as a dazzling evening star, would also be visible to us. Saturn is still an excellent target in October and November, when it is visible in the evening sky. Even though it is much fainter and requires binoculars or a telescope to see, Uranus also becomes visible in the evening, reaching opposition on the 21st.
I would divide the class up into smaller groups and assign each group the task of tracking a particular planet. With the aid of tools such as downloadable star charts, they would:
1. Find out where the planet is located each week of the month.
2. Indicate where it is on a star wheel or a huge classroom chart.
3. Determine when and where to search for their planet.I would advise students to do their own observations while spending time with their family at home and record their findings in a class journal. On a regular basis, we would get back together to discuss how the planets seem to move against the backdrop of fixed stars and compare our views with the star charts. This method fosters student autonomy, collaboration, and a greater understanding of the actual motions of our solar system.
This is a really well-thought-out plan! I love that you’re empowering the students to take the lead in their own observing plan, using modern tools like Stellarium and timeanddate.com. Involving parents and making it a collaborative, flexible project is a fantastic way to encourage a genuine interest in astronomy. The idea of having them explain their own photos or drawings is a great way to reinforce the learning.
Dr. Maeve Liston’s paper “Unravelling STEM: Beyond the acronym of Science, Technology, Engineering, and Mathematics” highlights how science, technology, engineering, and mathematics are all included into applicable and real-world learning experiences in true STEM education. It emphasises how engineering, frequently through the use of the Engineering Design Process (EDP), serves as the “glue” that pushes science, math, and technology in the direction of practical solutions. The study makes the case that many “STEM”-related activities only include some of its components and frequently do not use the fundamental engineering design methodology.
I will focus on: “Gravity/Weight – Assemble an Earth Tube and one other planet tube – decorate in a suitable manner.”
When viewed through the perspective of genuine STEM instruction, this exercise exceeds a straightforward craft project. The Engineering Design Process (EDP) integrates the ideas of weight, mass, and gravity to provide a design problem.
I would present the Earth Tube exercise as a challenge to get students interested in it. By combining science, technology, and maths into a practical project, this system encourages pupils to think like engineers.
First, the scientific concepts of weight, mass, and gravity will be studied by the students. In order to understand why an object’s weight varies even while its mass stays constant, they would investigate the gravitational attraction of several planets and moons, such as the Moon, Mars, and Jupiter.
Students would conduct research and create visuals using technology. To determine an object’s weight on several planets, they would employ digital instruments. As a baseline measurement, they may also weigh an object on Earth using a basic force sensor or digital scale.
The Engineering Design Process (EDP) is the driving force behind this activity.
Students identify the issue and gather the relevant scientific information. They come up with several designs for their “gravity tubes” in order to clearly demonstrate the weight difference. They organise the building, taking into account the scale, materials, and representation of the several planets. After building the two tubes, the students test their design by letting an object fall through each tube’s fluid. To symbolise their respective planets, the tubes would be embellished. When testing their tubes, they would watch and note how long it took for an object to fall through each one. After that, they would assess if their design successfully illustrates the variation in gravitational pull. They may alter their design to better convey the idea in light of their observations.Throughout the entire procedure, mathematics is crucial. Students would determine an object’s weight on various planets using mathematics. Determine the mass of the items and the tubes’ lengths. To measure the difference in gravitational attraction, record and assess the time of drop and compare the fall times of the two tubes. Compare the gravitational pull of Earth to that of other planets using ratios and proportions. To show the relationship between an object’s mass and weight on several celestial bodies, graph their data.
This project turns a basic physical model into an effective, integrated STEM lesson by emphasising problem definition, design, construction, and testing.That’s a great way to introduce cross-curricular learning and sundials! I like how you’re promoting historical thinking while beginning with a problem that everyone can relate to. It will be an effective educational experience to allow them to physically examine the shadows throughout the day.
Technology resources are essential for curriculum access and achievement for a group of children with dyslexia and co-occurring numeracy difficulties.
Tools like Immersive Reader (MS Teams, Edge, Word) are essential for literacy because they provide text-to-speech, line focus, and customisable visualisations to improve understanding and lessen reading fatigue. Students can overcome handwriting challenges with Google Docs Voice Typing or Microsoft Dictate, which improves written output and allows them to communicate complicated ideas orally. While accessible e-books offer flexible reading experiences, digital graphic organisers (like OneNote and Whiteboard) facilitate the planning and structuring of written assignments.
Digital numeracy tools, such as fraction bars and virtual base ten blocks, provide tangible, visual representations of abstract ideas, which is essential for kids who struggle with working memory or dyscalculia. Collaborative problem-solving is facilitated by interactive whiteboard tools, while transcribing errors are decreased by calculators with read-aloud features. Apps for targeted numeracy offer fun practice and fast feedback on fundamental abilities.
The Inclusive Education Framework’s School Development Planning section is directly aligned with incorporating these resources. This framework promotes integrating inclusive practices into the strategic plan of the institution. A whole-school approach to AT for these students must be SDP’s top priority, and strong identification, procurement, and implementation policies must be in place. To effectively use these technologies and create a culture where digital tools are viewed as crucial for fair access and participation, which will eventually affect students’ engagement and academic success across the curriculum, staff members must engage in planned, continuous professional development.
Part 1:
A strong, cooperative lens for smoothly incorporating assistive technology (AT) into the academic path of students with Special Educational Needs (SEN) is offered by the SETT (Student, Environment, Tasks, Tools) framework. When used methodically in conjunction with a student’s School Support File (SSF), which serves as an extensive repository of their educational profile, its impact is increased. Each component of the SETT framework is filled in large part thanks to the SSF:
Student: The SSF provides a thorough picture of the student, including their distinct learning preferences, cognitive advantages, problem areas, and any medical issues they may have been diagnosed with. The “S” in SETT is guided by this extensive data, guaranteeing that AT solutions are properly tailored to each person’s requirements and preferences.
Environment: Details on the multiple learning settings (such as a regular classroom, special education setting, or home learning space) and the supports that are currently in place (such as differentiated instruction and SNA allocation) are essential inside the SSF. This provides information for the “E,” assisting in determining how the physical and educational surroundings affect students’ learning and where assistive technology can fill in gaps.
Tasks: The SSF outlines the student’s academic and functional expectations, including curriculum goals, particular learning objectives, and areas in which they find it difficult to show that they comprehend or finish assignments. This explains the precise tasks that the learner must complete, defining the “T” (Tasks).
Tools: Equipped with knowledge from the Student, Environment, and Tasks, the SSF’s past evaluations and intervention data are essential for investigating possible “T” (Tools). This directs the choice of AT tools or approaches that specifically address barriers that have been identified.
In order to successfully integrate the SETT model with the SSF, a thorough evaluation approach is essential:
To create a baseline and spot reoccurring trends, carefully go over all of the SSF’s current documentation, including therapy evaluations, educational reports, and psychological tests.
To identify particular sites of breakdown and current coping methods, observe the student directly while they are performing the goal tasks in various situations.
Curriculum-Referenced Assessment: Determine the precise areas in which AT can help students gain access or show mastery by comparing their performance to curriculum standards and particular learning objectives.
Trial and Error with AT: Conduct organised tests using many possible AT tools, carefully recording their efficacy, usability, and the involvement and development of the students. To discover the best fit, this iterative testing is essential.
Part 2:
https://docs.google.com/document/d/1C9NbJXsKCI7MyAUxTGbj3IDCTgDE9Efyx86BwZ4u-bk/edit?usp=sharing
Chloe’s key challenge—the contrast between her outstanding verbal comprehension and her trouble with writing output—is the main focus of the sample SETT plan. Her strengths (verbal thinking, comprehension, and enthusiasm in science) and weaknesses (dysgraphia, fine motor issues, and writing dissatisfaction) are described in the “Student” section. The main classroom, SET room, and house are described in the “Environment” section, along with the availability of Wi-Fi and school gadgets.
The term “Tasks” refers specifically to assignments that demand for written expression in a variety of subject areas, such as writing paragraphs, responding to open-ended enquiries, and producing brief reports. This aids in focussing AT’s attention. The main solution for “Tools,” according to the idea, is speech-to-text software (like Microsoft Dictate in Word/OneNote), which enables Chloe to get around handwriting and typing obstacles. In order to address her organisational issues, mind mapping software (such as Microsoft Whiteboard) or basic drawing tools are also provided to assist her in graphically organising her thoughts prior to dictating. Another tool mentioned for reviewing her dictated text is text-to-speech (Immersive Reader).
Along with a review schedule and training for Chloe and her instructors, the plan provides a clear execution method. By using Chloe’s verbal skills to overcome her writing difficulties, this SETT approach directly meets her needs. It seeks to boost her independence, engagement, and eventually her capacity to successfully demonstrate her knowledge by offering resources that lessen the mental and physical strain of writing. Because the SETT model is iterative, this plan would be reviewed and modified in response to Chloe’s development and input, guaranteeing that the AT stays suitable and useful.
Part 1: Activity – “My History Project Planner” using Microsoft To Do.
A 6th Class student who frequently difficulties with executive function skills—specifically, initiating tasks, breaking down huge assignments, and managing deadlines—is the target of this activity. Multi-step projects might overwhelm her, so she prefers graphic, easy-to-follow checklists and a sense of achievement when chores are finished.
In this assignment, the student manages a multi-part history project with the aid of Microsoft To Do. With primary tasks and subtasks (such as “Research Key Events” with subtasks like “Find 3 facts”), the instructor prepares a “History Project” list. It will be possible to add reminders and mark due dates. Putting a “done” mark on tasks gives the student motivation and visible feedback. Setting priorities is aided by the “My Day” function. By externalising the planning process, this method makes tasks less intimidating and gives the student the confidence to handle their workload on their own. It also helps them develop the self-control and organisational abilities necessary for success in school. Cognitive burden is decreased by segmenting tasks into manageable chunks. A clear project path is provided by the digital checklist. Scaffolding is provided by deadlines, reminders, and completion tracking. Positive behaviours are reinforced and confidence is increased through visual progress.
Part 2:
Our idea of good teaching is significantly shaped by the Cosán framework, which emphasises that a teacher’s career path is one of constant progression across knowledge, practice, and values. It emphasises that teaching is a dynamic profession that requires constant adaptation and improvement rather than a static job. The Universal Design for Learning (UDL) framework, which promotes adaptable learning environments that address a range of needs from the start, is closely linked to the Cosán principles, especially those pertaining to professional knowledge (such as comprehending learners and learning). Every student cohort has different origins, learning preferences, and demands. Furthermore, what worked yesterday might not work as well tomorrow due to the quick speed of technological advancement, changing pedagogical research, and societal changes. Teachers must continuously update their toolkit and repertoire of tactics in order to adopt UDL and truly execute an inclusive curriculum. This calls for a dedication to continual learning, going beyond initial credentials to adopt an attitude of constant inquiry and development. Continuing Professional Development (CPD) is essential for this very reason. CPD gives educators the organised chance to interact with fresh concepts, consider their work, and learn new abilities. It enables them to learn more about neurodiversity, experiment with state-of-the-art assistive technology, and hone their skills in creating accessible instructional materials. Teachers run the risk of stagnating without strong CPD, unable to meet the complex and varied demands of contemporary classrooms. It gives them the ability to stay on the cutting edge of best practices in education and guarantee that each student has a fair and stimulating educational experience.
Significant potential for promoting reading in the SET classroom is revealed by Module 2’s emphasis on specialised high-tech choices, especially Microsoft’s Immersive Reader across Teams, Edge, and other 365 products. Features like read-aloud, line focus, image dictionary, and text spacing in Immersive Reader can significantly help students who struggle with reading by making the material more approachable and promoting understanding. A consistent, encouraging learning environment might be established by incorporating this into everyday classes through Teams assignments or Edge browsing.
Adapting current equipment is essential, even beyond software. A trackball, vertical mouse, or even a larger, more sensitive laptop touchscreen overlay could be used in place of a normal mouse for a student who struggles with fine motor skills. For students who have trouble using traditional keyboards and mice, investigating alternative input devices such as switch access, eye-gaze technology, or voice control software (like Windows Speech Recognition) could significantly increase technology accessibility, enabling them to interact with digital content and express their learning more independently.
For students with Special Educational Needs (SEN), the transformative potential of ICT and assistive technologies (AT) has been deeply stressed in the first module. AT is a potent enabler that promotes independence, accessibility, and true inclusion rather than just being a compensatory tool. The useful solutions covered, including alternative input devices, visual aids, text-to-speech and speech-to-text software, and specialised learning applications, provide customised answers to a range of learning obstacles. For example, a student who struggles with fine motor skills might benefit from using a switch or eye-gaze technology, while a student with dyslexia can access complicated materials using text-to-speech.
The process of school self-evaluation is greatly impacted by the integration of these technologies. It calls for an intensive review of existing procedures, going beyond simple provision to include impact analysis and efficient execution. In order to make sure that staff members are properly taught and students are given the freedom to utilise AT, schools must assess if it is systematically recognised, acquired, and incorporated into instruction.
Although I haven’t used the SETT model, I can see how it would be a very helpful and practical way to help choose what actions and supports are needed to help the child in question, especially when creating support file, but also on a daily basis. In addition to providing structure, a particular framework might serve as a standard format for the entire institution.