Electrical Engineer
Resume Metrics

The Numbers Recruiters Look For

The Electrical Engineer resume metrics that earn a read: which numbers to use, what good looks like, and where to find each one. Built from 12 years of recruiting, including many years at Google.

Emmanuel Gendre, former Google Recruiter and Tech Resume Writer

Authored by

Emmanuel Gendre

Tech Resume Writer

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Ex-Google Recruiter
Emmanuel Gendre, former Google Recruiter and Tech Resume Writer

A recruiter's opinion on electrical engineer resume metrics

Every resume guide keeps hammering one point: quantify your wins. Fair point. The catch is they end there and leave you to work out the rest.

So which figures genuinely warrant a slot on an electrical engineer resume? And where on earth would you source each? And can a lone figure swing the call?

Across years of screening for firms like Google, a strong figure often swung me to a yes. Never for its size. The engineers who put figures on their own work are, as a rule, the ones who sweat whether the circuit holds together in the field. A good number tells an employer, without quite saying so, that you get what the role calls for, and that you met it.

Working out the right figures and setting them down well is a good chunk of what my resume writing service does for those I sign on. Below I run down each figure worth a place on this kind of resume: the ones to favour, where each one shows, and the trick to cutting it to a tight phrase that suits one bullet and still reads as proof, not a parts list.

Want a second look before it ships? Send it through for a free read, by me.

Start here

Why metrics matter on an Electrical Engineer resume

I detail this in my own piece on how recruiters screen resumes, and the read happens across a few stages. The recruiter runs the opening round: a rapid glance at your profile summary, then a closer scan of your work history. Anything that clears, the hiring manager moves it onward to the interview round.

So your figures cross two readers' desks: the recruiter first, then the boss you would report into.

The recruiter does not read circuits, so the raw figure barely lands. The hiring manager is the one who pores over it to gauge how big your impact truly was. It comes down to two things: that a number actually appears, and that it reads as the kind an electrical hiring manager values.

Not every one weighs the same, granted. And if you worry yours look small, ease up: that part matters least of all.

In rough terms, this is what each piece adds:

The logic

Which types of metrics to use
for an Electrical Engineer resume

Put in some time with the Job Search Toolkit and you'll notice I frame each resume on a role profile. Quick note: a role profile is the blend of competencies a job needs you to bring.

See it as the standard a recruiter holds you to. The electrical engineer resume guide sets out what each part of the resume should hold.

Each piece of that profile lands somewhere on your resume, kept to your most recent role, the supporting figure close at hand.

Those groups are the metric types. An electrical engineer carries six in all, each mapped to one big area of the role. The lineup:

The full list

The full list of Electrical Engineer resume metrics

Six kinds of metric let you put numbers on an electrical engineer's work. In each type, I name the five a hiring manager weighs heaviest, in order. For every one, the card lays out what it covers, where average, good, and great land, where you take the reading, and a sample to borrow. Most of these live in kit you use daily: your bench scope, a SPICE or Simulink model, the power analyzer, and your test logs. The Electrical Engineer resume skills page covers the rest.

1

Analog & Mixed-Signal Design

An Electrical Engineer makes the analog work. These numbers show the circuits you designed and the specs you hit.

Circuit performance

Gain, bandwidth, or SNR you hit against spec.

Benchmark

Averageto spec
Goodwith margin
Greatbest in class

Measure with

Cadence MATLAB

Example bullet

Hit 110 dB SNR on a 24-bit data-acquisition front end.

Designs delivered

Analog blocks you took end to end.

Benchmark

Averagea few
Goodmany
Greatthe chain

Measure with

Cadence Altium

Example bullet

Designed the full analog signal chain from sensor to ADC.

Noise / accuracy

Noise floor or error you held down.

Benchmark

Averagein spec
Goodlow
Greatminimal

Measure with

Keysight Tektronix

Example bullet

Cut input-referred noise to under 5 nV per root-hertz.

Bandwidth / speed

Frequency response you reached.

Benchmark

Averagemet
Goodfast
Greatwide

Measure with

Keysight Cadence

Example bullet

Pushed amplifier bandwidth to 200 MHz with 0.1 dB flatness.

Converter resolution

ADC or DAC bits and ENOB you delivered.

Benchmark

Averagegood
Goodhigh
Greattop

Measure with

Cadence MATLAB

Example bullet

Delivered 16-bit ENOB on a 1 MS/s converter design.

2

Power Electronics & Conversion

An Electrical Engineer turns one voltage into another, cleanly. These show the power stages you designed.

Conversion efficiency

Peak or full-load efficiency you reached.

Benchmark

Averagegood
Goodhigh
Greatbest in class

Measure with

Keysight Tektronix

Example bullet

Took a 1 kW converter to 97% peak efficiency.

Power density

Watts per volume you packed in.

Benchmark

Averagetypical
Gooddense
Greatleading

Measure with

Ansys MATLAB

Example bullet

Doubled power density to 120 W per cubic inch.

Switching frequency

Switching speed you ran the stage at.

Benchmark

Averagestandard
Goodhigh
GreatGaN-class

Measure with

TI C2000 Keysight

Example bullet

Ran a GaN stage at 500 kHz with soft switching.

Ripple / regulation

Output ripple or regulation you held.

Benchmark

Averagein spec
Goodtight
Greatminimal

Measure with

Tektronix Keysight

Example bullet

Held output ripple under 20 mV at full load.

Converters shipped

Power designs you put into products.

Benchmark

Averagea few
Goodmany
Greata line

Measure with

Altium MATLAB

Example bullet

Shipped a family of DC-DC converters across five products.

3

Motor Drives & Control

An Electrical Engineer makes motors do exactly what the system asks. These show the drives you tuned.

Loop bandwidth

Current or speed loop bandwidth you tuned.

Benchmark

Averagemet
Goodfast
Greattight

Measure with

TI C2000 MATLAB

Example bullet

Tuned a current loop to 2 kHz bandwidth with no overshoot.

Torque / speed accuracy

Regulation error you held under load.

Benchmark

Averagegood
Goodtight
Greatprecise

Measure with

TI C2000 Siemens

Example bullet

Held speed regulation within 0.1% under load steps.

Drive efficiency

Efficiency across the operating range.

Benchmark

Averagegood
Goodhigh
Greatpeak

Measure with

Keysight TI C2000

Example bullet

Took a motor drive to 96% efficiency across the range.

Drives commissioned

Motors or axes you brought online.

Benchmark

Averagea few
Goodmany
Greata fleet

Measure with

Siemens TI C2000

Example bullet

Commissioned 40 servo axes on one production line.

Control scheme

Algorithm you delivered (FOC, sensorless).

Benchmark

Averagebasic
Goodtuned
Greatsensorless

Measure with

TI C2000 MATLAB

Example bullet

Delivered sensorless FOC down to zero speed.

4

Control & Signal Processing

An Electrical Engineer keeps the system stable and the signal clean. These show the control and DSP you owned.

Stability margin

Phase or gain margin you closed with.

Benchmark

Averagemet
Goodwith margin
Greatwide

Measure with

MATLAB TI C2000

Example bullet

Closed the loop with 60 degrees of phase margin.

Control bandwidth

Loop bandwidth you reached.

Benchmark

Averagemet
Goodfast
Greathigh

Measure with

MATLAB LabVIEW

Example bullet

Raised control bandwidth 3x without losing stability.

Filter / DSP performance

Rejection or response you designed for.

Benchmark

Averagemet
Goodsharp
Greatdeep

Measure with

MATLAB TI C2000

Example bullet

Designed a filter with 80 dB stop-band rejection.

Settling / response

Settling or response time you cut.

Benchmark

Averagemet
Goodfast
Greattight

Measure with

Tektronix MATLAB

Example bullet

Cut step settling time from 50 ms to 8 ms.

Models built

Plant or control models you built.

Benchmark

Averagea few
Goodmany
Greatthe plant

Measure with

MATLAB Ansys

Example bullet

Built the Simulink plant model the team now designs against.

5

Power Systems & Distribution

An Electrical Engineer keeps the power flowing and safe. These show the power systems you built and protected.

Load / capacity served

Power you designed the system to carry.

Benchmark

Averagetypical
Goodlarge
Greatutility-scale

Measure with

Siemens MATLAB

Example bullet

Designed distribution for a 5 MW data-center build.

Power factor / quality

Power factor or THD you improved.

Benchmark

Averagein spec
Goodhigh
Greatnear-unity

Measure with

Keysight Siemens

Example bullet

Raised plant power factor to 0.99 with correction.

Protection coordination

Devices you coordinated for selectivity.

Benchmark

Averagesome
Goodfull
Greatselective

Measure with

Siemens MATLAB

Example bullet

Coordinated protection across 30 buses with full selectivity.

Loss reduction

Energy or distribution loss you cut.

Benchmark

Averagesome
Goodsolid
Greatsweeping

Measure with

MATLAB Ansys

Example bullet

Cut distribution losses 18% with a reactive-power study.

Studies delivered

Single-line and load-flow work you ran.

Benchmark

Averagea few
Goodmany
Greatthe plant

Measure with

Siemens MATLAB

Example bullet

Delivered the single-line and load-flow study for a new plant.

6

Test, Measurement & Compliance

An Electrical Engineer proves the design holds up and meets the standards. These show what you measured and validated.

Characterization coverage

Operating range you validated.

Benchmark

Averagekey
Goodbroad
Greatfull

Measure with

Keysight LabVIEW

Example bullet

Characterized the full design across temperature and supply.

Measurement accuracy

Uncertainty you held on the bench.

Benchmark

Averagemet
Goodtight
Greatcalibrated

Measure with

Keysight Tektronix

Example bullet

Built a test setup accurate to 0.05% on power readings.

Test automation

Share of bench test you automated.

Benchmark

Averagesome
Goodsolid
Greatfull

Measure with

LabVIEW TI C2000

Example bullet

Automated 90% of board-level test in LabVIEW.

Compliance cleared

EMC and safety you got through.

Benchmark

Averagemet
Goodclean
Greatfirst-time

Measure with

Keysight Ansys

Example bullet

Cleared EMC and safety on the first lab visit.

Issues caught

Design issues caught before release.

Benchmark

Averagesome
Goodmany
Greatmost

Measure with

Tektronix LabVIEW

Example bullet

Caught 85% of design issues at the bench before release.

Which of your numbers truly carry weight?

Plenty of electrical engineer resumes list real metrics. The tricky part is telling which a hiring manager values and which read as padding. Tough to gauge on your own page.

I'll step in for that.

I read your Electrical Engineer resume as a recruiter sees it and send over a short list: what stays, what goes, and what needs work. Free, within 12 hours.

Get a Free Electrical Engineer Resume Review

I review personally all resumes within 12 hrs

PDF, DOC, or DOCX • under 5MB

Qualitative metrics

What if my work didn't leave a number?

A blank line is not a blank outcome. With no figure handy, the area you ran and how you drove it still hold the case. Every type here points to an honest route for this, with a sample to borrow.

1

Analog & Mixed-Signal Design

Design owned

When to use it: no one owned the analog side

Example bullet

Owned the work that turned a noisy front end into a clean one.

Specs hit

When to use it: the circuit kept missing its targets

Example bullet

Reworked the design until every analog spec closed with margin.

Before / after analog

When to use it: the signal chain was an afterthought

Example bullet

Built the front end until the noise floor stopped limiting the system.

2

Power Electronics & Conversion

Power owned

When to use it: efficiency and heat were nobody's job

Example bullet

Owned the work that got a power stage efficient and cool.

Converter built

When to use it: the product needed a custom supply

Example bullet

Built the converter the whole product line now runs on.

Before / after power

When to use it: the supply ran hot and wasteful

Example bullet

Reworked the design until the converter ran cool at full load.

3

Motor Drives & Control

Drive owned

When to use it: the motor never quite behaved

Example bullet

Owned the work that got the drive smooth across the range.

Control built

When to use it: the loop was tuned by guesswork

Example bullet

Built the control the line now commissions every axis with.

Before / after drive

When to use it: the motor stalled and overshot

Example bullet

Tuned the loops until the drive held torque dead steady.

4

Control & Signal Processing

Stability owned

When to use it: the loop rang and nobody knew why

Example bullet

Owned the work that took the system from marginal to rock stable.

Control built

When to use it: there was no real control design

Example bullet

Built the control loop the product now ships with.

Before / after control

When to use it: the system oscillated under load

Example bullet

Closed the margins until the loop stayed stable everywhere.

5

Power Systems & Distribution

Power system owned

When to use it: no one owned the distribution design

Example bullet

Owned the work that got a clean, coordinated power system built.

Protection built

When to use it: the plant had no selectivity

Example bullet

Built the protection scheme the plant now trusts.

Before / after power system

When to use it: nuisance trips kept hitting the line

Example bullet

Coordinated protection until faults cleared without taking the plant down.

6

Test, Measurement & Compliance

Validation owned

When to use it: nothing was characterized properly

Example bullet

Owned the work that proved the design across every corner.

Test built

When to use it: there was no real test setup

Example bullet

Built the automated bench the team now validates on.

Before / after validation

When to use it: issues slipped to the field

Example bullet

Tightened the bench until problems showed up before release.

Let an ex-recruiter pressure-check your figures

A number carries only as much weight as the reader's trust in it. Send it across; I'll single out which ones carry and which ones a hiring manager glides past.

Back to you comes a recruiter's-eye take on your resume, and a frank, no-fluff fix list. Free, inside 12 hours, read by me.

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I review personally all resumes within 12 hrs

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Frequently asked

Electrical Engineer resume metrics FAQ

Go qualitative first. A firm number is the aim, yet the reach you held and how you moved the work stand on their own. Perhaps you brought up the first working prototype, took a circuit from shaky to dependable, or set the test process the team leans on today: each comes across as true impact, and none hangs on a figure you are missing. The qualitative cards further up hold one worked example by type.

Yes, where the figure is defensible and you could explain it. Say efficiency climbed after a redesign but you kept no plot, 'lifted efficiency by roughly five points' is fine. Reach for relative percentages while the real values stay confidential. The single hard rule: you could walk a panel through exactly how you landed it.

No. A fabricated figure crumbles the second someone probes it, and electrical numbers invite a probe: a reviewer might ask which bench rig showed that efficiency or where the noise figure originated. One invented stat can derail an otherwise strong loop. Use a qualitative point in its place; it stays straight and still carries.

Only a few. Keep figures to your two or three strongest bullets in your most recent role, the first a recruiter lands on. Drop a number onto a few and the real ones disappear while you fill in with weak ones. A lean set of solid, defensible metrics outdo a wall of filler.

Pick whichever hits harder without overstating. A wide relative gain shows clean in percent ('cut losses 30%'); a large absolute reads on its own ('97% efficiency at 1 kW'). Drop any bare percentage resting on no baseline, since 'improved performance 40%' only invites the question from what. Where it serves, pair them: 'cut ripple 60%, from 50 mV to 20 mV.'

Yes, and the figures sit closer by than most juniors realise. An efficiency reading before and after a redesign, the count of boards or drives you brought online, the margin you held, or the noise you knocked down each turn up in just an internship or a hobby build. A big-name employer is not required; proof you shifted something real is.

If the design is still on the bench, your scope and power analyzer show efficiency, ripple, and bandwidth in a session, and your SPICE or Simulink model gives you margins and response in a minute. Test results sit in your lab notebook or LabVIEW logs. If the project sits well in the past, offer a measured figure and say outright that it is one.

Hold it to a single line. One bold figure parked up top, the reach of the system you built or your strongest efficiency win, buys those opening ten seconds. Park everything else in the work-experience bullets, which keeps the summary easy to scan through. The electrical engineer resume guide covers writing that summary.

Who wrote this

Built by an ex-Google recruiter

Emmanuel Gendre, former Google Recruiter and Tech Resume Writer

Emmanuel Gendre

Former Google recruiter · 12 years · 1,500+ tech resumes rewritten

I screen electrical engineer resumes the same way I did at Google: against the role profile, against the JD, and against the bar real hiring managers set. The metrics on this page are the ones I tell my own clients to chase.

Read my full story →