When a Cannabis Processing Facility Became an MEP Coordination Challenge

SECTOR

Cannabis Processing & Production

LOCATION

Texas

FACILITY SIZE

25,000 sq. ft.

PROJECT TYPE

Greenfield

SERVICES

Full MEP Design

TIMELINE

2.5 Weeks

Project Overview

A new 25,000 sq. ft. cannabis processing facility in Texas required an MEP design built around specialized processing operations rather than conventional commercial occupancy.

The facility required tightly controlled temperature and humidity, extraction and chemical exhaust, process utilities, and substantial electrical and plumbing infrastructure. At the same time, the architectural layout and process requirements were being refined during a compressed design schedule.

The engineering challenge was to bring these requirements together into a coordinated building system without overbuilding the infrastructure or compromising the facility's operational needs.

What began as a greenfield facility design became a coordination challenge involving environmental control, process equipment, utility loads, and specialized infrastructure.

The Challenge

Controlling the Processing Environment

The facility required precise temperature and humidity control, along with dedicated exhaust systems for extraction and chemical-processing areas.

The HVAC design therefore had to account for both environmental conditions and the requirements of specialized processing spaces.

Integrating Process Utilities

The MEP systems had to accommodate process equipment and utilities alongside conventional building services, including electrical power, natural gas, domestic water, and compressed air.

These systems had to be coordinated around the facility's operational requirements and equipment locations.

Getting the Infrastructure Right

The facility's equipment created significant electrical and utility loads.

Oversizing the infrastructure would add unnecessary capacity, while undersizing it could restrict operations. Electrical and utility requirements therefore had to be evaluated carefully before determining the appropriate system capacities.

Delivering on a Compressed Schedule

The complete MEP design had to be developed and coordinated on an accelerated schedule while architectural layouts and process requirements continued to be refined.

This required the different MEP systems, equipment requirements, and project inputs to progress together rather than sequentially.

The MEP Engineering Approach

Designing Around the Process

The HVAC design was developed around the facility's specific environmental requirements, with temperature and humidity control integrated with extraction and chemical exhaust systems.

Equipment locations were also optimized to keep ductwork and piping runs efficient while maintaining code-compliant clearances and routing.

Right-Sizing the Electrical Infrastructure

Detailed load calculations were used to determine the facility's actual electrical demand.

This allowed the service, generator capacity, and power distribution to be sized according to the project's requirements rather than relying on excessive capacity.

Simplifying Hot-Water Infrastructure

Instead of using multiple water heaters, the team consolidated hot-water generation into a centralized gas-fired tankless system with storage.

This provided the required capacity through a simpler arrangement

Keeping Gas Utilities Out of Critical Areas

Gas piping was routed outside critical processing areas, keeping the utility infrastructure accessible for servicing while reducing its presence within the processing environment.

Coordinating Process and Building Systems

The MEP design brought together HVAC, electrical, plumbing, natural gas, compressed air, lighting, and controls around the process requirements.

Equipment manufacturers and the client were also involved during coordination to align the building systems with the facility's operational requirements.

Project Outcomes

The success of the project depended on aligning specialized processing requirements with the building's MEP infrastructure within a highly compressed design schedule.

The resulting design addressed environmental control, process utilities, electrical demand, and specialized infrastructure without adding unnecessary capacity.

  • Right-Sized Infrastructure: Detailed electrical load analysis helped optimize service, generator, and power distribution sizing based on the facility's actual requirements.
  • Process-Specific HVAC: Temperature, humidity, extraction, and chemical exhaust requirements were incorporated into the HVAC design to support the facility's processing operations.
  • Simplified Hot-Water System: A centralized gas-fired tankless system with storage replaced the need for multiple water heaters, simplifying the hot-water infrastructure.
  • Accessible Utility Routing: Gas piping was kept outside critical processing areas, allowing the infrastructure to remain accessible for servicing while reducing its presence within the processing environment.
  • Accelerated Delivery: The complete coordinated MEP design package was delivered within the 2.5-week schedule, including the required calculations and permit documentation.

Project Journey

01

Establishing the Design Basis: The MEP design was developed from the revised architectural backgrounds, equipment schedules, and process requirements.

02

Process & System Coordination: Client comments and equipment requirements were incorporated while HVAC, electrical, plumbing, and process utilities were coordinated across the facility. Load calculations, equipment sizing, and utility layouts were refined to avoid unnecessary infrastructure while maintaining the required operating conditions.

03

Permit Submission: The coordinated MEP package, including calculations, panel schedules, single-line diagrams, generator sizing, and COMcheck documentation, was completed and issued within the 2.5-week schedule.

Planning an MEP design for a specialized processing facility?

Specialized facilities require MEP systems built around their unique processes, equipment, and operating conditions. The goal is to make these systems work together without overbuilding the infrastructure.

Frequently Asked Questions

What does MEP design for a cannabis processing facility involve?

MEP design for a cannabis processing facility needs to account for environmental control, process equipment, extraction and chemical exhaust, electrical loads, plumbing, gas, compressed air, lighting, and controls.

What HVAC systems are needed for a cannabis processing facility?

The HVAC design needs to address the facility's temperature and humidity requirements along with dedicated extraction and chemical exhaust systems.

How do you size electrical systems for a cannabis processing facility?

Detailed electrical load calculations can be used to determine the actual demand and appropriately size the electrical service, generator, and power distribution.

How do you design MEP systems around cannabis processing equipment?

The MEP systems are coordinated around equipment locations, process requirements, utility loads, and required clearances to ensure the building infrastructure supports the operation.

What utilities are required in a cannabis processing facility?

Depending on the process, cannabis processing facilities may require electrical power, natural gas, domestic water, compressed air, specialized exhaust, and other process utilities.

How quickly can an MEP design for a cannabis facility be completed?

The design timeline depends on project scope and coordination requirements. In this case, the complete MEP package was developed and issued within 2.5 weeks.