Skills That Will Benefit You for The Rest of Your Life | BBSMIT
In this course of study, learners will learn the fundamentals of a system architect's responsibilities. Learners at BBSMIT embark on the interrelationships between the design choices that architects make when designing software systems and the structure, performance, and scalability properties of the software systems.
Students are aware of the major roles of a system architect such as directing the design, leading technical teams and the alignment with business objectives.
The strength and weakness of different architectural styles are also examined, and learners closely observe when and how such architecture should be applied using Monolithic, Service-Oriented Architecture (SOA), and Microservices.
In this section, we will take a brief introduction of SDLC models and how the architect is involved in planning, designing and reviewing the steps, that is, development activities as to the concept of deployment.
The module provides learners with tools and strategies to define clear business needs in a manner they may translate into specific system requirements. BBSMIT holds the view that presence of good communication and analysis is the basis of good architectural planning.
Students also get familiar with methods of effectively communicating with clients, users and fellow crew members to get proper and full system requirements.
Learners acquire the ability to differentiate and record business objectives and transform them to technical specifications which can be measured.
In this section, the author presents the incorporation of use case development and SRS documentation to organise functional and non-functional requirements.
This module also acquaints students with fundamental principles according to which scalable and maintainable systems should be designed. In BBSMIT, students learn about efficient and robust software architecture best practices and patterns.
The students learn how to develop systems capable of growing, healing and developing as time passes by, without loss of stability and performance.
Students are able to describe the most crucial architectural design patterns and SOLID principles for building adaptable and testable systems.
This section presents a paradigm approach so that modern enterprise systems are organized and have performance, modularity and agility.
During this module, the students study the most common patterns of design that address problems in architecture many times. In BBSMIT, the learner learns about how to apply these patterns to create robust, reusable, and scalable software systems.
The students learn the three broad topics of design patterns and how each pattern is used to address particular issues that are presented in the field of software architecture.
Learners also immerse themselves in such frequently used patterns as Model-View-Controller (MVC), Model-View-ViewModel (MVVM), Singleton, and Factory, and thus acquire a practical understanding of how to apply these.
This part is devoted to the application of patterns to live systems and a discussion of the real examples of industry applications to comprehend the benefits and trade-offs applied.
The module is on the selection and evaluation of suitable technologies that satisfy the needs of the system. BBSMIT educates students to make decisions at the architecture level according to the scalability, area of expertise of groups, and the business objectives.
Students get to know how one can analyse the requirements of a project and accordingly choose the appropriate technologies at each layer of the system architecture.
The learners will uncover major considerations to use in assessing the tools, such as maturity, community acceptance, integration, and license.
This section helps students assess how budget constraints, scalability goals, and team capabilities influence stack decisions.
This module gives students an insight into how to design an efficient but scalable, and secure database system. At BBSMIT, a student learns about data architecture in how the architecture of the entire system is supported.
Students learn to compare and contrast traditional relational databases and form modern NoSQL solutions with the aim of making them match a variety of use cases.
Students can visually depict the relationships and structures of data with entity-relationship diagrams.
This chapter is about the techniques and advanced methods of tuning database performance and availability in distributed environments.
This module trains the students on ways of developing sturdy APIs and how system integrations can be allowed. Learners at BBSMIT learn major rules of communication and documentation required in modern architecture.
Students get to learn the concepts of developing clean, scalable, and resourceful REST APIs that are utilized in web and enterprise applications.
Students will know what API gateways are and how microservices interact asynchronously over the HTTP, gRPC, and message queues protocols.
This section dwells upon the deployment of such tools as Swagger and OpenAPI and the development of easily readable documentation on APIs.
This module exposes the students to the physical and virtual infrastructure of the software systems. At BBSMIT, students study cloud types of architectures and best practices of the infrastructure.
The students learn about the key services given by the large cloud providers, such as compute, storage, and networking services.
Students are allowed to know the methods of enhancing the performance of the applications to be of high quality and have lightning speed in delivery.
This chapter presents a failover plan, a redundancy strategy, anda disaster recovery approach in order to make the system robust.
In this module, the students are taught lessons on how to design software with security embedded into its core. BBSMIT lays stress on the notions of safe development and standards of industry compliance.
The students learn about secure design practices, threat modeling, and vulnerability prevention at the planning and development stages.
Learners know how to plan and implement identity management on the basis of OAuth, JWT, RBAC, and other popular protocols.
It discusses the recommended way of addressing the API security measures, encryption, and worldwide compliances like the GDPR and ISO/IEC 27001.
Through this module, the learners practice how to get systems tuned to deliver high performance at different workloads. BBSMIT includes means and mechanisms to build scaling-efficient systems that do not sacrifice performance.
Students would gain knowledge about how to check system performance and use particular tuning techniques to improve speed and responsiveness.
Students investigate the ways to scale systems, either vertically by increasing resources in the system or horizontally by spreading workloads among several instances of the service.
Then some discussion of caching systems with Redis and CDNs to create less latency and better utilization of the system is brought up.
The module will enable the learners to learn how to instill DevOps practices into the system design. At BBSMIT, the learners learn about the role played by the architect in the automation, deployment, and maintenance of production systems.
Learners create CI/CD pipelines to integrate, test, and deploy code without any hitch.
Students can use the tools to automate the setup and upkeep of infrastructures such as Terraform and Ansible.
Planning and implementing centralized logging and monitoring systems to gain visibility and respond to incidents are included in this section.
It is a module that prepares learners with the relevant expertise in documenting systems architecture as well as communicating architecture. BBSMIT looks at clarity, structure, and the capacity to communicate between technical and non-technical stakeholders.
Students study how to visualize architecture in Unified Modeling Language (UML) and the C4 Model at various levels of abstraction.
The learners also record system designs, requirements, and working procedures to be used by teams and obtained by stakeholders.
In this part, there will be a consideration of the best communication practices that will be used to deliver the architecture decisions and designs with confidence.
In this module has learners cover the trait elements of becoming a leader in the field of system architecture and decision-making. BBSMIT students can be expected to guide the groups of people and make an architectural decision.
Students are taught how to mentor developers, how to make team work and how to run a technical conversation.
Students are aware of the use of Agile frameworks such as Scrum and Kanban in plan and implement architectural planning.
This section would teach the students to make a sound decision on the spot and take the initiative to control architectural and operational risks.
Within this culminating ever, students place all of the knowledge received into a real project presentation in a broad scope. In BBSMIT, a learner develops practical skills in designing a comprehensive system and getting ready to assume the position of a professional in the field.
Students design, scheme, and implement an actual shipment structure of a use-case with in-built technology design principle, stack choice, security and deployment approach.
The learners make comprehensive documentation and provided their solution in an architecturally compelling presentation with technical specifications, diagrams of architecture, and the explanation of stakeholders.
This section enables the students to polish their portfolios, write good resumes, and simulate architecture-related job interviews by mock interviews and feedback.
Learn how to architect systems that scale, are secure and perform, by joining BBSMIT System Architect Professional Training Program. This practical program teaches you to use different software patterns and work with cloud infrastructure and equips you with actual tasks and responsibilities related to the work in tech. Learn to improve your portfolio and build skills in order to feel confident in your next position.
Enroll now and start your journey to architectural excellence
Role of a System Architect Types of Architectures (Monolithic, SOA, Microservices) Software Development Lifecycle (SDLC) Overview
Stakeholder Communication Business Requirements vs Technical Requirements Use Cases & System Requirements Specification (SRS)
Scalability, Reliability, Maintainability SOLID & Design Patterns Overview Layered, Event-driven & Microservices Architectures
Creational, Structural & Behavioral Patterns MVC, MVVM, Singleton, Factory Application in Real-world Systems
Choosing Frontend, Backend, Database, Cloud Evaluating Frameworks & Tools Cost, Scalability & Team Considerations
Relational vs NoSQL Database Design Data Modeling & ER Diagrams Database Sharding, Caching & Replication
RESTful API Design Principles API Gateways & Microservices Communication API Documentation (Swagger/OpenAPI)
Cloud Architecture (AWS, Azure, GCP) Load Balancing, Caching, CDN High Availability & Disaster Recovery Planning
Security by Design Principles Authentication & Authorization Models Secure API, Data Encryption & Compliance (GDPR, ISO)
System Performance Tuning Horizontal & Vertical Scaling Caching Strategies (Redis, CDN)
Designing Deployment Pipelines Infrastructure as Code (Terraform, Ansible) Monitoring & Logging Architecture
Creating Architecture Diagrams (UML, C4 Model) Preparing Technical Specifications Presenting Architecture to Stakeholders
Team Collaboration & Mentoring Project Management & Agile Methodologies Decision Making & Risk Management
Designing End-to-End System Architecture Documentation & Presentation Resume Building & Mock Interviews