INFRASTRUCTURE FOR AUTONOMOUS SOFTWARE
AUTONOMOUS
DIGITAL OPERATIONS
Deploy persistent digital workers that reason, execute, remember, connect, coordinate, and operate across software environments.
THE OPERIA MODEL
ONE SYSTEM.
SEVEN OPERATIONAL LAYERS.
The user defines the objective and operational boundaries. OPERIA provides the environment in which the worker operates — moving from understanding an instruction to actually executing the resulting task.
LAYER 01 / 07
INTELLIGENCE
Connects workers to multiple model sources. Different operations prioritize reasoning, speed, cost, coding performance or specialized capability — workers evolve independently from individual model providers.
DIGITAL WORKERS
PERSISTENT WORKERS,
NOT SESSIONS.
A worker is a long-lived operational entity. It holds a role, a memory, a set of capabilities and a permission scope — and keeps operating between interactions.
TASK CLASS 01
Market and competitor scans
TASK CLASS 02
Source gathering and synthesis
TASK CLASS 03
Continuous topic tracking
Illustrative task classes — actual worker behavior is defined by its configuration.
LAYER 01 — INTELLIGENCE
INTELLIGENCE AS
INFRASTRUCTURE.
OPERIA connects workers to multiple model sources. The intelligence layer selects the right model for each operation instead of binding the worker to a single provider.
MODEL-AGNOSTIC
01Workers route operations to appropriate models per task — reasoning-heavy work, fast classification, code generation or specialized inference.
INDEPENDENT EVOLUTION
02Model sources can be added, replaced or retired without rebuilding workers. Intelligence is a layer, not a lock-in.
COST / SPEED CONTROL
03Operations can prioritize cost, latency or capability. The same worker can think deeply on one step and act instantly on the next.
LAYER 02 — EXECUTION
ISOLATED ENVIRONMENTS.
REAL EXECUTION.
Every worker runs inside its own execution environment — separate from the user’s local machine. Files, browsers, terminals, runtimes, storage and network resources are allocated per worker.
ENV-01
FILESYSTEM
Persistent storage, project files, artifacts
ENV-02
BROWSER
Headless sessions, scraping, form flows
ENV-03
TERMINAL
Shells, runtimes, package managers
ENV-04
NETWORK
APIs, webhooks, external services
LIVE NETWORK I/O — THIS PAGE
REAL REQUESTSLAYER 03 — CAPABILITIES
A MODULAR
CAPABILITY FRAMEWORK.
Capabilities extend what a worker can do without rebuilding the worker. Attach a service, revoke it, or move it to another worker — the operational surface stays composable.
APIS & WEB SERVICES
Call external APIs with managed authentication and scoped tokens.
DATABASES
Query and write to provisioned data stores under permission rules.
DEVELOPMENT TOOLS
Repositories, CI, issue trackers, build and test systems.
BUSINESS APPLICATIONS
CRM, email, calendars, documents, spreadsheets, support desks.
BLOCKCHAIN NETWORKS
Read contracts, monitor addresses, prepare and sign transactions.
SMART CONTRACTS
Interact with on-chain protocols as a permissioned capability.
LAYER 04 — MEMORY
WORKERS THAT
REMEMBER.
Persistent storage retains task context, project information, user preferences, research, operational data and historical activity — so workers operate as ongoing systems rather than starting from empty state.
TASK CONTEXT
What the worker is doing right now, and why.
PROJECT INFORMATION
Structures, conventions, decisions and history per project.
USER PREFERENCES
How the user wants work performed and reported.
RESEARCH & OPERATIONAL DATA
Accumulated findings, datasets and reference material.
HISTORICAL ACTIVITY
A durable record of what was done, when, and with what result.
LAYER 05 — CONNECTIONS
CREDENTIALS ARE
RESOURCES, NOT PARTS OF WORKERS.
API keys, OAuth accounts, application credentials, wallets and service tokens are managed as separate resources — independent from worker behavior and granted per permissions.
RES-01
API KEYS & SERVICE TOKENS
Scoped keys for external services, issued per capability and revocable at any time.
RES-02
OAUTH ACCOUNTS
Application identities connected through OAuth — the worker acts through them, never owns them.
RES-03
WALLETS
On-chain accounts held as separate resources, governed by permission scopes.
RES-04
APPLICATION CREDENTIALS
Logins and workspace access for business applications, independent of worker behavior.
LAYER 06 — PERMISSIONS
AUTONOMY WITH
EXPLICIT BOUNDARIES.
Permissions define what each worker can access and perform — down to read without write, or full isolation from sensitive resources. Autonomy does not require unrestricted access.
Permissions are structured around workers, capabilities, resources, applications, operations and environments. Credentials live in the connections layer and are granted per permission — a worker acts through them without ever owning them.
Illustrative permission matrix
LAYER 07 — AUTOMATION
OPERATING
CONTINUOUSLY.
Direct instructions, schedules, external triggers, webhooks, application events, monitoring conditions and worker-to-worker requests keep workers operating continuously — not only when a session is open.
DIRECT INSTRUCTION
A task issued by the user, executed immediately.
SCHEDULES
Cron-style recurrence — hourly digests, nightly runs, weekly reports.
EXTERNAL TRIGGERS
Webhooks and application events entering from outside.
MONITORING CONDITIONS
A watched metric crosses a threshold; the worker responds.
WORKER-TO-WORKER REQUESTS
Workers delegate steps to specialized workers.
WORKER-TO-WORKER
WORKERS THAT
DELEGATE TO WORKERS.
Workers request steps from other workers directly. A research worker hands findings to an analyst; an operations worker triggers a deployment worker. Coordination is native to the model — not an external orchestration script.
Illustrative topology
COMMAND CENTER
EVERY WORKER.
ONE SURFACE.
SYNCINGThe command center is the operator view: worker state, live activity, memory usage, capability attachments and permission scopes — across every environment. The stream below is real on-chain activity, fetched live from a public Ethereum RPC through the open API.
LIVE BLOCK STREAM — ETHEREUM MAINNET
SOURCE: PUBLIC RPC · OPEN API
connecting to public rpc…
No sample data is used anywhere on this page — every value is fetched live from open APIs.
BLOCKCHAIN INTERACTION
ON-CHAIN AS A
NATIVE SURFACE.
Blockchain networks are a first-class capability. Workers hold wallets as resources, interact with contracts, monitor on-chain events and execute signed transactions — all under explicit permission scopes.
Robinhood Chain serves as the initial blockchain environment for the ecosystem. Blockchain is treated as another programmable environment available to autonomous software — not the sole purpose of the platform.
LIVE ON-CHAIN STATE
SYNCINGLATEST BLOCK
···
GAS
——
LAST BLOCK
——
Source: public ethereum rpc — open api, no sample data
WALLETS AS RESOURCES
01On-chain accounts are attached to workers as governed resources — never embedded in worker logic.
CONTRACT INTERACTION
02Workers read contract state, monitor events and prepare transactions within permission scopes.
ON-CHAIN MONITORING
03Address watches, protocol events and threshold conditions feed directly into automation triggers.
SIGNED EXECUTION
04Transaction signing is an explicit, permissioned capability — auditable and revocable.
THE $OPERIA TOKEN
ONE TOKEN.
ONE OPERATIONAL ECONOMY.
$OPERIA is the unit that settles work across the platform — from provisioning a worker to compensating a worker-to-worker handoff.
PLATFORM SERVICES
The token can be integrated into selected platform services and ecosystem functionality.
RESOURCE SETTLEMENT
Eligible platform resources and services can utilize the token as an ecosystem settlement asset where supported.
CAPABILITY ECONOMY
Developers create and distribute capabilities that expand what workers can accomplish. The token can facilitate eligible economic interactions between capability creators, users and ecosystem services.
WORKER ECONOMY
Workers can provide services to users or other workers. The token can serve as a common settlement mechanism for supported interactions.
ECOSYSTEM PARTICIPATION
The token can be integrated into future platform services, applications and ecosystem interactions where appropriate.
Token utility is connected to platform functionality and ecosystem participation. It does not represent ownership of the Operia platform, its underlying company or its assets. Nothing here is an offer of securities.
DEVELOPERS
BUILD WORKERS
IN CODE.
The full platform is programmable. Define a worker’s intelligence, environment, capabilities, memory, permissions and automation — in a single declarative configuration.
worker.ts
TYPESCRIPT
import { Operia } from '@operia/sdk'
const operia = new Operia()
const worker = await operia.workers.create({
role: 'research-analyst',
intelligence: { priority: 'reasoning' },
environment: ['filesystem', 'browser', 'terminal'],
capabilities: ['web-apis', 'databases'],
memory: { scope: 'project', retention: 'persistent' },
permissions: {
'filesystem:workspace': ['read', 'write'],
'network:api.ledger': ['read'],
},
automation: {
schedule: '0 6 * * *',
triggers: ['webhook:market-event'],
},
})
await worker.run('scan competitor pricing, report deltas')Illustrative API surface — see the docs for the current specification.
SECURITY MODEL
AUTONOMY,
CONTAINED.
ISOLATION
01Workers operate within separated execution environments — no shared state, no ambient access to the user’s machine.
LEAST PRIVILEGE
02Workers receive only the resources and capabilities required for their assigned functions. Deny by default, grant per scope.
CREDENTIAL SEPARATION
03Sensitive credentials remain separate from worker configuration — workers act through them without possessing them.
EXPLICIT AUTHORIZATION
04Access to sensitive resources can require explicit authorization before a worker proceeds.
OPERATIONAL VISIBILITY
05Worker activity and resource consumption remain visible through the platform: what ran, when, against which resources, with what result.
THE TRAJECTORY
SOFTWARE THAT
DOES THE WORK.
The last decade automated what software knows. The next decade belongs to software that acts — persistent workers that hold context, hold credentials, hold permissions, and hold the job done while their operators sleep.
OPERIA is the infrastructure layer for that shift: intelligence, execution, capabilities, memory, connections, permissions and automation — one system, seven layers, continuously operating.
Its purpose is simple: turn intelligence into operation. It is infrastructure for a world where software does more than respond.
Software operates.
