Data center mechanical contractors build the systems that carry heat out of a data center: the chiller plant, cooling towers or dry coolers, pumps, chilled and condenser water piping, the liquid cooling distribution that feeds the racks, and the flushing, pressure testing and startup that prove each loop works. Paul Industries fills that role nationwide on new builds, expansions and AI retrofits as the mechanical and process-piping contractor, working with the owner, the engineer and the general contractor or design-builder from preconstruction through turnover. This page covers what the mechanical scope contains, how it is planned, prefabricated, coordinated and tested, and what to ask before you award it.
What do data center mechanical contractors do?
A data center mechanical contractor turns the engineer’s cooling design into installed, tested and running equipment and piping. The work falls into five parts: receiving or procuring the specified equipment, rigging and setting it, fabricating and installing the piping that connects it, cleaning and testing every loop, and supporting startup and commissioning until the owner accepts the system.
The engineer of record designs the plant, and the specified chillers, coolant distribution units and air handlers arrive from their factories. The mechanical contractor turns those units into a working plant: pipe routes coordinated with the structure and the other trades, hangers and supports, isolation and balancing valves, strainers, air separators, expansion tanks, instrument taps and wells, and the records that show what was built and how it was tested. On a new campus that package is built hall by hall, often while earlier halls are already running. On an existing building it shifts toward tie-ins, such as adding coolant distribution units and a technical cooling loop to a plant that was sized for air, with live load on both sides of the work. Our data center liquid cooling page covers that retrofit scope in detail.
What is data center MEP?
Data center MEP is the mechanical, electrical and plumbing scope of the building: everything that powers, cools, supplies and protects the IT equipment, as distinct from the structure, the shell and the servers themselves. Suppression systems and building controls are usually counted with it. The interfaces between disciplines, where a pipe meets a power feed or a control point, are where most coordination problems start.
| Discipline | What it covers in a data center | Where it meets the cooling plant |
|---|---|---|
| Mechanical | Chiller plant, heat rejection, pumps, chilled and condenser water piping, CRAH and fan wall connections, CDUs and technical cooling piping | The cooling plant itself; Paul Industries’ core scope, from setting equipment through startup and service |
| Process water | Makeup water softening or reverse osmosis, side-stream filtration, chemical feed connections, closed loop fill water | Makeup and fill water quality that protects every loop; Paul sets, pipes and starts up this equipment |
| Electrical | Utility service, switchgear, UPS, generators, power distribution to racks and to mechanical equipment | Power feeds to chillers, pumps, CDUs and fans, with disconnects located clear of pipe routes and service space |
| Plumbing | Domestic water, sanitary drainage, condensate drains, makeup water service to the plant | Plant makeup and condensate piping, built with the mechanical package |
| Suppression and life safety | Sprinklers, pre-action systems, clean agent suppression | Ceiling and row space shared with chilled water and technical cooling mains |
| Controls and BMS | Building management system, sensors, sequences, valve actuators and their wiring | Control valve bodies, flow meters, wells and taps that Paul installs in the piping |
The electrical and mechanical designs are tied together by physics: the IT load the electrical engineer sizes becomes, almost watt for watt, heat the mechanical plant must reject, and chillers, pumps and fans are themselves large electrical loads. That is why data center MEP systems are designed as one package and coordinated in one model. Data center MEP contractors share ceiling space, pipe racks and equipment pads, so Paul Industries’ crews settle routes, connection points and test windows at every chiller, pump and CDU with the rest of the project team before fabrication starts.
Data center mechanical systems, from the yard to the rack
The mechanical systems of a data center are the equipment and piping that move heat from the IT equipment to the outdoors: heat rejection outside, a chilled water or facility water plant, distribution piping through the building, air handling in or beside the white space, and on liquid-cooled halls a technical cooling system that reaches the racks. How each of those works thermally is explained on our data center cooling systems page; this table is about what has to be installed and proven. Because a loss of cooling can force IT equipment to throttle or shut down, these are built as mission critical mechanical systems, with redundant units, isolation on every component and a test record for every loop.
| System | Typical data center mechanical equipment | What the installing contractor builds and proves |
|---|---|---|
| Heat rejection | Cooling towers, dry coolers, air-cooled chillers | Setting on dunnage or pads, condenser or glycol piping, drains, freeze protection provisions, treatment connections |
| Chiller plant | Water-cooled or air-cooled chillers, primary or variable primary pumps, economizer heat exchangers | Rigging and alignment, evaporator and condenser connections with service clearance, flow proving, valving for maintenance |
| Loop support equipment | Expansion tanks, air and dirt separators, makeup assemblies, buffer tanks | Correct connection points, sizing checks against actual loop volume, metered makeup |
| Distribution | Headers, risers, ring mains, sectionalizing valves | Welded or grooved mains, supports and bracing, insulation, capped stubs for future phases |
| Air side | CRAH units, fan walls, in-row coils, rear door heat exchangers | Chilled water branches, control valve bodies, condensate drains, leak detection points |
| Liquid cooling | Coolant distribution units, row manifolds, rack hose connections | Facility-side and technical-loop piping, CDU connections, flushing, fill and venting |
| Water treatment | Softeners or reverse osmosis, side-stream filters, chemical feed and bypass feeders | Equipment setting, piping and startup; see cooling tower water treatment |
Plants differ widely, but every one of these systems ends up as pipe, valves and connections that a crew installs, tests and documents. The equipment comes from manufacturers; the reliability of the finished plant depends heavily on that installation work. For the plate exchangers used in economizers and loop separation, see heat exchangers.
The data center mechanical yard
The mechanical yard is the outdoor area, at grade or on the roof, where heat rejection equipment and often the chillers sit: cooling towers, dry coolers, air-cooled chillers, and on some sites pumps, chilled water storage tanks and water treatment enclosures. It is usually the first place mechanical crews work on a new build and one of the last places anyone can change once it is full.
Yard work has its own practical constraints. Equipment arrives by truck and is set by crane in a planned order, because a unit set in the wrong sequence can block the pick for the next one. Spacing follows the manufacturers’ clearance guidance so hot discharge air from one unit is not drawn into the intake of its neighbor, a recirculation problem that quietly costs capacity on the hottest days. Piping between yard and building crosses roads, duct banks and other utilities, so routes, crossings and expansion provisions are settled during site utility coordination, before trenching or pipe rack steel goes in. Outdoor piping in cold climates needs glycol, drain-down provisions or heat trace, and where trace is specified the mechanical crew insulates and jackets over it so it stays dry and effective. Rigging and setting the heavy pieces is covered under millwright and rigging services.
Data center mechanical design inputs the contractor needs
Before a mechanical contractor can price, prefabricate or sequence a data center accurately, it needs the IT load for each phase, the redundancy level, the design water temperatures, the liquid cooling share, the governing piping code and the phasing plan. Missing any one of them shows up later as change orders or rework.
Redundancy has the largest effect on piping quantity, because every spare unit needs its own connections and isolation.
| Redundancy level | Meaning | Effect on the mechanical installation |
|---|---|---|
| N | Exactly the capacity the peak load needs, with no spare | Single set of equipment; maintaining any unit reduces cooling capacity |
| N+1 | One additional unit of each capacity component | An extra chiller, pump, tower cell or CDU, each with isolation valves, connections and a header sized to include it |
| 2N | Two independent systems or paths, each able to carry the full load | Duplicate plants or A and B distribution paths, close to double the distribution piping and valving |
| 2N+1 | Full duplication plus one further spare | The 2N arrangement with an added unit and its connections |
Owners often state the goal in Uptime Institute terms. A Tier III facility is concurrently maintainable, meaning equipment can be maintained or replaced without shutting down the IT load, and Tier IV adds fault tolerance, so an equipment failure or a break in a distribution path does not affect IT operations. In the field, concurrent maintainability is tested valve by valve: if a header valve has to close to isolate a pump, someone must be able to service that valve without losing the header, which is why critical mains are often looped with sectionalizing valves.
Design temperatures set pipe sizes. In US units, water carries about 500 Btu per hour for every gallon per minute and degree Fahrenheit of temperature difference, so doubling the design delta T halves the flow and lets the same heat move through smaller pipe and pumps. Liquid-cooled halls add an ASHRAE facility water class, W17 through W45 or W+, named for the maximum supply temperature in degrees Celsius. Phasing then decides which headers, valves and capped connections go in on day one so the next hall can tie in without shutting down the first.
The design ends as drawings and a specification, but two earlier documents matter just as much: the owner’s project requirements and the engineer’s basis of design, which ASHRAE Guideline 0 uses to define what the commissioning process verifies. On design-assist and design-build work the contractor joins data center MEP design early, checking constructability, prefabrication breaks and equipment access before the drawings are fixed. Paul provides that input through process engineering and design, along with early equipment procurement.
Data center mechanical piping: materials, joints and supports
Piping in a data center cooling plant is mostly carbon steel for chilled and condenser water, stainless steel for technical cooling loops and treated water, and copper for some small branches, makeup and condensate lines where the specification allows it. Joints are welded, roll-grooved, flanged or, on copper, brazed, according to the specification for each service.
Building services piping of this kind is usually built to ASME B31.9, which covers heating and cooling water and condenser water within set size limits: carbon steel up to NPS 30 with a maximum wall of half an inch, and stainless steel and copper up to NPS 12. Larger or heavier pipe, or a project whose specification names a process code, is built to ASME B31.3 instead. The code in the specification governs materials, examination and testing, so it is the first thing to confirm when a job is priced.
Welded versus grooved is the main joining decision for the large mains. Roll grooving cold-forms a groove in the pipe end without removing metal, and the coupling goes together with no flame, which suits phased work beside live halls and future-proofs a header for later branches. Coupling and gasket ratings come from the manufacturer’s listing, and large sizes use two-segment couplings. Welded joints suit the largest mains, higher pressures and places where the owner wants fewer gaskets to maintain. Stainless technical loops are welded rather than brazed so no flux enters the circuit, with orbital welding on tube runs; our stainless steel piping page covers grades and fittings.
Supports carry the water-filled weight, thermal movement and, in seismic regions, lateral loads. Seismic design of piping and its supports follows ASCE 7 Chapter 13 as adopted by the local building code, and whether a given line needs bracing depends on the seismic design category, the component importance factor and size-based exemptions. That bracing design, whether by the structural engineer or a delegated designer, has to be settled before hangers are fabricated, or prefabricated assemblies arrive without the attachment points they need.
Data center prefabrication and prefabricated piping
Prefabrication moves pipe fabrication, pump and heat exchanger assembly and even multi-trade racks into a shop, so field crews install tested assemblies instead of building them in place. The gains are fewer people working at height in a congested building, fewer crane picks, weather-proof productivity and inspection at the point of manufacture.
| Prefabricated assembly | What it contains | What it saves on site |
|---|---|---|
| Prefabricated pipe assemblies | Cut, fitted and welded or grooved sections with fittings, flanges and valves | Field welds, hot work permits inside the building, overhead fitting time |
| Pump skids | Pumps, suction strainers or diffusers, check and isolation valves, gauges on a common base | Alignment and pressure testing done before shipping; set and connect |
| Heat exchanger and economizer skids | Plate exchanger, isolation and control valve bodies, strainers, drains | Complex valving assembled at bench height instead of overhead |
| Multi-trade racks | Piping, conduit, duct and cable tray on one frame, coordinated in the model before assembly | One lift instead of many separate overhead installs in a congested corridor |
| Row manifold assemblies | Headers with branch valves, drains and vents for CDU and rack connections | Identical per row, flushed and capped before delivery |
Shop-built piping only pays off when the model is right. BIM coordination and clash detection with structure and every other trade have to be finished, and on retrofits the existing steel and pipe must be field-measured, before the shop cuts anything. Design decisions also move earlier: valve selections, equipment connection sizes and CDU submittals must be approved before assemblies are built, and shipping width and weight limits set the maximum skid size. Skids and assemblies are covered in our guide to process skid fabrication, and shop fabrication of piping for all industries on our process piping page.
Schedule pressure on hyperscale and AI builds
Hyperscale and AI projects compress the mechanical schedule because owners bring capacity online hall by hall, and the cooling design can change mid-program as rack densities rise. The mechanical contractor handles that with parallel work, not overtime alone.
- Shop fabrication runs while the shell is still being built, so piping arrives as the building is ready for it.
- Long-lead equipment is released early, with connection sizes confirmed against submittals so assemblies can be built around them.
- Headers are installed with valved and capped stubs for later phases, so a new hall connects without draining the live system.
- Pressure testing and flushing are done section by section, letting finished areas move to commissioning while others are still being built.
- Tie-ins to live systems are written as a method of procedure, a step-by-step sequence for any action that changes the state of a critical component, including valve sequences, drain-down and refill, with a rollback step.
AI retrofits add a further twist: a building designed for air cooling gets liquid loops, so the piping route to every new CDU has to be found through an occupied space. That is a piping coordination job before it is a cooling job.
How the mechanical scope is coordinated on a data center project
The mechanical package touches almost every other contract on the project, and each interface needs a written answer before work starts in that area. The most expensive coordination gaps are the ones nobody owns.
| Interface | What has to be agreed |
|---|---|
| General contractor | Laydown and crane access, schedule logic, site safety plan, hot work rules, delivery windows for skids and racks |
| Power distribution | Feeds to chillers, pumps, CDUs and heat trace; the furnish-and-install split for motor starters and drives; disconnect locations clear of pipe routes |
| Controls and BMS | Control valve bodies, flow meters, wells and pressure taps installed in the piping; point checks before startup |
| Structural engineer and steel erector | Pipe rack steel, dunnage, hanger attachment points, seismic bracing, roof penetrations |
| Commissioning agent (CxA) | Pre-functional checklists, witness points for pressure tests and flushing, issue log, startup and test scripts |
| Water treatment supplier | Chemical feed connections, fill water quality, initial treatment of new loops |
| Equipment manufacturers | Factory startup technicians, warranty conditions, wetted-material lists for liquid cooling |
The commissioning agent works for the owner and directs testing at each level. Paul Industries supports commissioning with completed checklists, test records and crews available through functional and integrated testing, working alongside the owner’s commissioning agent. How the mechanical work fits into each commissioning level is covered on our data center commissioning page.
Weld quality, examination and pressure testing
Mechanical piping quality is proven by three records: qualified welding procedures and welders, examination of the welds, and a pressure test of every system before it is insulated and before it serves IT equipment. If any of the three is missing, the system is not ready for turnover, however clean it looks.
ASME B31.9 relies on visual examination of welds, and where the engineering design or the owner’s specification calls for radiography or other volumetric examination, that extra examination and its acceptance criteria become part of the contract. Weld examination is completed before the pressure test, so a repair does not force a second test. For hydrostatic testing, B31.9 requires every point in the system to be tested at 1.5 times design pressure or more, held for at least ten minutes; owner specifications often set longer holds. Grooved joints are tested the same way as welded ones, and test gauges are calibrated and sized for the test pressure. Pneumatic testing is used only where water cannot be, under a written procedure, because compressed gas stores far more energy than water at the same pressure. See hydrostatic testing.
Safety in an operating building follows the same written logic: hot work permits wherever welding happens near live equipment, lift plans for every crane pick in the yard, and lockout and isolation of live piping agreed with the operator before any tie-in. A clean pressure test is then followed by flushing, because a loop that holds pressure can still be full of weld scale.
Who builds data centers?
Data centers are built by a team rather than one company: an owner or developer, a design team of architects and MEP engineers, a general contractor or design-builder holding the prime contract, trade contractors for the mechanical, electrical, plumbing, suppression and controls packages, equipment manufacturers, and an independent commissioning agent.
How data centers are built, from the mechanical side
The sequence below follows the mechanical scope through a typical new building. Retrofits skip the early stages and compress the rest into planned shutdown windows.
| Stage | Mechanical work |
|---|---|
| Preconstruction | Design-assist review, BIM coordination, prefabrication breaks, equipment submittals and procurement |
| Site and shell | Underground makeup and yard piping, sleeves and embeds, equipment pad and dunnage coordination |
| Plant and yard | Setting chillers, towers or dry coolers and pumps; plant piping and loop support equipment |
| Distribution | Mains, risers and branches to CRAH, fan wall and CDU locations; supports and bracing |
| White space fit-out | CDUs, row manifolds, rear door and rack connections for liquid-cooled halls |
| Test and clean | Pressure tests, flushing, cleaning, fill with treated water or the specified coolant |
| Startup and commissioning | Equipment startup with manufacturers, functional testing support, integrated testing under load banks |
| Operations | Preventive maintenance, emergency repair, later-phase tie-ins |
Data center HVAC contractors vs process piping contractors
HVAC contractors in this market come from commercial building work, where air handlers, air distribution and chilled water for occupied buildings are the core trade; process piping contractors come from industrial plants, where welded systems, cleanliness, material traceability and documented testing are routine. Large data center jobs need both skill sets, and liquid cooling has pushed more of the scope toward the second.
| Factor | HVAC-focused contractor | Process piping contractor |
|---|---|---|
| Typical strength | Air distribution, air handlers, terminal units, comfort chilled water | Welded plant piping, skids, high-purity and treated water systems |
| Liquid cooling loops | Often handled like building chilled water | Handled like a clean process system, with flushing and fill water quality controlled |
| Documentation habit | Test reports and balancing records | Weld maps, material traceability, test and cleaning records |
Many data center HVAC companies grew up on air-side work and are adding piping capacity as liquid cooling spreads. On large jobs the mechanical package is often organized around two halves, air-side systems and the plant, piping and liquid cooling. Paul Industries brings the plant and piping half as an industrial mechanical contractor and process piping contractor, which is the background a technical cooling loop actually calls for.
How to choose data center mechanical contractors
Choose on proof of the specific work, not on general claims of data center experience: who self-performs fabrication, welding and testing, how live tie-ins are planned, and what records arrive at turnover. The questions below separate firms quickly.
| Question to ask | What a strong answer includes |
|---|---|
| Which parts of the mechanical scope do you self-perform? | Fabrication, welding, rigging and testing in-house, with named subcontractors for anything else |
| Where is the pipe fabricated, and how is it tracked? | A shop with weld maps, heat numbers and inspection records tied to each assembly |
| Can we see your welding procedures and welder qualifications? | Qualified procedures for each material in the job, current welder records |
| How do you flush and clean a liquid cooling loop? | A written procedure with velocity, filtration, bypass of CDUs and IT connections, and acceptance criteria |
| How do you plan a tie-in to a live plant? | A method of procedure with valve sequence, drain and refill steps, hold points and rollback |
| Who supports startup and integrated testing? | The installing crew, on the commissioning schedule, with authority to correct issues as they are found |
| Who maintains it after turnover? | A service team that can work from the same records |
Ask the same questions of any data center piping contractor bidding a technical cooling loop alone. On data center piping, the honest answer to the flushing question tells you more than any reference list, because it is the step most often shortened when the schedule slips.
Where Paul Industries fits on a data center project
Paul Industries is the mechanical and process-piping contractor on data center projects, carrying the cooling plant from equipment setting through startup and long-term service. Our crews set chillers, towers, dry coolers, pumps, heat exchangers and water treatment equipment; fabricate carbon steel and stainless piping and prefabricated assemblies and skids in the shop; install chilled water, condenser water, glycol and technical cooling piping, CDU connections, row manifolds and rear door connections; pressure test, flush, clean and fill every loop; and support startup and commissioning. After turnover we provide preventive maintenance and emergency repair. The same crews and records stay available for later phases and tie-ins. For the wider picture of water and cooling in data centers, see our data center industry page. Request a quote for a new build, an expansion or an AI retrofit.
Standards referenced: ASME B31.9 · ASME B31.3 · ASHRAE Guideline 0 · ASCE 7 · Uptime Institute Tier Standard · ASHRAE TC 9.9 liquid cooling guidelines
Frequently asked questions
What does the mechanical contractor do on an AI retrofit?
Mostly tie-ins and new distribution in an occupied building. Typical work is setting coolant distribution units, connecting them to the existing chilled water or facility water plant, running technical cooling piping to the new rows, and flushing and filling the new loop, all planned around live load with written methods of procedure and short shutdown windows.
What has to be ready before chillers, pumps and CDUs are started?
Each unit is set level, aligned and connected with its isolation valves, strainers and gauges, and its loop has been pressure tested, flushed, filled and vented. The project responsibility matrix should also name who furnishes and installs starters and variable speed drives, so every item at the equipment interface has an owner before startup day.
What should owners expect from mission critical mechanical contractors?
Work planned around uptime. That means a method of procedure for every change to a live system, redundancy confirmed before anything is isolated, documented welding, testing and flushing, crews who stay through commissioning, and a service team on call afterward. The difference from ordinary building work is that a mistake reaches IT load, not just comfort.
What piping code applies to data center chilled water piping?
Usually ASME B31.9 Building Services Piping, which covers heating and cooling water and condenser water within its size and wall limits. Some owners specify ASME B31.3 for technical cooling loops or for all plant piping. The project specification decides, and it sets examination and test requirements along with the code.
Is grooved or welded pipe better for data center chilled water?
Neither in general. Grooved joints are fast, need no hot work and make phased additions easier; welded joints suit the largest mains and higher pressures and leave no gaskets to maintain. Many plants use both, welded on major mains and grooved on branches and equipment connections.
What does N+1 mean for a chiller plant?
It means the plant has one more chiller, pump or tower cell than the peak load requires, so any one unit can be out for maintenance or failure without losing cooling capacity. In piping terms, the spare needs its own isolation valves and connections, and the headers must be sized to include it.
What makes a cooling system concurrently maintainable?
Every component, including valves and pipe sections, can be taken out of service for planned work without shutting down the IT load. That requires redundant equipment and also enough distribution paths and sectionalizing valves that isolating one part never cuts flow to the racks.
What is a multi-trade rack in data center construction?
It is a prefabricated steel frame that carries piping, conduit, air duct and cable tray together, built in a shop and lifted into place as one unit, usually over corridors. Every system on the frame has to be coordinated in the model before fabrication, because nothing can be rerouted once the rack is in the air.
When does the design need to be fixed for prefabrication to work?
Before the shop builds each assembly. Equipment submittals, valve selections, connection sizes and the coordinated model for that area must be approved, and on existing buildings the field conditions measured, before cutting starts. Areas still in flux are better left for field fabrication.
What is a method of procedure in data center mechanical work?
A method of procedure, or MOP, is a step-by-step written sequence for any action that changes the state of a critical system, such as closing a header valve or draining a section for a tie-in. It lists each step, who performs and verifies it, hold points, and how to back out if something goes wrong.
What is the mechanical contractor's role in data center commissioning?
It executes and documents the mechanical share of every level. The commissioning agent, appointed by the owner, writes and directs the tests, and the mechanical contractor completes pre-functional checklists, provides test and flushing records, starts equipment with the manufacturers, and keeps crews on hand to correct issues found during functional and integrated testing.
Who sets chillers and cooling towers on a data center project?
Usually the mechanical contractor, with its own riggers and millwrights or a rigging subcontractor, under a lift plan agreed with the general contractor. Setting includes rigging, placement on pads or dunnage, leveling, vibration isolation where specified and alignment checks before piping is connected.
Does piping in a data center need seismic bracing?
It depends on the site. ASCE 7 Chapter 13, as adopted by the local building code, decides which piping must be braced based on seismic design category, component importance factor and size or weight exemptions. In higher seismic categories, much of the plant and distribution piping is braced, and the bracing design must be done before supports are fabricated.
What is design-assist on a data center mechanical package?
Design-assist brings the mechanical contractor in while the engineer is still designing, to advise on constructability, prefabrication breaks, equipment access, sequencing and cost. The engineer keeps design responsibility. It shortens the path from drawings to fabrication because the installer's questions are answered before the design is issued.
How are tie-ins made to a live chilled water plant?
Either during a planned shutdown of a section that redundancy allows, or with a hot tap where the line cannot be drained. Both are written as a method of procedure with valve positions, drain and refill steps, venting, leak checks and a rollback plan, and the operator approves the window.
Who maintains the mechanical systems after a data center opens?
The owner's facilities team runs them, and service contractors maintain them under a preventive maintenance plan built from the commissioning records. Having the installing contractor on that plan helps, because the people servicing strainers, pumps and heat exchangers know how the loops were built, cleaned and tested.
What is the difference between data center MEP and the mechanical scope?
MEP is the whole mechanical, electrical and plumbing package, usually with suppression systems and controls counted alongside it. The mechanical scope is the cooling part: plant, heat rejection, pumps, piping, air-side connections and liquid cooling, and it is the part of MEP that liquid cooling changes most.
What should an owner give mechanical contractors before asking for prices?
The IT load per phase, the redundancy level, design water temperatures, the share of liquid cooling, the governing piping code, the phasing plan and the commissioning requirements, along with drawings and specifications. Without those, bids are built on different assumptions and cannot be compared fairly.
Who does Paul Industries work with on a data center project?
The owner, the general contractor or design-builder, the engineer of record, equipment manufacturers, the water treatment supplier and the owner's commissioning agent. Paul Industries carries the mechanical and process-piping scope from preconstruction through maintenance, and our project leads keep pipe routes, equipment connections and test windows aligned with every one of them so each hall turns over on schedule.
Can a process piping contractor install data center cooling systems?
Yes, and liquid cooling makes the fit closer. A technical cooling loop needs the same disciplines as a clean industrial process line: welded stainless or approved materials, controlled flushing, fill water quality and documented testing. Chilled water plants and heat rejection piping are standard industrial mechanical work.
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