Scaling a High-Volume Data Platform
How a global meteorological data exchange platform moved from a tightly coupled architecture to an event-driven microservice model to keep pace with growth.
Problem
A large-scale data platform handling geospatial and operational data distribution faced mounting challenges. The existing architecture struggled to maintain performance, observability, and delivery efficiency while scaling up.
Approach
The team conducted a comprehensive review of platform architecture, data flows, and service boundaries to pinpoint bottlenecks and improvement opportunities. They prioritized scalability, operational complexity management, and future growth planning for a global meteorological data exchange platform.
flowchart TB
subgraph M["Monolith"]
direction LR
Ingest --> Process --> Store --> Retrieve --> Serve --> Switch
end
M --> DS1
subgraph DS1["Data Stores"]
direction TB
RDB[("Relational DB")]
NFS[("NFS")]
end
Solution
The platform transitioned from a tightly coupled architecture to an event-driven microservice model. New data pipelines and processing workflows enhanced system resilience, increased data throughput capacity, and improved observability across the system.
flowchart TB
subgraph M2["Monolith"]
direction LR
Ingest2["Ingest"] --> Store2["Store"] --> Switch2["Switch"]
end
M2 --> MQ[["Message Queue"]]
MQ --> Proc
subgraph Proc["Processing"]
direction TB
LB{{"Load Balancer (API)"}}
JD{{"Job Distributor (SQS)"}}
LB --> Catalog["Catalog Service"]
LB --> Indexing["Indexing Service"]
LB --> Serving["Serving Service"]
JD --> Catalog
JD --> Indexing
JD --> Serving
end
subgraph DS["Data Stores"]
direction TB
Cache[("Cache")]
ObjStore[("Object Store")]
RDB2[("Relational DB")]
NFS2[("NFS")]
end
Catalog --> DS
Indexing --> DS
Serving --> DS
Proc -.-> OBS
subgraph OBS["O11Y"]
direction TB
Observability["Observability"]
Metrics["Metrics"]
end
Outcome
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