BTEC HND Level 5 Unit 41 Analytic Architecture Design Assignment Sample

Course: Pearson BTEC Levels 4 and 5 Higher Nationals in Computing Specification

BTEC HND Level 5 Unit 41 Analytic Architecture Design is all about designing a building or facility by taking into account the environmental, economic, social and political factors that will affect it. When designing any kind of structure, it’s important to consider all of the potential implications in order to create something that is both safe and functional.

This unit will teach you how to think analytically about architecture and build a well-rounded understanding of what goes into making a good design. You’ll learn about the different approaches to architecture, the history of architectural thought, and the various theories that guide design decisions. You’ll also get a chance to put your knowledge into practice by working on a real-world design project.

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We are discussing some assignment tasks in this unit. These are:

Assignment Task 1: Explore detailed and problem-oriented material and gain a conceptual overview of the AADL abstractions.

The AADL provides a set of abstractions for modeling real-time and embedded systems. These abstractions allow for a detailed and problem-oriented description of the system under design. In particular, the AADL provides concepts for:

• Modeling the static structure of the system, including its hardware and software components;
• Modeling the dynamic behavior of the system, including timing information and resource usage;
• Specifying properties that must be satisfied by the system design;
• Analyzing the behavior of the system.

The AADL is intended to support both hand-coded designs as well as designs generated by tool-assisted techniques such as model-based design. The language is expressive enough to capture most designs found in industrial applications while remaining simple enough to facilitate rapid experimentation.

Assignment Activity 2: Illustrate the software component and execution platform component abstractions, and provide example declarations for these components.

Software components: A software component is a piece of software that can be independently deployed and executed. In the AADL, software components are typically modelled as subprograms or processes. However, any kind of executable code can be represented as a software component, including scripts, libraries, and firmware.

Example declarations: Subprogram implementation MySubprogram( ); Process implementation MyProcess( );

Execution platform component: An execution platform provides the hardware and software support necessary for executing a set of software components. In the AADL, execution platforms are typically modelled as processors or devices. However, any kind of computational resource can be represented as an execution platform, including FPGAs, GPUs, and DSPs.

Example declarations: Processor implementation MyProcessor( ); Device implementation MyDevice( )

Assignment Task 3: Analyse the specification of composite systems and their instances, and describe the abstractions that support the specification of component interactions.

Composite systems are systems that consist of multiple software and/or hardware components. In the AADL, composite systems are modelled using “composite interfaces”, which specify the interaction requirements between different components. These interaction requirements can be relational (e.g., a required property for the interface) or behavioral (e.g., an event sent to the interface).

The AADL also provides abstractions for describing how components interact at runtime, including:

• Component connectors: these specify the communication mechanisms used to transfer data between software components. Examples of component connectors include sockets, buffers, and shared memory regions;
• Callbacks and events: these specify how software components can communicate via invocation and notification;
• Scheduling and execution: these specify how composite components are scheduled for execution, including their interleave constraints.

Assignment Activity 4: Show the specification of alternative operational states of a system by AADL flow concepts, and describe modes mode transitions, and examples of specification.

The AADL provides abstractions for specifying the different operational states of a system, as well as the transitions between these states. These abstractions are called “flows” and “modes”, respectively.

Flows specify the different ways in which data can flow through a system. For example, data can flow sequentially from one component to another, or it can be broadcast to all components simultaneously.

Modes specify the different operational states of a system. For example, a system may have an “idle” mode and an “active” mode. Mode transitions specify how the system changes from one model to another.

Examples of specifications:

Flow specification:

• Flow F1: This flow specifies the sequential flow of data from one component to another. Data is transferred in discrete units, with each unit representing a single message or datagram.
• Flow F2: This flow specifies the broadcasted flow of data among multiple components, where all components receive data in parallel.

Mode specification:

• Mode M1: This mode specifies the idle state of a system, where no data is being processed or transferred.
• Mode M2: This mode specifies the active state of a system, where data is being processed and/or transferred.

Mode transition specification:

• Transition T1: This transition specifies how the system changes from the idle state (Mode M1) to the active state (Mode M2).
• Transition T2: This transition specifies how the system changes from the active state (Mode M2) back to the idle state (Mode M1).

To summarize, the AADL provides abstractions for specifying the different operational states and mode transitions of a system. These abstractions can be used to model a wide range of systems, including embedded control systems, distributed systems, and real-time systems. Additionally, the AADL supports both sequential flows (e.g., data is transferred sequentially from one component to another) and parallel flows (e.g., all components receive data in parallel).

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