INTERACTIVE SCENARIO LAB & ARCHITECTURAL GUIDE

Live Scenario Simulator &
Market Data Flow Architecture.

Step through institutional clearing scenarios in real time. Inspect wire protocol messages, sequence flow between simulated peers, and participant state blotters under both happy-path and chaos-injected market conditions.

Launch Interactive Simulator View Architecture Diagrams

Select Market Scenario:

Scenario: Step 1 of 4

Bilateral Settlement Instruction (comm_801)

Participant Broker (PID 02999) submits a bilateral instruction to deliver 50,000 units of BHP for AUD $2,150,000 against receiving participant (PID 01444).

Active Peer Interaction Path:

Broker / OMS

CHESS :8690

RBA Cash :8691

DCS :8692

AMQP :8693

CTM :8694

HIN Books

Cockpit :8699

Participant Real-Time Blotter State PID 02999

Security Position

200,000 BHP

Settlement Cash

AUD $4,250,000.00

Margin / Fail Levy

AUD $0.00

Lifecycle Status

INSTRUCTION_ACCEPTED

Outbound HTTP POST /inbound (comm_801 XML)

Loading scenario payload...

System Blueprints

Architectural Data Flow Diagrams

Explore how data flows between participant institutional systems and the six simulated market peer engines.

Diagram 1

End-to-End Equity Trade, Clearing & DvP Cash Settlement Flow

Trace the lifecycle of a market transaction through order capture, allocation, netting, cash movement, and subregister ownership updates.

Stage 1 Trade Capture

Order Execution & Drop Copy

Broker OMS submits market orders. IRESS drop-copy gateway (:8695) broadcasts fills. CTM (:8694) matches institutional block allocations.

comm_801

Stage 2 Core Clearing

CHESS ISO 20022 Netting Engine (:8690)

Validates Drop 1–4 XML schemas, matches bilateral settlement instructions, and runs multilateral netting algorithm to isolate net cash & security obligations.

pacs.009

Stage 3 DvP Finality

RBA RTGS Cash & Subregister (:8691)

Executes interbank central bank cash transfer. Upon receipt of pacs.002 confirmation, CHESS subregister transfers security units under investor HINs.

Diagram 2

Single JVM In-Memory Architecture vs. Fragile Exchange CDE

How Aegis eliminates external network latency, database management, and dirty shared state through pure in-memory isolation.

TRADITIONAL EXCHANGE CDE $40,000 / month

✗ Requires dedicated VPN tunnels and static IP whitelisting
✗ Restricted operating hours (typically 9:00 AM – 5:00 PM AEST)
✗ Shared multi-tenant environment contaminated by other participants
✗ Unannounced exchange maintenance windows and version rollbacks
✗ Cannot run in parallel automated CI/CD pull request runners

AEGIS IN-MEMORY SIMULATOR 380ms Startup

✓ Runs locally on 127.0.0.1 with zero external network connectivity
✓ 24/7/365 uninterrupted availability for dev & test suites
✓ 100% hermetic isolation: deterministic seed reset in 5 milliseconds
✓ Built-in Chaos & Break Injection API to test edge cases
✓ Spin up 50 parallel instances across GitHub Actions or Jenkins

Diagram 3

ASX DCS Derivatives Clearing & SPAN Margin Lifecycle (MCM 1.5.0)

High-speed fixed-width MCM 1.5.0 message stream covering trade allocations, give-ups, and portfolio risk calculation.

Step 1 Trade Record

TR Message Logging (:8692)

Executing desk logs index futures / ETO options contract execution. Validates participant authorization and strike validity.

AA & GU

Step 2 Broker Handoff

Allocation & Give-Up (GU/TU)

Clearing house issues Allocation Acknowledgment (AA) and transmits Give-Up (GU) notice to clearing participant for Take-Up (TU) confirmation.

SPAN Risk

Step 3 Risk Engine

Real-Time SPAN Margin Output

Instant recalculation of Scanning Risk Range, inter-month spread charges, SPAN initial margin, and variation margin obligations.

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