Our innovative telepractice concept will give you the opportunity to learn through an immersive experience, which will provide you with a faster integration and a much more realistic view of the contents: “Learning from an expert”

This program will develop the necessary concepts to work in the creation of Interfaces, with the certainty that the mastery of all the areas of knowledge transversal to this subject, provide to the specialists. Throughout the syllabus, innovative educational approaches will be proposed to delve into the architecture of a distributed application. The particular aspects of the client-server architecture will be presented, and the fundamentals and essential developments of the most used programming languages will be discussed, differentiating between languages among many other fundamental issues for the professional. 

This essential knowledge also becomes the first step to access the development capacity of this type of technology. 

Throughout this program, a real working scenario is offered in order to  be able to assess the convenience of its application in this project, evaluating its real indications, way of development and possible result expectations. 

Through experience, it is possible to learn how to develop the necessary knowledge to advance in this area of work. This knowledge, which necessarily requires experience, is achieved in this specialization, reconciling distance learning and practical teaching, offering a unique option to give your resume the boost you are looking for. 

Become one of the most demanded professionals of the moment: study computer engineering through the most complete and up-to-date Master's Degree in the Creation of Network Interfaces and Applications"

This Master's Degree in Creation of Network Interfaces and Applications contains the most complete and up-to-date program on the market. Outstanding features:

• The latest technology in online teaching software
• A highly visual teaching system, supported by graphic and schematic contents that are easy to assimilate and understand
• Practical cases presented by practising experts
• State-of-the-art interactive video systems
• Teaching supported by telepractice
• Continuous updating and recycling systems
• Autonomous learning: full compatibility with other occupations
• Practical exercises for self-assessment and learning verification
• Support groups and educational synergies: questions to the expert, debate and knowledge forums
• Communication with the teacher and individual reflection work
• Content that is available from any fixed or portable device with an Internet connection
• Supplementary documentation databases are permanently available, even after the program

With a methodological design based on proven teaching techniques, this innovative Master's Degree in Creation of Network Interfaces and Applications will take you through different teaching approaches to allow you to learn in a dynamic and effective way”

Our teaching staff is made up of professionals from different fields related to this specialty. In this way TECH ensures that it delivers the educational up-to-date objectives that it aims for. A multidisciplinary team of professionals prepared and experienced in different areas, will cover the theoretical knowledge in an efficient way, but above all, will bring practical knowledge from their own experience to the program: one of the factors that makes this program unique. 

This mastery of the subject matter is complemented by the effectiveness of the methodological design. Developed by a multidisciplinary team of e-learning experts, it integrates the latest advances in educational technology. As such, students will be able to study with a range of convenient and versatile multimedia tools that will give them the operability they need in their education. 

The design of this program is based on Problem-Based Learning: an approach that conceives learning as a highly practical process. To achieve this remotely, telepractice will be used: with the help of an innovative system of interactive videos, and learning from an expert you will be able to acquire the knowledge as if you were facing the case you are learning at that moment. A concept that will make it possible to integrate and fix learning in a more realistic and permanent way. 

A Master's Degree that will enable you to work in all areas of the Creation of Network Interfaces and Applications with the solvency of a high-level professional"

With the experience of working professionals who will provide you with a real, immediate and concrete knowledge of this field of work"

The contents of this Master's Degree have been developed by the different experts of this program, with a clear purpose: to ensure that our students acquire each and every one of the necessary skills to become true experts in this field. 

A complete and well-structured program will take you to the highest standards of quality and success. 

A complete teaching program, structured in complete and updated educational units based on the latest advances in the sector, oriented to a learning process compatible with your personal and professional life"

Module 1. Human-Computer Interaction

1.1. Introduction to Human-Computer Interaction 

1.1.1. What is Human-Computer Interaction 
1.1.2. Relationship of Human-Computer Interaction with Other Disciplines 
1.1.3.  The User Interface 
1.1.4. Usability and Accessibility 
1.1.5. User Experience and User-Centered Design 

1.2. The Computer and Interaction: User Interface and Interaction Paradigms 

1.2.1. Interaction 
1.2.2. Paradigms and Styles of Interaction 
1.2.3. Evolution of User Interfaces 
1.2.4. Classic User Interfaces: WIMP/GUI, Commands, Voice, Virtual Reality 
1.2.5. Innovative User Interfaces: Mobile, Wearable, Collaborative, BCI 

1.3. The Human Factor: Psychological and Cognitive Aspects 

1.3.1. The Importance of the Human Factor in Interaction 
1.3.2. Human Information Processing 
1.3.3. The Input and Output of Information: Visual, Auditory, and Tactile 
1.3.4. Perception and Attention 
1.3.5. Knowledge and Mental Models: Representation, Organization, and Acquisition 

1.4. The Human Factor: Sensory and Physical Limitations 

1.4.1. Functional Diversity, Disability and Impairment 
1.4.2. Visual Diversity 
1.4.3. Hearing Diversity 
1.4.4. Cognitive Diversity 
1.4.5. Motor Diversity 
1.4.6. The Case of Digital Immigrants 

1.5. The Design Process (I): Requirements Analysis for User Interface Design 

1.5.1. User-Centered Design 
1.5.2. What is Requirements Analysis? 
1.5.3. Information Gathering 
1.5.4. Analysis and Interpretation of the Information 
1.5.5. Usability and Accessibility Analysis 

1.6. The Design Process (II): Prototyping and Task Analysis 

1.6.1. Conceptual Design 
1.6.2. Prototyping 
1.6.3. Hierarchical Task Analysis 

1.7. The Design Process (III): Evaluation 

1.7.1. Evaluation in the Design Process: Objectives and Methods 
1.7.2. Evaluation Methods Without Users 
1.7.3. Evaluation Methods with Users 
1.7.4. Evaluation Standards and Norms 

1.8. Accessibility: Definition and Guidelines 

1.8.1. Accessibility and Universal Design 
1.8.2. The WAI Initiative and the WCAG Guidelines 
1.8.3. WCAG 2.0. and 2.1. Guidelines 

1.9. Accessibility: Evaluation and Functional Diversity 

1.9.1. Web Accessibility Evaluation Tools 
1.9.2. Accessibility and Functional Diversity 

1.10. The Computer and Interaction: Peripherals and Devices 

1.10.1. Traditional Devices and Peripherals 
1.10.2. Alternative Devices and Peripherals 
1.10.3. Cell Phones and Tablets 
1.10.4. Functional Diversity, Interaction and Peripherals 

Module 2. Databases

2.1. Applications and Purposes of Database Systems 

2.1.1. Applications of the Different Database Systems 
2.1.2. Purpose of the Different Database Systems 
2.1.3. View of the Data 

2.2. Database and Architecture 

2.2.1. Relational Database 
2.2.2. Database Design 
2.2.3. Object-Based and Semi-Structured Databases 
2.2.4. Data Storage and Queries 
2.2.5. Transaction Management 
2.2.6. Data Mining and Analysis 
2.2.7. Database Architecture 

2.3. The Relational Model: Structure, Operations and Extended Relational Algebra 

2.3.1. The Structure of Relational Databases 
2.3.2. Fundamental Operations in the Relational Algebra 
2.3.3. Other Relational Algebra Operations 
2.3.4. Extended Relational Algebra Operations 
2.3.5. Null Values 
2.3.6. Database Modification 

2.4. SQL (I) 

2.4.1. What is SQL? 
2.4.2. The Definition of Data 
2.4.3. Basic Structure of SQL Queries 
2.4.4. Operations on Sets 
2.4.5. Aggregation Functions 
2.4.6. Null Values 

2.5. SQL (II) 

2.5.1. Nested Subqueries 
2.5.2. Complex Queries 
2.5.3. Views 
2.5.4. Cursors 
2.5.5. Complex Queries 
2.5.6. Triggers 

2.6. Database Design and the E-R Model 

2.6.1. Overview of the Design Process 
2.6.2. The Entity-Relationship Model 
2.6.3. Restrictions 

2.7. Entity-Relationship Diagrams 

2.7.1. Entity-Relationship Diagrams 
2.7.2. Entity-Relationship Design Aspects 
2.7.3. Weak Entity Sets 

2.8. The Extended Entity-Relationship Model 

2.8.1. Characteristics of the Extended E-R Model 
2.8.2. Design of a Database 
2.8.3. Reduction to Relational Schemas 

2.9. Designing from Relational Databases 

2.9.1. Characteristics of Good Relational Designs 
2.9.2. Atomic Domains and the First Normal Form (1FN) 
2.9.3. Decomposition by Functional Dependencies 
2.9.4. Theory of Functional Dependencies 
2.9.5. Decomposition Algorithms 
2.9.6. Decomposition by Means of Multivalued Dependencies 
2.9.7. More Normal Forms 
2.9.8. Database Design Process 

2.10. NoSQL Databases 

2.10.1. What are NoSQL Databases? 
2.10.2. Analysis of the Different NoSQL Options and their Characteristics
2.10.3. Mongo DB 

Module 3. Development of Web Applications

3.1. HTML5 Markup Languages 

3.1.1. HTML Basics 
3.1.2. New HTML 5 Elements 
3.1.3. Forms: New Controls 

3.2. Introduction to CSS Style Sheets 

3.2.1. First Steps with CSS 
3.2.2. Introduction to CSS3 

3.3. Browser Scripting Language: JavaScript 

3.3.1. JavaScript Basics 
3.3.2. DOM 
3.3.3. Events 
3.3.4. JQuery 
3.3.5. Ajax 

3.4. Concept of Component-Oriented Programming 

3.4.1. Context 
3.4.2. Components and Interfaces 
3.4.3. States of a Component 

3.5. Component Architecture 

3.5.1. Current Architectures 
3.5.2. Component Integration and Deployment 

3.6. Framework Front-End: Bootstrap 

3.6.1. Grid Design 
3.6.2. Forms 
3.6.3. Components 

3.7. Model View Controller 

3.7.1. Web Development Methods 
3.7.2. Design Pattern: MVC 

3.8. Information Grid Technologies 

3.8.1. Increased Computing Resources 
3.8.2. Concept of Grid Technology 

3.9. Service-Oriented Architecture 

3.9.1. SOA and Web Services 
3.9.2. Topology of a Web Service 
3.9.3. Platforms for Web Services 

3.10. HTTP Protocol 

3.10.1. Messages 
3.10.2. Persistent Sessions 
3.10.3. Cryptographic System 
3.10.4. HTTPS Protocol Operation

Module 4. Free Software and Open Knowledge

4.1. Introduction to Free Software 

4.1.1. History of Free Software 
4.1.2. "Freedom" in Software 
4.1.3. Licenses for the Use of Software Tools 
4.1.4. Intellectual Property of Software 
4.1.5. What is the Motivation for Using Free Software? 
4.1.6. Free Software Myths 
4.1.7. Top500 

4.2. Open Knowledge and CC Licenses 

4.2.1. Basic Concepts 
4.2.2. Creative Commons Licenses 
4.2.3. Other Content Licenses 
4.2.4. Wikipedia and Other Open Knowledge Projects 

4.3.  Main Free Software Tools 

4.3.1. Operating Systems 
4.3.2. Office Applications 
4.3.3. Business Management Applications 
4.3.4. Web Content Managers 
4.3.5. Multimedia Content Creation Tools 
4.3.6. Other Applications 

4.4. The Company: Free Software and its Costs 

4.4.1. Free Software: Yes or No? 
4.4.2. Truths and Lies about Free Software 
4.4.3. Business Software Based on Free Software 
4.4.4. Software Costs 
4.4.5. Free Software Models 

4.5. The GNU/Linux Operating System 

4.5.1. Architecture 
4.5.2. Basic Directory Structure 
4.5.3. File System Characteristics and Structure 
4.5.4. Internal Representation of the Files 

4.6. The Android Mobile Operating System 

4.6.1. History 
4.6.2. Architecture 
4.6.3. Android Forks 
4.6.4. Introduction to Android Development 
4.6.5. Frameworks for Mobile Application Development 

4.7. Website Creation with WordPress 

4.7.1. WordPress Features and Structure 
4.7.2. Creation of Sites on WordPress.com 
4.7.3. Installation and Configuration of WordPress on your own Server 
4.7.4. Installing Plugins and Extending WordPress 
4.7.5. Creation of WordPress Plugins 
4.7.6. WordPress Theme Creation 

4.8. Free Software Trends 

4.8.1. Cloud-Based Environments 
4.8.2. Monitoring Tools 
4.8.3. Operating Systems 
4.8.4. Big Data and Open Data 2.0
4.8.5. Quantum Computing 

4.9. Version Control 

4.9.1. Basic Concepts 
4.9.2. Git 
4.9.3. Cloud and Self-hosted Git Services 
4.9.4. Other Version Control Systems 

4.10. Custom GNU/Linux Distributions 

4.10.1. Main Distributions 
4.10.2. Distributions Derived from Debian 
4.10.3. Deb Package Creation 
4.10.4. Modification of the Distribution 
4.10.5. ISO Image Generation 

Module 5. Advanced Databases

5.1. Introduction to the Different Database Systems 

5.1.1. Historical Recap 
5.1.2. Hierarchical Databases 
5.1.3. Network Databases 
5.1.4. Relational Databases 
5.1.5. Non-Relational Databases 

5.2. XML and Databases for the Web 

5.2.1. Validation of XML Documents 
5.2.2. XML Document Transformations 
5.2.3. XML Data Storage 
5.2.4. XML Relational Databases 
5.2.5. SQL/XML 
5.2.6. Native XML Databases 

5.3. Parallel Databases 

5.3.1. Parallel Systems 
5.3.2. Parallel Database Architectures 
5.3.3. Parallelism in Queries 
5.3.4. Query Parallelism 
5.3.5. Design of Parallel Systems 
5.3.6. Parallel Processing in SQL 

5.4. Distributed Databases 

5.4.1. Distributed Systems 
5.4.2. Distributed Storage 
5.4.3. Availability 
5.4.4. Distributed Query Processing 
5.4.5. Distributed Database Providers 

5.5. Indexing and Association 

5.5.1. Ordered Indexes 
5.5.2. Dense and Sparse Indexes 
5.5.3. Multilevel Indices 
5.5.4. Index Updating 
5.5.5. Static Association 
5.5.6. How to Use Indexes in Databases 

5.6. Introduction to Transactional Processing 

5.6.1. States of a Transaction 
5.6.2. Implementation of atomicity and durability
5.6.3. Sequentiality 
5.6.4. Recoverability 
5.6.5. Isolation Implementation 

5.7. Recovery Systems 

5.7.1. Failure Classification 
5.7.2. Storage Structures 
5.7.3. Recovery and Atomicity 
5.7.4. Retrieval Based on Historical Record 
5.7.5. Concurrent Transactions and Retrieval 
5.7.6. High Availability in Databases 

5.8. Execution and Processing of Queries 

5.8.1. Cost of a Query 
5.8.2. Selection Operation 
5.8.3. Sorting 
5.8.4. Introduction to Query Optimization 
5.8.5. Performance Monitoring 

5.9. Non-Relational Databases 

5.9.1. Document-Oriented Databases 
5.9.2. Graph-Oriented Databases 
5.9.3. Key-Value Databases 

5.10. Data Warehouse, OLAP and Data Mining 

5.10.1. Components of Data Warehouses 
5.10.2. Architecture of a Data Warehouse 
5.10.3. OLAP 
5.10.4. Data Mining Functionality 
5.10.5. Other Types of Mining 

Module 6. Software Engineering

6.1. Software Engineering Framework 

6.1.1. Software Features 
6.1.2. The Main Processes in Software Engineering 
6.1.3. Software Development Process Models 
6.1.4. Standard Reference Framework for the Software Development Process: The ISO/IEC 12207 Standard 

6.2. Unified Software Development Process 

6.2.1. The Unified Process 
6.2.2. Dimensions of the Unified Process 
6.2.3. Case Studies Driven Development Process 
6.2.4. Fundamental Workflows of Unified Processes 

6.3. Planning in the Context of Agile Software Development 

6.3.1. Characteristics of Agile Software Development 
6.3.2. Different Planning Time Horizons in Agile Development 
6.3.3. Scrum Agile Development Framework and Planning Time Horizons 
6.3.4. User Stories as a Planning and Estimating Unit 
6.3.5. Common Techniques for Deriving an Estimate 
6.3.6. Scales for Interpreting Estimates 
6.3.7. Planning Poker 
6.3.8. Common Scheduling Types: Delivery Scheduling and Iteration Scheduling 

6.4. Distributed Software Design Styles and Service-Oriented Software Architectures 

6.4.1. Communication Models in Distributed Software Systems 
6.4.2. Middleware 
6.4.3. Architecture Patterns for Distributed Systems 
6.4.4. General Software Service Design Process 
6.4.5. Design Aspects of Software Services 
6.4.6. Composition of Services 
6.4.7. Web Services Architecture 
6.4.8. Infrastructure and SOA Components 

6.5. Introduction to Model Driven Software Development 

6.5.1. The Model Concept 
6.5.2. Model-Driven Software Development 
6.5.3. MDA Model-Driven Development Framework 
6.5.4. Elements of a Transformation Model 

6.6. Graphical User Interface Design 

6.6.1. Principles of User Interface Design 
6.6.2. Architectural Design Patterns for Interactive Systems: Model View Controller (MVC) 
6.6.3. UX User Experience 
6.6.4. User-Centered Design 
6.6.5. Graphical User Interface Analysis and Design Process 
6.6.6. Usability of User Interfaces 
6.6.7. Accessibility in User Interfaces 

6.7. Web Application Design 

6.7.1. Characteristics of Web Applications 
6.7.2. Web Application User Interface 
6.7.3. Navigation Design 
6.7.4. Basic Interaction Protocol for Web Applications 
6.7.5. Architecture Styles for Web Applications 

6.8. Software Testing Strategies and Techniques and Software Quality Factors 

6.8.1. Testing Strategies 
6.8.2. Test Case Designs 
6.8.3. Value for Money 
6.8.4. Quality Models 
6.8.5. ISO/IEC 25000 Family of Standards (SQuaRE) 
6.8.6. Product Quality Model (ISO 2501n) 
6.8.7. Data Quality Models (ISO 2501n) 
6.8.8. Software Quality Management 

6.9. Introduction to Software Engineering Metrics 

6.9.1. Basic Concepts: Measurements, Metrics and Indicators 
6.9.2. Types of Metrics in Software Engineering 
6.9.3. The Measurement Process 
6.9.4. ISO 25024. External and Quality Metrics in Use 
6.9.5. Object-Oriented Metrics 

6.10. Software Maintenance and Reengineering 

6.10.1. Maintenance Process 
6.10.2. Standard Maintenance Process Framework. ISO/EIEC 14764 
6.10.3. Software Reengineering Process Model 
6.10.4. Inverse Engineering 

Module 7. Advanced Programming

7.1. Introduction to Object-Oriented Programming 

7.1.1. Introduction to Object-Oriented Programming 
7.1.2. Class Design 
7.1.3. Introduction to UML for Problem Modeling 

7.2. Relationships Between Classes 

7.2.1. Abstraction and Inheritance 
7.2.2. Advanced Inheritance Concepts 
7.2.3. Polymorphism 
7.2.4. Composition and Aggregation 

7.3. Introduction to Design Patterns for Object-Oriented Problems 

7.3.1. What are Design Patterns? 
7.3.2. Factory Pattern 
7.3.3. Singleton Pattern 
7.3.4. Observer Pattern 
7.3.5. Composite Pattern 

7.4. Exceptions 

7.4.1. What are Exceptions? 
7.4.2. Exception Catching and Handling 
7.4.3. Throwing Exceptions 
7.4.4. Exception Creation 

7.5. User Interfaces 

7.5.1. Introduction to Qt 
7.5.2. Positioning 
7.5.3. What Are Events? 
7.5.4. Events: Definition and Catching 
7.5.5. User Interface Development 

7.6. Introduction to Concurrent Programming 

7.6.1. Introduction to Concurrent Programming 
7.6.2. The Concept of Process and Thread 
7.6.3. Interaction Between Processes or Threads 
7.6.4. Threads in C++ 
7.6.5. Advantages and Disadvantages of Concurrent Programming 

7.7. Thread Management and Synchronization 

7.7.1. Life Cycle of a Thread 
7.7.2. Thread Class 
7.7.3. Thread Planning 
7.7.4. Thread Groups 
7.7.5. Daemon Threads 
7.7.6. Synchronization 
7.7.7. Locking Mechanisms 
7.7.8. Communication Mechanisms 
7.7.9. Monitors 

7.8. Common Problems in Concurrent Programming 

7.8.1. The Problem of Consuming Producers 
7.8.2. The Problem of Readers and Writers 
7.8.3. The Problem of the Philosophers' Dinner Party 

7.9. Software Documentation and Testing 

7.9.1. Why is it Important to Document Software? 
7.9.2. Design Documentation 
7.9.3. Documentation Tool Use 

7.10. Software Testing 

7.10.1. Introduction to Software Testing 
7.10.2. Types of Tests 
7.10.3. Unit Test 
7.10.4. Integration Test 
7.10.5. Validation Test 
7.10.6. System Test 

Module 8. Software Reuse

8.1. General Overview of the Software Reuse 

8.1.1. What is Software Reuse? 
8.1.2. Advantages and Disadvantages of Software Reuse 
8.1.3. Main Techniques of Software Reuse 

8.2. Introduction to Design Patterns 

8.2.1. What is a Design Patterns? 
8.2.2. Catalog of the Main Design Patterns 
8.2.3. How to Use Patterns to Solve Design Problems 
8.2.4. How to Select the Best Design Pattern 

8.3. Creation Patterns 

8.3.1. Creation Patterns 
8.3.2. Abstract Factory Pattern 
8.3.3. Example of Abstract Factory Pattern implementation 
8.3.4. Builder Pattern 
8.3.5. Builder Implementation Example 
8.3.6. Abstract Factory Pattern vs. Builder 

8.4. Creation Patterns (II) 

8.4.1. Factory Method Pattern 
8.4.2. Factory Method vs. Abstract Factory 
8.4.3. Singleton Pattern 

8.5. Structural Patterns 

8.5.1. Structural Patterns 
8.5.2. Adapter Pattern 
8.5.3. Bridge Pattern 

8.6. Structural Patterns (II) 

8.6.1. Composite Pattern 
8.6.2. Decorator Pattern 

8.7. Structural Patterns (III) 

8.7.1. Facade Pattern 
8.7.2. Proxy Pattern 

8.8. Behavioral Patterns 

8.8.1. Concept of Behavioral Patterns 
8.8.2. Behavior Pattern: Chain of Responsibility 
8.8.3. Behavior Pattern Order 

8.9. Behavioral Patterns (II) 

8.9.1. Interpreter Pattern 
8.9.2. Iterator Pattern 
8.9.3. Observer Pattern 
8.9.4. Strategy Pattern 

8.10. Frameworks 

8.10.1. Concept of Frameworks  
8.10.2. Development using Frameworks 
8.10.3. Model View Controller Pattern 
8.10.4. Framework for Graphical User Interface Design 
8.10.5. Frameworks for Web Application Development 
8.10.6. Frameworks for Managing Object Persistence in Databases 

Module 9. Artificial Intelligence and Knowledge Engineering

9.1. Introduction to Artificial Intelligence and Knowledge Engineering 

9.1.1. Brief History of Artificial Intelligence 
9.1.2. Artificial Intelligence Today 
9.1.3. Knowledge Engineering 

9.2. Searching 

9.2.1. Common Search Concepts 
9.2.2. Uninformed Search 
9.2.3. Informed Search 

9.3. Boolean Satisfiability, Constraint Satisfiability and Automatic Planning 

9.3.1. Boolean Satisfiability 
9.3.2. Constraint Satisfiability Problems 
9.3.3. Automatic Planning and PDDL 
9.3.4. Planning as a Heuristic Search 
9.3.5. Planning with SAT 

9.4. Artificial Intelligence in Games 

9.4.1. Game Theory 
9.4.2. Minimax and Alpha-Beta Pruning 
9.4.3. Simulation: Monte Carlo 

9.5. Supervised and Unsupervised Learning 

9.5.1. Introduction to Machine Learning 
9.5.2. Classification 
9.5.3. Regression 
9.5.4. Validation of Results 
9.5.5. Clustering 

9.6. Neural Networks 

9.6.1. Biological Fundamentals 
9.6.2. Computational Model 
9.6.3. Supervised and Unsupervised Neural Networks 
9.6.4. Simple Perceptron 
9.6.5. Multilayer Perceptron 

9.7. Genetic Algorithms 

9.7.1. History 
9.7.2. Biological Basis 
9.7.3. Problem Coding 
9.7.4. Generation of the Initial Population 
9.7.5. Main Algorithm and Genetic Operators 
9.7.6. Evaluation of Individuals: Fitness 

9.8. Thesauri, Vocabularies, Taxonomies 

9.8.1. Vocabulary 
9.8.2. Taxonomy 
9.8.3. Thesauri 
9.8.4. Ontologies 

9.9. Knowledge Representation: Semantic Web 

9.9.1. Semantic Web 
9.9.2. Specifications: RDF, RDFS and OWL 
9.9.3. Inference/ Reasoning 
9.9.4. Linked Data 

9.10. Expert Systems and DSS 

9.10.1. Expert Systems 
9.10.2. Decision Support Systems 

Module 10. Advanced Software Engineering

10.1. Introduction to Agile Methodologies 

10.1.1. Process Models and Methodologies 
10.1.2. Agility and Agile Processes 
10.1.3. Agile Manifesto 
10.1.4. Some Agile Methodologies 
10.1.5. Agile vs. Traditional 

10.2. Scrum 

10.2.1. Origins and Philosophy of Scrum 
10.2.2. Scrum Values 
10.2.3. Scrum Process Flow 
10.2.4. Scrum Roles 
10.2.5. Scrum Artifacts 
10.2.6. Scrum Events 
10.2.7. User Stories 
10.2.8. Scrum Extensions 
10.2.9. Agile Estimates 
10.2.10. Scrum Scaling 

10.3. Extreme Programming 

10.3.1. Justification and Overview of XP 
10.3.2. The XP Life Cycle 
10.3.3. The Five Core Values 
10.3.4. The Twelve Basic Practices in XP 
10.3.5. Roles of Participants 
10.3.6. XP Industrial 
10.3.7. Critical Assessment of XP 

10.4. Software Development Based on Reusability 

10.4.1. Software Reuse 
10.4.2. Code Reuse Levels 
10.4.3. Specific Reuse Techniques 
10.4.4. Component-Based Development 
10.4.5. Benefits and Problems of Reuse 
10.4.6. Reuse Planning 

10.5. System Architecture and Software Design Patterns 

10.5.1. Architectural Design 
10.5.2. General Architectural Patterns 
10.5.3. Fault Tolerant Architectures 
10.5.4. Distributed Systems Architectures 
10.5.5. Design Patterns 
10.5.6. Gamma Patterns 
10.5.7. Interaction Design Patterns 

10.6. Cloud Application Architecture 

10.6.1. Cloud Computing Fundamentals 
10.6.2. Cloud Application Quality 
10.6.3. Architectural Styles 
10.6.4. Design Patterns 

10.7. Software Testing: TDD, ATDD and BDD 

10.7.1. Software Verification and Validation 
10.7.2. Software Testing 
10.7.3. Test-Driven Development (TDD) 
10.7.4. Acceptance Test-Driven Development (ATDD) 
10.7.5. Test-Driven Development (BDD) 
10.7.6. BDD and Cucumber 

10.8. Software Process Improvement 

10.8.1. Software Process Improvement 
10.8.2. The Process Improvement Approach 
10.8.3. Maturity Models 
10.8.4. The CMMI Model 
10.8.5. CMMI V2.0. 
10.8.6. CMMI and Agile 

10.9. The Quality of the Software Product: SQuaRE 

10.9.1. Software Quality 
10.9.2. Software Product Quality Models 
10.9.3. ISO/IEC 25000 Family 
10.9.4. ISO/IEC 25010: Quality Model and Quality Characteristics 
10.9.5. ISO/IEC 25012: the Quality of the Data 
10.9.6. ISO/IEC 25020 Software Quality Measurement. 
10.9.7. ISO/IEC 25022, 25023 and 25024: Software and Data Quality Metrics 
10.9.8. ISO/IEC 25040 Software Assessment 
10.9.9. Accreditation Process 

10.10. Introduction to DevOps 

10.10.1. DevOps Concept 
10.10.2. Core Practices 

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