If this sounds interesting to you and you'd like to request a demo or learn more, please contact sales.
If you’re using EasyEDA and are thinking of making the switch to Flux, here’s how the two platforms differ and why Flux might be the next step in elevating your PCB design experience.
Flux and EasyEDA share several benefits that have become essential to hardware designers, particularly being cloud-based. These shared features have revolutionized how designs are accessed, shared, and managed:
Yet, it’s in their differences that Flux shines, offering unmatched speed, innovation, and future-forward capabilities that transform the PCB design landscape.
Flux Copilot is the industry’s first AI-powered design assistant integrated into a PCB design tool. By understanding schematic designs, component lists, and datasheets, Copilot offers a wealth of capabilities that can reshape how you approach hardware design.
EasyEDA utilizes a traditional ECAD user interface familiar to many designers, with menus, tools, and pop-up windows that follow a conventional layout. This structure works well for many users, particularly those accustomed to classic design tools. However, as projects grow in complexity, navigating through multiple menus and pop-ups can slow designers down, adding extra steps and manual interactions that can disrupt the design flow.
In contrast, Flux is designed with a modern, forward-thinking user experience that streamlines the entire design process. By eliminating the need for excessive toolbars and manual file management, Flux provides a seamless, cloud-based environment where designers can move between schematic, PCB, and simulation views without interruptions. The interface is sleek, responsive, and optimized for fast, intuitive design workflows.
Flux not only provides a browser-based platform where new features and fixes are deployed instantly, but it also offers dedicated, first-class support that ensures your design process is always smooth and productive.
Making the switch to Flux is easy. Create a Flux account, follow the EasyEDA to Flux migration tutorial to get your projects into Flux, or follow this video tutorial:
This blog will explore functional block diagrams, their pivotal role in system design, the symbiotic relationship with ladder logic, structured text, and the broader realm of PLC programming. Why FBDs are so important within complex systems.
This article provides a comprehensive guide on pull-up and pull-down resistors, emphasizing their importance in establishing a known voltage level on microcontroller pins. It explains how to implement these resistors in Arduino circuits, discussing functions like pinMode and digitalRead. It also dives into real-world applications, voltage dividers, and tips for avoiding common mistakes.
Looking for a comprehensive guide to ESP32 pinout? Check out our article that covers everything you need to know about the ESP32's pins, including digital, analog, PWM, and Strapping pins. Perfect for beginners and experts alike, our guide will help you understand the ESP32's pinout and how to use it in your projects.
Learn how smart vias in Flux automates the selection, placement, and configuration of vias during the PCB design process. This automation reduces the manual effort involved in via placement and significantly lowers the risk of misalignment and other common errors associated with traditional via management.
Designing an AI pin would normally take months, but in this project, we did it in hours. In our step-by-step guide, you'll see how Flux can accelerate your design process and bring your AI pin project to life.
This article will explore the key differences between the original Raspberry Pi Pico and the new Raspberry Pi Pico 2, focusing on the most significant enhancements and what remains unchanged.
Describes Flux.ai's process of enabling 'noUncheckedIndexedAccess' in their TypeScript codebase. This setting enhances type safety by enforcing checks for possible 'undefined' values but introduces numerous type errors in a large codebase. To manage this, Flux.ai used heuristics and automation to suppress new errors with '!' and automate fixes using a provided script.
The process of creating symbols is often too rigid and tedious to create schematics that are beautiful. That’s why, today, we’re introducing parametrically programmable schematic symbols in Flux.
