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Certificate in Building Information Modeling (BIM)

Certificate in Building Information Modeling (BIM)

Certificate in Building Information Modeling (BIM)

Certificate in Building Information Modeling (BIM)

Course Information
Duration: 110 Hours

Description

Tickoo Institute of Emerging Technologies (TIET) and CADCIM Technologies, USA are proud to introduce a comprehensive diploma course in Building Information Modeling (BIM) that equips students with the essential knowledge and skills to excel in the architecture, engineering, and construction industries. This diploma program covers various software tools essential for BIM, including AutoCAD, Revit Architecture, Revit Structure, Primavera/Microsoft Project and Navisworks. Our Building Information Modeling (BIM) diploma program is designed to provide a strong foundation in BIM principles, concepts, and practical applications. It caters to beginners and professionals alike, offering a well-rounded curriculum that prepares individuals for a successful career in the AEC (Architecture, Engineering, and Construction) field.

Prerequisite

The Prerequisites for a diploma course in Building Information Modeling (BIM) offered by Tickoo Institute of Emerging Technologies (TIET) and CADCIM Technologies, USA depending must have/ be pursuing a diploma or degree in Architecture, Engineering (Civil/Mechanical) or equivalent qualification is typically required for admission to this diploma program.

Key Features of the Programs

A Building Information Modeling (BIM) diploma program is designed to provide students with a comprehensive understanding of BIM principles and practices, as well as practical skills for working in the construction and architecture industries. There are some key features that are included in a BIM diploma program:

  • The program is started with a solid foundation in BIM principles, concepts, and terminology. This includes understanding the history and evolution of BIM, its benefits, and its role in the construction and design process.
  • This program also includes understanding industry standards and best practices, such as the BIM Execution Plan (BEP), ISO 19650, and National BIM Standards (NBIMS), is important for ensuring consistency and quality in BIM projects.
  • This program is included the training on industry-standard BIM software such as Autodesk Revit, AutoCAD, Navisworks, Primavera/Microsoft Project, Dynamo and other relevant tools. Students will become proficient in using these applications to create and manage BIM models.
  • BIM is often used for collaborative project work. This program teaches the students how to work in a team environment, manage and share BIM data, and collaborate effectively with architects, engineers, contractors, and other stakeholders.
  • Students are taught how to create 3D models of buildings and infrastructure. This includes creating detailed architectural, structural, and MEP (mechanical, electrical, and plumbing) models.
  • The students will be informed about the latest trends, tools, and technologies in BIM.
  • TIET will provide the opportunities for internships or work experience to give students real-world exposure to BIM practices in professional settings.
  • TIET will also provide assistance with resume building, interview preparation, and job placement guidance can be invaluable for students looking to start their careers in BIM.

Learning Outcomes of the Program

  • Understanding the core concepts and principles of Building Information Modeling, including its history, purpose, and significance in the AEC (Architecture, Engineering, and Construction) industry.
  • Gaining proficiency in using industry-standard BIM software platforms such as Autodesk Revit,AutoCAD, Navisworks, Primavera/Micro soft project or other relevant BIM tools.
  • Developing the ability to create 3D BIM models of buildings, structures, and infrastructure projects, including modeling architectural, structural, and MEP (Mechanical, Electrical, Plumbing) components.
  • Applying BIM principles in project management, including tracking project progress, managing resources, and coordinating project schedules.
  • Familiarizing with industry standards and best practices related to BIM, including those set by organizations like the National BIM Standard-United States (NBIMS-US) and the BIM Forum.
  • Applying the knowledge and skills gained throughout the program to complete a BIM-based capstone project, demonstrating the ability to manage a BIM project from start to finish.
  • Developing effective communication skills to present BIM models, designs, and project information to clients, stakeholders, and project teams.
  • Exploring opportunities for industry engagement, networking, and collaboration to stay informed about emerging trends and best practices in BIM.

Additional Resources

In addition to Programs software Technologies, the students will be able to avail the facility of additional resources:

  • Official documentation and tutorials.
  • Online forums and communities/ groups for individual software users.
  • Textbooks and video tutorials for in-depth learning.

This program consists of six modules: Module 1, Module 2, Module 3, Module 4, Module 5 and Module 6. The outline of these modules is as follows:

Module 1: Drafting using Autodesk AutoCAD

Autodesk AutoCAD is a powerful computer-aided design (CAD) software used for drafting and creating precise 2D and 3D drawings. This module will provide an introduction to the fundamental concepts and tools necessary for drafting using AutoCAD.

Learning Objectives:

  • Understand the AutoCAD interface and workspace: In this module, the student will learn the layout of tools, menus, and panels, the purpose of different areas like the ribbon, command line, and model/paper space.
  • Create and save a new drawing: The student will be taught how to set up the drawing parameters such as units, dimensions, scale and to save your work to a specified location on your computer or network.
  • Use basic drawing and editing tools: Learn to draw basic shapes and lines using tools like lines, circles, rectangles, etc.
  • Navigate and manipulate your drawings efficiently: Understanding the navigation through the drawing space, zooming in and out as needed.
  • Create and manage layers for organization: Understanding the concept of layers in AutoCAD for organizing and managing drawing elements.
  • Annotate drawings with text and dimensions: Learn to add text labels and annotations to provide information about the drawing.
  • Plot and print drawings: The student will learn the plotting process, including selecting paper size, scale, and other printing options

Projects

After completion of the topics of this module, the students will be assigned various projects to work on for better understanding of the concepts and tools learned. Some of the projects will be done under the guidance of the instructor and, the others, individually by the students themselves.

For the detailed syllabus of AutoCAD, visit https://tiet.in/autocad-training.aspx

Module 2: Architectural Modeling Using Revit

This module focuses on teaching the use of Autodesk Revit for building modeling and design. Revit Architecture is a popular Building Information Modeling (BIM) software used by architects, engineers, and construction professionals for creating 3D models of buildings and structures.

Learning Objectives:

  • Introduction to Revit Architecture: This module typically begins with an introduction to the software, its interface, and its primary features.
  • Creating Basic Elements: Students will learn how to create basic building elements such as walls, doors, windows, roofs, floors, and ceilings. This includes specifying their properties, dimensions, and materials.
  • Modifying Elements: Students will be taught how to modify and edit elements, including moving, copying, rotating, and resizing them.
  • Working with Views: Understanding how to create different views of the building model is crucial. This module covers the creation of floor plans, elevations, sections, and 3D views.
  • Managing Families: Families in Revit are pre-built 3D objects, such as furniture and equipment. Students will learn how to load and place families in project.
  • Creating Parametric Families: This includes creating parametric families, which allow you to control the dimensions and properties of elements.
  • Building Systems: Understanding how to create and manage building systems, such as HVAC, electrical, and plumbing.
  • Detailing and Annotation: Students will be taught how to add text, dimensions, and annotations to the drawings to convey information effectively.
  • Schedules and Quantities: Creating schedules for elements like doors, windows, or materials. It is essential for tracking project data and quantities.
  • Collaboration and Project Management: Revit allows multiple team members to collaborate on a project.
  • Project Documentation: Generating construction documents is a critical aspect of architectural design. This module is covered how to create sheets, views, and export files for documentation.
  • Project Presentation: Learn how to create 3D renderings and walkthroughs to present the project to clients or stakeholders.

Projects

After completion of the topics of this module, the students will be assigned various projects to work on such as to create detailed 3D models of buildings and their components, enabling them to efficiently plan, design, document, and manage construction projects.

For the detailed syllabus of Autodesk Revit Architecture, https://tiet.in/revit_architecture-training.aspx

Module 3: Structural Modeling and Analysis Using Revit

Revit Structure is a Building Information Modeling (BIM) software developed by Autodesk that is specifically designed for structural engineering and construction. It allows engineers and architects to create detailed 3D models of buildings and structures, which can be used for design, structural analysis, and documentation. Additionally, you can perform analysis in the model using external software such as Etabs, Robot, and others.

Learning Objectives

  • Introduction to Revit Structure: This module includes the overview of BIM and its benefits in structural engineering, introduction to the Revit Structure interface and basic navigation, setting up a new project.
  • Building the Structural Model: Students will learn to create architectural and structural elements (walls, columns, beams, slabs, etc.), placing structural connections and details, importing architectural and MEP (mechanical, electrical, plumbing) models.
  • Analyzing Structural Elements: Understanding how to explore load and load combinations, assign loads to structural elements, analyze the structure using built-in analysis tools.
  • Design and Documentation: Students will be taught to create structural drawings, schedules, and sheets, annotate and dimension structural plans, generate 3D views for presentation and coordination.
  • Collaboration and Data Sharing: Revit allows multiple teams to collaborate with architects and other project stakeholders, linking external references and sharing data with other team members.
  • Structural Analysis Integration: Introduction to structural analysis software (e.g., Robot Structural Analysis), preparing the model for structural analysis, interpreting and using analysis results within Revit Structure.
  • Design Optimization and Coordination: It includes iterative design and analysis to optimize the Structure, coordinating structural elements with other building systems, clash detection and resolution.
  • Final Project and Presentation: Learn how to put together a complete structural model and documentation set, prepare a presentation to demonstrate the project's design and analysis.

Projects

After completion of the topics of this module, the students will be assigned various projects to work on architects and designers to create detailed 3D models of buildings, structures and their components, enabling them to efficiently plan, design, document, and manage construction projects. When working with Revit Structure, students can undertake a variety of projects to improve their skills and demonstrate their proficiency.

For the detailed syllabus of Autodesk Revit Structure, https://tiet.in/revit_architecture-training.aspx

Module 4: MEP Modeling using Revit 0

Revit MEP (Mechanical, Electrical, and Plumbing) is a powerful Building Information Modeling (BIM) software developed by Autodesk. It is specifically designed for professionals in the fields of mechanical, electrical, and plumbing engineering to create detailed and accurate building systems models.

Learning Objectives:

  • Understanding BIM Principles: Comprehending the fundamental concepts of Building Information Modeling (BIM) and how they apply to the design and construction process.
  • Navigating the Revit MEP Interface: Familiarizing oneself with the Revit MEP user interface, including the ribbon, project browser, and properties palette.
  • Creating and Managing Projects: Learning to set up and manage Revit MEP projects, including defining project settings, units, and project templates.
  • Creating Building Components: Mastering the tools for creating 3D models of mechanical, electrical, and plumbing systems within a building.
  • Systems Design: Understanding how to design and layout HVAC, electrical, and plumbing systems in a coordinated and efficient manner.
  • Creating Schedules and Documentation: Generating schedules and construction documentation from the Revit MEP model, including drawings, sheets, and specifications.
  • Collaboration and Coordination: Learning how to collaborate with other disciplines (architectural, structural) and coordinating building systems to avoid clashes and conflicts.
  • Analyzing and Simulating Performance: Utilizing analysis tools within Revit MEP to simulate and optimize the performance of building systems, such as energy analysis for HVAC systems.
  • Family Creation: Understanding how to create custom families for specific mechanical, electrical, and plumbing components that are not readily available in the default library.
  • Project Collaboration and Management: Exploring the tools and workflows for managing project data, version control, and collaboration with other project team members.
  • Heat Load Calculation: Understanding the principles of calculating heat loads for HVAC systems to ensure proper sizing and efficiency.
  • Duct and Pipe Sizing: Learning the engineering concepts related to sizing ductwork and piping systems to meet the airflow and fluid flow requirements.
  • Electrical Load Analysis: Understanding the principles of electrical load analysis for designing and sizing electrical systems.
  • Plumbing System Design: Understanding the principles of plumbing system design, including pipe sizing, fixture units, and drainage requirements.
  • HVAC System Design: Grasping the fundamentals of designing HVAC systems, including air distribution, ventilation, and equipment selection.
  • Electrical System Design: Understanding the design principles for electrical systems, including power distribution, lighting design, and circuiting.
  • Energy Efficiency and Sustainability: Incorporating principles of energy efficiency and sustainability into the design process, utilizing tools within Revit MEP for analysis and optimization.

Projects

After completion of the topics of this module, the students will be assigned various projects Revit MEP (Mechanical, Electrical, and Plumbing) to work on.

For the detailed syllabus of Autodesk Revit MEP, https://tiet.in/revit_MEP-training.aspx

Module 5: Project Management by Using Primavera Software

Primavera is a popular project management software suite developed by Oracle Corporation, primarily used for managing large and complex projects, including those related to construction and Building Information Modeling (BIM). While Primavera itself is not a BIM software tool, it can be integrated with BIM software and used to manage various aspects of construction projects that involve BIM.

Learning Objectives:

  • Project Planning: Students will be taught to create detailed project plans, which is a crucial step in managing construction projects. They can define project tasks, their dependencies, durations.
  • Resource Management: It helps in managing and allocating resources efficiently, which is critical in construction projects. This includes human resources, materials, and equipment.
  • Cost Management: Students will learn how to track and manage project costs. They can create and monitor budgets, track expenses, and forecast financials.
  • Schedule Management: The software is known for its powerful scheduling capabilities. Students will learn to create Gantt charts, assign tasks to team members, and visualize project timelines.
  • Risk Management: Identifying and managing risks is crucial in construction projects. It helps to assess and manage project risks.
  • Integration with BIM: While Primavera is not a BIM tool itself, it can integrate with various BIM software platforms such as Autodesk Revit or Navisworks. Students will learn to link project management data with the BIM model, ensuring better coordination between project planning and design.
  • Document Management: Primavera provides document management features to organize and control project-related documents, drawings, and other assets.
  • Communication and Collaboration: It offers tools for communication and collaboration among project team members, helping to streamline information exchange.

Projects

After completion of the topics of this module, the students will be assigned projects to work on, and related to industries such as construction, engineering, and manufacturing to plan, manage, and execute complex projects. Primavera offers various modules and tools to support project management activities, including project planning, scheduling, resource management, and reporting.

For the detailed syllabus of Oracle Primavera P6, https://tiet.in/oracle_primavera_p6-training.aspx

Module 6: Project Collaboration by Using Navisworks

Building Information Modeling (BIM) is a powerful approach in the construction and architecture industry that involves creating and managing digital representations of a building's physical and functional characteristics. Students will be equipped with the skills and knowledge required to streamline construction projects, minimize errors, and optimize collaboration among various stakeholders in the construction and architecture industries. BIM tools like Navisworks play a crucial role in project collaboration, allowing multiple stakeholders to work together efficiently.

Learning Objectives:

  • Understanding Navisworks: Gain a fundamental understanding of Navisworks, its features, and how it fits into the BIM workflow.
  • Importing Models: Learn how to import various 3D models and other project data into Navisworks.
  • Clash Detection: Explore clash detection techniques using Navisworks to identify and resolve design conflicts and clashes between different building systems.
  • Model Review: Understand how to review and navigate through the 3D models in Navisworks, including analyzing various aspects of the project.
  • Quantification and Cost Estimation: Learn how Navisworks can assist in quantifying materials and estimating project costs.
  • Project Timeline: Discover how to create project timelines or 4D simulations to visualize construction schedules and improve project management.
  • Communication and Reporting: Explore tools for generating reports and communicating project information effectively to all stakeholders.

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