Skip to main content

Engineering Career Ladder Builder Guide: Build an Engineering Levels Framework That Scales Past 50 Engineers

May 25, 2026•By The CTO•12 min read•
...
•guides

Engineering career ladder builder: how to build an engineering levels framework that scales

Engineering Career Ladder Builder Guide: Build an Engineering Levels Framework That Scales Past 50 Engineers

Engineering career ladder builder: how to build an engineering levels framework that scales

In a 10 to 100 engineer org, titles spread fast. Two “Senior” hires can show up 90 days apart and mean two totally different things. By the time you hit 40 engineers, promotion conversations start to feel random. That’s when a real engineering career ladder builder stops being “nice to have” and turns into a control system for hiring, pay, and retention.

This guide walks through how to use The Art of CTO Engineering Ladder Builder to design an engineering levels framework, including an IC vs management track, a usable engineering competency matrix, and progression criteria that still make sense after the next 18 months of growth.

What is an engineering career ladder builder, and what should it produce?

An engineering career ladder builder is a tool and a process for defining levels, expectations, and promotion criteria across engineering roles. The output isn’t a slide deck. It’s written standards that managers can apply the same way across teams, even when they don’t agree on much else.

The Art of CTO Engineering Ladder Builder creates career frameworks with IC and management tracks, competency matrices, and progression criteria for engineering organizations.

A good ladder package includes:

  • Level map: titles and level codes, like IC1 to IC6, EM1 to EM4.
  • Two tracks: IC track and management track with clear equivalence points.
  • Competency matrix: observable behaviors by level, not personality traits.
  • Progression criteria: what “ready for next level” means, with evidence.
  • Operating model: who calibrates, how often, and how exceptions work.

Dropbox’s public framework is a strong reference point. It separates “level expectations” from “core responsibilities” and “craft expectations,” and it’s explicit that the framework is not a promotion checklist. That separation helps teams avoid turning the ladder into a box-checking exercise. See Dropbox Engineering Career Framework.

Most CTOs I talk to want one thing from a ladder: fewer surprises. A ladder is doing its job when hiring and promotions get boring.

Framing statement: the ladder is a product. It needs an owner, users, and updates.

How many engineering levels should a career ladder have?

Most engineering orgs need 5 to 7 IC levels and 3 to 4 management levels. Fewer than 5 levels creates promotion cliffs. More than 8 levels creates hair-splitting and politics.

For Series A and early Series B, the sweet spot is:

  • IC levels: 5 levels, from junior to staff or principal.
  • Management levels: 3 levels, from engineering manager to director.

The hard part isn’t the count. It’s whether each level has a clear delta in scope, complexity, leadership, and autonomy. If your team can’t explain the difference in two sentences, merge the levels.

A practical level design that fits 10 to 100 engineers

Here’s a level set that fits most product companies shipping weekly:

  • IC1 Engineer: ships small tasks with close support.
  • IC2 Engineer: ships medium work, owns a component, joins on call.
  • IC3 Senior Engineer: owns a service, drives design, reduces incidents.
  • IC4 Staff Engineer: leads multi team work, sets patterns, mentors seniors.
  • IC5 Principal Engineer: sets technical direction across a domain.

For management:

  • EM1 Engineering Manager: runs a team of 5 to 10, owns delivery and growth.
  • M2 Director: runs 2 to 4 teams, owns staffing and cross team execution.
  • M3 VP Engineering: owns org design, budgets, and multi quarter plans.

This lines up with a lot of public ladders. EngineeringLadders.com also splits roles into distinct ladders, including Developer and Engineering Manager, and it defines “People,” “Process,” and “System” expectations by level. See Engineering Ladders introduction.

The Ladder Compression Test

Run this before you publish anything.

  • Pick two adjacent levels, like IC3 and IC4.
  • Ask three managers to level the same five engineers.
  • If the managers disagree on more than two engineers, the level boundary is unclear.

Jade Rubick describes a similar sanity check. She recommends rating a representative sample of the team against the criteria, then comparing current titles to the new system. See Implementing software engineering levels.

This catches the real failure mode. The ladder reads fine, but managers can’t apply it.

IC vs management track: when to create both, and how to make them credible

Introduce a formal IC vs management track when engineering reaches 30 to 50 people. At that size, you need senior technical leaders who shouldn’t be pushed into people management just to keep growing.

A credible dual track has three properties:

  • Equivalent status: staff and principal roles have real influence.
  • Equivalent pay bands: staff equals EM, principal equals director.
  • Equivalent selection bar: both tracks get harder at the top.

Subbu Allamaraju makes a point that many teams miss. IC and manager ladders aren’t equivalent in shape. IC ladders get steep near the top, and the number of roles shrinks fast. Many orgs also cap IC ladders earlier than manager ladders. See Jumping Across Career Ladders.

So the CTO job is to make the top of the IC track real, even if it’s rare.

A decision matrix for IC vs management track design

Use this matrix during ladder design and during career conversations.

Decision pointBias toward IC trackBias toward management track
Work typeDeep technical ownership of a domainPeople, staffing, and delivery systems
Impact mechanismInfluence through architecture and standardsInfluence through org design and priorities
Time horizon6 to 18 month technical bets2 to 6 quarter org bets
Success evidenceFewer incidents, faster delivery, better designsBetter hiring, retention, predictable delivery
Failure modeBecomes a “super senior coder” roleBecomes a status role with weak coaching

One question comes up in every 50 person org: should tech leads be a level or a role? I’m firmly in the “role” camp. Most teams rotate tech lead duties inside IC3 to IC4, then reserve staff and principal for sustained cross team impact.

Malt’s career path document also treats ladders as paths and allows switching under defined conditions. That matters for retention. People change over a 3 year window. See Malt engineering career path.

How to handle track switches without drama

Write the rules down. Seriously.

  • Switching to management: require a trial period, like 90 days, with coaching.
  • Switching back to IC: treat it as a normal move, not a demotion.
  • Comp changes: tie to level, not to track.

Teams that hide these rules create fear. Fear creates bad managers.

For more on org design trade offs, link this ladder work to our internal guide on engineering org design for 50+ engineers and our playbook on manager onboarding and first 90 days.

Engineering competency matrix: how to write one that managers can use

An engineering competency matrix maps observable behaviors and outcomes to each level. It becomes the shared language for hiring loops, performance reviews, and promotion calibration.

A matrix works when it’s specific enough to apply, but broad enough to cover most roles. If it reads like a personality quiz, it’s dead on arrival.

DevPath lists common benefits like recruiting guidance and more consistent evaluations. The value is real, but only if the matrix stays tied to evidence. See Benefits of using an engineering competency matrix.

EBZ Coaching also describes how a matrix can make feedback feel objective, and how it supports promotion planning by checking consistent performance at the current level plus early signals of the next. See Power of the Competency Matrix.

The 4x4 Ladder Builder Matrix

Here’s a link worthy model that fits most product engineering teams. It keeps the matrix small and usable.

Define four dimensions, then define four levels of scope.

Dimensions:

  • Delivery: ships work that sticks.
  • Design: makes good technical choices.
  • Reliability: owns production outcomes.
  • Leadership: raises the team’s output.

Scope levels:

  • Self: owns own tasks.
  • Team: owns a service or component.
  • Multi team: drives cross team work.
  • Org: sets direction across a domain.

Now write expectations as behaviors. Skip adjectives like “excellent.” Use verbs.

Example for Reliability:

  • Self: follows runbooks, fixes own bugs.
  • Team: joins on call, writes alerts, runs small incident reviews.
  • Multi team: reduces repeat incidents across services, improves SLOs.
  • Org: sets reliability standards, drives investment trade offs.

Wise.jobs publishes a career map with concrete behaviors, like owning subsets of a domain, leading minor incident resolution, and supporting on call. That style holds up in real reviews. See Wise engineering career map.

Write progression criteria as evidence, not intent

Promotion criteria should answer a blunt question: what proof would convince a skeptical peer?

Use three evidence types:

  • Artifacts: design docs, RFCs, postmortems, runbooks.
  • Outcomes: latency down 20 percent, on call pages down 30 percent.
  • Peer signals: other teams ask for help, not just the manager.

Dropbox’s framework centers impact, but it also warns against treating the framework as exhaustive. That’s a good guardrail for early stage teams. See Dropbox framework navigation.

For calibration mechanics, connect this to our internal guide to blameless incident postmortems and our guide to SLOs for product teams. Those artifacts become promotion evidence.

How to roll out a software engineer career progression system without breaking trust

A ladder rollout fails when it surprises people. It also fails when it’s a pay cut in disguise.

This rollout plan fits a 10 to 100 engineer org.

Immediate Actions

  1. Name an owner. Pick one accountable leader, often the VP Eng or CTO.
  2. Draft the level map. Start with 5 IC and 3 management levels.
  3. Write the first matrix. Use the 4x4 model and keep it short.
  4. Run the Ladder Compression Test. Level five engineers as a group.
  5. Pilot with two teams. Use it in 1:1s and one review cycle.

Rubick recommends starting privately, using the levels in hiring, and iterating until the system feels right. She also calls out salary band estimation as a step, so comp doesn’t become an afterthought. See Rubick on implementing levels.

Policy Framework

  1. Promotion cadence. Set a fixed window, like twice per year.
  2. Calibration group. Use a panel of 3 to 6 leaders, not one manager.
  3. Evidence packet. Require a short doc with artifacts and outcomes.
  4. Exception rules. Define when a title can be granted outside the ladder.

A public collection like progression.fyi shows how many companies publish ladders and connect them to hiring and pay rituals. It also shows how varied the formats are, which is a warning. Copying a ladder is easy. Operating it is the hard part. See progression.fyi collection.

Architecture Principles

  1. Tie levels to system ownership. Staff and above must own cross service outcomes.
  2. Make reliability part of every level. On call and incident work can’t be “extra.”
  3. Reward deletion. Count removing systems and reducing complexity as impact.

This is where ladders connect to building systems. A ladder that ignores production work creates fragile systems.

For tooling, connect the ladder to:

  • Our Engineering Metrics Dashboard guide for tracking cycle time and deploy rate.
  • Our Command Center guide for tracking incidents, risks, and tech debt.
  • Our Build vs Buy Matrix guide for staff and principal decision work.

Those topics make the ladder real in day to day work.

Enterprise implications for Series A and early Series B CTOs

A ladder sounds like HR work. It’s not. It’s a scaling control for engineering.

  1. Hiring gets faster and less political. Interviewers can map evidence to levels. A matrix also reduces “we just liked them” decisions, which lowers bias risk.
  2. Comp bands stop drifting. Without levels, two seniors can differ by 40 percent pay. That creates attrition when people compare offers.
  3. Staff plus roles stop being title inflation. A written bar prevents “Staff” from becoming a retention title with no scope change.
  4. Managers stop improvising performance reviews. A shared rubric reduces manager variance, which is a common failure mode after the first 5 managers join.

The catch is that ladders create friction at first. They surface under leveling and over leveling. That discomfort is the price of consistency.

Bigger picture: ladders are now part of the talent market

Public frameworks from Dropbox and others changed candidate expectations. Senior engineers now ask for the ladder during interviews. They also ask how promotions work and how staff engineers influence roadmaps.

Economic cycles changed the conversation too. Teams want fairness and clarity during slower growth periods. A ladder won’t prevent layoffs. It will prevent chaos promotions and quiet title inflation.

Here’s the question I use to sanity check all of this: if three managers leveled the same engineer today, would they agree within one level?

Use the tool

Use the Engineering Ladder Builder to draft your level map, define the IC vs management track, and publish a competency matrix your managers can apply: https://theartofcto.com/tools/engineering-ladder

Sources

  1. Jumping Across Career Ladders
  2. Engineering career map, Wise.jobs
  3. Malt engineering career path
  4. EngineeringLadders.com introduction
  5. Implementing software engineering levels, Jade Rubick
  6. Dropbox Engineering Career Framework
  7. progression.fyi collection
  8. Benefits of using an engineering competency matrix, DevPath
  9. Power of the Competency Matrix, EBZ Coaching