Anonymized portfolio copy — names and customers replaced; all data illustrative.
CodeTogether Executive Report

AI Engineering Adoption Report

How AI adoption is impacting engineering delivery — for the leadership team.

Working title. Renamed from “Engineering Health Report” per the session’s leading direction (01 obj. 1) — rename not finalized, see Open Decision 0.

Step 3 · Narrative wireframe · first visual pass Audience: C-suite / CTO-level Figures illustrative — demo/seed data, not a real tenant

What this report covers

A top-to-bottom read on AI’s impact on delivery: the headline acceleration story, the state of adoption across the engineering org, where output concentrates by cohort, and what distinguishes the highest-performing engineers. Line numbers for leadership; each department acts on the detail elsewhere.

Data basis

Every number on this page resolves per-tenant at query time from the atlas platform. The values shown here are illustrative demo/seed figures used to design the layout — not a top-5 US bank or any real customer’s numbers. Each chart states its own basis and whether it is measured or estimated.

How to read the numbers

Measured  Counted natively by the platform — safe to lead with.
Estimated  Derived or proxied — directionally right, carries a defined formula.
[ bracketed red ]  Number depends on a decision or a fact we don’t yet capture. Every bracket traces to an Open Decision below — never a guess.

Unit definitions

vLOC (value-weighted output): retained work output weighted by an outcome value score — not raw lines of code. Used wherever “output” or “cost per outcome” appears.
Agentic / GenAI developer: [definition pending] — threshold not yet set (Open Decision 3).
Adoption
Who is using AI. Measured natively across the org.
“Are people turning it on?”
Effective usage
Who is getting value from AI. Derived / estimated.
“Is it actually producing?”
Structural decision (01 obj. 5). The report keeps adoption and effective usage visibly separate everywhere, because the data already splits this way — adoption is measured, effectiveness is estimated. This green/amber split runs through every section below; it is not just a Section 2 device.
1

How is AI adoption impacting delivery?

One consistent story in three numbers: AI is already an Nx accelerator; it has saved real money; and there is more on the table. This is the line leadership should leave with — so it leads the report.

Data reality (02 §1). None of the three hero numbers exists as a served metric. The multiplier is a derived ratio whose denominator — a historic “traditional development” baseline — is not stored anywhere. Savings inherits that gap. “Potential savings” is a counterfactual the platform explicitly cannot capture. All three are red-bracketed here on purpose: the narrative is sound, the figures await decisions (Open Decisions 1–2). The trustworthy, measured foundation is Section 2 — built to earn the credibility this row borrows.
① Acceleration
[N]×
AI acceleration multiplier
▲ trend over last 6 months — [derived w/ formula]
= AI-era output rate ÷ historic “traditional development” baseline rate. Baseline not stored → Open Decision 1.
② Realized
$[X]
Savings realized from AI
▲ cumulative, last 6 months
= (baseline cost − actual cost), derived from the multiplier × engineering-cost components (estimated). Inherits the baseline gap → Open Decision 1.
③ On the table
$[Y]
Additional potential savings
[needs reframe — see note]
Counterfactual “spend avoided” is non-capturable. Honest alternative: the lagging-cohort efficiency gap (Section 3). → Open Decision 2.
✦ Takeaway (executive voice): “In one line: AI is making my engineering org [N]× faster, it’s already saved us $[X], and there’s $[Y] more if we close the gap.”  — the single sentence this row must deliver once the figures resolve.
⚠ Risk on this row. If the three figures ship bracketed, the report opens on its weakest data. Mitigation built into the spine: Section 2 (measured) sits immediately below and visually outweighs this row until the multiplier/baseline decision lands.
2

What is the state of AI adoption across the org?

The measured foundation of the report. Read left-to-right as adoption (who’s using it) then effective usage (who’s getting value) — the report’s core structural line.

 Adoption — measured

AI adoption rate Measured

Basis: AI-active engineers ÷ active engineers. Native rollup.

75%
of active engineers used AI this period
▲ rising 6-mo trend

Daily active AI usage Measured

Basis: daily AI-active ÷ active, effective data window.

68.8%
use AI on a typical day
▲ rising 6-mo trend

Power-user rate Measured

Basis: engineers above the heavy-use threshold (native).

62.5%
are heavy, sustained AI users
▲ rising 6-mo trend
✦ Takeaway: “Adoption isn’t my problem — three in four are on it, most of them daily.”  — exec voice.
 Effective usage — estimated

Share of code built with AI Estimated

Basis: retained AI-assisted share of retained lineage units. [demo 99.7% — implausibly high; real-tenant value differs]

[~%]
of retained output is AI-assisted

Value per dollar Estimated

Basis: value-weighted output ÷ total cost.

0.36vLOC / $
efficiency — the “effective usage” counterpart to adoption

Cost per outcome Estimated

Basis: total cost ÷ value-weighted output (vLOC).

$2.75/ vLOC
what one unit of value-weighted output costs
✦ Takeaway: “People are using it — but value-per-dollar is where I find out if it’s actually paying off.”  — exec voice.
Budget lever (01 obj. 9)

AI-budget utilization Estimated

Basis: we can show AI spend and token count today; utilization against a budget has no backing fact (no budget/quota data) → Open Decision 4.

$175k
AI spend, this period est
avail.
token count — available
[ % of budget ]
utilization — needs budget facts
Token cost control is the company’s top priority — framed here as a lever to encourage, not waste to police (AI-waste detail is out of scope for this exec surface). Utilization-against-budget red-bracketed until budget facts land.
Why this section leads on trust. Adoption metrics are native rollups (measured); effectiveness metrics are derived (estimated) and badged as such. Keeping the two columns visually distinct is the on-page expression of obj. 5.
3

Where does the output actually come from?

Engineers ranked by efficiency (value-output per dollar), and the share of code the top cohort produces. Leads with efficiency over raw output (01 obj. 9).

Engineers ranked by efficiency Estimated

Basis: value-weighted output per engineer ÷ cost. Ranking sound; absolute values estimated.

CohortvLOC / $Share of engineers
Top0.61~25%
Middle0.34~50%
Lagging0.18~25%
Demo values illustrative; Step 5 arithmetic-footing pass must reconcile cohort vLOC/$ against the org-wide 0.36 in Section 2.

Share of code the top cohort produces Measured-ish

Basis: retained output summed per engineer, ranked. Concentration is directly countable; AI/human split is estimated.

~60%Top 25%
~30%Middle 50%
~10%Lagging 25%
The top quarter of engineers produces the majority of retained output — the “what % of the team produces most of the code” answer leadership asked for.
Cohort bands: 3 vs 5 — Open Decision 5. Shown as 3 bands here; data supports either. Banding is a pure design choice over the ranking.
Honest “money on the table” (02 §3 reframe). The lagging-cohort efficiency gap — bottom-cohort spend × (top − bottom value-per-dollar) — is a knowable forward figure built from served components. This is the defensible replacement for the §1 counterfactual “potential savings.” Surfaced to the CEO/Trent as Open Decision 2.
✦ Takeaway: “A quarter of my engineers drive most of the output — and closing the gap on the laggards is the real money on the table.”  — exec voice.
4

What sets the top cohort apart?

An aspirational signal: characteristics of the highest-efficiency engineers, so the rest of the org has something to move toward. Kept lightweight — partly data-dependent.

Adoption depth Measured

Higher daily-active and power-user rates than the org average.

Usage intensity Estimated

More prompts / sessions per retained outcome.

Tool & model mix Estimated

[?]
Leans on proxies / includes “unknown” — keep light or defer.
Feasibility (02 §3, 01 obj. flag). Adoption-style differentiators are defensible (native). Behavioral “how they prompt” differentiators lean on estimated proxies. This section stays aspirational and lightweight — or defers to a later cycle if the data can’t carry it honestly. No fabricated “top performers do X” claims.
✦ Takeaway: “Here’s what ‘good’ looks like — and it’s reachable for the rest of the team.”  — exec voice, aspirational.
Not in this report (deferred or out of scope): Quality metrics — cycle time, completion-quality, review/defect rates — deferred under the AI-adoption frame (and the data backs deferral: those facts are unavailable).  ·  AI-waste detail — out of scope for this executive surface; lives in the department/team view.  ·  Supervised-vs-autonomous code split and true agentic-developer share — not captured today; roadmap, not v1.

Open decisions

Every red [bracket] above traces to one of these. Decisions, not data — carried forward to Step 4 / stakeholders. Resolve with name + date; never invent a number.

  1. 0 · Report rename — adopt “AI Engineering Adoption Report”? Session leans yes; not finalized. (masthead title)
  2. 1 · Multiplier formula + baseline source — no historic “traditional development” baseline is stored. Define the formula and the baseline, or the hero multiplier stays bracketed. Blocks the hero row and realized-savings. (§1 ① ②)
  3. 2 · “Additional potential savings” — counterfactual “spend avoided” is non-capturable. Reframe as the lagging-cohort efficiency gap (§3), or flag. Raise with the CEO/Trent. (§1 ③)
  4. 3 · “Agentic / GenAI developer” definition — usage-threshold (backed by power-user rate) vs. “% of code via agents” (unbacked — needs the autonomous split). Pick one explicit definition. (masthead unit def)
  5. 4 · AI-budget utilization — no budget/quota facts exist. Show spend and tokens only, or red-bracket utilization until budget facts land. (§2 budget lever)
  6. 5 · Cohort bands — 3 vs 5 bands. Pure design choice; data supports either. (§3)
  7. 6 · Quality metrics — confirm deferred under the adoption frame (data supports deferral). (deferred strip)