Hudhud
HUDHUD HYPERSCALE

Conversational intelligence infrastructure for 100M+ conversations per day.

Hudhud distributes customer operations across processing, AI execution, messaging, data, recovery, and regional infrastructure - so growth does not depend on a single application instance, provider, or database bottleneck.

Event flow across the architecture
WhatsAppInstagramMessengerAPI
Global Routing
Durable Ingress
Event Backbone
Stream Coordination
Worker Fleets
AI Execution
Providers
Data Layer
Business Outcomes
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Illustrative data, not current production traffic

Hyperscale Control Center

The system at scale

A multi-panel analytical view of what operational indicators look like when millions of conversations are managed at once.

Illustrative Capacity Simulation
Conversation Throughput
AI Processing Load
Regional Distribution
Tenant Load Distribution

Conversation Throughput: 24-hour illustrative cycle, 40-95%. AI Processing Load: 68%. Regional Distribution: MEA 46%, EU 27%, NA 17%, APAC 10%. Tenant Load Distribution: T-1 34%, T-2 27%, T-3 21%, T-4 18%.

Workload Model

What "100M conversations/day" actually means

Reference workload model - not measured production data
100,000,000
conversations/day
600,000,000
messages/day (at 6 messages/conversation)
6,944
messages/sec (average)

Provider calls and internal system events often multiply beyond a single message - this model does not assume a specific, unverified amplification ratio.

Sustained load
The normal daily rate across peak hours.
Burst load
Short, sharp spikes above the sustained rate.
Recovery load
Processing a backlog after the system recovers.
Provider-call amplification
Multiple AI provider calls per single inbound message.
Internal event amplification
Multiple internal events produced from one inbound event.
Cell-Based Architecture

One global control plane, independent operating cells

Each cell carries its own ingress, event processing, workers, AI execution, data, and recovery. Hover a cell to see its load. Try the simulation to see how the other cells keep running when one degrades.

Global Control Plane
Cell A
Healthy
Cell B
Healthy
Cell C
Healthy
Cell D
Healthy
Cell E
Healthy
Cell F
Healthy

Hover a cell

Multi-Region Architecture

An abstract global topology

An architectural illustration of tenant placement, routing, processing, failure isolation, and data boundaries - across multiple regions, as the infrastructure expands.

An architectural illustration of the product's final scope - not an announcement of current physical deployment in every region unless explicitly stated.

Event Backbone

From provider event to business effect

Every inbound event is durably accepted before entering the event backbone, where it's partitioned and isolated across conversation streams.

Provider Event
Durable Acceptance
Event Backbone
Conversation Stream
Worker
Business Effect
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Partitioning by tenant and conversation
Stream isolation between tenants
Parallel consumer groups
Backpressure under load
Recovery without losing a verified event
Tenant Isolation

One customer's growth shouldn't become another customer's outage

When one tenant's load spikes sharply, the other tenants stay within their own workload envelope, unaffected.

Tenant A Tenant B Tenant C Tenant D
AI Provider Resilience

AI routing doesn't depend on a single provider

The routing layer chooses which provider executes the task, and reroutes automatically when one degrades or hits a quota limit.

HUDHUD AI EXECUTION

Click a provider to preview its state

Backpressure

Hyperscale systems should slow gracefully before they fail chaotically

Instead of collapsing suddenly, the system steps through explicit states, controlling new admission until it recovers.

NormalHigh LoadBackpressureControlled AdmissionRecovery

An illustrative walkthrough of the state sequence, not a live load gauge.

Failure & Recovery

Pick a scenario to see the architecture respond

An architectural illustration, not a live outage simulator. Selecting a scenario updates the visualization to reflect the real operational sequence.

Detect
Isolate
Degrade Safely
Recover
Reconcile
Observability

A second view into the system

Latency, queue lag, AI health, provider health, and worker utilization - read together, never in isolation.

Illustrative system view
Latency Distribution
Queue Lag
System Health
AI OK
Providers OK
Workers OK
Queue OK
DB OK

Latency Distribution: p50 120ms, p95 340ms, p99 780ms. System Health: all illustrative subsystems nominal.

Global Hyperscale

The top tier: global, multi-region operation

For organizations that manage risk across multiple regions, not one place.

$25,000/month
$250,000/year
Hyperscale: $10,000/month
Global, multi-region operating architecture
Regional failure isolation
Large-scale tenant placement
Advanced disaster-recovery architecture
Global workload planning
Large-scale provider federation
Executive service governance
Full detail on the pricing page
Capacity Qualification

Capacity isn't proven by one synthetic benchmark

This is the final product qualification model - a set of real dimensions, not one simplified test.

SustainedBurstSpikeSoakBacklog recoveryProvider degradationWorker lossDatabase stressRegional failureTenant hotspotReplay/recovery

Why Hyperscale is actually different

Traditional scale-up
Bigger server, bigger database, more concentrated risk.
Hudhud Hyperscale
Distributed cells, horizontal workers, event-driven processing, partitioned data, failure isolation, tenant governance, regional architecture.
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Build your customer operations on infrastructure engineered for extreme scale.