IN Brief:
- WSCAD’s State of Electrical Engineering 2026 survey covers 1,267 electrical CAD users across 40 countries.
- Respondents identified workforce shortages, increasing system complexity, compliance pressure, shorter timelines, and interdisciplinary integration as major challenges.
- Nearly 72% cited component searches and documentation maintenance as problematic, time-consuming tasks.
WSCAD has released findings from its State of Electrical Engineering 2026 survey, highlighting pressure on electrical design teams as project complexity, workforce shortages, and documentation demands increase.
The study surveyed 1,267 electrical CAD users across 40 countries. It found that many engineering organisations are operating at or near capacity while facing tighter delivery schedules, rising customisation requirements, growing compliance demands, and a shortage of experienced electrical engineering and design talent.
Approximately 54% of respondents said they spend the largest share of their time on schematics. Nearly 72% cited component searches and documentation maintenance as problematic, time-consuming tasks. Fewer than 46% felt they had sufficient time for innovation, while less than 63% said they currently have standardised processes in place.
The experience profile also points to a succession issue. Nearly 71% of respondents had more than five years of experience using electrical CAD systems, but only 42% had more than a decade of experience. That creates risk around knowledge retention, onboarding, and dependence on individual engineers for project-specific expertise.
WSCAD’s report frames AI-assisted engineering tools as one response to those pressures. The company develops ELECTRIX AI, an AI-powered electrical CAD platform covering electrical engineering, control cabinet design, fluid and process engineering, electrical installation, and building automation. Its current product material describes functions including AI-assisted project checks, documentation generation, engineering knowledge search, translations, and automated control cabinet layout generation from circuit diagrams.
The survey findings reflect a practical problem across electrical design work. Design teams are being asked to produce more documentation, support more variants, meet more compliance obligations, and deliver projects faster. Much of the workload is not conceptual design, but repetitive search, checking, documentation, translation, component selection, and drawing maintenance.
Those tasks still require discipline. Poor documentation can create installation errors, commissioning delays, maintenance problems, compliance gaps, and safety risk. The value of automation depends on whether it improves consistency and traceability while keeping engineers in control of design decisions.
Dr Axel Zein, chief executive of WSCAD, said: “Engineering teams are being asked to deliver increasingly complex projects faster than ever, often with fewer experienced resources available. The survey uncovers that many teams have optimized traditional workflows as much as possible, yet it is not enough to meet new productivity demands.”
Electrical design is also becoming more interdisciplinary. Control cabinets, power distribution, automation, building systems, process equipment, EV charging, storage, and digital monitoring increasingly share interfaces. The design file is no longer only a drawing package. It becomes a data source for procurement, manufacturing, installation, commissioning, maintenance, and future modification.
That movement is already visible across the wider power and industrial sectors. As industrial electrical systems move toward active operation and digital control, design tools have to support connected assets from the start rather than treating digital information as an afterthought.
The pressure also links to switchgear and panel design. LV switchboard resilience in heatwaves depends on verified assemblies, temperature rise testing, and short-circuit withstand. As equipment environments become more demanding, design accuracy and documentation quality become more important.
AI-assisted CAD can help where tasks are repetitive, rule-based, or documentation-heavy. Component search, requirements checking, terminal plans, material lists, translation, and project knowledge retrieval are plausible early uses because they reduce manual effort without removing engineering judgement. Fully automated design decisions require a higher level of validation because errors can propagate into physical equipment.
The survey’s usability finding is also notable. Nearly 90% of respondents identified usability as a top requirement in an electrical CAD system. Adoption will depend less on AI branding and more on whether tools fit real engineering workflows. If systems add complexity, require constant correction, or obscure design logic, they will not solve the capacity problem.
Electrical design teams are facing a structural productivity challenge. More skilled people are needed, but better use of existing expertise is also required. WSCAD’s survey shows that routine work is absorbing capacity that could be applied to design decisions, problem solving, and standardisation. AI-assisted tools will be judged by how well they reduce that burden while preserving engineering accountability.
