30-60-90 day plan for electrical engineers
On this page
An electrical engineer arrives knowing circuits, power systems or electronics, and the design software for their specialty. What they do not know is how this employer documents its systems, which drawings match the field and which do not, how changes get approved, and, most importantly, the rules for working on or near energized equipment. A 30-60-90 day plan for electrical engineers should settle safety status first, teach the documentation and change process on small corrections, then hand over a real design task and finally a project scope to own.
This plan is for the engineering manager hiring an electrical engineer for power distribution, building systems, industrial controls or similar work at a manufacturer, utility, facility owner or consulting firm. Electronics and circuit board designers can use the same shape with the changes listed at the end. The general structure is in the 30-60-90 day plan template for new hires, and the electrical engineer phone screen questions cover technical depth before the offer.
Electrical safety and licensure: settle these first
Engineers are not exempt from electrical hazards. OSHA's training rule at 29 CFR 1910.332 applies to employees who face a risk of electric shock that is not reduced to a safe level by the installation itself, and its Table S-4 lists electrical and electronic engineers among the occupations typically facing higher than normal risk. The table's footnote says they do not need the training if their work does not bring them close enough to exposed parts operating at 50 volts or more to ground for a hazard to exist. As of October 2026, the rules a new engineer's manager should know include:
- Qualified persons. Under 1910.332(b)(3), people permitted to work on or near exposed energized parts must at minimum be trained to distinguish exposed live parts, determine their nominal voltage and know the required clearance distances. The training can be classroom or on the job, scaled to the risk.
- Deenergize first. 29 CFR 1910.333(a)(1) requires live parts to be deenergized before an employee works on or near them, unless the employer can show that deenergizing creates additional hazards or is infeasible, such as testing that can only be done with the circuit energized.
- NFPA 70E. OSHA lists NFPA 70E, the Standard for Electrical Safety in the Workplace, among national consensus standards and states that these are not OSHA regulations. Many employers use NFPA 70E to structure their electrical safety program, arc flash risk assessment and PPE selection, so the new engineer should be trained on the employer's version of it.
On licensure, NCEES notes that candidates typically pass the FE and PE exams, that most states require four years of qualifying experience and that only a licensed engineer can sign and seal engineering drawings. Building power and lighting design usually involves sealed drawings; many product and controls roles do not. Confirm a license on the state board's lookup if the role requires one. This is not legal advice.
The 30-60-90 day plan
30-60-90 day plan — [Name], Electrical Engineer, [team]
Reports to: [engineering manager] Start: [date]
Systems: [power distribution / controls / building systems]
Tools: [CAD, power system analysis, PLC software]
Qualified person for energized work: [yes / no / after training]
Buddy: [senior electrical engineer]
DAYS 1-30 — Safety, documentation and small changes
Goals:
- Complete electrical safety training; confirm qualified
status and the lockout/tagout procedure in writing
- Walk the facility, substation, lab or panel shop with the
buddy; compare a few one-line diagrams to the field
- Read drawing standards, the change process and the
naming conventions for panels, circuits and tags
- Release one or two small corrections (example: update a
panel schedule or one-line to match field conditions)
Deliverables by day 30:
- Safety training records complete
- First changes released with review findings logged by type
Check-in: day 30, with engineering manager
DAYS 31-60 — A real design task
Goals:
- Take one design task end to end (example: feeders and
protection for a new production line, or a control panel
modification with updated logic)
- Run the calculations the team uses (example: load,
voltage drop, short circuit or coordination)
- Get operations, maintenance and the electricians' input
before release
Deliverables by day 60:
- Design and calculations reviewed, actions tracked
- Review findings falling against the first changes
Check-in: day 60
DAYS 61-90 — Own a scope
Goals:
- Support installation or commissioning of the day-60 design
- Own a scope (example: a building's distribution or a
line's controls) with a status and risk list
- Lead one design review on their own work
Deliverables by day 90:
- Design installed or ready, with field issues logged
- Owned scope with written status and open risks
Check-in: day 90 — full reviewWhat to measure
The number of drawings touched says little. Track quality and field results, and set targets from the team's own history. The standards below are examples only.
| Measure | Why it matters | Example standard (example only) |
|---|---|---|
| Design review findings per change | Shows whether standards and conventions are learned | Fewer findings on later changes |
| Field rework or RFIs caused by drawings | Errors found by electricians cost the most | Every case traced to a cause |
| Calculation package completeness | A reviewer or PE has to check it | No questions about inputs or assumptions |
| Commissioning punch items | The real test of a design | All items owned and closed or dated |
| Safety procedure compliance | Non-negotiable in electrical work | Zero energized work outside the written procedure |
A filled example
Electrical engineer: Priya Natarajan (invented), four years in controls at an equipment builder, joining the plant engineering team of a food manufacturer.
Day 30: Completed the site's electrical safety and lockout/tagout training; qualified for troubleshooting with a second person present, under the written procedure. Found that two one-line diagrams no longer matched the field after past expansions and released corrections.
Day 60: Designed the power and controls changes for a new packaging machine, including feeder sizing and updated protective device settings, reviewed by the senior engineer. Met the maintenance electricians before release, which moved a disconnect to where they could reach it.
Day 90: Supported commissioning; four punch items, all closed. Took ownership of the controls for one production line with a written status and a list of obsolete components to replace.
What "on track" looks like
| Checkpoint | On track | Worth a direct conversation |
|---|---|---|
| Day 30 | Safety training done; drawings compared to the field; first changes released | Unclear qualified status; no time in the field |
| Day 60 | A design reviewed with calculations a reviewer can follow | Calculations missing; electricians not consulted |
| Day 90 | Design installed or ready; scope owned with a risk list | Punch items unowned; status depends on asking around |
Learn from the electricians
The people who install and maintain the systems know which drawings are wrong, which panels are hard to work in and which designs caused trouble. Ask the new engineer to spend a day with the maintenance or installation electricians in the first month, under the safety procedure, and to write down every place where the field does not match the documentation. That list is often the most useful first deliverable an electrical engineer produces, and it builds the relationships they need when their own design reaches the field.
What the employer owes the new engineer
- Electrical safety training and a written answer on qualified status before any work near energized equipment.
- Current drawings, or an honest warning about which ones are out of date.
- A senior reviewer with time for it, and a PE if sealed work is involved.
- Access to the field and the electricians on a schedule that suits operations.
Common mistakes
| Mistake | Result | Fix |
|---|---|---|
| Assuming an engineer does not need safety training | Exposure to energized parts without the required training | Settle training and qualified status in week one |
| Trusting drawings without a field check | Designs built on wrong assumptions | Compare key drawings to the field early |
| Starting with a large design | Many basic review findings | Small corrections first |
| Skipping maintenance input | Designs that are hard to operate and service | Review with electricians before release |
Adapting the plan
- Electronics and circuit board design: replace field checks with lab time, add the schematic and layout review process, component approval and compliance testing, and pair with the mechanical engineer plan where enclosures are involved.
- Building systems consulting: add code research for each jurisdiction and work under a PE's review before sealing.
- Plant engineering: coordinate with the maintenance manager on outages and lockout/tagout, and with the plant manager on production schedules.
- New graduates: extend the small-change phase, add weekly reviews and plan FE exam timing if the company supports licensure.
If you are still sourcing, the boolean search strings for electrical engineers help find candidates with the right specialty and tools.
Questions people ask
What should a new electrical engineer do in the first week?
Complete the site's electrical safety training and get a clear answer on whether they are a qualified person for energized work, then get design tools and drawing access working. Walk the facility or lab with a senior engineer, read the drawing standards, and pick up a small change, such as updating a one-line diagram or a panel schedule to match the field.
Does a new electrical engineer need NFPA 70E training?
OSHA requires training for employees who face a risk of electric shock, and its Table S-4 lists electrical and electronic engineers among the occupations typically at higher risk unless their work keeps them away from exposed parts at 50 volts or more. NFPA 70E is a consensus standard that OSHA says is not an OSHA regulation, but many employers use it to structure that training and their arc flash program. This is not legal advice.
Does an electrical engineer need a PE license?
Only if the role involves sealed work. NCEES notes that only a licensed engineer can prepare, sign, seal and submit engineering drawings, which matters most in building power and lighting design and utility work. Many product and controls roles in manufacturing do not require one. Check with the state board where the work is done.
How do you measure an electrical engineer's first 90 days?
By drawing or design review findings falling over time, changes released without field rework, calculations a reviewer can check without questions, and one project scope owned with a clear status. Use the team's own history for targets, not an industry figure.