Structured Cabling System Training Course

This instructor-led, live training in Italy (online or onsite) targets intermediate to advanced software professionals who wish to understand how to architect distributed systems that scale efficiently and handle failure gracefully.

By the end of this training, participants will be able to:

• Design distributed systems that handle load, latency, and failure.
• Understand key architectural patterns such as microservices, event-driven architecture, and CQRS.
• Evaluate trade-offs between consistency, availability, and partition tolerance (CAP theorem).
• Choose appropriate communication, storage, and coordination strategies.

This training will explain how to use SysML, the modelling language for systems engineering. You will discover in particular block diagrams for the structural modelling of complex systems. You will deepen your understanding of the sequence diagram, state diagram and activity diagram for dynamic modelling. You will also learn to use specific SysML diagrams such as the requirements diagram and the parametric diagram, as well as the concept of allocation. We will also emphasize the necessity of defining a modelling approach, adapted to the company context and the type of system to be studied. Hands-on practice will be done using the modelling tool Cameo Systems Modeler (MagicDraw) by NoMagic.

Audience :

Systems engineers, business analysts and architects who need to model complex systems including hardware and software

Teaching method :

Theoretical presentation illustrated with examples
50% practical exercises with Cameo Systems Modeler on a case study throughout the training

Domain-Driven Design (DDD) is a methodology for managing complex behaviors during software development.

This instructor-led, live training (onsite or remote) is aimed at architects, tech lead who work with distributed systems dedicated to high traffic and required high scalability and reliability.

By the end of this training, participants will be able to:

• Understand the key benefits, limitations and rules determining characteristics of distributed systems, scalable and highly reliable systems.
• Will be able to better assess what can be and what can not be achieved with such systems.
• Will know typical architecture patterns of distributed, scalable and highly reliable systems.
• Will understand the capabilities and proper model of usage of technologies, supporting scalability and reliability, systems like streaming service buses (based on Kafka), NoSQL storages (basing on Redis) and distributed processing.

Format of the Course

• Interactive lecture and discussion.
• Examples of architecture solutions.
• Real examples based on Kafka and Redis solutions.

Course Customization Options

• To request a customized training for this course, please contact us to arrange.

This introductory training course on Enterprise Architect is tailored for individuals eager to leverage Sparx Systems’ UML modeling tool, Enterprise Architect, but who are new to its features, functionalities, and practical applications.

Through a blend of lectures, demonstrations, and interactive labs, this course illustrates the foundations for building and maintaining an Enterprise Architecture (EA) by leveraging the Unified Architecture Framework (UAF) version 1.2.

Course Objectives

Gain a comprehensive understanding of embedded GNU/Linux fundamentals, including how its components integrate. Learn which elements are required to construct an embedded GNU/Linux system, their sources, and the methods for configuring, building, and installing them. Discover where to seek support and navigate software licensing considerations. Practical, hands-on exercises equip you with the necessary experience to confidently develop your own embedded GNU/Linux systems upon successful completion of this training.

Description

This five-day course combines practical exercises with instruction to illustrate embedded GNU/Linux concepts, designed to accelerate your proficiency. The philosophy, core concepts, and essential commands for effective GNU/Linux usage are conveyed through a blend of theoretical knowledge and practical application.

Rather than starting from scratch, learn from an experienced trainer and leave with a working knowledge of GNU/Linux, enabling you to leverage it effectively in your own embedded development projects.

Who should attend?

This course is ideal for managers, project managers, software, hardware, development, and systems engineers, testers, administrators, technicians, and other interested parties who wish to quickly understand how Embedded GNU/Linux operates. It is suitable for those who currently use GNU/Linux, have the flexibility to decide on its viability for their needs, are unsure if they are correctly utilizing Embedded GNU/Linux, or are currently using a different operating system and wish to evaluate if GNU/Linux offers better performance or cost efficiency.

Delivery Options

While all training materials are in English, presentations can be delivered in either English or German, available worldwide.

• On-site - instructor-led
• Online - instructor-led
• On-site/online combination - instructor-led

In this instructor-led live training in Italy, participants will learn how to evaluate different technologies and approaches for the design of a services-based system architecture. The training begins with a discussion and comparison of monolithic systems and service architectures, then digs into the details of microservice architecture.

Participants are given a chance to put their knowledge into practice as they step through the creation and deployment of a set of proof-of-concept microservices built with Spring Cloud, Spring Boot and Docker.
Finally, the relevant infrastructure building blocks are examined to help participants determine the most suitable tools and approaches to use for different organizational requirements.
By the end of this training, participants will have a solid understanding of Service-Oriented Architecture (SOA) and Microservice Architecture as well practical experience using Spring Cloud and related Spring technologies for rapidly developing their own cloud-scale, cloud-ready microservices.

The OCSMP Model Builder – Fundamental examination evaluates the knowledge and competencies required to construct a basic SysML model of a system. The exam encompasses model concepts and organization, fundamental requirements capture and management, structure and behavior models, parametric models, allocation relationships, and the use of stereotypes. With the knowledge and skills covered at this level, along with familiarity with a suitable SysML modeling tool, a holder of the OCSMP Model Builder – Fundamental Certification should be a productive contributor to modeling tasks performed by a Systems Engineering team employing a model-based systems engineering approach using SysML. The OCSMP Model Builder – Fundamental Certification is a prerequisite for the program’s two higher levels, and requires the OCSMP Model User Certification as its prerequisite.

This examination (as well as the others in the OCSMP series) tests your ability to apply the knowledge and skills listed here in the context of a model of a system. As you study, go beyond each individual diagram to understand how aspects that it models can influence or affect aspects of the system represented in other diagram types.

• Gain insight into cloud services and learn to select appropriate cloud architectures (with practical examples using Azure).
• Comprehend and explore the benefits associated with cloud architectures.
• Evaluate the advantages of established architectures and determine the most suitable choice.

In this instructor-led, live training in Italy (online or onsite), participants will learn how to leverage SysML as implemented in Enterprise Architect (EA) to conduct system requirements analysis and modeling.

Upon completion of this training, participants will be capable of:

• Understanding and applying SysML to Systems Engineering projects using a Model-Based Systems Engineering (MBSE) approach.
• Identifying system requirements derived from use case models.
• Designing and analyzing system architecture.

This hands-on training session demonstrates how to effectively utilize the SysML modeling language. Participants will explore block diagrams for the structural modeling of complex systems, while deepening their understanding of sequence diagrams, state diagrams, and activity diagrams for dynamic modeling. The course also covers specialized SysML diagrams, such as requirements and parametric diagrams, along with the critical concept of allocation. Additionally, the training emphasizes the importance of establishing a modeling approach tailored to the specific corporate context and the type of system under study. Finally, we will review the current landscape of SysML modeling tools.

Audience:

Project managers, architects, and system engineers responsible for modeling complex systems that encompass both software and hardware components.

Teaching Method:

• Theoretical presentation supplemented with examples
• Case study analysis (trainer-led demonstration of a SysML tool)

This course is designed for analysts, designers, developers, testers, and project managers.

The workshop covers problem analysis, system design, and documentation using UML and Sparx Systems' Enterprise Architect. During the training, advanced program capabilities (such as MDA, profiles, and XMI) and best practices that significantly simplify and accelerate modeling will be presented.

Because the training focuses on the Enterprise Architect tool, participants must already know how to model in UML. For those wishing to learn modeling, we offer dedicated UML training.

The training method

10% lecture, 90% workshop

This course is tailored for business analysts, managers, team leaders, and process owners, equipping them with the essential skills to create use case diagrams and scenarios. These tools facilitate the elicitation, analysis, documentation, and communication of functional requirements. Participants will gain hands-on experience constructing use cases using the Unified Modeling Language (UML) to visually depict the interactions between actors and system functionalities.