
Learn how to initialize a new Revit MEP project by setting location, units, and basic project information, including organization, building name, author, and client details.
Define human comfort as conditions where people feel comfortable and can work, shaped by dry bulb temperature 68–75 Fahrenheit, humidity, air movement, indoor air quality, noise, lighting, and furniture.
Explore how room heat gain determines the cooling load by analyzing sources like roof, walls, windows, floor, equipment, and lighting, and explain sensible versus latent heat.
Navigate the energy analysis panel to define space types and conditions for dining and waiting areas per ASHRAE standards, detailing heat gains, outdoor air requirements, and schedules.
Explore zone and system load analyses, including zone load summaries, system load summaries, peak conditions, and the design of cooling and heating coils via design psychometry.
Discover how to place an outdoor air handling unit, support indoor air quality with outdoor air supply, and use load summaries to size and place AHUs.
Create an auto ducting system in Revit by selecting air terminals, choosing the air handling unit, generating a layout, and selecting radius elbows with minimal bends for energy-efficient duct runs.
Size the ducting system in Revit MEP using view range settings and the equal friction method, sizing tees, elbows, and main ducts to match CFM flow values.
Discover duct insulation concepts, why it prevents heat gain or loss and moisture, and apply fiberglass, mineral wool, elastomeric, or rigid board insulation in Revit.
Learn to size hvac pipes by calculating gpm for fan coil units and air handling units, set units, and use pipe flow expert to determine two to three inch pipes.
Connect the chiller inlet to the pump header by drawing pipes, adjust section views, and route water to the evaporator, a shell-and-tube heat exchanger.
Explore how an air-cooled chiller uses a shell-and-tube evaporator to absorb heat with low-pressure refrigerant, producing chilled water for air handling and fan coil units.
Draw and connect inlet and outlet pipes from the air-cooled chiller to fan coil units and air handling units, then route them in 3d view.
insert a revit file into your mep project, link the revit project, and bind the link to attachment details and levels for hvac, plumbing, fire protection, and electrical systems.
Analyze zone 1 cooling and heating loads from a report, identify peak conditions, and compute building envelope and internal heat gains to determine total peak cooling and heating requirements.
Learn to calculate CFM by measuring space dimensions, computing volume, and applying air changes per hour to determine required CFM for dining hall, reception, and lobby.
Place grid diffusers in the dining hall by selecting an air terminal, set 10 ft elevation, and size eight diffusers at 600 cfm to meet a 4775 cfm load.
Create and size return air ducts in Revit MEP by calculating CFM, selecting duct sizes, and placing return diffusers for multiple zones.
Gain an understanding of the water supply system, from collection at the source through transmission, treatment, storage, and distribution to consumers via pipes and pumps.
Explore four major water distribution system types—dead end (artery/tree), grid iron, circular (ring), and radial—highlighting design simplicity, cost effectiveness, and rural or densely populated applications.
Examine grid iron distribution systems with interconnected main and sub-branches for reliability in high-demand urban areas; assess radial systems with central sources and ring networks for continuous supply.
Compute per-person daily water consumption for drinking, cooking, breathing, flushing, washing clothes, washing utensils, and gardening, totaling 135 liters per day in residential areas.
Use Excel sheets to calculate daily water consumption across residential, commercial, office, factory, hotels, and public facilities, applying per-person and per-area water benchmarks.
Calculate pump horsepower by summing total dynamic head—vertical distance and friction losses—and determine the required flow rate (gpm) from dwelling unit values in the water supply fixture unit (WSU) table.
Transform your career in MEP engineering with the power of AI and Revit MEP 2024–2026!
This professional Udemy course is designed for architects, mechanical engineers, electrical engineers, HVAC specialists, and plumbing professionals who want to master smart, AI-driven workflows in modern building design.
Learn how to design, model, and analyze complete MEP systems — HVAC, plumbing, fire protection, and electrical — using Autodesk Revit MEP 2024, 2025, and 2026. The course combines real-world project tasks, AI-assisted design techniques, and advanced automation tools that reflect today’s industry standards.
What You’ll Learn
AI-Powered Design: Use AI in Revit MEP to automate HVAC load calculations, duct sizing, and system layouts.
Complete MEP Systems: Design and coordinate HVAC, plumbing, electrical, and fire safety systems with precision.
Revit MEP 2024–2026 Tools: Master the newest features, from smart families to system analysis tools.
3D Modeling Excellence: Build detailed BIM models integrating architectural and MEP components.
Team Collaboration: Learn BIM coordination, clash detection, and data sharing across disciplines.
Real-World Projects: Apply every skill to practical MEP projects using AI workflows.
Course Journey
Introduction to Revit MEP 2024–2026 – Interface setup, templates, and workflow optimization.
Architectural Coordination – Working with linked models and setting up project levels.
HVAC Design Using AI – Intelligent duct design, airflow balancing, and equipment placement.
Plumbing Systems – Hot/cold water design, sanitary piping, and AI-based pressure analysis.
Electrical Layouts – Circuit planning, lighting design, and power distribution.
Fire Protection Design – Smart sprinkler networks and safety compliance setup.
Chiller & Cooling Tower Design – Load calculation and equipment integration.
Advanced 3D Modeling & Rendering – Visualize realistic MEP coordination models.
AI Integration in MEP – Using automation tools and scripts to accelerate workflows.
Teamwork & BIM Collaboration – Multi-discipline coordination and Revit worksharing.
Who Should Enroll
Architects & BIM Modelers
Mechanical / HVAC Engineers
Electrical & Plumbing Engineers
Revit Professionals upgrading from 2023 or earlier
Students seeking to master MEP Design using AI and Revit 2024–2026
Why Take This Course
Future-proof your MEP career with AI-enabled Revit workflows
Learn industry-standard methods for HVAC, plumbing, and electrical systems
Gain hands-on Revit project experience across disciplines
Build a professional BIM portfolio ready for global opportunities
Join today and unlock the future of MEP design — smarter, faster, and AI-powered.
Become the engineer every modern project needs.