We talked to a payments company last month — 40 people, Series A, processing $80M/year in cross-border remittances through traditional banking rails. Their CFO had done the math: switching their US-to-LATAM corridor from SWIFT to USDC settlement would cut their per-transaction cost from 4.2% to under 0.5%. That's $3M/year back in margin on their current volume alone.
$80M/yr
Cross-border volume
4.2% → 0.5%
Per-txn cost via USDC
$3M/yr
Margin recovery
So they tried to build it. They hired two Solidity contractors. Four months in, they had a basic ERC-20 with mint/burn logic, no security audit, no compliance framework, and no deployment pipeline. The contractors were billing $45K/month combined. The CCO had flagged that they'd need Money Transmitter Licenses in every US state they operated in — but nobody had started that workstream because the engineering team was still debugging reentrancy issues in their collateral manager.
They shelved the project. Went back to SWIFT. This is the pattern we see over and over. The economics of stablecoin rails are obvious — the cost of building the infrastructure from scratch kills the project before it ships.
The Gap Nobody Has Filled
When we wrote about how to launch a stablecoin in 2026, we laid out the regulatory landscape — GENIUS Act requirements, MiCA authorization, HKMA licensing, the state-by-state MTL regime in the US. What that piece didn't address was the engineering side: who actually builds the smart contracts, how they get tested, and how the whole thing connects to the compliance obligations we described.
The industry's answer has split into two dead ends.
The first: payment processors that bolted stablecoin settlement onto their existing products. Stripe, PayPal, and others now offer USDC payouts through their APIs. Clean integration. No blockchain knowledge required. But you're using their contracts, their compliance, their fee structure. You can't customize the minting logic, you can't add governance mechanisms, you can't build a treasury management layer on top. You're a tenant, not an owner. For accepting stablecoin payments at checkout, this is fine. For building stablecoin-powered financial products — FX corridors, programmable payment flows, collateralized lending tokens — it's a wall.
The second: hiring blockchain engineers and building from scratch. This is what we watched that payments company try. It works if you have 6-12 months, $500K+ in first-year costs, and the institutional patience to wait. Most companies outside of crypto have none of those things.
The DIY cost reality
6–12 months build time. $500K+ first-year costs. $45K/month contractor bills. And you still need security audits, compliance frameworks, and deployment pipelines on top of that.
What's missing is the middle — the infrastructure layer that gives you your own stablecoin, with your own contract logic, tested before deployment, compliant from day one, without requiring you to become a blockchain engineering shop.
What We Mean by "as-a-Service"
The phrase is getting thrown around loosely, so let's be specific. Stablecoins-as-a-Service doesn't mean we host a stablecoin and you call our API. That's stablecoin-payments-as-a-service. Different product.
It means the full infrastructure for going from "we need a stablecoin" to "we're operating a stablecoin" — and everything in between is handled by the platform rather than by your engineering team or a consulting engagement.
Concretely:
Step 1 — Design
Design your stablecoin architecture — collateral model, governance, oracle integration, minting logic, fee structure, access controls — using the visual builder. Drag components onto a canvas, connect them, configure properties. No Solidity required. Or describe what you want in plain English and the AI generates the architecture.
Step 2 — Generate
The platform generates custom Solidity — not a template with your token name swapped in. OpenZeppelin patterns, reentrancy guards, and access controls enforced automatically. Read every line in the Monaco editor. Modify it. The AI explains what each function does.
Step 3 — Test
Test in the browser. The EVM simulator deploys your contract to a mock blockchain in your browser tab — no testnet, no MetaMask, no gas. Mint tokens. Transfer between accounts. Test unauthorized access. See transaction logs, gas estimates, state changes. The payments company spent four months debugging on Sepolia. This step takes minutes.
And after deployment, the platform keeps working. This is where most "easy deployment" tools stop and where the actual operational complexity begins.
Deployment Is the Easy Part
When we built the License Tracker, we wrote about a reality that deployment-focused tools ignore: a stablecoin operating across the US, EU, and Hong Kong requires 30+ distinct licenses, each with its own renewal cycle, conditions, and filing requirements. We wrote about compliance officers tracking these in Google Sheets. We wrote about how a single missed MTL renewal in one state can cascade across jurisdictions.
When we built the Regulatory Change Feed, we wrote about compliance teams that were 1-7 days behind on regulatory developments because their monitoring consisted of a junior analyst manually scanning regulator websites. We wrote about an OCC letter that changed bank stablecoin custody risk assessments overnight — and how most compliance teams found out about it from a Telegram screenshot rather than from a structured monitoring process.
When we built Agent Payments, we wrote about teams that were giving autonomous agents raw payment credentials with prompt-based spending limits — and how every one of them had a story about an unexpected charge.
Each of those posts described a module we shipped. But each module also represents a layer in the same infrastructure stack. The design-to-deployment pipeline gets you from idea to on-chain contract. The compliance module maps your deployment to regulatory frameworks and tracks your posture. The License Tracker manages the licensing lifecycle. The Regulatory Change Feed monitors the jurisdictions you operate in. Agent Payments handles autonomous spending controls if your stablecoin is consumed by agentic systems.
A deployment tool gives you step 1. Stablecoins-as-a-Service gives you all of them.
The Compliance Problem That Kills Projects
Here's a specific failure mode we've seen three times this year.
Real failure pattern
A team deploys a stablecoin. It works technically. Users start transacting. Three months later, the CCO gets a letter from a state regulator asking about their money transmission license. They don't have one — because the engineering team deployed to "test in production" and nobody looped in compliance. The choice: cease operations or rush a license application — 6-12 months and $50K+ in legal fees, technically operating without authorization the entire time.
This happens because deployment tools treat compliance as someone else's problem.
Our compliance module is integrated at the project level. When you create a stablecoin project, the platform maps it to applicable frameworks — MiCA if you're targeting the EU, GENIUS Act if the US, HKMA if Hong Kong. Before you deploy, you can see which obligations you've addressed and which are outstanding. The posture dashboard scores your readiness across every framework that applies to you. The License Tracker tells you which licenses you need, which you have, and which are expiring.
This doesn't replace your lawyers. Jurisdictional analysis — which entity structure to use, which exemptions might apply, how to interpret the GENIUS Act's reserve attestation requirements for your specific collateral model — still requires legal expertise. But it means your lawyers are working from structured data instead of building the compliance picture from scratch.
What This Looks Like in Practice
Let's walk through what the payments company from the opening would have done differently.
Instead of hiring Solidity contractors, they'd open the visual builder and lay out their architecture: a USDC-collateralized token with mint/burn gated to their treasury operations, a fee mechanism that takes 0.5% on off-ramp transactions, and access controls restricting minter/burner roles to their ops team. This takes an afternoon, not four months.
The platform generates the Solidity. Their one blockchain-literate engineer reviews it in the code editor — checks the access control logic, verifies the fee calculation, confirms the collateral handling matches their business model. If something's off, they modify it directly or ask the AI to regenerate with different parameters.
They test in the simulator. Mint 1M tokens. Transfer between accounts. Simulate an off-ramp with the fee deduction. Verify the fee accrual. Try minting from an unauthorized account — transaction reverts, as expected. Try burning more tokens than an account holds — reverts. An hour of work.
Meanwhile, their CCO opens the compliance module. The platform has flagged: GENIUS Act for US operations, state-level MTL requirements for the states where they have users. The posture dashboard shows which requirements they've met and which are outstanding. The CCO starts the MTL applications in parallel with the engineering work — not months later when a regulator sends a letter.
They deploy to Base Sepolia for final testing with real wallet interactions. Then mainnet. The Regulatory Change Feed starts monitoring for developments that affect their frameworks. When the GENIUS Act gets its next amendment — and it will — their compliance team sees it in the feed, mapped to their framework, with an action item generated automatically.
Total elapsed time from project start to deployment: weeks, not months. And the compliance workstream started on day one, not after an incident.
Weeks
Idea to deployment
Day 1
Compliance workstream starts
Minutes
In-browser testing
1 click
Deploy to mainnet
What This Doesn't Do
Consistent with how we approach every module:
Professional security audits. The AI generates code with standard security patterns, and the security analysis catches common vulnerabilities. For a stablecoin managing real value, you still want a human audit before mainnet. We reduce the attack surface — generated code follows established patterns with fewer custom code paths — but we don't replace the auditor.
Custom chains. We deploy to Base and Base Sepolia. If you need an app chain, a custom L2, or deployment to networks we don't support, that's outside current scope.
Legal advice. The compliance module gives your legal team structured data to work from. It doesn't tell you which entity structure to use in Luxembourg or whether your collateral model qualifies for the GENIUS Act's lighter reserve requirements. That's still your lawyers' job.
The Stack
We described the Three-Color Evaluation Stack back in November — the principle that every stablecoin operation needs deterministic rules, AI-powered interpretation, and human oversight. That was the architecture. Everything we've shipped since is the implementation.
The visual builder and AI code generation are the design layer. The simulator is the testing layer. Wallet deployment is the execution layer. The compliance module, License Tracker, and Regulatory Change Feed are the operational layer. Agent Payments is the agentic consumption layer. The FX engine and corridor infrastructure are the money movement layer. The API is how everything gets consumed programmatically.
Each piece is a module. Together, they're what Stablecoins-as-a-Service actually looks like when you take it seriously — not a deployment tool with a marketing name, but the infrastructure that lets a company go from "we should do something with stablecoins" to actually operating one.
Key takeaway
The payments company we opened with went back to SWIFT because building stablecoin infrastructure from scratch was a bigger project than their core business. That's the right conclusion given their options at the time. The point of this platform is to make that no longer the case.
Start with the Visual Builder, test in the Simulator, check your compliance posture in the Dashboard, or read the API docs.