ONE-GRAM OF TECH1G METHODOLOGY

ONE-GRAMOF TECH(1G).

How to ship new software when product–market fit is unknown.

Understand 1G in 60 seconds
VISIONDECOMPOSESHIP 1GVALIDATESTACK
1G
THE BUILD UNIT

Build the smallest complete thing that someone would actually use on its own.

10G
THE VISION

Your big vision — the full platform you dream of building.

THE RULE

Build your 10G vision as a stack of 1G units.

If a feature can't stand alone as a tiny, useful product → don't build it yet.

WHY

Most MVPs fail because they're 30% of 10 things instead of 100% of 1 thing.

EXAMPLE

A classroom platform

01

Don't build "a full classroom platform" (10G).

02

Build "teachers can post one assignment" (1G).

03

If teachers use it → add the next 1G. If not → pivot.

That's it. The rest is details.

The vision is not the build unit.

One-Gram of Tech (1G) is a methodology for building new software products where product–market fit is unknown.

The core claim:

01

Ambitious "10G" products should be built as a stack of 1G units – tiny user-facing features that could stand alone.

02

If it cannot stand alone, it is support work or waste.

03

10G is the narrative; 1G is the build unit that prevents all-or-nothing releases.

This methodology starts with three uncomfortable facts.

If these premises are rejected, the methodology does not apply.

01

Engineering time is scarce capital, regardless of cash on hand.

02

User value is uncertain for genuinely new ideas – many guesses miss.

03

Being wrong is expensive, and extra scope multiplies the cost.

NON-NEGOTIABLE RULE
BEFORE ENGINEERING EFFORT:
"If this were shipped on its own, as a tiny standalone product for a specific segment, would it have a plausible path to adoption and revenue on its own?"
THE IMMEDIATE OUTCOMEVALUE NOW.

A feature is only a 1G if the reward for using it occurs in the same cycle as the effort required to use it. If the user must perform an action today for a reward in six months, it is not a 1G; it is a 10G dependency.

A candidate feature counts as a 1G only if all of the following are true:

01

Specific user / segment.

There is a clearly defined type of user; not "everyone" but a concrete segment.

02

Specific painful problem with real cost.

The problem has a visible cost in time, money, risk, or missed opportunity today.

03

Smallest complete outcome.

There is a precise definition of "done" in which that problem is solved end-to-end for that user, without requiring several other unfinished pieces to be useful.

04

Standalone viability.

It is realistic to imagine a simple landing page that promises only this outcome, and a segment that would adopt it on its own and plausibly pay for it, even if nothing else existed.

Informal version: "Would this make sense as a micro-SaaS if it had to?"

Find the root node before you build the graph.

Every product has a ground-zero unit of value. This is not a design preference. It is Dependency Logic. If Feature B depends on Feature A, building both at once introduces technical noise. We isolate the foundation so your feedback is 100% interpretable.

AVALIDATE ATHEN BUILD B
Booking product

the user must be able to apply.

Community

the user must be able to create a profile.

Task guide app

the user must be able to upload.

Notification system

users must be willing to give their email.

If this foundation does not work, nothing else can be validated.

When this step is skipped, you lose the ability to diagnose problems. The methodology avoids this failure mode entirely. Each version of the product is designed to answer a single yes/no question:

Does the core action work?Do users adopt it?Does it create value?

10G is thedirection.

1G is theexecution.

10G VISION

Your 10G vision is your direction, not your first thing to build.

"Teachers need full classroom management.""Small practices need complete practice management.""Students need a housing platform."

10G statements are useful as direction and narrative. The problem arises when a 10G vision is treated as the first unit of execution.

1G does not reject 10G. Instead:

  1. 01

    Start from the 10G statement.

  2. 02

    Break it into concrete pains with clear costs.

  3. 03

    Define the smallest complete outcomes for each pain.

  4. 04

    Select one 1G to build and ship.

  5. 05

    Repeat, stacking additional 1Gs over time.

The 10G product becomes the accumulation of validated 1Gs plus the necessary support/glue, not a single massive first release.

Engineering time becomes learning capital.

The difference is in how capital is deployed.

10G-FIRST50–200K

"One broad, entangled experiment. High cost to reach meaningful validation."

VS
1G-FIRST4–10K

"Several narrow, explicit experiments. Cost to reach validation often drops to this range for a single, sharply scoped 1G."

Failure pinpoints a specific hypothesis rather than "the platform". Success is anchored in a specific behaviour users adopt or pay for.

The 1G-first mindset turns engineering time into Learning Capital.

Not every important thing is a 1G.

Not all important work can or should pass the 1G gate. Examples include infrastructure, security, compliance, and refactors.

THE TEST
"Does this materially increase the expected value, robustness, or coherence of one or more real 1Gs, and therefore of the 10G product they form?"

The methodology claims that only work justified as a 1G or support/glue that clearly raises the expected value of specific 1Gs should receive engineering capital in the early stages.

In practice, the methodology reduces to repeatedly asking:

"What is the smallest complete problem being solved here, for which specific users, that they would genuinely care enough about to adopt or pay for on its own – and does this feature meet that bar?"
YES

It becomes a 1G building block of the 10G vision.

NO

It is either support work for a different 1G, or it should not be built.

How One-Gram of Tech formalizes Graph Theory for business.

The technical depth is not a separate methodology. It is the machinery underneath the same rules you just read.

01

Structural Decomposition

G → {G₁, G₂}
APPLICATION

We treat the ambitious "10G Vision" as the parent graph and decompose it into "1G" subgraphs. Each unit is a self-contained module.

THE THEORY

Partitioning a complex graph (G) into edge-disjoint subgraphs (H).

02

Dependency Logic Sorting

Toposort(G)
APPLICATION

The "Ground-Zero Rule" is a literal DAG implementation. We identify the Root Node, the foundation upon which everything else depends.

THE THEORY

A DAG is the mathematical requirement for Topological Sorting.

03

Fault Propagation Control

Cut(V) → isolate(vᵢ)
APPLICATION

The 1G Gate acts as a Vertex Cut. By shipping one atomic unit at a time, we "cut the edges" to external dependencies.

THE THEORY

In dense networks, errors propagate through adjacent edges.

04

System Synthesis

G = ⋃ᵢ Cliqueᵢ
APPLICATION

Iterative Graph Synthesis. The final 10G product is the accumulation of validated 1G units. Stable by design.

THE THEORY

Mimics Clique-Based Reconstruction, building a Supergraph from cliques.

LAST UPDATED

Nov 21, 2025

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