ATOM Builder Funding Market

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ATOM Builder Funding Market (ABFM)

Hydro-Integrated, Execution-Driven Capital Allocation System

1. Objective

Establish a capital allocation system from the community pool of the Cosmos Hub that funds builders based on verifiable execution and real adoption, using:

  • Hydro as the allocation and signaling layer

  • a dedicated execution module for enforcement

  • strict entry requirements to ensure quality

The system is designed to fund ATOM-aligned execution, not ideas.

2. Core Design Principles

2.1 Funding is Earned, Not Granted

Capital is unlocked only through verified milestones.

2.2 Quality at Entry

Only structured, credible teams can access Hydro.

2.3 Economic Alignment is Mandatory

Builders must take real financial risk.

2.4 Builders Must Remain Operational

The system must allow teams to function (pay salaries, operate), not just survive.

2.5 Full Payment = Market Validation

A fully funded project is not just built — it is used.

3. System Architecture

3.1 Hydro Layer (Allocation)

Hydro is used for:

  • bid submission

  • discovery

  • community signaling

  • ranking

Hydro determines:

  • which projects deserve capital

3.2 Execution Layer (Funding Module)

Handles:

  • escrow

  • milestone validation

  • payments

  • stake tracking

  • slashing

3.3 Verification Layer

Ensures:

  • KPI validation

  • on-chain metrics

  • usage tracking

4. Strict Entry Requirements (Hard Filter)

Before reaching Hydro, proposals must pass a mandatory validation filter.

Rejected if:

  • no structured milestones

  • vague deliverables

  • no measurable KPIs

  • no verifiable identity or track record

This ensures Hydro only processes high-quality bids.

5. Bid Structure

5.1 General Information

  • Project name

  • Team identity

  • Technical description

  • Category

6. Milestone Framework (Minimum 4 Milestones)

Phase 1: Technical Execution

  • M1: Core build

  • M2: Deployment

Phase 2: Market Validation

  • M3: Initial traction

  • M4: Strong validation

Milestone Requirements

Each milestone must include:

  • precise deliverable

  • measurable KPI

  • verification method

  • deadline

  • payment allocation

Key Principle

Full funding = proven real-world usage.

7. Payment System

Balanced Distribution

  • M1: 15–20%

  • M2: 20–25%

  • M3: 25–30%

  • M4: 30–35%

Rules

  • 100% escrowed

  • conditional release

  • grace period for delays

  • funding stops on failure and slashing appears.

8. Skin in the Game

8.1 Problem

A strict collateral requirement creates a barrier:

  • strong teams without capital cannot participate

  • only well-funded actors can access large grants

  • innovation becomes concentrated

This is undesirable.

8.2 Principle

Skin in the game must exist, but it does not need to be purely upfront capital.

The system should accept multiple forms of commitment, all measurable and enforceable.

8.3 Adaptive Collateral Model

Instead of a fixed requirement:

  • base stake requirement: flexible range (5% → 40%)

  • adjusted based on:

    • team track record

    • project risk

    • milestone quality

8.4 Accepted Forms of “Skin in the Game”

1. Direct ATOM Stake (Standard)

  • simplest and strongest signal

  • still preferred

2. Progressive Staking (Important for low-cap teams)

Instead of requiring full stake upfront:

  • team starts with lower stake (e.g., 5–10%)

  • must increase stake over time as milestones unlock

Example:

  • M1 → 5% stake

  • M2 → 10%

  • M3 → 20%

:backhand_index_pointing_right: aligns risk with progress

3. Payment Recycling (Self-Funding Mechanism)

Part of early payments must be restaked.

Example:

  • M1 payout = 30,000 ATOM

  • mandatory: 30–50% restaked

This allows:

  • capital-poor teams to bootstrap

  • alignment to grow over time

4. External Co-Signers / Backers

A third party can provide stake:

  • VC / DAO / angel

  • acts as guarantor

If failure:

  • their stake is slashed

:backhand_index_pointing_right: creates a market of risk underwriting

5. Future Revenue Commitment (Advanced)

Teams can commit:

  • % of future fees

  • revenue share

  • token emissions

This supplements lower initial stake.

8.5 Minimum Requirement (Non-Negotiable)

Even in flexible mode:

  • a minimum stake must exist (no zero-risk participation)

  • must be:

    • on-chain

    • slashable

    • transparent

8.6 Risk-Adjusted Requirements

Project Type Stake Requirement
Proven team 5–15%
Standard 15–25%
High risk 25–40%

8.7 Why This Works

This model preserves:

  • discipline (still slashable)

  • fairness (access for smaller teams)

  • scalability (supports ambitious projects)

8.8 Key Insight

The goal is not to require wealth.
The goal is to require credible commitment.

Commitment can be:

  • capital

  • future exposure

  • increasing alignment over time

8.9 Final Rule to Include

Builders must demonstrate meaningful economic commitment to ATOM.
This commitment can be provided through initial stake, progressive staking, or enforced reinvestment of received funds.
The system prioritizes continuous alignment over static upfront collateral.

9. Growth Requirement

The team’s staking position must evolve as if it were fully staked and auto-compounding at the native ATOM APR.

In practical terms:

  • The team must keep 100% of its committed ATOM actively staked

  • Rewards must be consistently re-delegated (auto-compounded)

  • The staking position must grow over time in line with network APR

This ensures that:

  • the team remains fully economically engaged

  • there is no passive extraction or disengagement

  • builders are continuously aligned with ATOM holders, just like long-term stakers

Any deviation (unstaking, not compounding, or underperforming APR) signals a break in alignment and may trigger penalties or funding adjustments.

10. Slashing Policy (Asymmetric Design)

10.1 Rationale

Not all milestones have the same nature.

  • M1–M2 depend almost entirely on the builder’s execution

  • M3–M4 depend partially on external market forces (users, demand, timing)

A symmetric slashing model would either:

  • be too harsh (penalizing honest failure), or

  • too weak (allowing opportunistic behavior)

Therefore, the system adopts asymmetric slashing:

strict where execution is controllable
conditional where outcomes depend on the market

10.2 Execution Phase (M1–M2)

  • full accountability

  • strong slashing enforced

If failure after grace period:

  • funding stopped

  • significant stake slashed (e.g., 30–100%)

10.3 Validation Phase (M3–M4)

Slashing becomes conditional.

Case A: No Verifiable Effort (Negligence)

Examples:

  • no integrations attempted

  • no user acquisition effort

  • no activity

-> Consequence:

  • partial slashing (e.g., 10–30%)

Case B: Verifiable Effort but Low Traction

Examples:

  • product live

  • integrations exist

  • activity measurable

  • but adoption below target

-> Consequence:

  • no slashing

  • no milestone payment

  • project not renewed

Case C: Partial Success

-> Consequence:

  • proportional payment

  • no slashing

Case D: Full Success

-> Consequence:

  • full payment

  • improved ranking

  • increased future allocation

10.4 Definition of Verifiable Effort

Effort must be measurable through:

  • on-chain activity

  • integrations

  • usage signals

  • development activity

This prevents abuse of “market didn’t respond” justification.

11. Selection via Hydro

Hydro is responsible for:

  • surfacing bids

  • enabling community evaluation

  • ranking projects

Voters evaluate:

  • milestone clarity

  • team credibility

  • alignment (stake)

  • expected impact

They do not:

  • validate execution

  • manage payments

12. Continuous Reallocation

  • periodic evaluation

  • underperformers removed

  • capital reallocated

13. Detailed End-to-End Example

Context

  • Total budget: 1,000,000 ATOM

  • Duration: 3 months

  • 3 projects submit bids via Hydro

Step 1: Submission

Project A — Infrastructure

  • Request: 400,000 ATOM

  • Stake: 120,000 ATOM

Milestones:

  • M1 (20%): routing engine built

  • M2 (25%): deployed on mainnet

  • M3 (25%): 50k transactions

  • M4 (30%): 5M volume sustained

Project B — DeFi

  • Request: 350,000 ATOM

  • Stake: 100,000 ATOM

Milestones:

  • M1: contracts deployed

  • M2: launch + audit

  • M3: 2k users

  • M4: 10M TVL

Project C — Tooling

  • Request: 250,000 ATOM

  • Stake: 60,000 ATOM

Milestones:

  • M1: dashboard

  • M2: API

  • M3: 100 users

  • M4: 1,000 users

Step 2: Hydro Voting

Results:

  • A: 45%

  • B: 35%

  • C: 20%

Step 3: Allocation

  • A: 450,000 ATOM

  • B: 350,000 ATOM

  • C: 200,000 ATOM

Funds locked.

Step 4: Execution

Month 1

  • A completes M1 → paid

  • B completes M1 → paid

  • C fails

C enters risk zone.

Month 2

  • A completes M2 → paid

  • B completes M2 → paid

  • C fails again

C:

  • funding stopped

  • stake slashed significantly

Month 3

  • A completes M3 → paid

  • B attempts M3 but weak traction

B:

  • shows effort

  • no slashing

  • partial or no payment

Final Phase

  • A completes M4 → full success

  • B partial success

  • C removed

Step 5: Outcomes

A

  • fully funded

  • proven usage

  • prioritized next cycle

B

  • not slashed

  • but not fully rewarded

C

  • slashed

  • excluded

14. Final Insight

This system enforces a critical balance:

  • strict on execution

  • fair on market risk

  • aligned with long-term value

15. Conclusion

By integrating Hydro with asymmetric enforcement, this model creates:

  • a competitive builder market

  • strong execution discipline

  • fair treatment of market uncertainty

  • efficient capital allocation

Hydro selects who gets capital.
Execution determines who keeps it.
Adoption determines who earns it fully.

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