A Concrete Example: The AAG Risk Dashboard
Late last year, Peter and I worked with All Access Goals (AAG) data sourced from multiple systems (Progress.Bible, Rev79, and others).
Peter's initial work was done the right way:
- careful manual analysis
- spreadsheets
- explicit assumptions
- human judgment applied where the data was messy
That work was not "pre-dashboard."
It was the truth source.
My responsibility wasn't "build a dashboard."
It was:
Make the analysis repeatable.
So that new exports could regenerate the same conclusions without redoing the reasoning by hand.
That shift—from one-time result to repeatable pipeline—is where AI-era pressure shows up.
If a system cannot regenerate reliably, it is not a tool.
It is a report with confidence attached.
When Code Stopped Being the Asset
For most of my career, code felt like the asset.
You protect it.
You polish it.
You carry it forward like an investment.
AI broke that mental model by collapsing the scarcity underneath it.
When generation becomes cheap:
- variation explodes
- maintenance becomes a permanent tax
- understanding legacy output can cost more than regeneration
At some point, a statement emerges that feels offensive until tested:
If it costs less to regenerate the code than to understand it, delete it.
Not because deletion is virtuous.
Because economics does not care about attachment.
But this raises a real problem:
If code is disposable, what stays?
Answer: what makes regeneration safe.
- testable requirements
- verifiable constraints
- evidence tied to observable outcomes
In other words: the blueprint.
Evidence Beats Explanation
In BT tooling, "close enough" is not a harmless failure mode.
Bad software doesn't just annoy users.
It wastes time.
It misleads decision-making.
It quietly erodes trust.
AI worsens this in a specific way:
Explanations are cheap. Confidence is cheap.
So "it works" becomes meaningless without proof.
For the AAG dashboard, the impressive part wasn't chart rendering.
It was verification.
Raw exports—hundreds of thousands of records—were loaded, filtered, and queried until outputs matched Peter's original spreadsheets verbatim:
- row-for-row
- aggregate-for-aggregate
- against an explicit Definition of Done
Then came the next constraint: performance.
The first implementation took minutes.
That was unacceptable.
Not because of impatience—but because batch jobs are not instruments.
After optimization, the same computations ran in under two seconds, in-browser.
The repeatable pattern:
- Prove correctness against a trusted baseline
- Tighten "done" until it is auditable
- Harden performance until truth becomes interactive
That is what evidence beats explanation looks like operationally.
Restartability Is Not Waste
In AI-assisted work, the final 10% often costs more than the first 90%.
The problem is rarely bugs.
It is under-specified intent:
- an unstated constraint
- an implied assumption
- a fuzzy Definition of Done
There is also a quieter failure mode: context drift.
Long AI conversations decay.
Earlier constraints blur.
The model confidently solves the wrong problem.
Restarting fixes this.
So attempts are treated as controlled experiments:
- preserve what was learned
- start fresh with a tighter spec
- compare outcomes against reality
Restartability is not about throwing work away.
It is about preserving clarity and bounding the cost of learning.
After doing this a few times, the bulldozer metaphor stops sounding nihilistic.
It starts sounding like instrumentation.
What Changes If This Is Right?
If code is no longer the scarce resource, priorities flip.
Optimize for repeatability, not heroics
A one-time success is not the goal.
A regeneratable pipeline is.
Define "done" in observable terms
"Works on my machine" is not evidence.
Matching baselines, reproducibility, and performance are.
Protect the blueprint more than the build
Because builds are cheap.
Blueprints prevent confident nonsense.
And in BT tooling, confident nonsense is worse than failure.
Scope and Limits
This is not a claim that code never matters.
Some domains demand continuity for regulatory, security, or verification reasons.
This is a claim about a growing class of AI-assisted systems where:
- generation got cheaper
- verification got harder
- maintenance got more expensive
- drift got more dangerous
The question that remains:
What would change if we stopped protecting what we can regenerate—and started protecting what makes regeneration trustworthy?