Category: stem education

  • 5 powerful ways to link STEM lessons to real-world applications

    5 powerful ways to link STEM lessons to real-world applications

    Key points:

    “Why are we learning this?”

    This is a question every educator has faced before. To be fair, it’s a valid question. Students are naturally curious, and it’s normal for them to wonder about the knowledge that they’re acquiring. The real issue is how we, as educators, choose to respond to them.

    In my experience, teachers have two standard replies to this question:

    1. They’ll try to explain the subject in detail, which results in a long-winded answer that confuses their students and doesn’t satisfy them.
    2. They’ll argue that the information is important because it’s on an upcoming test, which typically leaves students feeling frustrated and disengaged.

    Either way, the result is the same: Students lose all legitimacy in the lesson and they’re unable to connect with the content.

    If we want our students to engage with the material in a way that’s memorable, meaningful, and fun, then we need to help them discover why it is important. Teachers can accomplish this by introducing real-world connections into the lesson, which reveal how the information that students acquire can be practically applied to real-world problems.

    Without building these connections between the concepts our students learn and real-world applications, students lose interest in what they are learning. Using the strategies below, you can start to build student investment into your classroom content.

    The everyday enigma

    Use everyday items that operate with mystery and frame your lesson around them. Your students’ curiosity will drive them to learn more about the object and how it functions. This allows students to see that the small concepts they are learning are leading to the understanding of an object that they interact with daily. When choosing an item, pick one that is familiar and one that has multiple STEM elements. For example, you could use a copper wire to discuss electrical currents, a piece of an automobile to explore chemistry and combustion, or shark teeth when teaching about animal adaptations and food chains.  

    Interest intersect

    Connect your students’ personal hobbies to the subject matter. For instance, if you have a student who is really passionate about soccer, try having them create a mini poster that connects the sport to the concepts learned in class. This gets them to think creatively about the purpose of content. This strategy has the additional benefit of helping teachers learn more about their students, creating opportunities to build communication and rapport.

    Get an expert

    Invite professionals (scientists, engineers, etc.) to talk with your class. This gives students a first-hand account of how the concepts they are learning can be applied to different careers. If you’re teaching chemistry, consider inviting a nurse or doctor to share how this subject applies to human health. If you’re teaching math, a local architect can expound on how angles and equations literally shape the homes in which students live. Not only does this provide a real-world example of students, but it helps schools connect with their community, creating vital relationships in the process.           

    Problem to progress

    Create an engineering investigation based on a local, real-world problem. For instance, I once knew a music teacher who was frustrated because pencils would regularly fall off his music stands. I challenged my 5th grade students to create a solution using the engineering design process. Not only did they succeed, but the experience allowed my students to see the real-world results of the inventions they created. When students understand that their work can make a tangible difference, it completely changes their relationship with the material.  

    Project-based learning

    Project-based learning is driven by inquiry and student ownership. This allows students to make contributions to the real world through hands-on investigations. What makes these inquiry-focused lessons so useful is that students are the driving force behind them. They choose how to approach the information, what questions to pursue, and what solutions they want to test. This makes the learning intensely personal while taking advantage of students’ natural curiosity, creativity, and critical-thinking skills. If you need a little help getting started, consider using one of these Blue Apple projects from Inquiry Outpost.

    By linking our STEM lessons to real-world experiences, teachers can provide a meaningful answer to the age-old question of, “Why are we learning this?” We can equip our students with the skills to not only navigate everyday challenges but also create positive change within their own communities. So, let’s empower young learners to see the relevance of STEM in their lives, and lay a strong learning foundation that will support them well beyond the classroom.

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  • Greensboro School Is First Public Gaming and Robotics School in the Country – The 74

    Greensboro School Is First Public Gaming and Robotics School in the Country – The 74


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    Historic Foust Elementary School has had a game changing start to the year. School and district leaders, parents, and community members were eager to get inside one of Greensboro’s newest elementary schools for their ribbon cutting ceremony on Feb. 3, 2025 to witness an innovative progression in the school’s history. They were greeted by students and the school’s robotic dog, Astro.

    Foust Elementary School, part of Guilford County Schools (GCS), is the country’s first public gaming and robotics elementary school, according to the district. The school still sits on its original land, but the building has been rebuilt from the ground up. They began welcoming students into the new building at the start of 2025.

    Foust Elementary School’s history goes all the way back to the 1960s. Foust student Nyla Parker read the following account at the ribbon cutting ceremony:

    “Since its construction in 1965, Julius I Foust Elementary School has prided itself in serving the students and families of its community, with the goal of creating citizens who will leave this place with high character and academic excellence. … Now, almost 60 years later, we welcome you to the new chapter of Foust Gaming and Robotics Elementary School. As a student here at Foust, I am excited about various opportunities that will be offered to me as I learn more about exciting industries such as gaming, robotics, coding, and 2D plus 3D animation. Thank you to the voters of our community for saying yes to the 2020 bond that allowed this place to become a reality for me and my fellow classmates. Game on!”

    Foust is a Title I school in a historically underinvested part of Guilford County. Several years ago, the district conducted a master facility study, which resulted in Foust getting on the list to receive an entirely new building.

    “Foust was one of the oldest buildings in the district and it was literally falling apart, so we were on the list to have a total new construction,” said Kendrick Alston, principal of Foust.

    “During that time, we also talked with the district and really thought about, well, building a new school. What can we also do differently in terms of teaching and learning, instead of just building a new building?”

    The mission of Foust is to “envision a future where students are equipped with the skills, knowledge, and tools to lead the new global economy,” according to their website. The new global economy, featuring high projected growth in fields that include technology, was a driving factor for planners as they decided to focus the school on gaming and robotics.

    There are many jobs that can come from learning the skills necessary to build video games and robots. Looking at recent labor market trends, many of those jobs are growing. Web developers and digital designers have an 8% projected growth rate from 2023-2033 with a median pay of $92,750 per year, according to the U.S. Bureau of Labor Statistics.

    “We looked at a lot of studies, we looked at research, and one of the things that we looked at was something from the World Economic Forum that looked at the annual jobs report. We saw that STEM, engineering, those kinds of jobs, were some of the top fastest growing jobs across the world,” said Alston. “When we think about school looking different for our students and being engaging, well, let’s make it something that’s relevant to them but is also giving them a skill set that they can be marketable in the global workforce as well.”

    The team at Foust, including teachers and staff, have spent several months in specialized training on a new and unique curriculum designed to help prepare students for the ever evolving world of work. The building, designed to bring 21st century learning to life, is part of the first phase of schools constructed from a combined $2 billion bond.

    “I am excited for what this new space is going to produce,” said Hope Purcell, a teacher at Foust. “With the continued support from our robotics curriculum, students will have the opportunity to tap into a new world of discovery that will prepare them for the future.”

    Many community and education leaders were present at the ribbon cutting, including several county commissioners and Guilford superintendent Whitney Oakley. Oakley shared excitement about the new school and reminded everyone that the leaders who came before her who advocated for the passing of the bond and were open to the vision of a school like Foust were a huge part of making this new school a reality.

    “Today is not just about celebrating a building,” Oakley said. “It’s about celebrating what this building really represents, and that’s opportunity and access to the tools of modern K-12 education. It represents the culmination of years of planning and conversation and design to make sure that we can build a space that serves families and students for decades to come. The joy on the faces of the staff and the families and the students is just a reminder that teaching and learning is more effective when everybody has the resources that they need to thrive, and that should not be the exception, that should be the rule.”

    Students sometimes need different levels of support and resources in order to thrive. Foust hopes to be a place where all students can succeed. Another school district in New Jersey, the Morris-Union Jointure Commission, is using gaming and technology to engage students with cognitive and behavioral differences. They have created an esports arenadesigned specifically for students with cognitive challenges, like Autism Spectrum Disorder. This is just one example of how gaming can create an inclusive learning environment.

    As Foust settles into its brand new building, they are already planning for new opportunities ahead, including partnerships with the University of North Carolina at Greensboro and North Carolina Agricultural and Technical State University for innovative programming for students and parents.

    This article first appeared on EducationNC and is republished here under a Creative Commons license.


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  • The Growing Gender Divide in STEM Education

    The Growing Gender Divide in STEM Education

    Title: The Hidden STEM Gender Gap: Why Progress at Top Universities Masks a Growing Crisis

    Source: Brookings Institution

    Authors: Joseph R. Cimpian and Jo R. King

    A recent Brookings Institution article, “The Hidden STEM Gender Gap: Why Progress at Top Universities Masks a Growing Crisis,” paints a complex picture of the state of gender equity in STEM higher education. While top universities have made notable progress in narrowing the gender gap in physics, engineering, and computer science (PECS) majors, institutions serving students with lower math achievement are falling further behind.

    Over the past two decades, the male-to-female ratio in PECS majors decreased from 2.2:1 to 1.5:1 at universities with the highest average math SAT scores. However, at institutions with the lowest average scores, the gender gap has dramatically widened from 3.5:1 to 7.1:1. This disparity persists even when accounting for differences in math ability, confidence, interests, and academic preparation. The findings point to institutional barriers that disproportionately impact women at less selective schools.

    The institutions struggling most with gender equity serve the majority of American students, particularly students of color and those from lower-income families. PECS degrees offer a path to high-paying careers, and research suggests women may see an even greater earnings premium from these majors at less selective institutions compared to their more selective counterparts. By failing to recruit and retain women in PECS programs, we are denying millions the opportunity to benefit from these rewarding fields.

    The authors propose several strategies to shrink this gap:

    • Allocate resources strategically, directing support to the institutions facing the greatest challenges rather than those already making progress.
    • Adapt proven practices like undergraduate research and peer mentoring to the unique needs and constraints of less-resourced institutions, forging creative partnerships to ensure successful implementation at scale.
    • Mobilize external partners, from nonprofit organizations to industry groups, to strategically focus their outreach and pathway-building efforts on the schools and communities with the most severe gender imbalances.

    Achieving gender equity in STEM will require acknowledging where we are falling short and building the collective determination to change. The success of top universities shows that progress is possible, but it will take targeted interventions and a sustained commitment to extending opportunities to all students. Until then, our celebrations of narrowing gaps will ring hollow for the women left behind.

    To read the full Brookings Institution article, click here. The complete research is also available in the journal Science here.

    Alex Zhao


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