Decision Physics
Decision Physics · MatrixOS

Every problem
has structure.
We map it.

Generic advice fails because it treats every problem the same. Decision Physics maps the forces, blocks, and hidden paths specific to your problem — and personalises the solve to your cognitive profile, your context, and where you are in your own decision arc.

Not coaching. Not advice. Physics.

Expand
Constrain
Collapse
Recurse
Invariant
Have a problem to solve? →
What Decision Physics actually is

We know how to solve
because we mapped the structure
of every problem type.

A decade of research into the physics underneath human decisions produced something unusual: a formal map of every problem class, every force acting on it, and every intervention point that produces resolution. Not a framework you learn. An engine you use.

Expansion problems
Operator: Expand
You are constrained by a boundary that is not real. The problem is not that the option doesn't exist — it is that you cannot see past the frame you're using. The solve: expand the signal space before selecting an action.
Constraint problems
Operator: Constrain
You have too much signal, too many options, too much noise. The problem multiplies under attention. The solve: constrain the space to the variables that are actually load-bearing for this specific situation.
Collapse problems
Operator: Collapse
A structure that used to work is no longer functional. The solve is not repair — it is controlled collapse and rebuild. Trying to fix what should be collapsed is the most common and most expensive problem class.
Recursive problems
Operator: Recurse
The problem you are looking at is a symptom of a problem one level deeper. You will solve this one and the next one will appear until you recurse to the root. Most problems that return are recursive problems.
Invariant problems
Operator: Invariant
The constraint is genuinely fixed. Most invariants are not — they are assumed. But when one is real, the solve is to find which part of your approach can change while the invariant holds. The map prevents wasted effort on unmovable objects.
Combined physics
Operator: Composition
Most real problems are combinations. Decision Physics identifies which operators are active, in which sequence, at which layer. The composition of the problem determines the composition of the solve — and why generic advice always misses the specific.
Why personalisation matters

The same problem.
Different physics
for different people.

The problem might be identical. The person bringing it is not. Their decision-making profile, their cognitive state, their history with this problem class — all change which operators are active and which intervention will produce resolution.

Problem
"I can't decide whether to accept this job offer."
🔬
Analyst
Needs more data. Operator: ⊕ Expand the information set. Missing: long-term trajectory, cultural fit proxy, negotiation room.
High fatigue
Decision overload. Operator: ⊣ Constrain to two variables only. Everything else is noise until those resolve.
Pattern blocker
This is the same decision they couldn't make last time. Operator: ↻ Recurse. The offer isn't the problem.
Problem
"My team isn't performing and I don't know why."
🔭
Detached
The leader is observing but not inside the system. Operator: ⊕ Expand visibility before diagnosing. The data is incomplete.
🎯
Action-first
Already moving toward a solution before the problem is defined. Operator: ⊣ Constrain to the root signal. Acting on symptoms compounds the problem.
🏗️
Systems builder
The structure itself is the issue. Operator: ⟲ Collapse the current team architecture. The physics requires rebuild, not repair.
The intelligence layer that makes personalisation deterministic.
Every Decision Physics output is generated by the SDCI engine — six-dimensional semantic coordinates that map not just the problem but the profile of the person bringing it. The same input from different cognitive profiles produces different outputs. Not because the system guesses — because it has mapped the variable.
Matrix Time arc 6D profile PS Resolution Deterministic Patent-pending
5Glyph operators
6DSDCI profile
440PS Resolutions
21Books of research
Start here

What problem do you want to solve?

Describe it as plainly as you can. The more specific you are, the more specific the physics. Bring it to the session and we'll map the structure underneath it.

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