from SLS
https://vle.learning.moe.edu.sg/community-gallery/lesson/view/7ef790b7-3cf0-4dc9-83fd-f2de3e20baf0/cover CG for mass sharing
Tip1: To find additional resources, go to Google and search for "MOE SLS ACP." where ACP is the term of feature need details on.
Tip2:
To effectively use the Singapore Learning System (SLS), students can leverage the capabilities of AI tools like ChatGPT. Here’s a simple guide to help you get started:
- Using ChatGPT or the mobile ChatGPT App: Open ChatGPT and ask specific questions about the SLS functionalities. For instance, you can type, 'How do I create a lesson in SLS?' or 'What are the steps to monitor student progress in SLS?'
Take a screenshot of something useful on https://www.learning.moe.edu.sg/
Share one other tip
- Share one other tip you want others to know after exploring https://www.learning.moe.edu.sg/ or https://www.learning.moe.edu.sg/teacher-user-guide/index/
Search and Filter Modules:
- Use the search bar to enter relevant keywords related to your learning objectives. https://vle.learning.moe.edu.sg/search?keyword=&location=COMMUNITY&location=MOE&resource=LESSON&subject=611&level=
- click on the ^ to expand the menu and click on the checkbox
- (click MORE FILTERS and ADD TOPIC FILTER)
- Samples look like this
- Introduction https://vle.learning.moe.edu.sg/search?keyword=&resource=LESSON&subject=611&level=20&syllabus=952&parentTopic=1501949284009
- Quantities & Measurement https://vle.learning.moe.edu.sg/search?keyword=&resource=LESSON&subject=611&level=20&syllabus=952&parentTopic=1501949284010
- Forces and Moments https://vle.learning.moe.edu.sg/search?keyword=&resource=LESSON&subject=611&level=20&syllabus=952&parentTopic=1705970555309
- Motion and Forces https://vle.learning.moe.edu.sg/search?keyword=&resource=LESSON&subject=611&level=20&syllabus=952&parentTopic=1705970618205
- Energy and Fields https://vle.learning.moe.edu.sg/search?keyword=&resource=LESSON&subject=611&level=20&syllabus=952&parentTopic=1705970629426
Review and Select Modules:
- Browse through the filtered list to identify modules that align with your learning objectives.
- Click on a module to view its details, including the associated tags and learning outcomes, to ensure it fits your content map.
Organize Modules:
- Once you've identified suitable modules, you can copy them to your My Drive for further customization.
- Within My Drive, organize the modules into folders or sequences that reflect the order of your learning objectives.
Assign Modules to Students:
- After organizing, assign the modules to your class groups in the desired sequence. Ensure that the modules are set with appropriate permissions to allow student access.
Post an example of a useful URL and explain what it does
Exploring SLS Resources
- What are the most valuable resources you found on the SLS after login homepage, and how do they contribute to your teaching?
https://www.youtube.com/watch?v=091Pa-zu6Jg
MOE Library: SLS as a One-Stop Hub (Part 1 of 3) - 27 Aug:
Overview
The "Guide to Using SLS as a One-Stop Hub (OSH)" is designed for School Leaders (SLs) and Key Personnel (KPs) to establish school-wide processes that enhance the use of the Singapore Student Learning Space (SLS). It aims to help teachers and students leverage technology as a capability multiplier under the EdTech Masterplan 2030.
Purpose of the Guide
- Supports economies of scale, synergy, and technology adoption.
- Helps teachers save time and effort.
- Provides a structured approach to implementing SLS as an OSH.
- Serves as both a staff-wide professional learning resource and a self-study module (3-part series).
Key Features & Benefits of Using SLS as a One-Stop Hub
Economies of Scale
- MOE-wide T&L resources such as Interactive Digital Textbooks (IDTs), e-School Based Assessments (e-SBA), and AI-driven learning tools.
- Facilitates inter-school collaboration through shared resources.
Synergies
- Single platform for T&L materials, scheduling, communications, and e-assessments.
- Seamless Google Integration and whitelisted external tools.
- Reduces login, interoperability, and cognitive load issues.
Capability Multiplier
- AI-powered features such as:
- Adaptive Learning System (ALS) – Personalized recommendations for students.
- Learning Feedback Assistants (LFAs) – Automated marking and feedback.
- Authoring Copilot (ACP) – AI-generated SLS modules.
- AI-powered features such as:
Implementation Across 5 Domains
SLS school-wide processes are grouped into five key domains:
1️⃣ Domain A: Use SLS for Communications, Scheduling, and Non-Digital T&L
- Announce T&L matters to students and parents via Class Group Announcements.
- Set up timetables in Class Group Planners for easy access to assignments.
- Track all digital & non-digital assignments centrally in SLS.
- Digitalize non-digital student work (Print-to-Scan, automarking, FRQ submissions).
- Use SLS for parent communications and relief teaching support.
2️⃣ Domain B: Set Up Department Groups and Consolidate Resources
- Create Staff Groups to facilitate department-wide collaboration.
- Upload and build up T&L resources in SLS based on the Scheme of Work (SOW).
- Improve resources based on student needs, leveraging Interactive Digital Textbooks (IDTs).
- Differentiate and personalize learning resources for FSBB and self-directed learners.
3️⃣ Domain C: Set Up School Student Groups and Tap on External Content Developers
- School-wide student groups to centralize past-year papers, lecture notes, and enrichment resources.
- Inter-school student groups for special programs like AEP, Bicultural Programme, Third Language, and inter-school CCA events.
- Partnering External Content Developers (ECDs) to create school-based enrichment resources.
4️⃣ Domain D: Using SLS for School-Based Assessments & T&L Review
- Author, vet, and deliver assessments in SLS (digital or print-to-scan).
- Track student learning progress by tagging assessment questions to Learning Outcomes (LOs).
- Facilitate department-wide and school-wide T&L reviews using SLS Learning Data.
5️⃣ Domain E: Set Up School-Based PD Groups and Conduct Classroom Observations
- School-based PD groups to organize PD sessions, ICT training, and lesson studies.
- Lesson observations via SLS to allow co-teaching, structured feedback, and portfolio development.
FAQs & Common Concerns
Does using SLS as OSH complete EdTech Masterplan 2030?
- No, it only fulfills Initiative 1. Schools must also implement Initiatives 2 & 3.
What if my school is not ready to implement SLS as OSH?
- Schools have until 2028 and can gradually onboard via PD and teacher certification.
Will using SLS as OSH reduce teacher autonomy?
- No, teachers can still use external tools via SLS while benefiting from centralized administration.
Will it increase digital workload for young learners?
- No, SLS accommodates both digital & non-digital workflows (Print-to-Scan, FRQ submissions).
How does SLS compare to other platforms (Google Classroom, MS Teams)?
- SLS is designed specifically for learning, featuring:
- MOE-aligned content & assessments.
- Adaptive Learning, AI-driven feedback, and Learning Progress tracking.
- Seamless integration of external apps.
- SLS is designed specifically for learning, featuring:
Next Steps
- Schools should explore SLS processes, set up school-wide adoption plans, and participate in professional learning to maximize the benefits of SLS as a One-Stop Hub.
- Part 2 of the Guide will provide hands-on activities to help schools get started with SLS OSH features.
This comprehensive guide ensures that schools maximize SLS's potential for teaching, learning, and administration while aligning with the EdTech Masterplan 2030. 🚀
MOE Library - SLS as a One-Stop Hub (Part 2 of 3) - 27 Aug:
Overview
This lesson guides schools in setting up selected SLS processes from Domains A, B, and E to establish SLS as a One-Stop Hub for teaching and learning (T&L). The lesson is part of a three-part series, with facilitators encouraged to reference:
- Lesson 1: Guide to Using SLS as a One-Stop Hub (Pre-activity)
- Lesson 3: Next Steps in SLS Implementation
Preparation Requirements:
- Google Account login
- Department Scheme of Work (SOW)
- Existing T&L resources for migration
- A pair of earphones
Lesson 2 Structure
Lesson 2 is divided into Sections A to G, focusing on the setup of Domains A, B, and E.
Domain A - Using SLS for T&L Communications, Scheduling & Tracking (45 mins)
- Class Announcements & Notifications: Notify students via email and SLS notifications.
- Timetable & Planner Setup: Pin class groups, set up timetables, and link assignments for structured planning.
- Tracking Assignments & Lessons: Use activity access control, schedule sections, and mark sections as complete.
Domain B - Setting Up Department Groups & Resource Management (75 mins)
- Department Group Setup: Create groups based on subjects and levels for structured collaboration.
- Google Integration: Enable seamless content transfer from Google Drive.
- Resource Upload: Upload and manage T&L resources, worksheets, and differentiated materials.
Domain C - Managing Student Groups & External Partnerships
- Student Groups: Organize school-wide and inter-school student groups.
- External Content Developers (ECDs): Partner with external content providers.
Domain D - School-Based Assessments & T&L Review
- Assessment & Review: Author and vet assessment papers, conduct T&L reviews using learning analytics.
Domain E - School-Based PD & Classroom Observations (20 mins)
- PD Groups: Create school-wide professional development (PD) groups.
- Classroom Observations: Assign observers for lesson feedback and conduct structured T&L evaluations.
Q&A & Feedback (20 mins)
- Staff can seek clarifications on implementation challenges, alternative methods, and UI/UX improvements.
Optional Stretch Activities (110 mins)
- Digitizing Physical Worksheets: Enable print-friendly formats and auto-marking.
- Parent Communication: Create secure access for parent-teacher discussions.
- Student-Centered Learning Enhancements: Differentiate assignments, use Adaptive Learning Systems (ALS), and add conditional access.
- Inter-School Collaboration & Learning Analytics: Create inter-school student groups and leverage SLS data for T&L insights.
Key Takeaways
- SLS serves as a centralized hub for lesson planning, assessments, and resource sharing.
- Effective collaboration across departments is critical for smooth implementation.
- Schools can customize the setup based on unique needs.
- Continuous updates will be made based on school feedback and system enhancements.
Explore SLS as a One-Stop Hub (Part 2 of 3) - 27 Aug https://vle.learning.moe.edu.sg/moe-library/lesson/view/be326f54-8ec7-4cb5-a439-b63026dfd3bc/cover
SLS as a One-Stop Hub (Part 3 of 3) (27 Aug)
Objective
Lesson 3 aims to help schools contextualize the use of the Student Learning Space (SLS) as a One-Stop Hub (OSH), integrating relevant Teaching & Learning (T&L) processes covered in Lessons 1 and 2. Schools can use this lesson for forward-planning or reviewing their SLS implementation, with cluster ETOs available for support.
Usage of the Guide
- For Professional Learning: School Leaders (SLs) and Key Personnel (KPs) use Lesson 3 in school-wide professional development to enhance SLS adoption beyond digital lessons.
- Self-Study: SLs, KPs, and teachers can review the guide independently, with non-applicable activities clearly marked.
- Implementation Planning: Schools develop a broad plan for using SLS as an OSH, which can be discussed in future school meetings.
Lesson Overview
Recap of SLS as a One-Stop Hub (30 mins)
- School EXCO teams review key T&L processes enabled by SLS.
- Facilitators can use Print-to-Scan for interactive quizzes and feedback.
Quiz on Using SLS as an OSH
- Covers SLS-enabled processes, benefits over commercial LMSs, and benefits for schools.
- Assesses understanding of organization structures, resource building, and implementation strategies.
Deciding on Implementation Approach (15 mins)
- School EXCO teams decide between two implementation strategies:
- Overall SLS as OSH Approach: School-wide adoption of SLS across domains.
- Domain-Based Approach: Focus on specific domains before scaling.
- School EXCO teams decide between two implementation strategies:
Implementation Strategies
Overall SLS as OSH Approach (1–1.5 hours)
- Schools plan the phased adoption of SLS processes across domains.
- Schools craft an Action Plan for full implementation.
Domain-Based Approach (1–1.5 hours)
- Schools analyze survey data to determine focus areas.
- Schools prioritize domain-specific adoption before scaling to others.
- Schools complete a survey and discussion-based planning to draft their Action Plan.
Q&A and Feedback (15 mins)
- Facilitators gather feedback on SLS adoption experiences.
- Schools reflect on benefits, challenges, and suggestions for improvement.
Key Takeaways
- Time Savings & Efficiency: SLS reduces admin workload via auto-marking, shared resources, and streamlined communication.
- Exponential Growth in T&L Processes: Adoption aligns with EdTech Masterplan 2030, supporting digital transformation in schools.
- Customizable Implementation: Schools can choose full-scale or gradual SLS integration based on readiness.
Next Steps: Schools finalize their SLS adoption plans, ensuring alignment with their teaching goals.
Explore SLS as a One-Stop Hub (Part 3 of 3) - 27 Aug https://vle.learning.moe.edu.sg/moe-library/lesson/view/31f101b5-f8d4-4b04-8b0e-43cfd3c6da26/cover
Interactive simulations are powerful tools for enhancing the understanding of physics concepts. They allow students to visualize and manipulate variables in real-time, providing a deeper insight into topics such as forces, motion, and energy. For instance, the MOE library offers a collection of EJS simulations that cover various physics topics, including forces, kinematics, and energy and more.
https://www.learning.moe.edu.sg/partners/integration/whitelisted-websites/
https://iwant2study.org/ospsg/index.php/sitemap
Collection of EJS simulations for secondary and junior college Physics. Includes interactive labs for topics like forces, kinematics, and energy.
Students can engage with these simulations to explore the principles of physics in a virtual lab environment.
Additionally, the webEJS editor enables the creation of customized virtual labs, allowing educators to tailor simulations to specific learning outcomes. By integrating these interactive resources into the curriculum, teachers can facilitate a more engaging and effective learning experience for their students. YouTube guide is below.
webEJS editor opens up a new way to create customised virtual labs by clicking on the webEJS icon for example https://sg.iwant2study.org/ospsg/index.php/interactive-resources/physics/01-foundations-of-physics/forces-moments/03-mass-weight-density/663-buoyancycase
Know
- What do you already know about the Interactive simulations?
Want to know
- What do you want to know more about the Interactive simulations?
Learned
- What have you learned about the Interactive simulations?
When using the WebEJS Simulation Editor, there are several key things to understand to effectively create and modify simulations. Here’s a structured list:
1. Interface & Workflow
- Main Interface: The WebEJS editor has a structured interface including a library panel, elements tree, coding panel, and properties panel.
- Simulation Structure: Every WebEJS simulation consists of:
- Variables (state variables, user inputs, outputs)
- Initialization Code (executed at startup)
- Evolution Code (defines behavior over time)
- Fixed Relations (for constraints)
- Actions & Events (user interactions)
- Preview & Export: You can test and export simulations directly from WebEJS.
2. Key Components
a. Variables & Functions
- Declare variables in the "Variables" section.
- Use functions to define behaviors (e.g.,
updatePosition()for movement). - Types of variables:
- State variables (e.g.,
x,y,vx,vy) - User-defined parameters (e.g.,
mass,gravity) - Boolean flags (e.g.,
isPaused)
- State variables (e.g.,
b. Evolution Code
- Used for defining the physics/mathematical model.
- Typically updates positions, velocities, and other properties over time.
- Example:
x = x + vx * dt; y = y + vy * dt;OR use the Oridinary Differential Equation which is easier to understanddx/dt = vxdy/dt = vy
c. Fixed Relations
- Used when certain variables must maintain specific relationships.
- Example: Enforcing a pendulum constraint.
d. Actions & Events
- User interactions: Define how buttons, sliders, or key presses affect the simulation.
- Example:
3. Graphics & UI Components
- Drawing Elements: Use shapes (circles, rectangles) and images.
- Text Labels: Add text annotations.
- Sliders & Buttons: Allow user input.
- Plots & Graphs: Display live data.
4. Debugging & Optimization
- Use console logs (
console.log(variable);) to debug. - Optimize performance by reducing the number of calculations per frame.
- Use
dtcorrectly to ensure frame rate independence.
5. Exporting & Sharing
- Save as _source.json or
.ejssfile for further edits. - Export as HTML to embed on websites or share with students.
- Share your files with weelookang@gmail.com for online hosting on https://sg.iwant2study.org/ospsg/index.php/interactive-resources/physics
🚀
I used to think...
But now, I think...
Tracker Video Analysis is a powerful tool for understanding motion in physics. It allows students to analyse videos of moving objects, providing insights into kinematics and dynamics. By using Tracker, students can measure distances, calculate velocities, and explore the relationships between different physical quantities. This hands-on approach enhances their understanding of concepts such as acceleration, force, and energy. For further learning, students can access tutorials and resources available on the official websites, which guide them through the process of downloading Tracker and using it effectively in their studies.
Tracker Video Analysis: Link to download Tracker and related tutorials:
https://sg.iwant2study.org/ospsg/index.php/component/search/?searchword=tracker&searchphrase=all&Itemid=135 search on OSP@SG
https://physlets.org/tracker/ search in shared Library Singapore of which there is the Kinematics and Dynamic Modelling Pedagogy
Things to Know When Using Tracker for Video Analysis and Modeling
Tracker is a powerful tool for video analysis in physics and other STEM subjects. Here are key things to know when using it:
1. Preparing the Video
- Frame Rate: Ensure the video’s frame rate (FPS) is known and correctly set in Tracker.
- Camera Positioning: Keep the camera steady and perpendicular to the plane of motion to minimize perspective distortion.
- Lighting: Use good contrast between the object and background to improve tracking accuracy.
- Resolution: Higher resolution can improve tracking accuracy, but large files may slow down performance.
2. Calibration & Scaling
- Calibration Stick: Use a known reference length (meter stick, a marked distance) in the video to set the scale.
- Perspective Issues: Ensure the reference scale is in the same plane as the motion to avoid distortion.
3. Setting Up the Coordinate System
- Origin Placement: Place the (0,0) coordinate at a logical starting point (e.g., the initial position of the object).
- Axes Orientation: Align the x-axis along the direction of motion (e.g., horizontal for projectile motion).
- Angle Measurement: Use the protractor tool for angle-dependent analysis (e.g., inclined planes, pendulums).
4. Tracking the Object
- Manual Tracking: Click on the object frame by frame if automatic tracking is inaccurate.
- Auto-Tracking: Works best with high contrast and distinct shape objects.
- Smoothing Data: If tracking is noisy, apply smoothing filters or adjust frame step size.
5. Analyzing Motion & Graphing
- Position-Time Graph: Used to extract displacement and velocity.
- Velocity-Time Graph: Shows acceleration and can be used to find slopes for acceleration.
- Acceleration-Time Graph: Helps analyze forces and Newton’s laws.
- Data Export: Can export data for further analysis in spreadsheets or Python.
6. Modeling Motion
- Fitting Functions: Apply curve fitting (e.g., linear, quadratic, sinusoidal) to match equations to data.
- Comparing Theoretical & Experimental Data: Overlay model predictions with experimental data for validation.
- Applying Forces: Use dynamic modeling to simulate forces (e.g., friction, gravity).
7. Common Use Cases in Physics
- Projectile Motion: Track a ball's motion and verify kinematic equations.
- Collisions & Momentum: Analyze elastic and inelastic collisions using multiple tracks.
- Circular Motion: Track objects in rotational motion and measure centripetal acceleration.
- Simple Harmonic Motion: Analyze pendulums and springs.
- Free Fall & Inclined Planes: Verify acceleration due to gravity.
8. Troubleshooting Tips
- Tracking Errors? Adjust contrast, lighting, or use manual tracking.
- Graph Looks Wrong? Check calibration, frame rate, and coordinate setup.
- Data Noisy? Increase frame averaging or adjust video resolution.
9. Advanced Features
- Vector Analysis: Overlay force, velocity, and acceleration vectors on the video.
- Multi-Object Tracking: Track multiple objects in the same video.
- Import External Data: Combine Tracker data with external sensors (e.g., motion detectors).
By mastering these elements, Tracker becomes a powerful tool for visualizing and analyzing real-world motion. 🚀
Example:
I used to think...
But now, I think...
<optional>
Energy is a fundamental concept in physics that describes the ability to do work. It exists in various stores, including kinetic energy, potential energy, thermal energy, and more. Understanding energy stores and transfers is crucial for grasping how systems interact and change. For instance, when a ball is thrown, its kinetic energy store increases as it moves, while its potential energy store changes depending on its height. The Law of Conservation of Energy states that energy cannot be created or destroyed. This principle is essential in analysing energy systems and understanding real-world applications, such as in engines, electrical circuits, and renewable energy sources.
Energy Stores and Transfers Interactive (LOL):
Link to the LOL energy simulation app for teaching energy concepts:
Use the interactive to create your own LOL scenario, download a copy and upload to SLS as a file submission
- Use the interactive to create your own LOL scenario, download a copy and upload to SLS as a file submission
Best practices for designing assessment items in Physics include aligning questions with learning outcomes and ensuring a variety of question types. For example, multiple-choice questions can assess conceptual understanding, while free-response questions can evaluate students' ability to articulate their reasoning. Furthermore, providing clear rubrics and feedback can guide students in their learning journey, helping them to identify areas for improvement and build confidence in their abilities.
My current recommendation is 5 MCQ and 2 short answer feedback.
https://www.youtube.com/watch?v=bZPPBLNthDM
Assessment for Learning (AfL) is a crucial aspect of the educational process, particularly in Physics. It involves using various assessment methods to gauge student understanding and inform teaching practices. Effective assessments can be formative, providing ongoing feedback to students, or summative, evaluating student learning at the end of an instructional unit. In Physics, assessments can include practical experiments, quizzes, and project work that encourage students to apply theoretical concepts in real-world scenarios.
Next, we will explore how AI can assist us to create a Quiz.
Videos explaining how to design assessments items using SLS using ACP.
Physics 8867 Paper 1 Best Practice for Using AI Tools to Copy Physics Papers into SLS https://vle.learning.moe.edu.sg/community-gallery/lesson/view/17b942e4-bcc3-4e09-9afd-9b40ce2dc16b/section/84503844/cover using this method
https://www.youtube.com/watch?v=i-0knJCB7FA&list=PLYIwRBA8ZhdMZCApewGkc_E7XWAvnhZRr&index=3
March 2925 SLS ACP with support image and PDF https://www.youtube.com/watch?v=YeAyrL4syZg&list=PLYIwRBA8ZhdMZCApewGkc_E7XWAvnhZRr&index=1
Incorporating technology into Physics assessments can enhance student engagement and understanding. For instance, using virtual labs allows students to conduct experiments in a simulated environment, fostering active learning. These tools can help students visualize complex concepts such as forces, motion, and energy transformations. Additionally, integrating data analytics through platforms like SLS can provide insights into student performance, enabling educators to tailor their teaching strategies effectively.
Upload Media as virtual lab for active learning pedagogy?
Download and upload as media https://www.learning.moe.edu.sg/teacher-user-guide/author/html5-content-development/
Embed Whitelisted Websites as Virtual simulations https://www.learning.moe.edu.sg/partners/integration/whitelisted-websites/ from https://iwant2study.org/lookangejss/02_newtonianmechanics_4massweightdensity/ejss_model_buoyancycase/index.html
Integrated App as Virtual lab with Data analytics plays a significant role in physics education, particularly in understanding experimental results. By analysing data collected from experiments, students can identify patterns, make predictions, and draw conclusions. Tools such as integrated apps can facilitate this process, allowing students to visualise data and enhance their analytical skills. Incorporating data analytics into physics lessons not only aids in comprehension but also prepares students for future scientific endeavours.
Creating simulations using AI technology as student performance or teacher's virtual lab can empower students to design their own experiments and explore physics concepts creatively. By using platforms that allow for the development of custom simulations, students can test hypotheses, manipulate variables, and observe the effects in real-time. This hands-on approach fosters a deeper understanding of physics principles and encourages critical thinking and problem-solving skills.
Make your own sim using AI? https://vle.learning.moe.edu.sg/community-gallery/lesson/view/50c7e7dd-5b34-4ea9-8c2f-e21f115480ba/cover
Recommended Models:
- OpenAI GPT-01: PAID https://chatgpt.com/ select GPT o1
- OpenAI GPT-03mini: PAID https://chatgpt.com/ select GPT o3 mini high
- Google AIStudio FREE Gemini 2.0 Thinking Model
- DeepSeek- R1: FREE https://chat.deepseek.com/ select R1 for reasoning model
- Anthropic Claude: FREE but limited tries https://claude.ai/
- Qwen2.5-Max FREE https://chat.qwenlm.ai/
- https://weelookang.blogspot.com/2025/01/crafting-polished-interactive.html use SLS picture as knowledge base
- https://weelookang.blogspot.com/2025/02/a-theoretical-and-computational.html use example publicly HTML as knowledge base
- https://weelookang.blogspot.com/2025/02/revitalizing-moe-library-interactives.html use old MOE interactive as knowledge base
- https://weelookang.blogspot.com/2025/01/exploring-electric-fields-like-never.html use example on publicly HTML as knowledge base
- https://weelookang.blogspot.com/2025/01/bringing-ejs-java-based-magnetic-bar.html use EJS source code *.xml as knowledge base
- https://weelookang.blogspot.com/2025/01/exploring-magnetic-fields-with-bar.html use example publicly HTML as knowledge base
- https://weelookang.blogspot.com/2025/02/math-battle-add-or-multiply-fun.html use other AI's partial working HTML as knowledge base
- Allow the user to adjust the current with a slider (range: -5 to 5).
- Dynamically display circular magnetic field lines that grow/shrink based on the current.
- Include directional arrows on the field lines, following the Right-Hand Grip Rule.
- Provide buttons for play/pause and reset functionality.
- Be responsive and visually appealing with appropriate styling. Additionally:
1. Write clean, modular code with comments to explain each section.
2. Ensure the design is mobile-friendly and accessible.
3. Add a section below the simulation with an explanation of the Right-Hand Grip Rule.
4. Document the process step-by-step for beginners.
Generate all required HTML, CSS, and JavaScript in a single file. Provide suggestions for improving user experience and interactivity. Follow best practices for modern web development.
Insight gained?
Step 5: Interactive Thinking Tool 2 as Present and Discuss
- Share your simulation with the class in a short presentation.
- Explain:
- What physics concept it simulates.
- How students/teachers can use it.
- Any challenges you faced in creating it.
Virtual Lab (Interactive Response HTML) as Student performance autoScore ,a simple Score sent back to SLS? https://www.learning.moe.edu.sg/teacher-user-guide/author/html5-content-development/
https://www.youtube.com/watch?v=3x9rehK5kdU
You've reached the end of this quiz
Title: Guest Lecture Leveraging SLS for Assessment in Physics
Date: 17 Feb 1000-1200
Venue: MOEHQ BV P2-02
NIE block 7 -B1-32B
Suggested URLs and Ideas for Physics Teacher Trainees in NIE
1. Official Resources and Guidelines
SLS Homepage: https://www.learning.moe.edu.sg/
Overview of SLS functionalities, login guides, and tutorials. To find additional resources, go to Google and search for "MOE SLS ACP." where ACP is the term of feature need details on.
SLS Teacher Guide: https://www.learning.moe.edu.sg/teacher-user-guide/index/ Step-by-step instructions for creating lessons, assessments, and monitoring student progress.
SLS modules Community Gallery and MOE library https://vle.learning.moe.edu.sg/search?keyword=&location=COMMUNITY&location=MOE&resource=LESSON&subject=611&level= and it shows all relevant Physics modules that you can copy to your "My Drive" for editing and assigning out to your classes as Assignments.
ask topics arrangement (click MORE FILTERS and ADD TOPIC FILTER)
click on the ^ to expand the menu and click on the checkbox Quantities & Measurement https://vle.learning.moe.edu.sg/search?keyword=&resource=LESSON&subject=611&level=20&syllabus=952&parentTopic=1501949284010
Forces and Moments https://vle.learning.moe.edu.sg/search?keyword=&resource=LESSON&subject=611&level=20&syllabus=952&parentTopic=1705970555309
Motion and Forces https://vle.learning.moe.edu.sg/search?keyword=&resource=LESSON&subject=611&level=20&syllabus=952&parentTopic=1705970618205
Energy and Fields https://vle.learning.moe.edu.sg/search?keyword=&resource=LESSON&subject=611&level=20&syllabus=952&parentTopic=1705970629426
you can use this method to build the full list for your students which is very useful for just in time teaching, copy to "My Drive" , edit it to suit your preference and assign out as Assignment in your class.
ask for author https://vle.learning.moe.edu.sg/search?keyword=&location=COMMUNITY&location=MOE&resource=LESSON&subject=611&level=&authors=37966
https://vle.learning.moe.edu.sg/search?keyword=osh&location=MOE&resource=LESSON&subject=&level=&sortBy=modifiedDate&sortByOrder=descending
explore SLS as a One-Stop Hub (Part 1 of 3) - 27 Aug https://vle.learning.moe.edu.sg/moe-library/lesson/view/724b804e-4a6c-4e8a-96f7-01b39d3589d3/coverexplore SLS as a One-Stop Hub (Part 2 of 3) - 27 Aug https://vle.learning.moe.edu.sg/moe-library/lesson/view/be326f54-8ec7-4cb5-a439-b63026dfd3bc/cover
explore SLS as a One-Stop Hub (Part 3 of 3) - 27 Aug https://vle.learning.moe.edu.sg/moe-library/lesson/view/31f101b5-f8d4-4b04-8b0e-43cfd3c6da26/cover
2. Physics-Specific Interactive Tools as Productive Struggle - Active Learning Pedagogy
Interactive Simulations for Physics:
Explore simulations uploaded to the MOE library and use Google to search say "osp@sg momentum sim"https://iwant2study.org/ospsg/index.php/sitemap
Collection of EJS simulations for secondary and junior college Physics. Includes interactive labs for topics like forces, kinematics, and energy.webEJS editor opens up a new way to create customised virtual labs by clicking on the webEJS icon for example https://sg.iwant2study.org/ospsg/index.php/interactive-resources/physics/01-foundations-of-physics/forces-moments/03-mass-weight-density/663-buoyancycase
Energy Stores and Transfers Interactive (LOL):
Link to the LOL energy simulation app for teaching energy concepts:Tracker Video Analysis: Link to download Tracker and related tutorials:
https://sg.iwant2study.org/ospsg/index.php/component/search/?searchword=tracker&searchphrase=all&Itemid=135 search on OSP@SG
https://physlets.org/tracker/ search in shared Library Singapore of which there is the Kinematics and Dynamic Modelling Pedagogy
3. SLS for Assessment
Using SLS to Assess Student Understanding:
Videos explaining how to design assessments items using SLS using ACP.
Physics 8867 Paper 1 Best Practice for Using AI Tools to Copy Physics Papers into SLS https://vle.learning.moe.edu.sg/community-gallery/lesson/view/17b942e4-bcc3-4e09-9afd-9b40ce2dc16b/section/84503844/cover using this method https://www.youtube.com/watch?v=i-0knJCB7FA&list=PLYIwRBA8ZhdMZCApewGkc_E7XWAvnhZRr&index=3
March 2925 SLS ACP with support image and PDF https://www.youtube.com/watch?v=YeAyrL4syZg&list=PLYIwRBA8ZhdMZCApewGkc_E7XWAvnhZRr&index=1
Formative and Summative Assessment Examples:
Need virtual lab for active learning pedagogy?
Download and upload as media https://www.learning.moe.edu.sg/teacher-user-guide/author/html5-content-development/
Whitelisted Websites using Embed simulations https://www.learning.moe.edu.sg/partners/integration/whitelisted-websites/ from https://iwant2study.org/lookangejss/02_newtonianmechanics_4massweightdensity/ejss_model_buoyancycase/index.html
Need data analytics? Try SLS integrated EJS App https://www.learning.moe.edu.sg/partners/integration/integrated-apps/ and https://www.learning.moe.edu.sg/teacher-user-guide/discover/embed-integrated-apps/
Need just a simple Score sent back to SLS? https://www.learning.moe.edu.sg/teacher-user-guide/author/html5-content-development/
Make your own sim using AI? https://vle.learning.moe.edu.sg/community-gallery/lesson/view/50c7e7dd-5b34-4ea9-8c2f-e21f115480ba/cover
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