Creating a Quiz using AI and Creating step-by-step solution of simple DC/AC circuits with TINA

Creating a Quiz using AI and Creating step-by-step solution of simple DC/AC circuits with TINA


Creating a quiz using the Hartley Oscillator circuit in TINA

This video covers how to create a quiz using the Hartley Oscillator circuit in TINA.

TINA’s AI assists you in generating quizzes for any circuit. Simply provide the circuit’s name if it’s well-known, or add a title and description for circuits that are less familiar. The AI analyzes your request and then provides a detailed summary of your learning progress.
Remember that questions are randomized, so you’ll likely face different questions even when using the same circuit.

Once you’ve answered five questions, you’ll be asked by the TINA AI to either retake or stop the test.

Creating step-by-step solution of simple DC/AC circuits

This video demonstrates step-by-step solutions for simple DC/AC circuits.

You’ll discover how TINA’s AI-powered analysis employs fundamental circuit theory to generate exact analytical results, perfectly aligning with the numerical outputs from TINA’s interactive DC analysis tool.


Our First Example: DC Circuit Analysis

First, we’ll analyze a circuit consisting of four resistors, a voltage source, and a voltmeter. We’ll use both AI and numerical simulation. After adjusting component values as needed, the circuit will be ready. We’ll then instruct the AI to “Calculate the voltage on R2.” The detailed analytical solution will immediately appear in the AI Assistant Window. We’ll compare this with the numerical simulation, confirming the results are identical. As an alternative, we can also have the AI “Calculate the voltage displayed by the Voltmeter.”

Our Second Example: Complex Circuits with Superposition

Next, we’ll analyze a more complex circuit with two sources. We’ll add a current source to our current setup. Our request to the AI will be: “Calculate the VM1 voltage.”

Here, the AI produces the analytical solution using the superposition method, calculating the effect of each source independently. Initially, the current source is considered while the voltage source is short-circuited. Then, the voltage source’s effect is determined, with the IS1 Current Source replaced by an open circuit.

Summing the results from these individual superposition runs yields the final VM1 voltage. We’ll conclude by comparing this result again with the numerical simulation.

TINA’s AI-powered analysis, using fundamental circuit theory, delivers results that precisely match numerical simulations, provided by the interactive DC analysis tool of TINA.

Click here to watch our video.

You can learn more about TINA here: www.tina.com

You can learn more about TINACloud here: www.tinacloud.com

Creating a Quiz using AI and Creating step-by-step solution of simple DC/AC circuits with TINACloud

Creating a Quiz using AI and Creating step-by-step solution of simple DC/AC circuits with TINACloud

Creating a Quiz using AI

This video demonstrates how TINACloud’s AI can assist in creating interactive quizzes for any circuit. For well-known circuits, simply provide the name; for others, a title and description will suffice. The AI analyzes your request and summarizes your learning progress.

Below, we outline the steps for taking a quiz in TINACloud. Please note that questions are randomly generated, so attempting the same circuit may result in different questions.

First, we instruct TINACloud’s AI to load a Hartley oscillator circuit. Once the circuit is loaded, we’ll enter “Create a Quiz” in the AI Assistant window. The quiz will consist of five questions. Upon completion of these questions, an evaluation of the session will be provided.

Creating a quiz with TINACloud’s AI

Creating step-by-step solution of simple DC/AC circuits

This video demonstrates how TINACloud’s AI-powered analysis uses fundamental circuit theory to derive step-by-step exact analytical results that precisely match the numerical results of TINACloud’s interactive DC analysis tool.

First, we’ll build a circuit consisting of four resistors, a voltage source, and a voltmeter. After adjusting component values, we’ll use TINACloud’s AI to calculate the voltage across R2. The detailed analytical solution will appear in the AI Assistant Window, and we’ll compare it to the numerical simulation to show they are identical. We’ll also have the AI calculate the voltage displayed by the voltmeter.

Calculating the voltage on R2 using AI and
Comparing the result with the numerical simulation


Next, we’ll tackle a more complex circuit with two sources by adding a current source to our existing circuit and calculating the VM1 voltage. For this, the AI will use the superposition method, analyzing the effect of each source separately. This involves:

  • Considering the current source while replacing the voltage source with a short circuit.

Processing Generator IS1

Processing Generator IS1
  • Considering the voltage source while replacing the current source with an open circuit.
Processing Generator VS1

Finally, we’ll compare the AI’s analytical result with TINACloud’s numerical simulation by pressing the DC button.

This will again confirm that TINACloud’s AI-powered analysis, using fundamental circuit theory, delivers results that precisely match numerical simulations, provided by the interactive DC analysis tool of TINACloud.

Click here to watch our video.

You can learn more about TINACloud here: www.tinacloud.com

You can learn more about TINA here: www.tina.com

AI Tools in TINA: Introduction, Circuit Design Code Generation and Image recognition

AI Tools in TINA: Introduction, Circuit Design Code Generation and Image recognition

Introduction

AI tools in TINA and TINACloud offer a flexible, user-friendly interface for various engineering tasks, including circuit design, simulation, code generation, and education such as:

  • Providing information on circuits
  • Designing LDO and SMPS power supply circuits
  • Designing active and passive filters
  • Designing analog oscillators and digital clock generators
  • Selecting and redesigning evaluation circuits from different manufacturers
  • Generating Arduino code for rapid prototyping
  • Image recognition with Python or MCU
  • Creating step-by-step solution of simple DC/AC circuits
  • Creating quizzes and riddles and check their solution

Our video summarizes the key general information for using the AI tools in TINA.

Circuit Design, Code Generation and AI-controlled Image Recognition

This video will cover the following:

Redesigning a Switch Mode Power Supply circuit

First, we will redesign a switch-mode power supply circuit by altering its output voltage, using AI to achieve this. The AI Assistant will utilize the Design Tool to automatically calculate and adjust the necessary component values. We will then run a Transient Analysis to verify the result.

Redesigning a Switch Mode Power Supply circuit
Redesigning a Colpitts Oscillator circuit and Providing Information

Next, we will redesign a Colpitts Oscillator circuit. We will instruct the AI to modify the oscillator circuit’s frequency, and subsequently, we’ll verify the waveform by running a Transient Analysis.

Redesigning a Colpitts Oscillator circuit
Generating Arduino code for rapid prototyping with AI in TINA

In our third example, we’ll ask the AI to generate a simple Arduino code for prime numbers up to 100. We will then demonstrate, step-by-step, how to input the AI-generated code into an Arduino Nano board and utilize TINA’s Serial Monitor Tool.”

AI-controlled image recognition in TINA

Finally, we’ll explore AI-controlled image recognition using TINA.

We’ll demonstrate how the circuit in this example can recognize five different flowers (Daisy, Dandelion, Rose, Sunflower, and Tulip) from a JPEG picture. Our first step involves using the AI image recognition by Python.TSC file from TINA Examples’ AI folder. You’ll simply press the TR button on the top toolbar to initiate the image recognition. We’ll also cover how to swap out the input image. To conclude, we’ll download an image directly from the internet and show the seamless image recognition process by pressing the TR button.


AI image recognition with TINA

Click here to watch our video.

You can learn more about TINA here: www.tina.com

You can learn more about TINACloud here: www.tinacloud.com

TINA Design Suite v15 Launched

TINA Design Suite v15 Launched
New features in TINA Design Suite version 15 and TINACloud

TINA 15 is a major upgrade with plenty of new important features. Let’s see the most important ones:

Built in Artificial Intelligence Tools (AI)
  • Built-in AI Assistant tool for intelligent design, control, and information gathering
  • Ability to run AI offline without internet connection or with cloud-based AI services.
  • Designing LDO and SMPS power supply circuits
  • Selecting and redesigning evaluation circuits from various manufacturers 
  • Active and passive filter design
  • Analog and Digital oscillator design
  • Automatic generation of Arduino C code
  • Automatic Quiz and Riddle generation for education and training
  • AI Image Recognition using Python
  • AI Image Recognition using microcontroller code
  • AI driven simulation and robot control
  • AI-powered step-by-step solutions for analyzing simple DC/AC circuits
New Components from:
  •   Infineon Technologies
  •   Texas Instruments
  •   Nisshinbo Micro Devices
  •   Würth Elektronik
  •   STMicroelectronics

 New simulation and analysis features:
  • Component activation/deactivation 
  • Fourier spectrum processing in the Interpreter
  • Diagram processing functions, filtering and smoothing
  • Advanced multisine analysis with pulse response
  • New oscillator and timer circuits
  • and more

Explore our videos showcasing the latest features in TINA v15 and TINACloud:

TINA v15 and TINACloud New Features Video

What is TINA Design Suite v15 and TINACloud?

Visit our websites at: 
www.tina.com 
www.tinacloud.com

Offline simulation of a half adder circuit on Raspberry Pi 4B

Offline simulation of a half adder circuit on Raspberry Pi 4B

In this tutorial video we will demonstrate how to run TINA on Raspberry Pi 4B.

What is Raspberry Pi 4B?

Raspberry Pi is a powerful, compact minicomputer. It is affordable, runs various operating systems and it is perfect for learning or projects.

It can also run Windows applications using the Wine Windows emulator. Including TINA.

Wine originally an acronym for „Wine Is Not an Emulator” is a compatibility layer capable of running Windows applications on several operating systems, such as Linux, macOS.

In this video we will create and test a Half Adder circuit in TINA.

Drawing the Schematic Diagram of the Half Adder circuit

To start with, we will draw the schematic diagram of the half adder. We will use an XOR gate for the Sum and an AND gate for the Carry, High-Low switches and Voltage pins for the outputs.

Testing the circuit

First, we test the circuit interactively using the interactive mode of TINA.
We play with the switches toggling between Low and High levels to produce all the input combinations.

Switches are toggling between low and high levels

Next, we run a Digital Timing Analysis from the Analysis menu.
As a result all signals are displayed separately in a time diagram.

The signals are displayed in a time-diagram

To learn more watch our video!

Visit our website at: 
www.tina.com or
www.tinacloud.com