RCP-000-000-005-FIRST-PRINCIPLES-PROBLEM-SOLVER

CRAFTFramework.ai logo with labeled jars representing validation stages.

Take a stubborn problem and strip it down to bedrock

Most assumptions turn out to be conventions, habits, or outdated conditions — not requirements. Then you rebuild solutions using ONLY the fundamentals, which often produces breakthrough approaches that conventional thinking would never reach.


First Principles Problem Solver

Tags: Essential, First Principles, Problem Solving, Innovation, Assumptions, Decomposition, Strategy, Critical Thinking, Advanced

TL;DR

What It Does
Takes a stubborn problem and strips it down to bedrock. Instead of asking “how do we fix this?” the AI guides you to ask “what is actually, undeniably true here?” You list every assumption you hold, identify the fundamental truths that cannot be disputed, then test each assumption against those truths. Most assumptions turn out to be conventions, habits, or outdated conditions — not requirements. Then you rebuild solutions using ONLY the fundamentals, which often produces breakthrough approaches that conventional thinking would never reach.
How It Works
Nine steps. You define the problem. The AI helps you extract every assumption — including ones you did not realize you held. Together you identify irreducible fundamental truths. Each assumption gets tested and categorized as validated, convention, outdated, unexamined, or false. Then you rebuild at least three solutions from fundamentals only. The AI evaluates them, helps design a minimum viable test, and creates an implementation roadmap.
What To Expect
This is the most rigorous recipe in the collection. It will challenge things you take for granted. You will be asked to forget how your industry works and think from scratch. Some of what you “know” will turn out to be convention, not truth. That discovery is the whole point — it is where breakthrough solutions live.
Best Results When You
Bring a problem that has resisted conventional solutions. Are willing to question everything, even “obvious” truths. Have 30-60 minutes for thorough analysis. Share what you have already tried (failed attempts reveal assumptions). Define what success looks like before starting.

How To Start

STEP 1Define Your Problem Clearly

State the problem you want to solve. Be specific about what exactly the problem is, who it affects, what you have already tried, why previous solutions did not work, and what success would look like. The more concrete your problem definition, the more effective the first principles analysis will be. You can shape the session with optional parameters.
Available parameters
  • problem · string · required
    The problem to solve.
  • context · string · optional
    Background and constraints.
  • previous_attempts · list · optional
    What has been tried. Each failed attempt reveals assumptions the AI will surface in Step 2.
  • success_criteria · string · optional
    What success looks like. Used as the benchmark when evaluating solutions in Step 6.
Example invocations
Minimal (problem only)
#H->AI::Directive: (Run the First Principles Problem Solver for: Our customer acquisition cost is $150 but lifetime value is only $120, making growth unsustainable.)
With context + previous attempts
#H->AI::Directive: (Run the First Principles Problem Solver with context: SaaS startup, 18 months old, $40K MRR and previous_attempts=[cutting ad spend, improving conversion rates, raising prices] for: Our customer acquisition cost exceeds lifetime value.)
Full parameters
#H->AI::Directive: (Run the First Principles Problem Solver with context: Manufacturing company, 200 employees and previous_attempts=[hiring more staff, overtime shifts] and success_criteria: Ship products within 3-month market windows for: Our product takes 6 months to manufacture but market windows only last 3 months.)

STEP 2List Current Assumptions

Identify everything you currently believe about this problem and how it is typically solved. Include industry assumptions (conventional wisdom, competitor approaches, accepted best practices), your own assumptions (what you believe causes the problem, constraints you assume exist, solutions you have assumed will not work), and historical assumptions (why current approaches exist, when they were established, what conditions existed then versus now). Be thorough and honest. List even assumptions that seem obviously true — those are often the most limiting.

STEP 3Identify Fundamental Truths

Strip the problem down to its irreducible components. Ask: “What do we know to be absolutely, undeniably true?” Look for physical truths (laws of physics, biology, chemistry; geographic or temporal constraints; resource limitations that cannot be changed), human truths (core human needs and motivations; psychological principles that govern behavior), and mathematical truths (economic fundamentals; statistical realities in your data; logical constraints and dependencies). For each proposed truth, ask: Can this be further reduced? Keep going until you hit bedrock.

STEP 4Challenge Each Assumption

Take each assumption from Step 2 and test it against the fundamental truths from Step 3. For each assumption, ask: Is this necessarily true given the fundamentals? Does it exist because of fundamental constraints, or because of convention, habit, or outdated conditions? If you were starting fresh today with only the fundamentals, would you arrive at this same assumption? Categorize each assumption as VALIDATED (directly follows from fundamentals), CONVENTION (exists due to industry habit), OUTDATED (made sense historically, not now), UNEXAMINED (accepted without evidence), or FALSE (contradicts fundamental truths).

STEP 5Rebuild From Fundamentals

Using ONLY the fundamental truths and validated assumptions, construct new approaches to the problem. Ignore how others solve this problem, what you have tried before, what seems realistic or practical, and industry standards. Generate at least three distinct solutions that address the root cause, build only on validated fundamentals, and may seem unconventional or radical. For each solution, trace its logic back to the fundamentals it builds upon.

STEP 6Evaluate New Approaches

Compare your first-principles solutions against traditional approaches.

STEP 7Design Validation Experiments

Before full commitment, design small tests for your top solution.

STEP 8Implementation Roadmap

For validated solutions, create a phased action plan.

STEP 9Follow-Up Options

After completing the analysis, choose next steps: deep-dive on a specific fundamental, generate more solution alternatives, refine the validation experiment, detail the implementation plan, apply first principles to a related problem, document key learnings, or end the session.

Usage Examples

Two abbreviated dialogues showing how the First Principles Problem Solver decomposes problems to fundamentals. The AI guides the user through assumption extraction, fundamental identification, and rebuilding — one question at a time.
Example 1 · SaaS startup with unsustainable unit economics
User:#H->AI::Directive: (Run the First Principles Problem Solver for: Our customer acquisition cost is $150 but lifetime value is only $120. We have tried cutting ad spend, improving conversion rates, and raising prices. Nothing has worked sustainably.)
AI:Let me help you decompose this problem to fundamentals. First, let me restate: You are spending more to acquire customers than they generate in value, creating unsustainable growth. Is that accurate?
User:Yes, exactly.
AI:Your previous attempts — cutting spend, improving conversion, raising prices — each embodies an assumption. What else do you currently believe about why this problem exists?
User:We assume we need paid advertising to grow. We assume our pricing is market-constrained. We assume churn is normal for our industry at 5% monthly.
AI:Now let us find fundamental truths. What is absolutely undeniable about your situation — not what your industry says, but what would be true in any business?
[Dialogue continues through assumption challenging and first-principles rebuild]
Example 2 · Manufacturing company with long lead times
User:#H->AI::Directive: (Run the First Principles Problem Solver for: Our product takes 6 months to manufacture but market windows are only 3 months.)
AI:Your manufacturing timeline exceeds your market relevance window. Let me ask: What fundamental truths constrain manufacturing time?
User:Raw materials need sourcing. Assembly takes time. Quality testing takes time.
AI:Does assembly HAVE to take its current amount of time? Is the step count a fundamental truth or a design choice?
User:Each unit requires 47 steps. We have never questioned that.
AI:“47 steps” sounds like a design artifact, not a fundamental. Are all 47 required for the product to meet customer requirements?
[Dialogue continues through decomposition and rebuild]

How AI Reads This Recipe

When this recipe is triggered, the AI adopts the role of a first principles thinking guide. The AI should:
  1. PARSE the problem description and any optional parameters (context, previous attempts, success criteria).
  2. ASK only one question at a time. Each decomposition step deserves the user’s full attention.
  3. WITHHOLD solutions until Step 5. Steps 1 through 4 are purely analytical. The moment you see the problem, you will want to suggest fixes. Do not.
  4. COACH through difficulty without giving answers. When users struggle, ask guiding questions rather than providing the content.
  5. DETECT assumption smuggling. When a user proposes a “fundamental truth,” check whether it is genuinely irreducible or contains a hidden industry-specific, technology, business model, or process assumption.
  6. SELF-CHECK solutions for convention leakage. Trace every component of a proposed solution back to a specific fundamental truth. If a component cannot be traced, it may be conventional thinking leaking in.
  7. LET the user control the pace. Steps 6 through 8 proceed only when the user is ready.
  8. USE previous attempts as assumption evidence. Each failed attempt represents an assumption that was acted upon.
The AI should NOT suggest solutions during the analytical steps (1-4), batch multiple questions in a single message, fill in fundamental truths when the user struggles, or accept “that’s just how it’s done” as justification for any assumption.

When to Use This Recipe

Use this recipe when you:
  • Face a persistent problem that resists conventional solutions.
  • Suspect hidden assumptions are constraining your thinking.
  • Want to find breakthrough approaches, not incremental improvements.
  • Are entering a new market and want to avoid inheriting incumbent assumptions.
  • Need to justify a radical approach with rigorous logic.
Do not use this recipe when:
You need a quick answer (this takes 30-60 minutes). The problem is simple and well-understood. You want to optimize an existing approach (this recipe rebuilds from scratch rather than optimizing). You want to question beliefs generally (use Socratic Problem Solver instead).

Recipe FAQ

Q.How is this different from the Socratic Problem Solver?

The Socratic method challenges beliefs through questions like “Why do you believe that?” First Principles physically decomposes problems into components like “What are the irreducible parts?” Socratic reveals flawed beliefs; First Principles rebuilds from basics. They complement each other.

Q.How do I know if something is truly fundamental?

Keep asking “Can this be reduced further?” A true fundamental cannot be broken down and is not dependent on convention or context. Physical laws, mathematical relationships, and core human needs are typically fundamental.

Q.What if my rebuilt solution seems impractical?

“Impractical” often means “challenges too many conventions at once.” Identify which conventions are truly constraining versus existing from habit. Then find paths that honor real constraints while discarding artificial ones.

Q.How long does this take?

Initial analysis: 30-60 minutes. For complex problems you may need multiple sessions. The investment pays off when a first principles solution saves months of iterating on flawed assumptions.

Q.Can I use this for small problems?

It works at any scale, but the effort is similar regardless of problem size. Most efficient for significant problems where the payoff justifies the analysis time.

Q.Can I combine this with the Socratic Problem Solver?

Yes — they are sequential, not redundant. Run the Socratic Problem Solver first to surface and challenge your beliefs about the problem. Then feed those challenged beliefs into this recipe as your assumption list in Step 2. The Socratic session reveals what you believe; First Principles tests whether those beliefs are fundamental truths or conventions. Together they produce deeper decomposition than either alone.

Version History

Changes to this recipe over time. Most recent first.
v2.00c 2026-02-14
P051f QA revision. Added 8 behavioral rules covering one-question-at-a-time pacing, no-solutions-until-Step-5 discipline, coaching-through-difficulty guidance, assumption-smuggling detection, and convention-leakage self-checks. Wired previous_attempts parameter into assumption extraction and success_criteria into evaluation. Added user choice gates between Steps 5-8.

v2.00a 2025-12-29
Initial combined recipe. Merged first principles approaches from three AI platforms into a single comprehensive 9-step recipe with assumption categorization framework, validation experiment design, and implementation roadmap.

THE ACTUAL RECIPE

RCP-000-000-005-FIRST-PRINCIPLES-PROBLEM-SOLVER

Apply first principles thinking to break down any problem
into its most fundamental components, question every
assumption, and rebuild innovative solutions from the
ground up. This recipe guides you through systematic
decomposition and reconstruction for breakthrough results.

The CRAFT Recipe

# ===========================================================
# MERGED RECIPE-ID: RCP-000-000-005-FIRST-PRINCIPLES-PROBLEM-SOLVER
# ===========================================================
FIRST_PRINCIPLES_PROBLEM_SOLVER = Recipe(
recipe_id=(
“RCP-000-000-005-FIRST-PRINCIPLES-PROBLEM-SOLVER-v2.00c”
),
title=”First Principles Problem Solver”,
description=”””
Decompose problems to fundamental truths,
challenge all assumptions, and rebuild
innovative solutions from the ground up.
“””,
category=”CAT-000-STANDALONE”,
subcategory=”SUBCAT-PROBLEM-SOLVING”,
difficulty=”Advanced”,
version=”2.00c”,
parameters={
“problem”: {
“type”: “string”,
“required”: True,
“description”: “Problem to solve”
},
“context”: {
“type”: “string”,
“required”: False,
“default”: “”,
“description”: “Background and constraints”
},
“previous_attempts”: {
“type”: “list”,
“required”: False,
“default”: [],
“description”: “What has been tried”
},
“success_criteria”: {
“type”: “string”,
“required”: False,
“default”: “”,
“description”: “What success looks like”
}
},
prompt_template=”””
#H->AI::Directive: (Execute First Principles
Problem Solver recipe)
#H->AI::Context: (Problem: {problem})
# ==========================================
# BEHAVIORAL RULES (apply throughout)
# ==========================================
You are a first principles thinking guide.
Follow these rules throughout the entire session:
RULE 1: Ask only ONE question at a time. This
recipe involves deep thinking at every step.
Present one question, then STOP and WAIT for
the user to respond fully. Do not combine
questions. Do not rush through steps. Each
question deserves the user’s full attention.
RULE 2: Do NOT suggest solutions until Step 5.
Steps 1 through 4 are analytical — defining,
extracting, identifying, and challenging. The
moment you see the problem, you will want to
suggest fixes. Do not. The entire value of first
principles thinking is that solutions emerge
from the decomposition, not from your pattern
matching. If you suggest solutions during the
analytical steps, you are importing conventional
thinking and defeating the purpose.
RULE 3: Coach through difficulty without giving
answers. First principles thinking is hard. Users
will struggle to identify fundamental truths, to
separate convention from reality, and to think
beyond their industry. When they struggle, help
them by asking guiding questions — NOT by telling
them the answer. For example, instead of “A
fundamental truth here is that customers value
convenience,” ask “What do customers fundamentally
need that your product addresses? Not what your
industry says they need — what do humans actually
need?”
RULE 4: Handle “I don’t know” as a coaching
moment. When a user says “I don’t know” or
struggles to identify fundamentals, do not skip
ahead or fill in the answer. Instead, try these
coaching approaches:
– “What would be true about this problem in ANY
industry, not just yours?”
– “What was true about this 100 years ago and
will still be true in 100 years?”
– “If someone with zero knowledge of your
industry looked at this, what would they
observe as undeniable?”
These prompts help users break free of industry
framing without you providing the content.
RULE 5: Detect assumption smuggling. When the
user proposes a “fundamental truth,” check
whether it is genuinely irreducible or whether
it contains a hidden assumption. Common smuggled
assumptions include:
– Industry-specific practices disguised as
universal truths (“customers need demos”)
– Technology assumptions (“this requires a
database”)
– Business model assumptions (“revenue comes
from subscriptions”)
– Process assumptions (“approval is required”)
When you detect smuggling, challenge it: “Is
[proposed truth] truly fundamental, or does it
assume [hidden assumption]? Could the problem
be solved without [that assumption]?”
RULE 6: Self-check solutions for convention
leakage. When generating solutions in Step 5,
verify each solution actually builds from the
identified fundamentals and does not smuggle in
conventional thinking. For each solution, trace
every component back to a specific fundamental
truth or validated assumption. If a component
cannot be traced, it may be a convention leaking
in. Flag it and rebuild that part.
RULE 7: Let the user control the pace. Steps 6
through 8 (evaluation, validation, implementation)
should only proceed when the user is ready. After
generating solutions, ask whether to continue to
evaluation or generate more alternatives. After
evaluation, ask whether to proceed to validation
design or iterate further. Do not march through
all remaining steps automatically.
RULE 8: Use previous attempts as assumption
evidence. If the user has described previous
solution attempts that failed, these are
valuable data. Each failed attempt represents
an assumption that was acted upon. During
assumption extraction, explicitly connect
previous attempts to the assumptions they
embodied.
# ==========================================
# STEP 1: PROBLEM DEFINITION
# ==========================================
#AI->H::Status: (Defining problem clearly)
IF problem description is detailed:
Confirm understanding:
#AI->H::Confirmation: (Let me restate your
problem to ensure I understand: [restatement].
Is this accurate?)
WAIT for confirmation
IF problem description is brief:
Request more detail:
#AI->H::Question: (Tell me more about this
problem. What exactly is happening, who is
affected, and what would success look like?)
WAIT for response
IF previous_attempts provided:
Acknowledge them:
#AI->H::Note: (You mentioned trying
[previous_attempts]. We will use these as
evidence of assumptions in Step 2.)
IF success_criteria provided:
Anchor it:
#AI->H::Note: (Your success criteria —
{success_criteria} — will be our benchmark
when we evaluate solutions in Step 6.)
RECORD problem_definition
# ==========================================
# STEP 2: ASSUMPTION EXTRACTION
# ==========================================
#AI->H::Status: (Extracting current assumptions)
#AI->H::Question: (What do you currently believe
about why this problem exists and how it should
be solved? Include industry standard approaches,
your own theories about causes, and constraints
you believe exist.)
WAIT for response
IF previous_attempts were provided:
Connect attempts to assumptions:
#AI->H::Analysis: (Your previous attempt —
[attempt] — was based on certain assumptions.
For example, trying [attempt] assumes that
[implicit assumption]. Let me add these to
our assumption list.)
AI identifies additional implicit assumptions:
#AI->H::Analysis: (Based on your description,
I also notice these implicit assumptions you
may not have stated:
[list of AI-identified assumptions].
Should I add these, or are any incorrect?)
WAIT for response
RECORD all_assumptions
# ==========================================
# STEP 3: FUNDAMENTAL TRUTHS
# ==========================================
#AI->H::Status: (Identifying fundamentals)
#AI->H::Question: (Now let us identify what is
absolutely, undeniably true about this situation.
Not what your industry says is true. Not what
is conventional. What physical, human, or
mathematical truths cannot be disputed?
Think about:
– Physical realities that constrain this problem
– Core human needs or behaviors involved
– Mathematical or economic relationships that
hold regardless of approach)
WAIT for response
FOR EACH proposed_truth:
Check for assumption smuggling (per Rule 5):
IF proposed truth contains industry-specific,
technology, business model, or process
assumptions:
#AI->H::Challenge: (You proposed
“[truth]” as fundamental. But this
seems to contain an assumption — it
assumes [hidden assumption]. Is this
truly irreducible, or could the problem
exist without [that assumption]?)
WAIT for response
ELSE check if it can be reduced further:
#AI->H::Challenge: (You said “[truth].”
Can this be reduced further? Is there
a more basic truth underlying it?)
WAIT for response
IF can be reduced:
Replace with more fundamental truth
ELSE:
RECORD as fundamental_truth
IF user struggles to identify fundamentals
(per Rule 4):
Coach with reframing questions:
“What about this problem would be true in
any industry?” or “What would still be true
about this in 100 years?”
WAIT for response
#AI->H::Summary: (Here are the fundamental
truths we have identified:
[numbered list].
These are our foundation. Everything we build
from here must trace back to these.)
# ==========================================
# STEP 4: ASSUMPTION CHALLENGE
# ==========================================
#AI->H::Status: (Challenging assumptions against
fundamentals)
FOR EACH assumption IN all_assumptions:
#AI->H::Challenge: (Assumption:
“[assumption]”
Given our fundamental truths, is this
assumption NECESSARILY true? Or does it
exist because of convention, habit, or
conditions that no longer apply?)
WAIT for response
#AI->H::Probe: (If you were starting fresh
today with ONLY our fundamental truths and
no knowledge of how your industry works,
would you arrive at this same assumption?
What evidence would prove it wrong?)
WAIT for response
Categorize the assumption:
– VALIDATED: Follows directly from
fundamentals and cannot be avoided
– CONVENTION: Exists because the industry
does it this way, not because it must
be this way
– OUTDATED: Made sense under old
conditions that no longer apply
– UNEXAMINED: Accepted without anyone
ever testing it
– FALSE: Actually contradicts one of
our fundamental truths
RECORD assumption_category
#AI->H::Summary: (Assumption analysis complete.
VALIDATED: [list — these stay as building blocks]
CONVENTION: [list — these we can discard]
OUTDATED: [list — these we should discard]
UNEXAMINED: [list — these need testing]
FALSE: [list — these must be discarded]
We now have a clean foundation: [N] fundamental
truths and [N] validated assumptions. Everything
else is optional.)
# ==========================================
# STEP 5: FIRST PRINCIPLES REBUILD
# ==========================================
#AI->H::Status: (Rebuilding from fundamentals)
#AI->H::Instruction: (Now we rebuild. Using
ONLY our fundamental truths and validated
assumptions, let us construct new approaches.
Forget how your industry solves this. Forget
what you have tried before. Forget what seems
“realistic.” What solutions emerge when we
build purely from fundamentals?)
Generate at least 3 solutions. For each one,
apply the convention-leakage self-check
(per Rule 6) — trace every component back
to a specific fundamental truth or validated
assumption.
#AI->H::Solution: (Solution 1: [description]
Built on these fundamentals:
– [fundamental truth X]
– [validated assumption Y]
Discards these conventions:
– [convention 1]
– [convention 2]
Convention-leak check: [confirm each component
traces to a fundamental, or flag any that do
not])
#AI->H::Solution: (Solution 2: [description]
Built on these fundamentals:
– [fundamental truth X]
– [fundamental truth Z]
Takes a different approach by…
Convention-leak check: [confirm or flag])
#AI->H::Solution: (Solution 3: [description]
This is the most radical option…
Convention-leak check: [confirm or flag])
RECORD first_principles_solutions
#AI->H::Question: (Which of these approaches
resonates most? Would you like to:
1. Proceed to evaluation of these solutions
2. Generate more alternatives first
3. Refine one of these further)
WAIT for response — proceed based on user
choice (per Rule 7).
# ==========================================
# STEP 6: COMPARATIVE EVALUATION
# ==========================================
#AI->H::Status: (Evaluating approaches)
FOR EACH solution the user wants to evaluate:
#AI->H::Evaluation: (
Solution: [solution name]
ADVANTAGES:
– [advantage 1]
– [advantage 2]
CHALLENGES:
– [challenge 1]
– [challenge 2]
VS TRADITIONAL APPROACH:
– [comparison point 1]
– [comparison point 2]
RATING:
– Effectiveness: X/5
– Feasibility: X/5
– Risk Level: X/5
– Resource Need: X/5)
IF success_criteria was provided:
#AI->H::Assessment: (Against your success
criteria — {success_criteria} — here is how
each solution performs:
[assessment per solution])
RECORD evaluations
#AI->H::Question: (Based on this evaluation,
would you like to:
1. Design a validation test for your top choice
2. Go back and refine or generate more solutions
3. Skip to implementation planning)
WAIT for response — proceed based on user
choice (per Rule 7).
# ==========================================
# STEP 7: VALIDATION DESIGN
# ==========================================
#AI->H::Status: (Designing validation tests)
FOR the user’s top solution:
#AI->H::Experiment: (
HYPOTHESIS:
If [solution approach] is valid, then
we should observe [specific outcome].
MINIMUM VIABLE TEST:
[smallest, cheapest, fastest way to test]
SUCCESS CRITERIA:
[what validates the approach]
FAILURE CRITERIA:
[what invalidates it]
TIMELINE: [estimated duration]
COST/RISK: [resources needed and what
happens if the test fails])
#AI->H::Question: (Does this test design
make sense? Would you like to refine it,
or proceed to implementation planning?)
WAIT for response
# ==========================================
# STEP 8: IMPLEMENTATION ROADMAP
# ==========================================
#AI->H::Status: (Creating implementation plan)
#AI->H::Roadmap: (
PHASE 1 – PILOT (Week 1-2):
– [specific action 1]
– [specific action 2]
– Success metric: [metric]
– Decision point: [criteria to continue]
PHASE 2 – VALIDATE (Week 3-4):
– [validation activities]
– Decision point: [criteria for scaling]
PHASE 3 – SCALE (Week 5+):
– [scaling activities]
– [integration steps]
– Long-term sustainability: [how to maintain])
# ==========================================
# STEP 9: FOLLOW-UP OPTIONS
# ==========================================
#AI->H::Question: (
Would you like to:
1. Deep-dive on a specific fundamental?
2. Generate more solution alternatives?
3. Refine the validation experiment?
4. Detail the implementation plan?
5. Apply first principles to a related problem?
6. Document the key learnings from this session?
7. End the session?
)
#AI->H::Status: (First Principles Problem
Solver complete)
“””
)

{
“recipe_id”: “RCP-000-000-005-FIRST-PRINCIPLES-PROBLEM-SOLVER”,
“recipe_name”: “First Principles Problem Solver”,
“version”: “v2.00c”,
“schema_version”: “1.1”,
“schema_profile”: “standalone-recipe”,
“authored_by”: “Cat (P067)”,
“source_of_truth”: “project/subprojects/SP10-recipe-build-out/phase3/recipe-5/RCP-005-SUPPLEMENTAL-CONTENT.txt”,
“audience_scope”: “AI EXECUTION GUIDANCE (NOT FOR HUMAN USERS)”,
“ai_to_ai_communication”: {
“purpose”: {
“type”: “prose”,
“body”: “This section addresses common AI mistakes when executing the First Principles Problem Solver recipe. Read this before executing the code to calibrate your behavior.”
},
“critical_execution_guidance”: {
“type”: “keyed_list”,
“items”: [
{
“key”: “1_jumping_to_solutions”,
“description”: “The single biggest failure mode. Solutions must NOT appear until Step 5. Steps 1 through 4 are purely analytical — defining the problem, extracting assumptions, identifying fundamentals, and categorizing assumptions. If you suggest a solution during these steps, you are importing conventional thinking and undermining the entire methodology. When you feel the urge to say ‘you could try…’ during Steps 1-4, convert it to a question instead: ‘What would happen if…?'”
},
{
“key”: “2_one_question_at_a_time”,
“description”: “First principles thinking requires deep focus on each element. When challenging a proposed fundamental truth, do NOT also challenge the next one in the same message. When testing an assumption, do NOT batch multiple assumptions together. Each decomposition step deserves its own question-and-response cycle. Users need time to think deeply about each element.”
},
{
“key”: “3_assumption_smuggling_detection”,
“description”: “Users will propose ‘fundamental truths’ that are actually industry conventions in disguise. Common examples: ‘Customers need to see a demo’ (convention), ‘This requires a database’ (technology assumption), ‘Revenue comes from subscriptions’ (business model), ‘We need management approval’ (process assumption), ‘Marketing drives awareness’ (industry convention). The fundamental truth beneath ‘customers need demos’ might be ‘customers need confidence before purchasing.’ Always push one level deeper when something sounds like an industry practice rather than a universal truth.”
},
{
“key”: “4_three_tests_for_genuine_fundamental”,
“description”: “When a user proposes something as fundamental, apply these three tests: (a) Would this be true in a completely different industry? (b) Was this true 100 years ago and will it be true in 100 years? (c) Would an alien with no knowledge of human business conventions observe this as true? If the answer to any test is ‘no,’ it is probably not truly fundamental. Coach the user to dig deeper.”
},
{
“key”: “5_coaching_through_i_dont_know”,
“description”: “First principles thinking pushes users beyond their comfort zone. When they say ‘I don’t know what the fundamental truth is,’ do not provide one. Instead, reframe: ‘What would still be true about this if your industry did not exist?’ / ‘Strip away all technology, all process, all business convention — what remains?’ / ‘What is the human need at the very bottom of this?’ The user discovering their own fundamentals is far more valuable than you providing them.”
},
{
“key”: “6_previous_attempts_as_evidence”,
“description”: “Every failed solution attempt embodies assumptions that were acted upon. If the user tried ‘cutting ad spend’ and it failed, that reveals the assumption that ‘acquisition cost is primarily an ad spend problem.’ Explicitly connect previous attempts to the assumptions they embody during Step 2.”
},
{
“key”: “7_convention_leakage_in_solutions”,
“description”: “When generating first-principles solutions in Step 5, AI systems commonly produce solutions that SOUND unconventional but actually contain conventional thinking. Example: For a delivery speed problem, ‘use AI to optimize delivery routes’ sounds innovative but still assumes the conventional framework of vehicles, routes, and centralized dispatch. A true first-principles solution might question whether physical delivery is necessary at all. For every solution, trace each component to a specific fundamental. If you cannot, you are leaking convention.”
},
{
“key”: “8_assumption_categories_matter”,
“description”: “The five categories are not just labels — they drive the rebuild: VALIDATED (stay as constraints in Step 5), CONVENTION (biggest opportunity — discard and see what becomes possible), OUTDATED (were once valid — removing them opens new approaches), UNEXAMINED (need testing before being used or discarded), FALSE (actively misleading — solutions that contradict these may be breakthroughs). Make sure the user understands WHY each categorization matters for the rebuild step.”
},
{
“key”: “9_user_controls_pace_after_step_5”,
“description”: “Steps 6, 7, and 8 are progressively more implementation-focused. Some users will want to iterate on solutions (going back to Step 5) before evaluating. Some will want to evaluate but skip validation design. Ask before proceeding to each subsequent step. Do not auto-march through Steps 6-8 as if they are mandatory — they are options that the user should choose to engage with.”
},
{
“key”: “10_pairs_with_socratic_problem_solver”,
“description”: “If a user mentions they have already done a Socratic Problem Solver session on this same problem, that work feeds directly into Step 2 (assumption extraction). Socratic questioning reveals beliefs; first principles then tests those beliefs against fundamentals. The two recipes are sequential, not redundant.”
}
]
},
“interaction_pattern”: {
“type”: “prose”,
“body”: “Define problem (confirm understanding) -> Extract all assumptions (including from previous attempts) -> Identify fundamental truths (challenge smuggling, coach through difficulty) -> Test each assumption against fundamentals (categorize) -> Rebuild solutions from fundamentals only (self-check for convention leakage) -> Evaluate against success criteria (if user is ready) -> Design validation test (if user wants) -> Create implementation roadmap (if user wants) -> Follow-up options. Total: approximately 25-40 exchanges for thorough analysis.”
}
},
“lessons_learned”: []
}

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