This digital watch was first designed by David Harel, the founder of the Statecharts Theory. This example shows how to integrate it on an Arduino.
This digital watch was first designed by David Harel, the founder of the Statecharts Theory. This example shows how to integrate it on an Arduino.
This example demonstrates the two different execution semantics of composite states: child-first and parent-first execution.
This digital watch was first designed by David Harel, the founder of the Statecharts Theory. He described it in "On Visual Formalisms", published in "Communications of the ACM" in May 1988. A digital watch by that time had a display to show just a few digits. Using four control buttons, the user was able to toggle between displaying the time, displaying the date, using a stopwatch, maintaining an alarm, and setting time, date, and alarm.
This example demonstrates the two different execution semantics of statecharts: event-driven and cycle-based execution.
This example demonstrates the usage of hierarchies in statecharts. It explains the concepts of composite states and subdiagrams.
This example demonstrates the usage of history states and explains the difference between a shallow and a deep history.
This example demonstrates the usage of orthogonal states as well as of forking and joining synchronization nodes.
This is a series of examples demonstrating multiple features of YAKINDU SCT. With each iteration, more features are shown. This example is a good starting point to dive into SCT headfirst.
This example demonstrates how to generate C code from a statechart.
This example demonstrates how to generate C++ code from a statechart.
This example demonstrates how to generate Java code from a statechart.
Expandable HMI example for Arduino using a 16x2 LCD Keypad Shield
Wondering how to execute your state machine on the Arduino platform? This example demonstrates the necessary steps, like installing the Arduino plugin, building the hardware, turning your statechart into code and uploading it to the Arduino. It does so by means of the standard traffic light example.
Blinking a LED on STM32Discovery Board by using YAKINDU Statechart Tools and RKH Generator
Blinking a LED on Linux by using YAKINDU Statechart Tools and RKH Generator
A JavaFX based music player controlled by a statemachine with deep Java integration
YAKINDU provides a Qt specific C++ code generator for statecharts. This example project shows how easy YAKINDU Qt/C++ state machines can be integrated into Qt applications.
This is a example of how to use the C/C++ Domain together with the Zowi by BQ. C++ Timer are integrated
This is a comprehensive example for using multiple state machines using the deep C integration of YAKINDU statecharts. The example is implemented as a simple command line tool.
This is a simple example of how to use the C/C++ Domain together with an Arduino. C++ Timer are integrated
Demonstrates how to use SCTUnit by using the Traffic Light model.
Explains how to develop your own code generator. A custom code generator is one that is not shipped with YAKINDU Statechart Tools, but developed by the user himself for his own specific purposes. This example takes a simple stopwatch state machine and generates Statechart XML (SCXML) from it.
This is a comprehensive example for the deep integration of YAKINDU statecharts with manually written C code. The example is implemented as a simple command line tool.
Integrate the headless statechart generator into your Apache Ant build process.
Use the powerful build infrastructure of Gradle to invoke the headless statechart generator to improve your build workflow.
While many people fear Makefiles, they are not as complicated as everyone believes. Integrating the command line statechart builder into your Make-driven build is as easy as it can get.
Probably the majority of all Java projects in the world is built by Apache Maven, and with the new headless code generator of the YAKINDU statechart tools, Maven now builds your statecharts as well.
This example shows how to use a statechart and some C code to control a RGB LED attached to the Raspberry Pi.
This is a comprehensive example for the deep C++ integration of YAKINDU statecharts.
Blinking LED on MSP430G2553 by using TIs Code Composer Studio and YAKINDU Statechart Tools as a plugin
A small example of a robot that drives around, detects obstacles and avoids them. Demonstrates arrays and pointers with Deep C Integration.
A very basic state machine example for the Arduino platform that switches an LED on and off. It demonstrates how to get started with YAKINDU Statechart Tools and the Arduino platform and contains a timer service for the Arduino. You need to have an Arduino plugin, as described in the "Traffic Light Ported to Arduino" example.
This video tutorial is presented by Prof. Tom Mens (Software Engineering Lab, University of Mons). It provides a hands-on demonstration, on the basis of a simulation of an elevator statechart, on how to write and run unit tests for statecharts with Yakindu Statechart Tools.
Blinking LED on MSP430G2553 by using TIs Code Composer Studio and Yakindu Statechart Tools as a plugin
Demonstrates how to to generate Swift source code from a statechart.
Wondering how to execute your state machine on the Arduino platform? This example demonstrates the necessary steps, like installing the Arduino plugin, building the hardware, turning your statechart into code and uploading it to the Arduino. It does so by means of the standard traffic light example.
Demonstrates how to to generate Java source code from a statechart. The procedure is actually explained in the YAKINDU Statechart Tools documentation, section "Java code generator".
Demonstrates how to generate Python source code from a statechart.
Demonstrates how to generate Python source code from a statechart.
This traffic light is inspired by the Qt examples. It provides a simple traffic light that consists of the main states red, yellow and green. It demonstrates how to connect to the active properties of a state in a dynamically loaded statemachine within YAKINDU Statechart Tools and the Qt environment.
This example demonstrates how a state machine can be generated as typescript artifact and how to integrate this into an angular 4 application.