¿Cómo colabora y se comunica con otros diseñadores e ingenieros de circuitos electrónicos?

I think there is a clear lack of knowledge/ context bases tools/ solutions to share within your teams for reviews and even for cross-collaboration between firmware and mechanical teams

Eu colaboro e me comunico com outros projetistas e engenheiros de circuitos eletrônicos através de reuniões, e-mails, plataformas de gerenciamento de projetos e mensagens instantâneas. Também utilizamos documentos técnicos e relatórios para trocar informações detalhadas sobre os projetos.

Key platforms:CircuitLab,EasyEDA,Tinkercad.Benefits:Create,edit,simulate online; access component libraries; real-time collaboration. Software tools: KiCad, Fritzing, Eagle for offline design. Sharing methods:Links,emails,cloud storage, USB drives.Use standard formats: SPICE,IEEE symbols, ANSI codes for clarity. Tip:Document design process,not just final schematic.Include:Component choices,design decisions,challenges faced. This aids troubleshooting,future improvements. Consider version control for complex projects. Regularly backup designs. When sharing, specify software/version used to ensure compatibility. Encourage feedback to improve designs iteratively. Remember: Clear documentation fosters better collaboration and knowledge transfer.

Sharing designs across multiple teams to have close collaboration between cross functional teams like mechanical, electrical, thermal, & SI/PI analysis team is great feature which most of the EDA tools provide to users. This bridges the communication gap between the teams. Utilize cloud-based design tools (e.g., Altium 365, Autodesk Fusion 360) that allow multiple users to access, edit, & comment on designs in real time. Ensure these platforms have built-in version control to track changes & revert to previous versions if needed at any given point of time. Create a centralized repository (e.g., SVN, Teamcenter) for design files, schematics, & documentation, making it easy for team members to access & collaborate on designs.

Most of the companies that are using eCAD tools which are licensed have in built cloud for sharing, reviewing and suggesting changes in the design files. If open source eCAD are used then, create common tracking sheets in MS Teams , Google sheets. Many data management tools are also available specifically for peer reviews and file storage such as integrity by PTC windchill , Github, SAP.

Leverage simulation tools (e.g., SPICE, LTspice) to validate circuit behavior under various conditions before physical prototyping. Run different scenarios in simulations to analyze how changes in components or design affect performance. Create physical prototypes of your circuits on a breadboard or PCB to test real-world performance. Test circuits under extreme conditions (e.g., voltage, temperature) to ensure robustness and reliability Assess critical parameters such as current draw, voltage levels, signal integrity & timing characteristics using oscilloscopes Use logic analyzers & oscilloscopes to trace signals through the circuit & identify any points of failure. Keep detailed records of test methodologies, conditions, & results

The current online solutions like LTspice and PartSim tend not to be useful, as most of the current designers rely on a physical iteration that end up costing time and money.

Simulation Tools: Use LTspice, Multisim, and PartSim for simulating circuits to test voltage, current, resistance, and more before physical prototyping. Hands-On Testing: Utilize breadboards, multimeters, oscilloscopes, and logic analyzers to prototype and evaluate circuit performance in various conditions. Collaborate: Share findings with peers to improve designs and troubleshoot issues together. Follow Standards: Adhere to IEEE 802.15.4 and ISO 9001 to ensure safety, accuracy, and ethical practices in testing. Stay Updated: Keep learning about new tools and techniques to enhance circuit design and testing strategies.

Most of the solo designers rely on advice from people on StackExchange or Reddit for reviewing their boards whereas in larger companies, its mostly done through senior engineers through review cycles in both of the cases a human is reviewing it which might miss out on small details.

Join Online Communities: Use platforms like Reddit, StackExchange, and Hackaday to connect with designers and engineers, ask questions, share projects, and engage in challenges. Take Online Courses: Enroll in courses on Coursera, edX, and Udemy to learn both fundamental and advanced topics from industry experts. Attend Online Events: Participate in webinars, podcasts, and conferences to stay updated on trends, hear from field leaders, and network with peers. Collaborate Actively: Engage in peer reviews and discussions to enhance your skills, gain diverse perspectives, and foster creativity. Stay Curious: Continuously seek new knowledge and remain open to different approaches to drive innovation and growth in your designs.

What I think is with the rise of Ai and the capabilities that it adds to this decade old industry, we should soon see advance tools that help in optimizing, reviewing and eventually even generating better circuits.

Real-World Examples: Share stories where innovative circuit designs solved specific problems or led to breakthroughs, showing their practical impact. Cross-Disciplinary Collaboration: Highlight the benefits of working with experts from fields like software or mechanical engineering to enhance circuit designs. New Technologies: Discuss how emerging technologies like AI and machine learning can automate and improve circuit design processes. Mentorship and Networking: Emphasize the value of mentorship and networking within the electronics community for gaining insights and opportunities. Iterative Design: Explain how iterative design and regular feedback are crucial for refining circuit designs and addressing potential issues early.