MEP Infrastructure Design Course For Mechanical / Wet Utility Engineers Online Course

MEP Infrastructure Design Course For Mechanical / Wet Utility Engineers Online Course

Language: ENGLISH

Instructors: BHADANIS QUANTITY SURVEYING & CONSTRUCTION MANAGEMENT INTERNATIONAL TRAINING INSTITUTE 2016

Validity Period: 365 days

₹25500 19.61% OFF

₹20500

PREVIEW

Why this course?

Description

MEP Infrastructure Design Course

For Mechanical / Wet Utility Engineers

The MEP Infrastructure Design Course for Mechanical / Wet Utility Engineers is a specialized professional training program designed for engineers, designers, supervisors, consultants, contractors, and technical professionals who want to develop strong practical knowledge in external infrastructure utility design. This course focuses on the planning, design, coordination, calculation, and documentation of major wet utility systems used in infrastructure projects, including potable water supply, sewerage networks, stormwater drainage, fire water systems, irrigation networks, gas distribution, pumping stations, and related utility corridors.

Modern infrastructure projects require more than basic engineering knowledge. A wet utility engineer must understand how different systems work together across roads, buildings, plots, landscapes, public areas, industrial zones, and large developments. Every pipe route, chamber location, slope, level, valve position, pump selection, and connection point must be carefully planned to avoid construction issues, authority comments, project delays, and future maintenance problems. This course is prepared to give learners a clear, practical, and project-based understanding of these systems from concept stage to construction stage.

The course begins with the fundamentals of infrastructure MEP utility design, helping learners understand the difference between building services and external infrastructure utilities. Students will learn how wet utility systems are planned at development level, how they connect to authority networks, how utility corridors are arranged, and how services are coordinated with roads, structures, landscape, and other project disciplines. This foundation is important because infrastructure design is not only about pipe sizing; it is also about planning safe, accessible, maintainable, and approval-ready utility networks.

A major part of the course is dedicated to potable water supply network design. Learners will understand how to calculate water demand based on population, land use, occupancy, and project requirements. The course covers average daily demand, peak demand, pipe sizing, pressure loss, valve arrangement, water meter chambers, air valves, washout valves, pressure reducing valves, and connection to existing water mains. Students will also learn how to prepare potable water layouts, calculation sheets, valve schedules, and design reports. This knowledge is essential for ensuring reliable water supply to residential, commercial, industrial, and public infrastructure projects.

The course also provides detailed training on sewerage network design, one of the most important systems in any development. Learners will study sewage flow calculation, population equivalent, peak flow, infiltration allowance, gravity pipe design, minimum velocity, self-cleansing velocity, pipe slope, manhole spacing, invert level calculation, drop manholes, house connection chambers, and connection to existing sewer networks. Special attention is given to practical level coordination because sewer systems depend heavily on gravity flow. A small mistake in invert levels or slope can create major site problems. By the end of this section, learners will be able to prepare sewer layouts, longitudinal profiles, manhole schedules, and sewer design calculations.

The stormwater drainage design section focuses on the collection and disposal of rainwater from roads, plots, roofs, open areas, and paved surfaces. Learners will understand rainfall intensity, catchment area, runoff coefficient, rational method, road gullies, catch basins, manholes, pipe sizing, culverts, open channels, outfalls, attenuation concepts, and flood protection considerations. Since stormwater systems are closely linked with road levels and site grading, this course explains how to coordinate drainage design with finished ground levels and road profiles. This helps prevent water ponding, flooding, and drainage failure during heavy rainfall.

The course includes a complete module on fire water infrastructure design, which is essential for life safety and project approval. Learners will study fire water demand, hydrant spacing, fire storage requirement, fire pump flow and head, ring main design, isolation valves, fire department connection, fire water tank sizing, pipe routing, pressure requirements, and testing requirements. External fire water networks must be designed carefully to provide adequate pressure and flow during emergency conditions. This section helps engineers understand how to design safe and reliable fire water systems for communities, industrial areas, commercial developments, and large facilities.

Another important part of the course is irrigation water network design. Learners will understand irrigation demand calculation, landscape area classification, treated water usage, irrigation storage, pump selection principles, control zones, valve chambers, mainline sizing, pressure requirements, and coordination with landscape layouts. Irrigation systems are important for parks, road medians, gardens, communities, and public spaces. A well-designed irrigation network helps reduce water wastage, maintain landscape quality, and support sustainable infrastructure development.

The gas distribution infrastructure design module gives learners an understanding of external gas utility planning, demand calculation, diversity factor, pressure levels, pipe routing, regulator and meter station locations, isolation valves, safety clearances, road crossings, warning tape, protection requirements, and emergency isolation planning. Gas networks require careful safety coordination due to pressure, leakage risk, and authority requirements. This part of the course helps learners understand the design approach, safety considerations, and documentation needed for gas distribution systems.

The course also covers pumping stations and pump system design, which are required when gravity flow or natural pressure is not sufficient. Students will learn about water booster systems, sewage lifting stations, stormwater pumping stations, irrigation pumping systems, and fire pumping arrangements. Topics include flow calculation, total dynamic head, static head, friction loss, wet well sizing, retention time, pump duty, duty and standby arrangement, level control, control philosophy, emergency overflow, access, ventilation, maintenance space, and lifting requirements. Pumping stations are critical parts of infrastructure projects, and proper design is necessary for reliable operation and long-term maintenance.

A strong focus is also given to utility coordination and authority submission preparation. Infrastructure design cannot be completed in isolation. Wet utility engineers must coordinate horizontal and vertical clearances, utility crossings, chamber locations, trench details, road crossings, plot connections, and construction access. Learners will understand how to prepare coordinated utility layouts, longitudinal profiles, chamber schedules, valve schedules, typical details, design reports, calculation packages, and submission checklists. This helps students become more confident in preparing professional design packages for consultant review, authority approval, tender, and construction.

The final part of the course is a complete infrastructure design project, where learners apply all the knowledge gained throughout the course. The project may include a residential community, villa development, commercial area, industrial facility, road corridor, or mixed-use development. Students will prepare demand calculations, pipe sizing, layouts, profiles, pump calculations, schedules, utility crossing details, and design documentation. This project-based approach helps learners move from theory to practical design capability.

Importance of This Course

This course is important because wet utility infrastructure is one of the backbone systems of any development. Without proper water supply, sewerage, stormwater drainage, fire protection, irrigation, gas supply, and pumping systems, a project cannot function safely or efficiently. Poor utility design can lead to low pressure, pipe blockage, flooding, sewage overflow, fire safety risk, service clashes, approval delays, high maintenance cost, and construction rework.

For mechanical and wet utility engineers, this course provides the practical knowledge required to work confidently on real infrastructure projects. Many engineers know individual systems, but they often face difficulty in preparing complete design packages, coordinating with other disciplines, calculating pipe sizes, preparing profiles, responding to comments, and understanding authority expectations. This course fills that gap by focusing on practical design workflow and project deliverables.

The course is also valuable for professionals working with consultants, contractors, developers, and construction companies. It improves the ability to read and prepare infrastructure drawings, check design calculations, review utility layouts, identify coordination issues, and support site execution. Engineers who understand both design and construction requirements can reduce errors, improve project quality, and communicate better with project teams.

Another key importance of this course is career growth. Infrastructure development is continuously required in residential communities, industrial areas, airports, roads, ports, commercial districts, public utilities, and large master developments. Skilled wet utility engineers are needed for design offices, site technical teams, project management teams, authority coordination teams, and construction support roles. By completing this course, learners can strengthen their technical profile and become more capable of handling infrastructure MEP responsibilities.

This course also supports better decision-making. Learners will understand not only what to design, but why a design decision is made. They will learn why pipe slopes matter, why self-cleansing velocity is important, why fire hydrant spacing affects safety, why stormwater catchment planning is critical, why pump head calculation must be accurate, why gas clearances are necessary, and why utility coordination must be done before construction starts.

By the end of the course, learners will be able to prepare professional infrastructure utility design packages with more confidence, accuracy, and practical understanding. They will be able to contribute effectively to design development, authority submission, tender documentation, construction coordination, and technical review. This makes the course highly useful for anyone who wants to build a strong career in MEP infrastructure and wet utility engineering.

Module 1: Introduction to Infrastructure MEP Utility Design

Objective

To understand the role of MEP infrastructure systems in roads, communities, industrial zones, buildings, and large developments.

Key Topics

  • Scope of infrastructure MEP design
  • Difference between building services and infrastructure utilities
  • Wet utilities vs dry utilities
  • Utility corridor planning
  • External utility coordination
  • Design stages: concept, schematic, detailed design, tender, and construction
  • Interface with roads, structures, landscape, and authority requirements
  • Common infrastructure drawings and documents

Practical Output

Prepare a utility design checklist for a residential or mixed-use development.


Module 2: Potable Water Supply Network Design

Objective

To design external potable water distribution systems from source connection to end users.

Key Topics

  • Water demand calculation
  • Population-based water demand
  • Domestic, commercial, irrigation, and fire demand separation
  • Peak factor and daily demand
  • Pipe material selection
  • Pipe sizing principles
  • Pressure requirements
  • Valve chambers and isolation strategy
  • Air valves, washout valves, and pressure reducing valves
  • Water meter chambers
  • Authority connection requirements
  • Design of water distribution layout

Design Calculations

  • Average daily demand
  • Peak daily demand
  • Peak hourly demand
  • Pipe diameter selection
  • Pressure loss calculation
  • Residual pressure checking

Practical Output

Prepare potable water layout, pipe sizing sheet, valve schedule, and design report.


Module 3: Sewerage Network Design

Objective

To design gravity sewer systems and understand when lifting or pumping is required.

Key Topics

  • Sewer flow generation
  • Population equivalent calculation
  • Domestic sewage flow estimation
  • Infiltration allowance
  • Peak sewage flow
  • Gravity sewer design principles
  • Minimum velocity and self-cleansing velocity
  • Maximum velocity control
  • Pipe slope and invert level calculation
  • Manhole spacing and depth
  • Drop manholes
  • House connection chambers
  • Sewer crossing with other utilities
  • Connection to existing sewer mains

Design Calculations

  • Sewage flow calculation
  • Pipe capacity calculation
  • Slope selection
  • Invert level schedule
  • Manhole depth calculation

Practical Output

Prepare sewer layout, longitudinal profile, manhole schedule, and sewer design calculation sheet.


Module 4: Stormwater Drainage Design

Objective

To design stormwater collection and conveyance systems for roads, plots, and developments.

Key Topics

  • Rainfall intensity
  • Catchment area identification
  • Runoff coefficient selection
  • Rational method
  • Road drainage principles
  • Roof and plot runoff collection
  • Gullies, catch basins, and manholes
  • Storm pipe sizing
  • Open channel drainage basics
  • Culvert design basics
  • Detention and attenuation concept
  • Outfall design
  • Flood protection considerations
  • Coordination with road levels

Design Calculations

  • Catchment runoff calculation
  • Storm pipe sizing
  • Flow velocity checking
  • Pipe slope and invert levels
  • Outfall level checking

Practical Output

Prepare stormwater layout, catchment plan, drainage calculation sheet, and longitudinal profile.


Module 5: Fire Water Infrastructure Design

Objective

To design external fire protection water networks for developments, industrial areas, and large sites.

Key Topics

  • Fire water demand
  • Fire hydrant spacing
  • Fire hose reel and hydrant interface
  • Fire water storage requirement
  • Fire pump flow and head requirement
  • Ring main concept
  • Isolation valve arrangement
  • Fire department connection
  • Fire water tank sizing
  • Fire pump room infrastructure coordination
  • Pressure requirements at hydrants
  • Fire water pipe material and burial requirements
  • Testing and commissioning requirements

Design Calculations

  • Fire flow calculation
  • Fire storage calculation
  • Pump head calculation
  • Pipe sizing and pressure loss
  • Hydrant pressure checking

Practical Output

Prepare fire water layout, hydrant location plan, pump duty calculation, and fire water design report.


Module 6: Irrigation Water Network Design

Objective

To design irrigation water supply systems for landscape, parks, roadsides, and open spaces.

Key Topics

  • Irrigation demand calculation
  • Landscape area classification
  • Softscape and hardscape coordination
  • Irrigation water source
  • Treated water use in irrigation
  • Irrigation tank sizing
  • Pump selection principles
  • Mainline and branch pipe sizing
  • Valve chambers and control zones
  • Pressure requirements
  • Irrigation connection points
  • Coordination with landscape drawings
  • Water conservation approach

Design Calculations

  • Irrigation water demand
  • Storage requirement
  • Pump flow and head
  • Pipe sizing
  • Pressure loss checking

Practical Output

Prepare irrigation mainline layout, valve chamber schedule, demand calculation, and pump duty sheet.


Module 7: Gas Distribution Infrastructure Design

Objective

To understand external gas distribution design, safety requirements, and coordination principles.

Key Topics

  • Gas utility design overview
  • Gas demand estimation
  • Diversity factor
  • Gas pipe routing
  • Pressure tiers in gas distribution
  • Gas meter and regulator station location
  • Isolation valve requirements
  • Safety clearance from other utilities
  • Road crossing requirements
  • Warning tape and protection measures
  • Ventilation and safety considerations
  • Emergency isolation planning
  • Authority submission requirements

Design Calculations

  • Connected gas load
  • Diversified gas demand
  • Pipe sizing principle
  • Pressure drop checking
  • Regulator capacity checking

Practical Output

Prepare gas utility layout, gas demand sheet, valve chamber plan, and authority coordination checklist.


Module 8: Pumping Stations and Pump System Design

Objective

To design basic infrastructure pumping systems for water, sewage, stormwater, irrigation, and fire water applications.

Key Topics

  • Types of pumping stations
  • Water booster pumping station
  • Sewage lifting station
  • Stormwater pumping station
  • Irrigation pumping system
  • Fire pump arrangement
  • Wet well and dry well concept
  • Pump duty point
  • Flow and head calculation
  • Static head and friction head
  • Pump curve understanding
  • Duty and standby arrangement
  • Control philosophy
  • Level control for sewage and storm systems
  • Emergency overflow and bypass arrangement
  • Access, ventilation, lifting, and maintenance requirements

Design Calculations

  • Pump flow calculation
  • Total dynamic head
  • Wet well sizing
  • Retention time
  • Number of pumps
  • Duty/standby selection
  • Pump start-stop level calculation

Practical Output

Prepare pumping station design basis, pump duty sheet, wet well sizing calculation, and schematic arrangement.


Module 9: Utility Coordination, Drawings, and Authority Submission

Objective

To prepare coordinated infrastructure utility drawings suitable for review, approval, and construction.

Key Topics

  • Utility corridor planning
  • Horizontal and vertical clearance
  • Clash prevention through design coordination
  • Utility crossing details
  • Road crossing sleeves
  • Chamber positioning
  • Manhole and valve chamber coordination
  • Plot connection points
  • Setting out information
  • Drawing scale and sheet organization
  • Design report preparation
  • Calculation package preparation
  • Material schedules
  • Authority submission requirements
  • Comment response preparation

Drawing Deliverables

  • General utility layout
  • Potable water layout
  • Sewer layout
  • Stormwater layout
  • Fire water layout
  • Irrigation layout
  • Gas layout
  • Utility crossing details
  • Chamber schedule
  • Longitudinal profiles
  • Typical trench details

Practical Output

Prepare a coordinated utility package for a sample development.


Module 10: Final Infrastructure MEP Design Project

Objective

To apply all course learning into a complete infrastructure MEP design package.

Project Scope

Students will design infrastructure utilities for a sample development such as:

  • Residential community
  • Villa development
  • Commercial plot
  • Industrial facility
  • Road corridor
  • Mixed-use master development

Systems Included

  • Potable water network
  • Sewerage network
  • Stormwater drainage network
  • Fire water network
  • Irrigation network
  • Gas network
  • Pumping station requirement
  • Utility coordination

Final Deliverables

  • Design basis report
  • Demand calculation sheets
  • Pipe sizing calculations
  • Pump selection calculations
  • Utility layouts
  • Longitudinal profiles
  • Chamber schedules
  • Valve schedules
  • Utility crossing details
  • Construction notes
  • Authority submission checklist

Assessment

  • Accuracy of calculations
  • Practicality of routing
  • Coordination with other disciplines
  • Compliance with design criteria
  • Quality of drawings and documentation
  • Ability to explain design decisions

Suggested Course Outcome

After completing this course, learners should be able to:

  • Prepare infrastructure MEP utility design calculations
  • Design potable water, sewer, stormwater, fire, irrigation, gas, and pumping systems
  • Prepare coordinated utility layouts and profiles
  • Understand authority submission requirements
  • Produce a complete infrastructure wet utility design package
  • Review drawings and identify coordination issues
  • Support tender and construction-stage technical queries

Course Curriculum

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