Layer-Based Software Architecture Model: Difference between revisions
Jump to navigation
Jump to search
(Created page with "A Layer-Based Software Architecture Pattern is a software architecture pattern that organizes system components into distinct hierarchical layers (to support software system design through layered organization). * <B>AKA:</B> N-Tier Architecture Pattern, Layered Software Architecture Pattern, Multitier Software Architecture Pattern. * <B>Context:</B> ** It can typically organize System Components through [[hierarchical structure]...") |
No edit summary |
||
Line 1: | Line 1: | ||
A [[Layer-Based Software Architecture | A [[Layer-Based Software Architecture Model]] is a [[software architecture pattern]] that organizes [[system component]]s into distinct [[hierarchical layer]]s (to support [[software system design]] through [[layered organization]]). | ||
* <B>AKA:</B> [[N-Tier Architecture Pattern]], [[Layered Software Architecture Pattern]], [[Multitier Software Architecture Pattern]]. | * <B>AKA:</B> [[N-Tier Architecture Pattern]], [[Layered Software Architecture Pattern]], [[Multitier Software Architecture Pattern]]. | ||
* <B>Context:</B> | * <B>Context:</B> |
Revision as of 23:41, 25 January 2025
A Layer-Based Software Architecture Model is a software architecture pattern that organizes system components into distinct hierarchical layers (to support software system design through layered organization).
- AKA: N-Tier Architecture Pattern, Layered Software Architecture Pattern, Multitier Software Architecture Pattern.
- Context:
- It can typically organize System Components through hierarchical structures.
- It can typically isolate Core Functions through layer separation.
- It can typically manage Data Flow through controlled interfaces.
- It can typically enforce Security Controls through layer boundarys.
- It can typically maintain System Maintainability through modular design.
- ...
- It can often implement System Evolution through layer modifications.
- It can often support System Integration through layer interfaces.
- It can often maintain System Performance through layer optimizations.
- It can often enable Cross-Layer Communication through standardized protocols.
- ...
- It can range from being a Centralized Layered Software Architecture Pattern to being a Distributed Layered Software Architecture Pattern or a Federated Layered Software Architecture Pattern.
- It can range from being a Backend Layered Software Architecture Pattern to being a Frontend Layered Software Architecture Pattern.
- It can range from being a Monolithic Layered Software Architecture Pattern to being a Microservices Layered Software Architecture Pattern, depending on its system modularity.
- It can range from being a Traditional Layered Software Architecture Pattern to being an AI-Native Layered Software Architecture Pattern, depending on its computational paradigm.
- It can range from being a Simple Layered Software Architecture Pattern to being a Complex Layered Software Architecture Pattern, depending on its layer interdependency.
- It can range from being a Static Layered Software Architecture Pattern to being a Dynamic Layered Software Architecture Pattern, depending on its runtime adaptability.
- It can range from being a Core Layered Software Architecture Pattern to being an Extended Layered Software Architecture Pattern, depending on its architectural coverage.
- ...
- It can be supported by Architecturally Significant Requirements (captured in architectural decisions).
- It can be referenced by an Information System Architecture Document, created by a Software-based System Architecture Design Task.
- It can provide System Observability for performance monitoring.
- It can enable Cross-Layer Testing through layer isolation.
- It can support System Scalability via independent layer scaling.
- ...
- Examples:
- Core Software Architecture Patterns, such as:
- Presentation Layer Software Architecture Patterns for user interface management.
- Application Layer Software Architecture Patterns for component coordination.
- Business Layer Software Architecture Patterns for business logic processing.
- Persistence Layer Software Architecture Patterns for data access management.
- Database Layer Software Architecture Patterns for data storage operations.
- Supporting Software Architecture Patterns, such as:
- Implementation Software Architecture Patterns, such as:
- ...
- Core Software Architecture Patterns, such as:
- Counter-Examples:
- Event-Driven Software Architecture Pattern, which uses event flow instead of layer hierarchy.
- Microservices Software Architecture Pattern, which emphasizes service autonomy over layer dependency.
- Peer-To-Peer Software Architecture Pattern, which uses decentralized communication instead of layered communication.
- A Software Design Model, which focuses on detailed implementation rather than architectural structure.
- An Organizational Architecture, which addresses business structure rather than software structure.
- A Data Structure or Data Model, which defines data organization rather than system organization.
- See: Software-based System Architectural Pattern, Software System Design Pattern, Component Organization Pattern, Software Architecture Style.