Embedded System Architecture Training, The Design and Architecture Process

An embedded system is meant to perform a fanatical function. Most embedded devices are primarily designed for one specific function. However, we now see devices like personal data assistant (PDA)/cell phone hybrids, which are embedded systems designed to be ready to do a spread of primary functions. 

Also, the newest digital TVs include interactive applications that perform a good sort of general functions unrelated to the “TV” function but even as important, like e-mail, web browsing, and games.

Every embedded system has an architecture, whether it's or isn't documented, because every embedded system consists of interacting elements (whether hardware or software).

An architecture by definition may be a set of representations of these elements and their relationships. instead of having a faulty and dear architecture forced on you by not taking the time to define an architecture before starting development, take hold of the planning by defining the architecture first.

Because an embedded architecture captures various views, which are representations of the system, it's a useful gizmo in understanding all of the main elements, why each component is there, and why the elements behave the way they are doing.

None of the elements within an embedded system works during a vacuum. Every element within a tool interacts with another element in some fashion.

The architecture of an embedded system is an abstraction of the embedded device, meaning that it's a generalization of the system that typically doesn’t show detailed implementation information like software ASCII text file or hardware circuit design.

At the architectural level, the hardware and software components in an embedded system are instead represented as some composition of interacting elements.

Architectural elements are often internally integrated within the embedded device or exist externally to the embedded system and interact with internal elements.

In short, an embedded architecture includes elements of the embedded system, elements interacting with an embedded system, the properties of every of the individual elements, and therefore the interactive relationships between the weather .

Compared with PCs, embedded systems have greater limitations in terms of hardware and/or software functions. This is true for a large part of the embedded system computer system family.

In terms of hardware limitations, this will mean limitations in terms of processing performance, power consumption, memory, hardware functions, etc. In software, this usually means a limitation relative to the PC-fewer applications, scaled down applications, no OS (OS) or limited OS or less abstraction level code.

Even if the structure of the building is rough and informal, it is better than nothing. As long as the architecture can communicate the key components of the design and their relationships with each other, it can provide project members with key information about whether the equipment can meet their requirements, and how such systems are usually successfully constructed.

Tonex's Embedded System Architecture Training

Learn about embedded systems, embedded software, firmware and hardware, RTOS and real-time programming architecture, portability, low power consumption, etc. from the embedded system architecture training. 

Embedded System Architecture Training, focusing on:

• Embedded System’s Architecture
• Models
• Specification
• High Level Design
• System Partitioning
• Building Blocks
• Components, Quality, Security, Safety, Reliability

Who Should Attend:

• Engineers, Programmers and Designers of Embedded Systems
• Software and Hardware Engineers
• IT Architects
• Systems Designers
• New Product Developers
• Students in the areas of Computer Science, Computer Engineering, Electrical Engineering, Bioengineering and Mechanical Engineering
• Managers and employees with almost no experience in embedded system architecture.
• Who has experience in embedded systems, but has never received formal training on embedded system architecture and design.

What You Will Learn:

• Embedded system overview
• Embedded system engineering, analysis and design summary
• How to design an embedded system
• How to architect an embedded system
• Basic knowledge methods and design and architecture processes in the real world
• Discussion on FPGA, modeling and simulation, testing, middleware and programming technology

Course Outline:

• Introduction to Embedded Systems
• Introduction to Embedded Hardware
• Introduction to Embedded Software
• Embedded Operating Systems (OS)
• Middleware and Application Software
• Embedded System Design and Development
• Capstone Project

For More Information:

Embedded Systems Architecture Training