Revolutionizing Education: How Robots Can Help Students Learn

April 15, 2025
STEM Education
whalesbot as robotics kit

Imagine using a simple robotics kit to code a robot that patiently helps a child understand basic math concepts. Today, classrooms around the world are filled with students using the best kid robot kits to explore how to code robots, build their own creations, and learn robot fundamentals. With hands-on tools like block coding websites and intuitive interfaces, children are not onlyhaving fun—they're actively developing coding robotics skills through accessible, real-world learning experiences.

Further, picture a classroom where intelligent robots collaborate seamlessly with human teachers, delivering personalized instruction tailored to each student's unique learning style. This isn't merely a futuristic movie scenario—it's the cutting-edge educational reality of today. As technology reshapes our world ata rapid pace, robotics are sparking a revolutionary shift in education.

From sparking creativity and boosting engagement, to supporting students with special needs and transforming STEM education,robotics have become powerful partners in the pursuit of educational excellence. 

The Evolution of Educational Technology

Educational technology’s evolution tells a fascinating story of innovation and adaptation. From the humble beginnings of chalk and slate to today's AI-powered classrooms, this journey highlights our continual efforts to enhance learning.

In the early 20th century, educational technology took its first significant leapwith audio-visual aids like film strips and overhead projectors. Personal computers introduced in the 1980s revolutionized information access, and the subsequent introduction of interactive whiteboards and internet connectivity inthe 1990s dramatically expanded educational opportunities.

Recent years have witnessed an explosion of educational technology. Beyond mobile devices and apps making learning accessible anytime, anywhere, here are several emerging and popular examples from recent years: 

AI-Powered Chatbots and Virtual Tutors

AI-driven platforms like ChatGPT, Khanmigo, and Duolingo's virtual assistantprovide personalized learning experiences, instantly answering questions,guiding students through problems, and tailoring lessons to individual skilllevels and needs.

GamifiedLearning Platforms

Interactivegamification tools such as Kahoot!, Prodigy Math, and Quizlet have grown significantly, transforming traditionally dull subjects into engaging, competitive, and enjoyable experiences through points, leaderboards, and rewards.

Immersive VR and AR Learning

Innovative tools like Meta Quest, MergeEDU, and zSpace enable immersive virtual reality (VR) and augmented reality (AR) experiences. Students can now virtually visit museums, conduct complex lab experiments, or explore historicalsites, deeply enhancing understanding through hands-on interaction. 

Collaborative Online Learning Environments

Platforms such as Google Classroom, Microsoft Teams, and Padlet have evolved significantly, facilitating seamless remote collaboration, real-time interaction, and feedback among students and teachers, supporting hybrid andremote educational models. 

AdaptiveLearning Technologies

Adaptiveplatforms such as DreamBox, Smart Sparrow, and CenturyTechcontinuously analyze student performance data, instantly adapting contentdifficulty and pacing, offering personalized educational pathways andsignificantly improving student outcomes.

Thisprogression signals a fundamental shift toward personalized, interactive, andstudent-centered learning. Today’s technology doesn't merely deliverinformation—it actively engages students, adapts to diverse learning styles,and provides immediate feedback.

Entereducational coding robots—the forefront of this technological evolution. Thesesophisticated machines combine AI, robotics, speech recognition, and adaptivelearning algorithms. Designed to interact closely with students, they offerhands-on experiences in coding robots, facilitating practical applicationbeyond traditional software capabilities.

Educationalrobots aren’t intended to replace teachers; rather, they augment humaninstruction. They tirelessly repeat lessons, adjust teaching pace forindividual learners, and offer consistent feedback. Moreover, they uniquelyenhance skills in coding robotics and other STEM areas critical for theworkforce of tomorrow.

Standingat the threshold of this new educational era, it’s clear integrating robotsinto classrooms represents not merely an incremental improvement but a paradigmshift. Educational robots bridge theoretical knowledge and practicalapplications, preparing students to confidently navigate—and shape—a futuredefined by collaborative robotics.

Types of Educational Robots

The field of educational robotics continues to grow rapidly, evolving to meet the diverse needs of today’s learners. From foundational coding robots tocutting-edge AI-powered platforms, a wide variety of robots are transforming classrooms worldwide. Let’s explore some of the most exciting and emerging categories in recent years: 

1. Humanoid Robots: Humanoid robots are particularly effective for teaching social skills, languages, and coding robotics, as they simulate realistic human interactions. With expressive faces,speech recognition, and human-like movements, they provide engaging and immersive experiences.

Example 1: NAO by SoftBank Robotics:

This well-known brand robot remains popular worldwide, assisting in multiple languages, recognizing faces, performing interactive movements, and effectively supporting children, especially in special education programs and coding arobot sessions.

Example 2: Moxie by Embodied (now Covariant):

An animated companion, Moxie supports children's social-emotional learning through storytelling and conversational AI. Its interactive nature helps young students build essential life skills while simultaneously learning robotics concepts. 

Example 3: Whalesbot H7 by Whalesbot

With full-body articulation, visual sensing, andreal-time motion control, H7 helps students explore what it means to engineer arobot that can walk, see, and respond like a human. In classroom settings, learners use H7 to study advanced topics such as AI, motion planning, and robotic perception—bridging cutting-edge research with experiential learning. It’s a compelling class of robot that turns complex theories into tangible robotics applications and inspires the next generation of engineers and innovators.

2. Telepresence Robots: Breaking geographical barriers, telepresence robots allow students and teachers to participate inclassrooms remotely, facilitating interactive, real-time education. 

Example 1: Double 3 by DoubleRobotics:

Using autonomous navigation poweredby advanced AI, Double 3 provides seamless remote participation, ensuring immersive engagement for remote learners. 

Example 2: OhmniCare by OhmniLabs (acquired by Symbotic)

OhmniCare, the next-generation evolution of the Ohmni Robot, is tailored for healthcare and education use cases. Its plug-and-play design, smooth mobility, and secure video streaming make it ideal for ensuring educational access for homebound students or those in remote locations.  

3. Programmable Robots: Programmable robots continue to be a cornerstone for teaching fundamental coding, engineering, and STEM principles. These coding robots bridge abstract concepts with real-world applications, providing practical and engaging learning experiences. 

Example 1: LEGOMINDSTORMS Robot Inventor:

Students build and code robots using intuitive drag-and-drop interfaces found on popular block coding websites, effectively merging play with learning robotics fundamentals. 

Example 2: WhalesBot Education Coding Robot:

Offering products such as U10 pro, S40, AI Module 1S, and Engin Bot 1S, WhalesBot combines innovative hardware and software. Students learn to code robots through both intuitive block coding and professional text-based languages like Scratch, Python, catering to beginners and advanced learners alike.

 Example3: Sphero-indi kits:

These robots have surged in popularity recently, particularly for their versatility, approachable interface, and engaging programming activities—perfect for teaching how to build a robot at home or school.

4. Early Childhood Education Robots: Specifically designed for younger learners, these best kids robots focus on foundational STEM concepts, creativity, and social-emotional development in playful, engaging ways. 

Example 1: Whalesbot makeU series:

Employing innovative magnetic coding, the WhalesBot makeu series enable toddlers to learn robot concepts by assembling magnetic modules, sparking early curiosity andcoding awareness in young minds. 

Example 2: Botley 2.0 by Learning Resources:

Botley provides screen-free coding experiences for young children, helping them grasp foundational STEM and coding robotics principles through simple, intuitive play. 

5. AI-Enhanced Robotics Kits: In recent years, AI-focused educational robot kits have grown rapidly, offering advanced learning experiences. These kits teach students about artificial intelligence, machine learning, computer vision, and data analysis.

Example 1: WhalesBot AI Module:

Designedfor curious students eager to dive into advanced STEM and AI, this kit allows learners to explore real-world coding robotics applications through languages like Scratch, C, and Python. With over 600 components, students can create robots for various applications, enhancing their coding robotics proficiency, creativity, and problem-solving skills.

Example 2: NVIDIA Jetson Nano AI Kits:

These compact AI computing kits teach learners how to code a robot with machine learning algorithms, giving practical experience in advanced robotics, deep learning, and autonomous systems.

Example 3: WhalesBot’s RoboVR

WhalesBot’s RoboVR brings immersive learningto the classroom by combining virtual reality with robotics education. Through RoboVR, students can interact with robots in simulated environments, practice coding, and complete engineering challenges without the need for physical equipment. This technology makes STEM education more accessible and engaging, allowing learners to explore complex concepts through hands-on virtual experiences. By fostering creativity, critical thinking, and problem-solvingskills, RoboVR transforms traditional learning into an exciting, future-ready journey.

6. Special Needs Education Robots: Specialized robots effectively assist students with autism spectrum disorders, learning disabilities, or physical impairments, emphasizing cognitive skills, social communication, and emotional understanding. 

Example1: Milo by Robokind:

Milo, a specifically coded robot, is widely recognized for teaching social behaviors and emotional recognition to children with autism. Its repetitive, visual, and interactive approach ensures personalized support for special-needs learners.

Example2: QTrobot by LuxAI:

Recently gaining popularity, QTrobot utilizes expressive facial features and interactive software, helping children with autism engage comfortably, improve social skills, and enhance emotional understanding.

Each of these exciting new categories and updated educational robots integrates advanced technology and innovative teaching methods. Whether you’re a parent asking, "can you buy robots for home education?" or a teacher exploring new platforms on block coding websites, these educational robotics options offer interactive, personalized, and highly effective ways to learn. As technology evolves, robots continue becoming indispensable partners in classrooms, equipping students with vital future-ready skills and inspiring the next generation of learners to innovate and thrive. Whether you're exploring the latest class of robot or trying to figure out how to get a robot for your learning space, platforms like App Robotica and WhalesBot make it easier than ever to create robots tailored to your educational goals.

Benefits of Using Robots in Education

1. Personalized Adaptive Learning:
Coding robotics employ advanced AI algorithms, offering highly personalized learning experiences by analyzing students' performance in real-time. Robots dynamically adapt instruction, ensuring each student receives targeted support—high achievers are appropriately challenged, and struggling learners receive extra guidance.

2. Enhanced Engagement through Immersive Interactions:
Educational robots transform passive lessons into active, multi-sensory experiences. By utilizing visual, auditory, and kinesthetic methods combined with gamification, coding robots capture students' attention, driving sustained interest and engagement.

3. STEM Skills Development and Future-Readiness:
Coding robotics offer tangible links between theoretical STEM concepts and real-world applications. As students actively code robots, they acquire essential computational thinking, engineering, and data analysis skills, preparing them for future technological careers.

4. Inclusive Education and Accessibility:
Robots promote inclusive education by providing specialized support to students with diverse needs, such as physical impairments, learning disabilities, or autism spectrum disorders. Their patient, consistent approach helps all students actively participate in learning.

5. Data-Driven Insights for Educators:
Robots serve as powerful tools for data collection and analysis, providing real-time insights into student progress. Teachers use these insights to refine curricula and personalize instruction, effectively enhancing student outcomes.

6. Global Connectivity and Cultural Competence:
Telepresence robots break geographical boundaries, facilitating globa leducational exchanges and cultural understanding. These interactions help students develop empathy and cross-cultural communication skills, essential intoday's interconnected world.

Real-World Applications of Educational Robots

The use of coding robots in real-world educational environments has shifted from pilot projects to widespread adoption. In the past few years, emerging innovations, global competitions, and new classroom models have driven the popularity of educational robots to new heights. Let’s explore some standout examples from around the world that showcase the practical impact of coding robotics and how to get a robot integrated into learning.

 

1.AI-Powered Learning Labs – United States & UK  

Modern classrooms are transforming into AI-powered labs where students code robots to complete real-world missions. Schools using platforms like App Robotica or brand robot kits such as WhalesBot allow students to build and program a coded robot with computer vision and speech recognition features. These labs demonstrate how to create robots for problem-solving in healthcare, agriculture, and environmental sustainability. 

2.Enjoy AI Global Competition –Worldwide

This highly engaging coding robotics competition attracts thousands of students annually to build and code a robot for dynamic real-world tasks. The competition integrates machine learning, mechanical design, and creative storytelling, encouraging participants to explore advanced class of robot types while collaborating in teams. Winners often build prototypes that later evolve into marketable products. 

3.Remote Learning Empowered by Telepresence – Global

Can you buy robots that let you be in school even if you're home sick? Yes—with solutions like Double 3 or OhmniLabs telepresence robots, students remotely control robots to attend class, participate in discussions, and explore labsfrom anywhere. These innovations have proven invaluable during and after the COVID-19 pandemic.

4.Early Coding in Smart Kindergartens – South Korea, China, UAE  

Smart classrooms equipped with block coding websites and educational robots like WhalesBot makeU series and Botley 2.0 are helping preschoolers learn robot basics. Students use magnetic modules or tablets to program a robot’s path, laying the foundation for computational thinking from an early age. These tools are among the best kids robot choices for introducing STEM in playful ways. 

5.Social Robotics in Inclusive Classrooms – Europe & Middle East  

Humanoid robots like Milo and QTrobot have been implemented to help neurodivergent students develop communication skills and emotional recognition. Educators use coded robots as non-judgmental companions that repeat instructions and give real-time feedback, personalizing the learning journey. These applications show how to build a robot at home and apply it in inclusive educational settings.

6.EdTech Startups Creating DIY Robotics Kits – India, Brazil, USA  

Startups have launched DIY kits that teach learners how to create robot projects using recycled materials, sensors, and code. These kits often include access to app robotica-compatible platforms and support text-based languages like Python.They're helping students understand how to get a robot and assemble it themselves, blending sustainability with innovation.

Each of these cases highlights the tangible benefits of robotics integration—boosting STEM interest, offering personalized learning, and improving student outcomes. Whether you’re using a block coding website to code robots or competing in a robotics tournament, these real-world applications prove that robots are not just classroom tools—they're future-making technologies.