Purified Water
Purified-water systems planned around process use, quality requirements and dependable supply.
Utility Design & Integration
Utility systems planned for dependable facility operation.
From purified water and process air to chilled water, steam and facility-support utilities, our approach focuses on reliable performance, operational control and long-term maintainability.
Each system is planned around process demand, quality requirements, pressure, flow, temperature, installation practicality and applicable engineering requirements.
Utility system planningaround process and performance
Quality and continuity, built in
Utility Integration
The approach
Each utility is planned around the conditions it must maintain.
Utility requirements are developed around process needs, quality specifications, pressure, flow, temperature and operational continuity.
Clean and black utilities are considered according to their intended application and facility role. System performance, installation requirements, safety provisions and maintainability are coordinated from the beginning so the utility remains practical to operate throughout its lifecycle.
Requirements before configurationProcess demand and quality expectations establish the basis for each utility system.
Operation before installationMonitoring, maintenance, access and future expansion are considered before the system arrangement is finalised.
Utility systems
Process-critical utilities and facility-support services.
Clean utilities support pharmaceutical processes where defined utility quality and controlled conditions are critical.
Water for Injection
WFI systems developed for applications requiring controlled pharmaceutical-water quality and reliable operation.
Pure Steam
Pure-steam systems developed for sterilisation and other applications requiring defined steam quality.
Process / Product-Contact Air
Air systems planned around the required application, pressure, quality and process demand.
Nitrogen
Nitrogen systems developed around process use, operating pressure, safety and continuity requirements.
Laboratory Gases
Laboratory-gas systems coordinated around equipment demand, required gas quality and safe operating conditions.
Raw Water & Potable Water
Water supply systems planned around source conditions, treatment requirements and reliable facility demand.
Soft Water
Soft-water systems planned to support equipment and processes requiring reduced hardness.
Hot & Chilled Water Systems
Heating and cooling-water systems coordinated around temperature, capacity, circulation and operating demand.
Compressed Air / Instrument Air
Air systems planned around equipment requirements, pressure, quality and operational reliability.
Industrial Steam & Condensate
Boilers, steam distribution, heat recovery and condensate-return systems coordinated for efficient operation.
Fuel Systems
HSD storage and supply systems considered where required for boilers, generators or other facility-support equipment.
Safety in design
Protection planned around the utility and its operating risk.
Safety measures are considered according to the utility medium, pressure, temperature, location and consequences of leakage or abnormal operation.
Automatic Shut-Off Valves
Automatic isolation is considered to control flow and reduce risk during leakage or abnormal conditions.
Safety Valves
Pressure-relief provisions are planned to protect equipment and systems from operating beyond safe limits.
Venting System Design
Venting arrangements are developed to release gases, equalise pressure and support safe system operation.
Gas Leak Detection
Detection systems are considered where gas leakage may create safety or operational risks.
Hazardous-Area Equipment
Suitably rated equipment is specified where hazardous-area classification requires additional protection.
Flame Arrestors
Flame arrestors are incorporated where required to help prevent flame propagation through gases or vapours.
Flashback Arrestors
Flashback protection is considered in gas applications where reverse flame travel could affect users or equipment.
Fire-Safe Valves
Fire-safe valves are considered for hazardous operations and fuel-related systems where fire resistance is required.
Thermal Insulation
Hot and cold insulation is planned to reduce energy loss, support system efficiency and protect personnel.
Vacuum Breakers
Vacuum breakers are incorporated where required to protect equipment from vacuum-related damage or unsafe conditions.
Standards & compliance
Developed with recognised engineering requirements in mind.
Utility systems and associated piping are developed with reference to project specifications, local-authority expectations and applicable engineering standards.
ASME B31.3Process Piping
ASME B16.5Pipe Flanges and Flanged Fittings
ASME B16.34Valves
ASME B16.9Factory-Made Wrought Buttwelding Fittings
ASME A13.1Identification of Piping Systems
ASTM A106Seamless Carbon Steel Pipe for High-Temperature Service
ASTM A53Black and Hot-Dipped Zinc-Coated Steel Pipe
ASTM A270Sanitary Stainless Steel Tubing
ASME BPEBioprocessing Equipment
Applicable local authority & regulatory requirements
Note: Applicable references depend on the utility type, materials, service conditions, project location and regulatory requirements.
Frequently asked questions
Utility questions, answered.
Dependable utility media
We define the utility requirement around your product, process, equipment, production capacity and quality requirements. Depending on the facility, this may include Purified Water, WFI, pure steam, process air, nitrogen, laboratory gases, chilled and hot water, instrument air and industrial steam.
We assess equipment loads, operating schedules, peak and simultaneous demand, storage needs and realistic future growth. This helps us size systems for actual operating conditions without unnecessary oversizing.
We assess how an interruption could affect production, product quality and facility operation, then define suitable storage, standby capacity, alarms, isolation arrangements and redundancy. This is technically well aligned with WHO pharmaceutical-water guidance, which specifically calls for capacity to cover minimum and peak demand and considers reliability, continuity and planned downtime.
Yes. We can plan connection points, space allowances and capacity provisions around a realistic expansion strategy so future equipment or production areas can be added with less disruption.
Yes. We first assess existing capacity, available space, tie-in points, shutdown needs and operating constraints. The integration can then be phased around planned connections and controlled shutdown windows.
We define the utility quality, demand, generation or treatment, storage, controls and continuity requirements. Detailed routing, manifolds, equipment connections, piperacks and points of use are then coordinated through our Mechanical Systems & Piping Integration scope.
Next step in facility readiness
Defined utilities need coordinated mechanical distribution.
As utility requirements are developed, pumps, manifolds, piping, equipment connections and points of use are coordinated throughout the facility through the Mechanical Systems & Piping Integration scope.
