Modern Automated Retail Terminals

The terminal layer for the next generation of digital payments.

Terminuity builds merchant-side terminals that bridge legacy automated retail hardware to modern settlement networks. The customer scans with whatever wallet they already carry. The ledger handles the rest. No card readers. No payment processors. No proprietary apps.

Settlement
XRP Ledger · 3–5 sec
Architecture
Merchant dApp
Customer App
None required
01 / What we do

A merchant-side terminal that runs as a decentralized application.

Terminuity does not build payment networks. We do not run vending routes. We build the layer in between, which today does not exist in any usable form in the U.S. market.

The Architectural Premise

The terminal is the dApp. It generates a standards-based payment request, listens to the XRPL via WebSocket, and fires the dispense signal when payment confirms on-chain. The customer pays with whatever wallet they already carry. We never build a consumer-facing app, manage user accounts, or sit in the money transmission chain.

Customer side
Zero onboarding friction
No app to download. No account to create. The user scans a standard QR with whatever wallet they carry, and approves with biometrics.
Merchant side
Direct ledger settlement
The terminal subscribes to the merchant's XRPL address via WebSocket. When the customer's wallet submits a signed payload, settlement completes in 3–5 seconds. The terminal detects the on-chain event and releases the product.
Regulatory posture
Outside the chain
No customer wallet. No custody. No money transmission. The customer's wallet handles identity, key management, and compliance. Terminuity is hardware and merchant-side software.
02 / The problem

U.S. automated retail hardware is frozen in 1993.

The cabinet, the dispensing mechanism, the operator backend — all are recognizably 1990s infrastructure. Meanwhile payments, consumer expectations, and settlement technology have transformed completely. Nothing today connects the two.

03 / The architecture

One terminal. Three payment options. Zero card readers.

The terminal is the dApp. The customer's phone is the payment instrument. The XRPL is the settlement layer. The machine is the dispense mechanism. Every payment method runs on the same single piece of hardware.

Merchant Layer · Our Product
Terminuity Terminal
Generates QR payment request → Listens via WebSocket → Fires dispense signal
Customer Layer
Any XRPL-Compatible Wallet
Customer scans, reviews, signs with biometrics — CBDC apps, hot wallets, self-custody
Settlement Layer
XRP Ledger
Pathfinding · Auto-bridging · AMM liquidity · 3–5 sec finality · No MEV · Deterministic ordering
Hardware Layer
Vending or Retail Machine
Mechanical dispensing · Existing operator infrastructure · No card reader required

The three payment options on one terminal

The terminal screen presents three options. They coexist on the same hardware. NFC handles Apple Pay and Google Pay. The display generates the QR for ledger payments. No separate components, no card slot, no chip reader.

Primary · Why we exist
XRPL Stablecoin Payment
Customer scans QR with their wallet. Pathfinding converts whatever they hold into the merchant's preferred asset. Settlement on-chain in 3–5 seconds. No card processor in the chain.
Familiar option
Apple Pay (NFC)
Tap on the terminal screen. Apple holds the money transmission license. Customer experience is what they already know. Available alongside the ledger option, not behind it.
Familiar option
Google Pay (NFC)
Same NFC hardware. Same tap-to-pay flow. The Android equivalent of the Apple Pay path. Native support, not a workaround.

Why the XRP Ledger

The XRP Ledger was built from 2012 with universal interoperability as a foundational design goal. Two protocol features make "pay in anything, receive in anything" real, both running automatically beneath every transaction.

Native protocol feature
Pathfinding
When a customer pays in an asset the merchant does not hold, the network runs a native algorithm across every possible conversion route. The entire multi-hop conversion is atomic — it either completes fully in 3–5 seconds or fails completely.
Native protocol feature
Auto-Bridging
When direct liquidity between two assets is thin, the ledger automatically routes through XRP and compares the bridged rate against the direct rate in real time. Whichever is cheaper wins. The customer sees no interface for any of this.

Production ecosystem on the XRPL

Live deployments today
CBDCs, retail platforms, and merchant tooling already on the ledger

The XRPL is the network most CBDC pilots are being built on. As central banks deploy digital currencies, the wallets issued to consumers will be XRPL-compatible by default. That is the largest forward-looking adoption surface in the entire payment landscape — and it converges with the same architecture this product runs on.

Beyond CBDCs, retail-facing solutions like Frii Pay (point-of-sale software linking traditional terminals to the XRPL) and Xaman (developer SDK and wallet for QR-based payment requests) demonstrate that the merchant-side dApp pattern works in production. What does not yet exist is the unattended-retail and operator-grade hardware layer that wraps these primitives into a real product. That is the gap.

04 / The precedent

This already works at scale. In Japan.

JR East's acure pass platform proved every component of this thesis between 2017 and 2024. The system did not retreat when the original hardware reached end-of-life — it evolved into a full ledger-backed wallet ecosystem. The U.S. has none of this infrastructure.

2017 → 2024
acure pass · Phase I
Innovation Vending Machines designed by HNDI, software by teamLab, hardware by Fuji Electric. Decoupled purchase from fulfillment — customers bought drinks in an app and redeemed via QR at any machine. Pioneered peer-to-peer beverage gifting as digital tokens. Hardware retired at seven-year mechanical end-of-life. Not a failure — a planned generational replacement.
2025 → present
JRE Wallet + teppay · Phase II
Blockchain-backed ledger launched January 2025, turning drinks, tickets, and coupons into immutable digital assets. teppay introduced server-side instant settlement bypassing legacy stored-value limits. New machines deploy across roughly 8,000 acure locations. Model now exporting through JR East's UK acquisition of Decorum Vending in 2026.
The Lesson

Hardware and software evolve in parallel. Machines get redesigned every seven years. Operators who win are the ones building both layers in coordination. The U.S. market has none of this infrastructure yet. That gap is the opportunity.

05 / The market

Four companies. All card-rails. Zero ledger architecture.

The U.S. unattended retail technology market is in active consolidation. None of the consolidators have moved toward ledger-based or network-agnostic settlement. Their business models depend structurally on card processing fees — which means they are structurally incentivized not to build what we are building.

Cantaloupe
Formerly USA Technologies · Going private under 365 Retail Markets
$303M revenue FY25
1.28M active devices
Acquired for $848M

The dominant U.S. unattended retail platform. Cashless card readers, telemetry, route management, and a full operator backend. Acquired by 365 Retail Markets in 2025 at $848M, creating the largest unattended retail platform in North America. The consolidation signals both that the market is real and that strategic acquirers are active.

No ledger settlement Card rails only No design ambition
Nayax
Israeli-founded · Nasdaq: NYAX · Active acquirer
$400M revenue FY25
1.46M connected devices
$6.4B processed

More technically sophisticated than Cantaloupe and growing faster. 2025 revenue up 27% year over year with 2026 guidance of $510M to $520M. Their Onyx card reader is one of the most widely deployed unattended payment terminals in the world. Recent acquisition of Lynkwell signals active expansion into adjacent unattended payment infrastructure.

Card rails only No digital asset architecture Active acquirer
Crane NXT / CPI
Public · Crane Convenience (Jan 2026 rebrand) · Component manufacturer
100+ countries
Component manufacturer
MDB protocol incumbent

The oldest and heaviest incumbent. Physically manufactures the bill validators, coin mechanisms, and cashless payment hardware inside most vending machines operating today. Heritage brands include MEI, NRI, CashCode, and Conlux — they built the MDB protocol standard that still controls the entire industry. A component manufacturer at their core, not a software or settlement company.

Legacy infrastructure Hardware-first No software ambition
Square / Block
Public · NYSE: XYZ · Bitcoin / Lightning-committed
Adjacent player
Attended retail
Lightning-committed

An adjacent reference point, not a direct competitor. The structural reasons it is unlikely to enter unattended retail with this architecture:

  • Square's flywheel is built around attended retail — merchants with someone at a register. Hardware, software, and support are all shaped for that environment.
  • Block's strategic bet is Bitcoin and the Lightning Network. That requires merchants to be paid in BTC, which most operators do not want due to volatility and accounting friction.
  • Stablecoin settlement on the XRPL solves a problem Block's architecture does not. Different rail, different merchant proposition.
Different vertical Lightning-committed No stablecoin pathfinding
06 / Lessons from prior attempts

Modern automated retail has been tried. Most attempts failed.

The category has its own graveyard. Reading it carefully shapes how this is built. The pattern is consistent: technical execution was rarely the cause of death. Coordination, capital sequencing, and operational complexity were.

Cautionary tale
Byte 2018 — wound down

Smart fridge for offices. Vertically integrated hardware, food sourcing, and software. Tried to own every layer simultaneously. Capital efficiency collapsed under the weight of multi-front execution before unit economics matured.

Cafe X 2014 — pivoted

Robotic barista kiosks. Genuine engineering excellence. Real industrial design. Lost on operational complexity at scale, the cost of route servicing, and a hardware footprint that constrained the venues that could host it.

Briggo 2020 — acquired

Coffee Haus robotic coffee. Strong product, strong fundraising, eventually acquired by Costa Coffee. Could not scale unit economics fast enough as a standalone before being absorbed. Hardware-heavy thesis without the software-side moat.

The pattern

None of these companies failed because the technology did not work. They failed because they tried to build everything at once, ran out of capital before unit economics matured, or carried hardware footprints that constrained where they could deploy. The architectural decisions Terminuity makes — staying merchant-side, partnering for cabinets in early phases, sequencing software before hardware — are direct responses to these patterns.

07 / Where defensibility lives

Why won't an incumbent just do this?

They could, eventually, if they decided to. The more relevant question is what we will have built by the time they try. Six moats are realistic for a company at this stage to actually build.

MOAT / 01
Operational data from real deployments
Cantaloupe and Nayax have card-volume data from attended retail. We will have unattended-retail behavior data, machine-level uptime, and payment-method-mix by location type. That dataset shapes the product roadmap in ways outsiders cannot replicate.
MOAT / 02
Network-agnostic architecture
The architecture treats the payment network as an abstraction. When a CBDC pilot launches, when a new stablecoin clears regulation, when a new chain emerges — the terminal flips a config. Card-rails incumbents refactor a strategic bet.
MOAT / 03
Japanese design lineage
A serious Japanese industrial design partnership in the lineage of HNDI, teamLab, and Fuji Electric is not something Cantaloupe or Square commissions overnight. The cultural fluency required to brief it well is a genuine moat once built.
MOAT / 04
Vertical operator relationships
Square owns SMB attended retail. The incumbents own convenience-service vending. Neither owns hospitality member environments, premium fitness, transit operators, or workplace facilities management. Those buyers are won one relationship at a time.
MOAT / 05
CBDC readiness by default
When central banks deploy digital currencies, consumers will use wallets issued by their bank or government. Most of those wallets will be XRPL-compatible. Our terminals already speak that protocol. Every other unattended retail platform has to retrofit. We do not.
MOAT / 06
Regulatory positioning
By staying on the merchant side and never custodying funds, the regulatory surface area is hardware certification and merchant terms — not money transmission. Incumbents who hold customer funds and process payments have a heavier compliance burden by design.
08 / What this is not

Discipline lives in what we refuse to build.

The clearest companies are the ones that know exactly what they are not. The architecture is small on purpose. The scope stays narrow on purpose. Every "no" below is the reason the "yes" is buildable.

09 / Technical deep dive

For the engineers, the operators, and the deeply curious.

The product summary lives above. The full technical specification, transaction flow, and dApp positioning lives below. Each section opens to a fully-designed view.

A decentralized application is any application that uses a blockchain network as its primary backend infrastructure for logic and data storage. By that definition, every Terminuity terminal qualifies. Three characteristics make the classification load-bearing rather than cosmetic.

  • Decentralized settlement. The terminal does not route the transaction through Visa, Mastercard, or an acquiring bank. The merchant's terminal and the customer's wallet interact directly with the XRP Ledger.
  • Direct cryptographic signing. Transaction logic is not governed by a merchant server. The customer's wallet uses cryptographic keys to sign the payment payload. Terminuity never sees, holds, or processes the customer's funds.
  • Immutability and transparency. Once processed by the XRPL's consensus mechanism, the transaction record is unalterable and permanently visible on-chain. The merchant's reconciliation is the ledger itself.

The legal consequence: because the platform never custodies funds and never sits between sender and receiver, Terminuity is structurally outside the U.S. money services business definition. Compliance burden lives with the wallets, the stablecoin issuers, and the customer's bank. The regulatory surface area is hardware certification and merchant terms — not money transmission.

Removing the card reader simplifies the hardware significantly but does not make the terminal a screen. It still needs to be a real piece of operational infrastructure.

DISPLAY
Touchscreen for product display, QR generation, and Apple/Google Pay tap target. Industrial-grade glass with anti-glare for lighting variation.
CONNECTIVITY
NFC reader for Apple Pay and Google Pay. WiFi and cellular fallback for WebSocket connection to the XRPL. Offline resilience logic so a lost connection does not freeze the machine.
SECURITY
Secure enclave or trusted execution environment for transaction confirmation logic. Physical tamper detection. Remote management and update capability.
MACHINE INTERFACE
Controller board that communicates with the dispensing mechanism. Generates the dispense signal upon on-chain payment confirmation. Manufacturer-specific in early phases, abstracted as deployments scale.
NOT REQUIRED
No PCI-compliant card reader. No cash acceptor. No coin mechanism. No MDB-connected legacy cashless controller. Removing these reduces cost, complexity, and certification burden simultaneously.

The full end-to-end customer experience. The customer never knows which rail processed the transaction. They scan, approve, and the product drops.

01
Customer selects a product on the terminal

Industrial-grade touchscreen. Customer browses, selects an item. Total displays in the merchant's preferred currency.

02
Terminal generates a payment request

Standards-based QR code containing the merchant's destination address, the requested asset, and the exact price. Apple Pay and Google Pay tap zones available simultaneously on the same screen.

03
Customer scans with their wallet

The wallet parses the request, checks the customer's balances, and runs pathfinding to identify the cheapest route from whatever asset they hold to the merchant's requested asset.

04
Customer approves with biometrics

Face ID or fingerprint. The wallet cryptographically signs the payload and submits directly to the XRPL network. The terminal does not see, hold, or process the customer's funds at any point.

05
XRPL validates and settles

Decentralized consensus validates the transaction. Pathfinding executes the asset conversion atomically. Settlement completes in 3–5 seconds. The transaction record is immutable and on-chain.

06
Terminal detects the on-chain event

WebSocket subscription to the merchant's address fires. The terminal confirms receipt of exactly the amount requested in the requested asset. Dispense signal fires to the machine's mechanical system.

07
Product drops

The customer collects. End-to-end elapsed time: typically under 10 seconds. The customer's experience is identical to any modern QR payment. The architecture beneath it is fundamentally different.

The XRPL has been the most quietly capable settlement network in the payments space since 2012. The protocol features that matter for an unattended retail terminal:

XLS-30 AMM Layer
Automated Market Makers
The XRPL's native AMM protocol provides immediate, non-custodial swaps when the central limit order book is thin. Concentrated Liquidity (CLAMM) lets liquidity providers concentrate capital within tight price ranges — for example, $0.99 to $1.01 for correlated stablecoins — keeping slippage near zero for the low-value transactions typical in unattended retail.
Consensus design
No MEV. No gas auctions.
Traditional blockchains have mempools where validators reorder transactions to extract value or prioritize gas fee bidders. The XRPL uses federated consensus with deterministic transaction ordering. A vending machine transaction cannot be front-run or delayed by anyone. Product dispenses reliably within 3–5 seconds, every single time.

What the merchant gets, end-to-end

A local merchant sets their terminal to receive a regulated USD stablecoin. A customer walks up holding XRP, a Euro stablecoin, tokenized loyalty points, or eventually a CBDC. They scan the QR. The wallet runs pathfinding, converts mid-flight, and settles in the merchant's preferred asset. The customer never has to hold a specific currency to shop. The merchant never has to handle a foreign asset.

The "everybody issuing tokens" problem solves itself. The terminal does not need to support every meme coin or vendor-specific loyalty token. It needs to support major stablecoins, whatever CBDC rails materialize, and Apple/Google Pay on the legacy side. Pathfinding handles the conversion logic on the asset side automatically. The architecture self-limits to assets that actually have liquidity.

No complex smart contracts. The XRPL has native payment protocols. The terminal uses standard API calls via xrpl.js or xrpl-py.

The five-step developer workflow

  • Create a permanent XRPL account for the merchant terminal
  • Set up a WebSocket subscription listening for the merchant's address
  • Terminal fetches optimal conversion path for the transaction
  • Display the transaction as a scannable payment QR code
  • Customer signs payload — XRPL processes payment and emits WebSocket event
Terminal subscription pattern
import { Client } from 'xrpl';
async function setupTerminal() {
  const client = new Client("wss://xrplcluster.com");
  await client.connect();
  // Subscribe to merchant address for incoming payments
  await client.request({
    command: "subscribe",
    accounts: [merchantAddress]
  });
  client.on("transaction", (tx) => {
    // On confirmed payment, fire dispense signal
    triggerDispense(tx);
  });
}

This is buildable engineering. The hardest infrastructure layer was already built by Ripple. The terminal-side complexity is in the hardware interface, the operator backend, and the deployment operations — not in the ledger integration.