How Material Resources Improve Teaching and Learning

Every classroom tells a story – and the materials inside it shape how that story unfolds. From the textbook on a student’s desk to the science kit on a lab bench, material resources are the building blocks of effective teaching and learning. They give structure to lessons, make abstract ideas concrete, and help students engage with content in ways that stick. Whether a school is well-funded or working with limited budgets, the right material resources – and the right strategies for using them – can make a significant difference in educational outcomes.

What are material resources in education? 🔗

Material resources refer to the physical and digital tools used to support the teaching-learning process. These include textbooks, workbooks, audio-visual aids, science kits, charts, maps, digital devices, library collections, and laboratory equipment. Unlike human or financial resources, material resources are the tangible items that teachers and students interact with daily to facilitate knowledge transfer and skill development.

According to Hawaii’s Department of Education, instructional materials can be printed or digital, free or purchased, and may range from a single lesson handout to a comprehensive curricular programme. They include primary sources, literary texts, workbooks, computer-based applications, and classroom assessments. The key factor is that these materials must align with learning standards and be selected thoughtfully by educators.

Key learning materials for schools 🔗

Textbooks and workbooks 🔗

Textbooks remain one of the most widely used material resources in classrooms worldwide. They provide a structured, sequential presentation of content aligned with curricula, giving both teachers and students a reliable reference point. A well-designed textbook organises information logically, includes illustrative examples, and often contains review questions that reinforce key concepts.

Workbooks complement textbooks by providing students with hands-on practice opportunities. While a textbook explains the theory behind a mathematical formula, a workbook gives students space to apply that formula across varied problems. This active engagement helps move learning from passive reading to active doing – a critical shift for long-term retention.

However, it is important to note that textbooks alone are not sufficient. Research published in the Journal of Education and Practice found that many teachers relied heavily on textbooks and recommended supplementing them with other instructional resources such as audio-visual aids and digital tools for a richer learning experience.

Audio-visual aids 🔗

Audio-visual (AV) aids include tools like projectors, educational videos, slide presentations, smartboards, audio recordings, and interactive software. These resources engage multiple senses simultaneously, which significantly enhances comprehension and retention.

A study published in Procedia – Social and Behavioral Sciences found that AV aids play a vital role in the teaching-learning process, making it more effective and providing knowledge in greater depth and detail. The study also noted that AV aids bring positive changes to the classroom environment and increase motivation for both teachers and students.

The impact of sensory engagement in learning is well-documented. Research suggests that people retain approximately 10% of what they read, 20% of what they hear, but around 50% of what they both hear and see. This is precisely why AV aids are so effective – they combine visual and auditory channels, giving students a multi-sensory learning experience that pure text-based methods cannot match.

For example, a biology teacher explaining the human circulatory system can use a short animated video to show how blood flows through the heart. This visual demonstration reinforces the textbook explanation and helps students form a mental model of the process, making it far easier to recall during assessments.

Science kits and laboratory equipment 🔗

Science kits bring experiential learning into the classroom. They typically contain the apparatus, chemicals, specimens, or models needed for students to conduct experiments and observe scientific phenomena firsthand. From simple magnet sets for primary school children to chemistry reagent kits for secondary students, these resources bridge the gap between theory and practice.

Hands-on experimentation encourages students to hypothesise, test, observe, and draw conclusions – all essential components of scientific thinking. Without these materials, science education risks becoming purely theoretical, which limits students’ understanding and interest in the subject.

The World Bank’s education framework emphasises the importance of adopting effective teaching practices and tools that help teachers address classroom challenges, including the use of structured materials that target instruction to students’ actual learning levels. Science kits are a practical example of such targeted tools.

Charts, maps, and models 🔗

Not all effective material resources require electricity or technology. Charts, maps, globes, and physical models are traditional yet powerful teaching tools. A wall chart of the periodic table, a physical globe showing time zones, or a 3D model of a cell structure – these items give students something tangible to look at, touch, and refer to throughout a lesson.

These materials are especially useful for visual learners and for subjects where spatial understanding matters, such as geography, biology, and physics. They are also relatively inexpensive and durable, making them accessible for schools across different economic settings.

Ensuring proper utilisation of learning materials 🔗

Having material resources is one thing; using them well is another. Many schools invest in materials that end up stored in cupboards or used ineffectively. Here are strategies that help maximise the impact of available resources.

Align materials with lesson objectives 🔗

Every teaching material should serve a clear purpose within a lesson plan. Before choosing to use a video, a workbook exercise, or a science kit, teachers should ask: Does this resource directly support the learning objective for today? Using AV aids simply for entertainment value, or assigning workbook pages without linking them to the lesson, reduces their educational impact. Materials work best when they are deliberately woven into the lesson flow – introduced at the right moment, with clear instructions, and followed up with discussion or assessment.

Train teachers to use resources effectively 🔗

A smartboard is only as useful as the teacher operating it. Professional development and training play a crucial role in ensuring that educators can confidently and creatively use the resources available to them. This includes technical training on digital tools, as well as pedagogical training on how to integrate materials into different teaching strategies such as group work, inquiry-based learning, and differentiated instruction.

Research from a study published in the African Journal of Primary Health Care & Family Medicine highlights that when audio-visual aids are used with clear connections to course content, students find the sessions more relevant and beneficial. The study recommends that videos and other AV materials should be concise, carry a direct message about the topic, and be followed by class reflection or discussion to maximise their learning value.

Monitor student progress and provide feedback 🔗

After a lesson that involves specific learning materials – say, a workbook activity or an AV-supported presentation – teachers should assess how well students have absorbed the content. This can be done through quizzes, group discussions, or quick class activities that allow students to demonstrate their understanding. The feedback gathered from these assessments should then inform future lesson planning, ensuring that any gaps are addressed before new material is introduced.

Rotate and diversify materials 🔗

Using the same type of resource repeatedly can lead to student disengagement. Effective teachers vary their use of materials – alternating between textbook-based instruction, AV-supported lessons, hands-on experiments, and group activities with charts or models. This variety keeps lessons fresh and caters to different learning styles within the classroom.

Developing low-cost and locally sourced teaching aids 🔗

One of the biggest challenges in education – especially in rural or underfunded schools – is resource scarcity. Not every school can afford smartboards, branded science kits, or a library full of new textbooks. But this does not mean quality education is out of reach. Teachers and communities can develop effective teaching aids using low-cost, locally available materials.

Why low-cost materials matter 🔗

A paper published in the African Journal of Chemical Education outlines why locally produced, low-cost educational materials are often more effective than expensive imported equipment. The benefits include easier maintenance and repair, better availability of spare parts, higher relevance to the local curriculum, and flexible adaptation for new topics. The paper also notes that large investments in imported equipment for science education in developing countries have often failed due to technical unsuitability, high cost, lack of teacher training, and poor maintenance infrastructure.

This makes a strong case for shifting the focus from expensive procurement to creative, local innovation.

Examples of low-cost teaching aids 🔗

Low-cost teaching aids can be remarkably effective. Here are some practical examples that schools and teachers can adopt:

Handmade models and charts: Teachers and students can create models of molecular structures, the solar system, or human anatomy using clay, papier-mâché, cardboard, or wire. Wall charts can be drawn on poster paper to illustrate processes like photosynthesis or the water cycle.

Locally sourced natural materials: In rural areas, locally available items like plants, soil samples, rocks, seeds, and shells can be used in biology and environmental science lessons. These materials give students a direct, relevant connection to the subject matter, making learning more meaningful.

Recycled and repurposed items: Bottle caps, plastic containers, old newspapers, fused bulbs, and packing materials can be transformed into counting tools, experiment apparatus, or art project supplies. A simple balance scale can be constructed from a ruler, string, and two cups – enough to teach the fundamentals of measurement to primary school students.

Interactive games and flashcards: Paper-based games like matching cards, crossword puzzles, and quiz boards can reinforce vocabulary, mathematical concepts, and scientific facts without any technology. These are easy to produce and highly engaging for younger students.

Community involvement and sustainability 🔗

Developing low-cost teaching aids is not just a task for teachers alone. Parents, local artisans, and community members can contribute materials, skills, and ideas. For instance, a local carpenter might help build a simple bookshelf for a classroom library, or a parent with artistic skills could paint educational murals on school walls.

This community-driven approach not only reduces costs but also builds a sense of shared ownership over the school’s educational mission. It fosters sustainability – when materials are sourced and made locally, they can be repaired, replaced, and adapted without relying on external suppliers or large budgets.

UNESCO has long advocated for the development and use of low-cost teaching aids, particularly in Asia and the Pacific, recognising that locally produced materials empower teachers and students to take an active role in the learning process.

The role of digital open educational resources 🔗

Even in budget-constrained settings, digital resources can supplement physical materials. Open Educational Resources (OER) – freely available online textbooks, lesson plans, videos, and interactive tools – can be accessed on basic smartphones or shared computers. While infrastructure remains a barrier in some areas, the growing availability of mobile internet is gradually expanding access to these digital tools.

Schools that combine low-cost physical materials with freely available digital content can create surprisingly rich learning environments without significant financial investment.

Making material resources work for every learner 🔗

The ultimate goal of material resources is not just to fill classrooms with objects, but to create an environment where every student can access, engage with, and benefit from the learning process. This means considering the diverse needs of students – including those with disabilities, different learning preferences, and varying levels of prior knowledge.

For example, tactile models help visually impaired students understand shapes and structures. Audio recordings support students who learn better through listening. Workbooks with graded difficulty levels allow students to progress at their own pace. When material resources are selected and used with inclusivity in mind, they become tools of equity – ensuring that no student is left behind.

Teachers play the most critical role in this process. A skilled teacher can turn a handful of locally sourced materials into a powerful lesson, while a disengaged teacher may fail to make use of even the most advanced digital tools. The combination of well-chosen materials, thoughtful lesson planning, and responsive teaching is what truly transforms classroom learning.

What do you think? How can schools in resource-limited settings better leverage locally available materials to improve learning outcomes? Do you believe that the effectiveness of material resources depends more on the resources themselves, or on how teachers use them?

References

1. https://learningdesign.hawaiipublicschools.org/school-design/learning-materials
2. https://files.eric.ed.gov/fulltext/EJ1079541.pdf
3. https://www.sciencedirect.com/science/article/pii/S1877042811024554
4. https://www.worldbank.org/en/topic/education/brief/ending-learning-poverty
5. https://pmc.ncbi.nlm.nih.gov/articles/PMC10913169/
6. https://www.ajol.info/index.php/ajce/article/view/82439/72594
7. https://unesdoc.unesco.org/ark:/48223/pf0000052896