Create Learning

Early Childhood English Electric STEM Building Blocks: Whole-Brain Development Program Implementation Case   I. Client Background and Needs The client is a private kindergarten that strongly emphasizes English learning and creative development. In addition to its existing English curriculum, the school wanted to introduce an enrichment class that combines hands-on building, logical thinking, and character development. The school’s key expectations included helping children use English in real contexts rather than only memorizing vocabulary, while also strengthening focus, manners, collaboration, and self-expression. The activities needed to be engaging and aligned with the school’s thematic units (such as holidays and everyday-life topics). The teaching flow was expected to follow a repeatable methodology that teachers could quickly learn, standardize, and apply across classes.   II. Solution and Key Course Design Elements We selected English electric STEM building blocks as the primary teaching tool and designed a full-semester enrichment program tailored to this kindergarten. The program integrated Peter Drucker’s PDCA management cycle, expanded into an LPDCAS instructional process: Learn, Plan, Do, Check, Adjust, Succeed. We also built a visual, build-based learning sequence that guided children through Introduction & Guidance → Visual Planning → Structural Building → Creative Extension → Project Documentation, bringing “Think・Draw・Build” into action. With this structure, children repeatedly experienced a complete learning loop in every class: Think → Draw → Build → Check → Adjust → Share → Succeed.   III. Instructional Flow Design (Practical Application of LPDCAS) 1. Learn – Topic and English Vocabulary Introduction Teachers introduced the theme (for example: an electric fan, a slide, a Halloween pumpkin, or a helicopter) using pictures and simple storytelling. Key English vocabulary and short sentence patterns were embedded throughout, so children could connect language directly with the context of what they were building and describing.   2. Plan – Visual Planning and Structural Ideas Children drew what they imagined their project would look like before building. Teachers supported planning with guiding prompts such as: “If it needs to spin / move / stand steadily, what structures will it require?” This step helped children translate ideas into visible plans and begin thinking about stability, motion, and function.   3. Do – Block Construction and Motor Assembly Using the electric STEM building kit, children followed step sequences to build the base and main structure. They practiced connecting motors to blocks and learned how power transfers through the build, gradually understanding how mechanical movement can be created through correct connections.   4. Check – Testing and Observation Children activated the motor and observed whether their projects ran smoothly. They learned to describe problems through simple classroom language and group discussion, noticing issues such as wobbling, getting stuck, or not turning as expected.   5. Adjust – Revisions and Improvements Children revised their builds by modifying structures, changing connection methods, or reinforcing support points. Teachers encouraged more than one solution, helping children develop flexible thinking and persistence through trial, feedback, and refinement.   6. Succeed – Completion and Sharing After finishing, children took turns presenting their creations and practiced simple English to name the theme or describe what the project does. Teachers supported photo-taking and documentation so that each child gradually built a project portfolio that made learning visible and shareable.   IV. Attitude and Behavior-Focused Teaching Design In this case, attitude education was intentionally designed to carry equal weight with technical skills and was structured across three layers to support whole-brain development.   1. Attitude (Top Priority) The program emphasized manners such as greeting upon entering the classroom and saying “please” and “thank you” when borrowing or returning blocks. Children practiced respect by appreciating others’ creations and not taking them apart without permission. Self-respect was reinforced through caring for materials and staying engaged during class. Focus training was built into the building process by setting clear time windows and encouraging appropriate attention span for each stage.   2. Personal Behavior Children practiced simulation through role-play and scenario stories, imagining how a project might be used in daily life. Execution skills were reinforced as children followed steps and completed builds hands-on. Classroom routines were standardized so children became familiar with operating procedures and safety rules. Sharing habits were developed by guiding children to explain design highlights to peers after completion.   3. Extended Performance Interaction skills were strengthened through group collaboration, such as building large-scale projects or scene setups together. Service learning was encouraged by helping classmates who needed support to complete tasks as a team. The value of “giving is better than receiving” was practiced by motivating children to share what they learned with family members, bring projects home, and present or explain their work beyond the classroom.   V. Course Themes and Project Examples We developed a progressive set of themes so children could build structural understanding and creative confidence from beginner to advanced levels. For example, an Electric Fan theme supported learning rotational structures and balance. Electric Slides helped children observe height differences and sliding paths. A Holiday Pumpkin-themed build combined seasonal topics with shape design and storytelling. Electric Helicopters and other vehicles provided advanced practice with multi-axis structures and more complex connections. Each theme was supported by real photos and step-by-step visuals. The school also showcased project images in classroom displays and enrollment promotions, allowing parents to clearly see tangible learning outcomes and the child’s growth over time.

Electric STEM Building Blocks: Intergenerational Learning Whole-Brain Development Program The program was delivered through a community hub / home-care service center where regular activities focus on senior care and parent–child engagement. The organization aimed to design activities for older adults that help delay functional decline while maintaining hand–eye coordination and sustained attention, while also providing preschool children with a safe, engaging environment for whole-brain development and early STEAM exposure. In addition, they wanted to create an “intergenerational learning” setting that strengthens cross-generational interaction—so grandparents and grandchildren can build together and share a sense of achievement.   For these reasons, they invited us to use electric STEM building blocks as the core medium to develop a set of learning modules suitable for preschoolers, older adults, and intergenerational participation.   Course Design and Delivery Format 1. Learning Materials and Theme Design We used easy-to-assemble electric STEM building blocks paired with themed visual cards such as flowers, pinwheels, and robots. The course naturally integrates key bilingual vocabulary (e.g., Robot, Flower, Wheel) so participants hear and practice English while building. Projects progress from simple to more advanced: starting with upright and symmetrical structures, then adding wheels, linkages, and other elements to support the development of spatial concepts and basic mechanical understanding.   2. Intergenerational Workshop Flow Using a 60–90 minute workshop as an example, the session begins with a warm-up and guided introduction using picture stories or everyday objects (e.g., an electric fan, a flowerpot, a small robot). Older adults and children are invited to describe colors, shapes, and usage scenarios together. During hands–eyes–brain coordination activities, preschoolers build hands-on under teacher demonstration, practicing fine motor skills such as grasping, inserting/removing, and twisting. Older adults support alignment, stabilization, and structural checks—training hand–eye coordination, attention, and logical thinking. After completing the project, bilingual and drawing extensions are added: children draw their creation on a worksheet and write both the Chinese and English names, while older adults share childhood memories related to the theme through oral storytelling to create meaningful cross-generational dialogue. The workshop ends with sharing and group photos, where each participant takes a photo holding their project and worksheet to reinforce achievement and provide documentation for the organization’s activity records.   Course Features One set of materials designed for all ages The same electric building blocks and lesson plans can be adjusted by difficulty level to support whole-brain development courses for preschool children, active-aging programs for older adults (e.g., functional maintenance / day-care center activation), and intergenerational learning programs for grandparents & grandchildren or volunteers × children.   Hands, eyes, and brain activated together Through assembling, rotating, and testing movement, participants develop spatial awareness and structural stability judgment, build a basic understanding of mechanics and operational direction, and strengthen fine motor control and hand–eye coordination.   Integrated bilingual (Chinese–English) learning Vocabulary is introduced naturally during building and sharing, so language learning happens alongside hands-on practice rather than as separate memorization.   Emotional connection and confidence-building By completing movable, display-worthy projects together, older adults experience the joy of “I can still teach and guide a child,” while children gain the confidence of “I built this together with my grandparents.” This creates tangible benefits for community cohesion.   Program Results and On-Site Feedback From the photos provided, it was clear that older adults stayed focused during the build, actively guided children, and appeared relaxed and highly engaged. Children were able to independently complete projects such as flowers, pinwheels, and robots, happily taking photos with their work and worksheets, and were willing to share their ideas proactively. The overall atmosphere was warm and supportive: older adults and children sat together at the same table, forming natural companionship and mutual assistance rather than being separated into different classes.   Post-session feedback from the community and parents generally agreed that the program achieved multiple outcomes at the same time: older adults stayed physically active while strengthening response speed and memory; children practiced hands-on building, gained confidence in expression, and became less afraid of failure; family relationships grew closer, and the community hub became more vibrant and energized.