Here's how you can optimize electrical design processes using logical reasoning.

The optimization of electrical design is frequently associated with the objective of cost reduction. However, it is important to acknowledge that the primary aim is to ensure coordinated safety and maximum efficiency, ultimately facilitating the transfer of energy from available sources to the load centres.

Risk-based thinking in electrical design aids in identifying hazards that could affect the user during the system's life cycle. Eliminating hazards at the design level ensures a robust system against most worst-case scenarios.

This is excellent advice from those who will in the future maintain the equipment for which you are doing a design project. In real life it's the other way around. I worked both as a relay protection designer and as a commissioning engineer. From a commissioning point of view, the less paper the better; the best option is when your entire circuit is placed on one A1 or A2 sheet. From a designer's point of view, if you bring a customer a project that contains one or two sheets, he just will not understand why he is paying so much money. Therefore, the main task of the electrical designer is to break the project into as many sheets as possible in order to create volume and weight for his project).

Electrical systems designers frequently adopt the mindset that "more is better." Functionally, each level of the system is necessary to provide respective risk-eliminating protections. Implementing similar protections at every level introduces complexity and leads to inefficiencies.

The iterative design process is one of the many system design and development strategies. Top-down development strategies, like waterfall development, heavily emphasize planning and simulation. I have utilized iterative testing and feedback for all my projects, which has helped me identify errors and improvement requirements.

Designing electrical projects in silos will bring inefficiency and difficulty in execution. Horizontally collaborating across functions eliminates practical challenges in the design itself and makes it errorless.

Each customer has a philosophy for using the equipment. This means that design decisions will be repeated. This means that first of all, to increase efficiency and speed, you need to think about templates, about what can move from one project to another without changes.

When designing an electrical system using multiple design applications, the process can present significant challenges. The iterative progression of a segmented system design across various stages can result in challenges such as data duplication, corruption, and overall complexity. CAD applications with collaborative design features are absolutely cutting-edge. These features significantly help designers optimize timelines efficiently while thoroughly checking for errors.

You should analyze the market; there are often problems that can be solved by a very small number of professionals and, accordingly, for a lot of money. Once you find yourself in such a niche, you won’t need to jostle your elbows in the crowd.

Design of systems in silos occurs when electrical, mechanical and other functions can’t (or won’t) share data effectively. Data is compelled to traverse inefficiently through restricted channels, resulting in one side gaining only selective glimpses of the other side, and vice versa. Collaborative efforts across various functions are imperative to enhance the effectiveness of design, notwithstanding each party's inclination to withhold pertinent information.