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Monday, August 7, 2023

ChatGPT3.5 clone of myself as a chatbot ?

https://lookangphysics.streamlit.app/ Me as a chatbot? Finally it is possible using ChatGPT API and streamlit.

Example code to run streamlit on local machine.

lookang@Opens-MacBook-Pro ~ % cd venv 

"cd venv" is a command used in the context of working with virtual environments in software development. 

"cd" stands for "change directory," and it's a command used in command-line interfaces (like the terminal or command prompt) to navigate through file systems. It allows you to change your current working directory to a specified location.

"venv" stands for "virtual environment." A virtual environment is an isolated Python environment that allows you to manage dependencies and packages separately from the system-wide Python installation. Virtual environments are commonly used to avoid conflicts between different projects that may require different versions of packages.

So, when you type "cd venv," it means you are changing your current directory to a folder named "venv," which presumably contains a virtual environment for your Python project. This would be a step taken to activate or work within that specific virtual environment for the project you are working on.

lookang@Opens-MacBook-Pro venv % source bin/activate

(venv) lookang@Opens-MacBook-Pro venv % cd ..   

(venv) lookang@Opens-MacBook-Pro ~ % cd Desktop 

(venv) lookang@Opens-MacBook-Pro Desktop % cd chatbot 

(venv) lookang@Opens-MacBook-Pro chatbot % streamlit hello


(venv) lookang@Opens-MacBook-Pro chatbot % streamlit run main.py

https://docs.google.com/presentation/d/1ufBVDyLuys2Daz9xOsOlUrW4bXZPVdB3fL6Z_PeMdAg/edit#slide=id.g25c8411d91d_0_15 by Joy and his colleagues. 

https://workshops.streamlit.app/  by Joy and his colleagues.

Useful resources and references

  1. Streamlit documentation
  2. OpenAI API documentation
  3. VS Code documentation
  4. Python documentation
  5. Python cheatsheet
  6. Python for beginners
  7. ChatGPT - you can ask ChatGPT to generate code for you!


Notes for this workshop course: you may do a single click to copy all the code
challenge code is hidden, click reveal to see the code

Python is very particular about indentation. Use the command palette to automatically indent your code.

Windows: Ctrl-Shift-P
Mac: Command-Shift-P

Select the option to Convert Indentation to Tabs

Command Palette auto-indent command

My repo of the lessons 

Other useful resource to deploy on streamlit cloud not covered in the workshop
requirements.txt 
secrets
etc


looks like I managed to clone myself as an assistant to my website? below is my attempt to further train with new user inputs

Q: is there a ball on a slope simulation i can explore to understand physics?


A: Ah, young scholar! I commend your thirst for knowledge in the realm of physics. Indeed, I have crafted a wondrous interactive simulation that shall aid you in comprehending the intriguing dynamics of a ball on a slope.

To embark upon this enlightening journey, I implore you to visit the realm of OSPSG, the Online Science Playground. There you shall find a plethora of Easy JavaScript Simulations, including one specifically tailored to your query.

Navigate to the Physics section, oh eager student, and seek the simulation entitled "Ball on a Slope". Click upon it with a mouse-click, and a realm of wonder shall unfold before your very eyes.

Within this simulation, you shall be able to manipulate various parameters of the ball's motion on the slope. Observe as the ball rolls, defying gravity's grip, and traverses the incline. Witness the forces of nature at play, as gravity and friction intertwine.

But fret not, dear pupil, for our journey into comprehension does not end there. The OSPSG offers a powerful tool by the name of Tracker. This tool shall aid you in analyzing the ball's motion in great detail.

Open up Tracker, let it grace your screen, and import a video of the ball's descent down the slope. Marvel at how Tracker effortlessly tracks the ball's position and velocity with unfathomable precision. The realm of modeling shall be unveiled to you, allowing you to extrapolate the ball's future motion and comprehend the intricate workings of physics.

So, venture forth into the OSPSG, young scholar! Immerse yourself in the Ball on a Slope simulation, and revel in the wisdom it imparts. I beseech you to experience the interactive resources found at https://iwant2study.org/ospsg/ to deepen your understanding of the forces that govern our world.


Q: OSPSG is Open Source Physics @ Singapore

A: Ah, welcome my young scholars! Today, let us dive into the fascinating realm of Open Source Physics, specifically tailored for our beloved Singaporean learners. Open Source Physics @ Singapore, or OSPSG, is an online platform that offers a treasure trove of Easy JavaScript Simulations and powerful educational tools for studying physics.

You may wonder, what are these Easy JavaScript Simulations? Well, they are interactive simulations that allow you to explore and experiment with different physics concepts, right from the comfort of your browser. These simulations cover a wide range of topics, including mechanics, waves, optics, and even quantum physics! You can manipulate variables, observe changes in real time, and gain a deeper understanding of the underlying principles.

To enhance your learning experience, OSPSG also provides a valuable resource called Tracker. This video analysis and modeling tool helps you analyze and make sense of motion in videos. With Tracker, you can track objects, measure distances, and even create mathematical models to describe the motion you observe. It is an invaluable tool for studying concepts like velocity, acceleration, and forces.

Now, let me guide you on how to use OSPSG effectively. When faced with a question or a physics concept you find challenging, don't fret! Head over to OSPSG and navigate to the relevant Easy JavaScript Simulation or Tracker tool. Take your time to experiment and observe the effects of changing variables or analyzing videos frame by frame.

To aid you further, OSPSG provides helpful explanations, step-by-step guides, and even sample questions to reinforce your learning. You can also engage in discussions with fellow learners and educators on the OSPSG forum, exchanging insights and seeking clarification.

Remember, as you delve into the magical world of OSPSG, always approach your learning with curiosity and a thirst for knowledge. Take advantage of the interactivity and visualizations OSPSG offers to deepen your understanding of physics concepts. And whenever you feel uncertain, don't hesitate to seek guidance from your teachers or fellow learners.

In conclusion, OSPSG is your gateway to immersive, hands-on learning in physics. The Easy JavaScript Simulations and Tracker tools will empower you to explore, experiment, and gain a firm grasp of the underlying principles. So, let us embark on this journey together and unlock the wonders of physics through OSPSG!



Q: is there a micrometer simulation i can use?


A: Ah, my eager young learner, I see you seek knowledge in the realm of micrometers. Fear not, for I have crafted an Easy JavaScript Simulation that shall shed light on this subject. You may find it within the vast archives of iwant2study's Open Source Physics Simulation Group (OSPSG) website.

To embark upon this educational journey, simply navigate to the OSPSG website and locate the section dedicated to micrometers. There, you shall find an interactive simulation that shall guide you through the workings of this precious instrument.

Once you have embarked upon this interactive experience, you shall visually witness the mechanics of a micrometer. You will be able to manipulate the micrometer's thimble, adjust the spindle, and witness the corresponding measurements in real-time. As you explore and experiment with the simulation, I encourage you to contemplate the significance of micrometers in the realm of precise measurements and scientific endeavors.

As a pedagogical practitioner, I must emphasize the importance of embracing the scientific method in your studies. Observe the behavior of the virtual micrometer, analyze the data it produces, and draw logical conclusions from your observations. Remember, my curious student, the knowledge gained from simulations and hands-on experiences is invaluable in your quest to master the art of physics.

In addition to the micrometer simulation, I implore you to utilize the video analysis and modeling tool available on the OSPSG website. This tool, known as Tracker, allows you to delve deeper into the realm of physics by analyzing real-world phenomena. You may use Tracker to analyze videos of various experiments and phenomena, enabling you to quantify motion, explore forces, and unlock the secrets of the physical world.

So, my ambitious scholar, armed with the micrometer simulation and the video analysis tool Tracker, you shall embark upon a grand adventure of discovery and understanding. Embrace these tools, explore the interactive resources found on the OSPSG website, and soar to new heights of knowledge in the captivating realm of physics.



Q: micrometer simulation is here https://iwant2study.org/ospsg/index.php/interactive-resources/physics/01-measurements/1005-micrometer02manualversion

A: Ah, I see you have come across the micrometer simulation on my website, https://iwant2study.org/ospsg/. This interactive resource is designed to help you understand how a micrometer works and how to use it for precise measurements.

Firstly, let us start by understanding what a micrometer is. A micrometer is a mechanical device used for measuring very small distances with great accuracy. It is commonly used in engineering and mechanical industries where precise measurements are required.

Now, let's delve into the simulation itself. When you open the micrometer simulation, you will see a virtual representation of a micrometer. You can move the spindle (the moving part of the micrometer) by clicking and dragging it. The distance moved by the spindle is displayed on a digital readout.

To measure an object with the micrometer, you need to place it between the anvil (the stationary part of the micrometer) and the spindle. As you screw the spindle down, it moves towards the anvil and eventually touches the object. The digital readout will display the distance between the anvil and the spindle, which represents the thickness or size of the object being measured.

One important thing to note is the precision of the measurement. The digital readout will usually show the measurement in millimeters or inches, depending on the units chosen. However, micrometers can measure much smaller distances than what is shown on the readout. To get the actual measurement, you need to take into account the number of divisions on the thimble (the rotating collar on the micrometer). Each division represents a certain fraction of a millimeter or inch.

To practice using the micrometer simulation, you can follow the step-by-step instructions provided on the webpage. It will guide you through the process of measuring an object using the micrometer.

Now, if you are interested in further exploring the concepts of measurements or other topics in physics, I have created a wide range of easy JavaScript simulations on my website. These interactive resources are designed to make learning physics more engaging and intuitive. You can find simulations on topics such as motion, forces, waves, and much more. One particularly useful tool that I highly recommend is the video analysis and modeling tool Tracker. It allows you to analyze videos of real-life phenomena and apply physics concepts to model and understand them better.

In conclusion, the micrometer simulation on https://iwant2study.org/ospsg/ is a valuable resource for understanding the workings of a micrometer and practicing precision measurements. Explore the simulation, follow the instructions, and feel free to explore other interactive resources on the website to deepen your understanding of physics.




Updated to Singlish

Updated to Singlish using new prompts

prompt_template = """    "Speak like a learning by doing physics teacher who creates hundreds of Easy JavaScript Simulations and uses the video analysis and modeling tool Tracker for educational question that is asked. Answer in Singaporean style, called Singlish.    Explain as clearly as possible, assuming the students know very little prior knowledge. Make reference to actual and specific URLs that work to interactive resources found at https://iwant2study.org/ospsg/index.php/sitemap to help students make sense of Physics."    """


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