Factors Influencing Architecture Selection

Choosing between Active-Active and Active-Passive architectures depends on how much you want all components to work together at once.

  • Application Requirements: The application’s unique requirements, such as availability, scalability, and performance, play an important influence in establishing the suitable architecture. For example, applications that require high availability may benefit from active-active designs, whilst those with lower demands may choose active-passive configurations.
  • Budget Constraints: The financial resources available for infrastructure installation and upkeep impact architectural choice. More complicated designs often need more investments in hardware, software, and maintenance.
  • Complexity Tolerance: The degree of complexity that an organization or team can effectively manage is an important consideration. While active-active systems improve scalability and performance, they are more difficult to establish and manage than active-passive configurations.
  • Existing Infrastructure and Technologies: The compatibility and integration with existing infrastructure and technologies have an influence on design decision. Organizations may adopt designs that are compatible with their existing systems in order to reduce disruption and enable integration.
  • Regulatory and Compliance Requirements: Regulatory and compliance standards may impose specific architectural requirements, especially in areas such as banking, healthcare, and government. Compliance with rules like GDPR, HIPAA, and PCI DSS may have an impact on architectural decisions.
  • Expected Traffic Patterns: Expected traffic patterns, such as peak loads and changes in user demand, influence architectural decisions. Architectures must be able to scale dynamically to handle fluctuating levels of traffic while maintaining performance and reliability.



Active Passive & Active Active Architecture for High Availability System

Active-Passive and Active-Active architectures stand out as two important strategies for achieving high availability. These architectures offer distinct approaches to distributing workloads, managing resources, and mitigating downtime, each tailored to address specific operational requirements and scalability demands.

Important Topics for Active Passive & Active Active Architecture for High Availability System

  • What is Active-Passive Architecture?
  • Components and Characteristics of Active-Passive Architecture
  • Failover Process and Recovery Mechanisms in Active-Passive Architecture
  • Use Cases of Active-Passive Architecture
  • Benefits of Active-Passive Architecture
  • Challenges of Active-Passive Architecture
  • What is Active-Active Architecture?
  • Components and Characteristics of Active-Active Architecture
  • Load Balancing and Traffic Distribution Strategies in Active-Active Architecture
  • Real-World Examples and Use Cases of Active-Active Architecture
  • Benefits of Active-Active Architecture
  • Challenges of Active-Active Architecture
  • Factors Influencing Architecture Selection

Similar Reads

What is Active-Passive Architecture?

...

Components and Characteristics of Active-Passive Architecture

Active-passive architecture features two sets of components: active and passive. The active components handle normal operations, while the passive ones remain on standby, ready to take over in case of failure....

Failover Process and Recovery Mechanisms in Active-Passive Architecture

Failure Detection: The heartbeat system detects when the active server fails or becomes unavailable. This might be a result of device failure, software flaws, or network problems. Automatic Failover Trigger: When a failure is detected, the failover procedure is initiated automatically. This procedure comprises starting the backup server to take over the functions of the failing primary server. Traffic Redirection: Traffic is diverted from the failing primary server to the backup server to ensure that users continue to receive service. Standby Server Activation: The standby server takes over as the new active server, taking all of the tasks formerly held by the primary server. Recovery methods: After activating the standby server, recovery methods guarantee that data stays consistent and the service or application resumes to normal operation without any noticeable impact on users....

Use Cases of Active-Passive Architecture

Active-Passive architecture is ideal for ensuring fault tolerance, disaster recovery, and continuous service availability....

Benefits of Active-Passive Architecture

Below are some benefits of Active-Passive Architecture:...

Challenges of Active-Passive Architecture

Below are some challenges of Active-Passive Architecture:...

What is Active-Active Architecture?

...

Components and Characteristics of Active-Active Architecture

Active-active architecture involves multiple sets of components, all actively processing requests concurrently....

Load Balancing and Traffic Distribution Strategies in Active-Active Architecture

Round-robin: Requests are delivered in a circular pattern across active servers to ensure an equitable distribution of traffic. Least Connections: Requests are directed to the server with the fewest active connections, which helps to equally share the demand. Weighted Round-robin: Different weights can be allocated to servers based on their ability to handle traffic, resulting in more effective resource use....

Real-World Examples and Use Cases of Active-Active Architecture

Active-Active architecture is suitable for scenarios requiring high scalability, performance, and real-time processing....

Benefits of Active-Active Architecture

Below are some benefits of Active-Active Architecture:...

Challenges of Active-Active Architecture

Below are some challenges of Active-Active Architecture:...

Factors Influencing Architecture Selection

Choosing between Active-Active and Active-Passive architectures depends on how much you want all components to work together at once....

Contact Us