What Is STEAM? Exploring the Interdisciplinary Approach That Helps Children Thrive When touring bilingual private schools in Hanoi, parents often hear the same line: “Our school teaches STEAM.” But what is STEAM? How is STEAM different from STEM? And how can you tell whether a school is genuinely teaching STEAM, or simply putting a STEAM label on its marketing brochure? These are three questions parents should have clear answers to before deciding to invest several hundred million dong a year in their child’s education. This article helps parents understand what STEAM is, the 5 core components of the approach, how STEAM differs from STEM and traditional education, how it is applied at each stage of schooling, and 5 signs to look for when visiting a school to judge whether its STEAM programme is well structured. Westlink students taking part in an interdisciplinary STEAM project What is STEAM? The 5 core components of the approach Origins and definition of STEAM STEAM is an interdisciplinary approach to education that combines 5 fields: Science, Technology, Engineering, Art and Mathematics. The concept was widely popularised by the Rhode Island School of Design (RISD) in the United States from around 2010, building on a framework proposed by Georgette Yakman in 2006. This was a period when education began to place greater emphasis on bringing the arts and design thinking into STEM fields. Rather than studying each subject in isolation, students apply all 5 fields to solve a real-world problem. This is the core difference between STEAM education and traditional, theory-heavy teaching. What each letter in STEAM stands for In a complete STEAM project, each component has its own role, but none works in isolation. The fields are connected so that students can look at a problem from several different angles. Science helps students understand how things and phenomena work. For example, they explore why plants need water, how humidity affects plant growth, or why an electrical circuit works. Technology helps students use tools to support their learning and create products. This might include sensors, 3D printers, design software, basic coding apps or measuring devices. Engineering focuses on designing, assembling and improving models. Students do not just come up with ideas; they also have to test, adjust and refine their products, from an initial sketch to a working model. Art makes a product easier to understand, more attractive and more meaningful to its users. This component goes beyond decoration: it also covers design thinking, presentation, user experience and the ability to communicate a message. Mathematics helps students calculate dimensions, ratios, flow rates, time, measurement data and other parameters needed to make a product work more effectively. The important role of the “A” in STEAM The “A” is often misunderstood as referring only to fine art or music. In fact, it covers the arts, humanities, design, language and critical thinking. It is the part that helps students not only create a technically correct product but also understand what that product means to its users. Without the “A”, students might be able to program a robot without really understanding what problem it should solve or whom it should serve. With the “A”, students develop both analytical and creative thinking: analysis to solve a problem correctly, and creativity to frame the right problem in the first place. This capability is especially important in the age of artificial intelligence, when people need not only to know how to use technology but also how to ask the right questions and create solutions of real practical value. Diagram of the 5 core components of STEAM education How does STEAM differ from STEM and traditional education? Parents often come across three terms: traditional education, STEM and STEAM. These concepts sound familiar but are not always easy to tell apart. The comparison table below helps parents see where STEAM sits and how it differs from the other two approaches. Criterion Traditional STEM STEAM Teaching approach Teacher lectures, students take notes Students solve engineering problems Questioning, experimenting, refining, communicating Number of fields 1 subject per lesson 4 integrated fields 5 integrated fields Teacher’s role Transmitting knowledge Technical guidance Accompanying students and asking open questions Assessment Test scores Products and reports Products, learning portfolios, presentations Main goal Memorising knowledge Applying STEM to solve problems Applying, creating, presenting ideas Skills developed Rote learning, getting answers right Logical and technical thinking Logic, aesthetics and communication Why STEAM has become essential for 21st-century learners Developing critical and creative thinking side by side According to the World Economic Forum’s Future of Jobs Report 2023, analytical thinking and creative thinking are the two skills employers prioritise most. Around 44% of workers’ skills are expected to change over the next 5 years. With artificial intelligence able to automate around 42% of business tasks by 2027, students need more than the ability to follow a template. A key benefit of STEAM education is that it teaches students to analyse data, ask the right questions and create new solutions. Solving open-ended problems Textbook problems usually have one correct answer. Real-world problems do not. That is why students need to get used to open-ended problems, where they must investigate, experiment and adjust for themselves. For example, in a STEAM project, students are tasked with designing an automatic watering system for the school garden. There is no model answer. They need to survey the current situation, propose options, build a prototype, test it and fix errors. This is the kind of problem-solving students will encounter at university, at work and as future citizens. Genuine teamwork A STEAM project usually involves 4–5 students, each taking on a different role such as team leader, designer, note-taker or presenter. As a result, students do not just work together for the sake of appearances; they genuinely learn to divide tasks, listen to differing opinions, support teammates and achieve shared goals on time. This is an essential skill for future study and work. Communication and expression After each project, students usually present their work to the class, and sometimes to parents at events such as a STEAM Fair. They need to explain their ideas, describe their process, share their results and answer challenging questions. Through this, children practise speaking coherently, using visuals to support their points and presenting their thinking clearly. This is a major advantage, because a good idea only has real value when students can express it in a way that others understand and trust. Students presenting a STEAM project to parents and teachers Lifelong self-directed learning Self-directed learning is one of the most important skills STEAM can develop in students. When children are used to asking their own questions, finding resources, experimenting and adjusting, they take greater ownership of their learning journey. In a future full of change, students cannot rely solely on the knowledge they gain at school. What matters is that they know how to learn new things, adapt to new circumstances and be ready for a range of career paths 10–15 years from now. Connecting with students’ future pathways The benefits of STEAM go beyond classroom achievement. This approach helps prepare students for careers that are shaping the future, such as data specialists, user experience designers, robotics engineers, biomedical researchers and sustainability specialists. Many of these careers did not clearly exist 20 years ago. Others may emerge over the next 10 years. What they have in common is the need for interdisciplinary thinking, the ability to use technology, an understanding of people and the ability to solve real problems. That is why international-standard schools often integrate STEAM into the learning pathway from an early age, rather than treating it as an add-on extracurricular subject. STEAM learning pathway by age Parents often ask: at what age should children start STEAM? The answer is that the earlier, the more natural it is – but the way children learn must suit each stage of development. A 4-stage STEAM learning pathway from Early Years to the IB Diploma Early Years (ages 3–6) At this stage, children learn best through their senses, observation and direct experience. Suitable STEAM activities involve play, exploration and experimentation rather than theory. Suitable activities include a colour-changing water experiment with butterfly pea flowers, folding paper aeroplanes to test how far they fly, or building with wooden blocks around a nature theme. Through these, children develop fine motor skills, early logical thinking and curiosity. Parents should avoid pushing children into coding too early or buying too many electronic toys in place of real-life experiences. Primary – IB PYP (ages 6–11) This is a key stage for building interdisciplinary thinking. In the IB primary framework, students learn through units of inquiry, each usually lasting 5–6 weeks and connecting several subjects around a big question. Students begin to explore block-based coding, simple robots and projects that combine art with science. End-of-unit work may be shared through an exhibition walk or a STEAM day. This is also the stage that most clearly shows the difference between a school that genuinely implements STEAM and one that only uses the STEAM label in its marketing. Lower secondary – IB MYP (ages 11–16) At lower secondary level, students are mature enough to tackle more complex projects involving engineering, design and ethics. In the IB MYP framework, Design is the subject that most clearly reflects the combination of engineering and art in general education. At the end of the IB MYP, each student completes a Personal Project. Students choose their own topic, must create a real product and reflect on their process. This is clear evidence of a student’s STEAM capabilities. Upper secondary – IB Diploma (ages 16–18) At upper secondary level, STEAM becomes an important foundation for university applications. Students can choose in-depth subjects according to their direction, such as Sciences, Mathematics, Visual Arts or Design Technology. The IB Diploma Programme has 2 components that clearly support STEAM thinking. The Extended Essay allows students to carry out in-depth research of around 4,000 words. Creativity, Activity, Service (CAS) helps students turn their knowledge into real-world contributions. IB Diploma graduates often have an advantage when applying for STEAM-related courses at international universities. How STEAM is taught within the IB framework Most articles on STEAM education in Vietnam stop at a definition. What parents really need to know is how STEAM is taught in a real classroom. Within the IB framework, STEAM is usually delivered clearly through interdisciplinary units and real-world projects. STEAM within PYP units of inquiry The IB PYP does not have a separate “STEAM lesson”. Instead, STEAM is woven into units of inquiry, each built around an interdisciplinary theme. For example, under the theme “Sharing the Planet”, students might study the water cycle in Science, measure rainfall and create charts in Maths, record data using technology tools, design an awareness poster in Art, and build a model water filtration system as the Engineering element. One project, yet students use all 5 ways of thinking: scientific, technological, engineering, artistic and mathematical. STEAM within the “Sharing the Planet” unit of the IB PYP The Personal Project and Design in the MYP In the MYP, the spirit of STEAM is clearly reflected in Design. This subject takes students through a complete process: inquiring into a problem, developing ideas, creating a product and evaluating the outcome. At the end of the MYP, students carry out an independent Personal Project. One student might make a short film about the environment, another might design a learning-support app, and another might build a circular farming model. Topics can vary widely, but what they share is that students must combine several fields to create a real product. STEAM within the IB framework at Westlink Westlink is an IB World School authorised for the Primary Years Programme (PYP) since May 2024 and the Middle Years Programme (MYP) since December 2025. The school is a member of the International Schools Partnership (ISP), a global network of international schools. At Westlink, STEAM is showcased through the annual Westlink STEAM Fair 2026, where students from Early Years to MYP present interdisciplinary projects to parents, teachers and peers. This is not just homework, but real products with a process behind them and a reflection component. Facilities that support STEAM include a creative studio, science lab, art room and dedicated STEAM room. The 2.5-hectare campus in Tay Ho Tay is also designed to support experiential learning. 5 signs that a school teaches STEAM properly When visiting schools, parents often hear statements such as “our school applies STEAM”. However, a well-structured STEAM programme is not just about an attractive classroom, a few construction kits or a line in a brochure. Parents can look for the 5 signs below to judge whether a school is seriously implementing STEAM education. Checklist of 5 signs that a school teaches STEAM properly Dedicated learning spaces, not just a STEM corner A school that genuinely teaches STEAM usually invests in dedicated spaces such as a STEAM Lab, Maker Space or ICT Hub. These are places where students use learning and making tools such as 3D printers, safe laser cutters, microcontroller kits, raw materials or age-appropriate technology. What matters is that these spaces are in use for real learning, not just opened up for marketing photos. A classroom corner with a few Lego sets, some iPads or a few display models is not enough to count as a proper STEAM facility. STEAM is part of the core curriculum, not just a club This is a very clear distinguishing sign. If STEAM only appears as an after-school club, extracurricular activity or summer camp, it is merely supplementary. A school that takes STEAM seriously needs to integrate it into the core curriculum rather than treat it as an extra. At schools following the IB framework or an equivalent curriculum, STEAM is usually built into weekly learning. Students learn through an interdisciplinary theme, ask questions, investigate problems and create concrete products. Question to ask: “Could you show me a sample lesson plan for a unit that integrates STEAM?” Teachers trained in inquiry-based learning and interdisciplinary work A good STEAM project usually needs at least 2 teachers from different subjects to design the learning together. For example, the Science teacher covers the principles, the Maths teacher supports the calculations, and the Art teacher guides the design and presentation of the product. A school that teaches STEAM properly invests in training teachers in inquiry-based learning and sets aside time each week for interdisciplinary planning meetings. Question to ask: “Have the Science and Art teachers ever co-taught a project?” Assessment based on process and real products Genuine STEAM should not be assessed mainly through multiple-choice tests. Students need to be recognised for how they ask questions, experiment, fix errors, collaborate, complete their product and present their results. Evidence may include learning journals, prototypes, presentations, self-reflections and the final product. Student reports should also comment on research, communication and critical thinking skills alongside traditional subject grades. Question to ask: “Could you show me a sample end-of-term student report?” Regular project showcase events Schools that take STEAM seriously usually hold an annual STEAM day, innovation day or product exhibition. This is where students display their work, explain their process and answer questions from parents, teachers and peers. You could see this as STEAM’s “open exam”, because students do not just hand in a product; they must also show that they understand the problem and have learnt from the process. If a school says it teaches STEAM but holds no public events during the year, the benefits of STEAM are hard to verify. Question to ask: “When was your most recent project showcase? Can I see photos or examples of student work?” Discover how Westlink delivers STEM within the IB framework Westlink is an IB World School authorised for the PYP and MYP, and integrates STEAM throughout its units of inquiry from Early Years to MYP. At Westlink, STEAM is not a standalone subject added to the timetable – the approach is woven naturally into weekly learning through interdisciplinary projects. When visiting the 2.5-hectare campus in Tay Ho Tay, parents can see first-hand dedicated learning spaces including the STEAM Lab, Makerspace and science lab, as well as boards showing the projects students are working on in class. In particular, the annual STEAM Fair is the best opportunity for parents to see real student work and hear students present – true to Westlink’s spirit of Dream – Strive – Succeed. Parents can book a tour of the campus in Tay Ho Tay; Westlink’s admissions team is committed to responding within 24 hours. Makerspace and STEAM Lab on Westlink’s Tay Ho Tay campus Understanding what STEAM is helps parents see the real value of STEAM education: connecting 5 fields to solve real-world problems. Unlike STEM, STEAM adds the Arts and Humanities, helping students think logically while also creating solutions that work for people. When choosing a school, parents should look at the curriculum, facilities, assessment methods and the projects students have completed. Book a tour of the Tay Ho Tay campus today to experience a modern STEAM learning environment first-hand and receive detailed advice from the Westlink Admissions team!
