Integrated MEP
Electrical and mechanical requirements developed through shared milestones, so equipment loads, rooms, ceilings, life-safety interfaces and construction decisions stay aligned. One design basis and one point of contact for both disciplines.
A mechanical unit may be correctly selected yet still arrive without confirmed electrical capacity, disconnects, controls or room clearances. Integrated MEP deals with those interfaces early.
Motor controls, disconnects and feeders sized from the mechanical equipment data, so electrical and mechanical requirements match on site.
Typical triggersRooftop unit, chiller, boiler or pump replacement, or new process and HVAC equipment.
Generator sizing and transfer-switch review together with the ventilation, exhaust and fuel requirements the installation depends on.
Typical triggersGenerator replacement, added life-safety loads or a building addition.
Shutdowns, smoke control intent, dampers, monitoring and related control responsibilities identified and assigned across both disciplines.
Typical triggersA fire alarm upgrade, HVAC replacement or new kitchen exhaust system.
Control panels, power supplies, points of connection and sequence responsibilities clarified between trades.
Typical triggersChiller, boiler or rooftop unit replacement, or a BAS upgrade.
Electrical rooms, mechanical rooms, risers, shafts and equipment access reviewed before space becomes fixed.
Typical triggersNew construction, additions and fit-outs at concept or permit stage.
Key systems: HVAC electrical, VFD controls, Emergency power
Mechanical-electrical work for HVAC replacements: VFD motor controls, dedicated equipment circuits and emergency power for first-responder facilities.
Key systems: Generator sizing, ATS, Emergency lighting
Generator sizing with step-loading analysis, automatic transfer switch coordination, emergency lighting design per OBC 3.2.7, fire alarm upgrades and battery-backed egress lighting.
Key systems: Heat pump loads, Service upgrade, Utility coordination
Gas-to-electric conversion engineering: heat pump electrical loads, upgraded service entrance calculations, panel capacity analysis and utility upgrade coordination.
Drawings, site conditions, occupancy, operating issues and owner priorities are reviewed first.
System options, design criteria, preliminary loads and major space requirements are set early.
Layouts, schedules and risers are developed with the architecture and issued for permit.
Tender questions, submittals, RFIs and site issues are answered within the agreed scope.
Mechanical schedules often leave out the minimum circuit ampacity (MCA), maximum overcurrent protection (MOP) and inrush data the electrical design depends on. Without that review, feeders can be undersized and inspections can fail.
It can. New pumps, variable-frequency drives, burners, control panels, condensate equipment and BAS interfaces may change power, disconnect, overcurrent-protection and control requirements. The electrical scope should follow the mechanical design.
Not without confirming the present loads, motor-starting and step-loading requirements, transfer sequence, building changes and future demand. The existing nameplate is an important reference, but it is not a current load study.
Mechanical work may include combustion and radiator airflow, room ventilation, engine exhaust, fuel systems, heat rejection, drainage, acoustic considerations and penetrations. The scope depends on whether the generator is indoors, outdoors or in an enclosure.
Often, but the project must define the communication interface, available points, command authority, alarms, graphics and operating sequence. A communication connection by itself does not establish how the chiller, pumps and valves operate together.
Yes. The scope can cover electrical and mechanical engineering through one shared review and design workflow. Architectural, structural and other specialist responsibilities are identified separately where needed.
