Benefits of SSOA
Posted: Thu Jul 10, 2025 8:12 am
1. Simplicity with flexibility
The majority of the system is maintained as a modular monolith, which simplifies development, testing, and maintenance. However, critical modules can be progressively removed to improve scalability and autonomy.
2. Selective scalability
Only services that truly require independent scalability are abstracted as microservices. This allows for efficient use of resources and avoids the operational overhead of managing multiple distributed services.
3. Less operational complexity
Unlike a full microservices architecture, SSOA country email list reduces the need for complex monitoring, logging, and orchestration systems, keeping the system running more efficiently.
4. Better performance
Modules within the monolith communicate in the same memory, avoiding the latency and networking issues typical of distributed microservices.
5. Gradual evolution
Rather than making a drastic shift to microservices, SSOA allows the architecture to evolve based on business needs, ensuring stability throughout the process.
Key Principles of SSOA
1. Modular monolithic core
The core system is organized as a modular monolith, with each module handling specific functionality (authentication, product management, order processing, etc.). This modularity allows for flexibility without the need for a distributed architecture.
2. Selective extraction of microservices
Only modules that require independent scalability are extracted as microservices. Examples include:
High-demand services , such as authentication or payment processing.
Resource-intensive processes , such as real-time analytics.
Components with traffic spikes , requiring independent scalability.
3. Service composition layer
To facilitate communication between the monolithic core and the extracted microservices, SSOA employs a service composition layer. This layer acts as an orchestrator that maintains data flow and system consistency.
4. Asynchronous event-based communication
SSOA favors event-based communication to avoid unnecessary coupling between services. Through tools like Kafka or RabbitMQ , microservices can operate independently without hindering system performance.
5. Simplified data management
In SSOA, most information is kept within the monolithic core, avoiding the complexity of managing multiple distributed databases. Only microservices that require full autonomy maintain their own storage.
6. Resilience and fault tolerance
The abstracted microservices are designed to operate independently, ensuring that a failure in one service does not affect the operation of the monolithic core. The service composition layer ensures progressive degradation and fallback in the event of errors.
The majority of the system is maintained as a modular monolith, which simplifies development, testing, and maintenance. However, critical modules can be progressively removed to improve scalability and autonomy.
2. Selective scalability
Only services that truly require independent scalability are abstracted as microservices. This allows for efficient use of resources and avoids the operational overhead of managing multiple distributed services.
3. Less operational complexity
Unlike a full microservices architecture, SSOA country email list reduces the need for complex monitoring, logging, and orchestration systems, keeping the system running more efficiently.
4. Better performance
Modules within the monolith communicate in the same memory, avoiding the latency and networking issues typical of distributed microservices.
5. Gradual evolution
Rather than making a drastic shift to microservices, SSOA allows the architecture to evolve based on business needs, ensuring stability throughout the process.
Key Principles of SSOA
1. Modular monolithic core
The core system is organized as a modular monolith, with each module handling specific functionality (authentication, product management, order processing, etc.). This modularity allows for flexibility without the need for a distributed architecture.
2. Selective extraction of microservices
Only modules that require independent scalability are extracted as microservices. Examples include:
High-demand services , such as authentication or payment processing.
Resource-intensive processes , such as real-time analytics.
Components with traffic spikes , requiring independent scalability.
3. Service composition layer
To facilitate communication between the monolithic core and the extracted microservices, SSOA employs a service composition layer. This layer acts as an orchestrator that maintains data flow and system consistency.
4. Asynchronous event-based communication
SSOA favors event-based communication to avoid unnecessary coupling between services. Through tools like Kafka or RabbitMQ , microservices can operate independently without hindering system performance.
5. Simplified data management
In SSOA, most information is kept within the monolithic core, avoiding the complexity of managing multiple distributed databases. Only microservices that require full autonomy maintain their own storage.
6. Resilience and fault tolerance
The abstracted microservices are designed to operate independently, ensuring that a failure in one service does not affect the operation of the monolithic core. The service composition layer ensures progressive degradation and fallback in the event of errors.