MCC Panels

Custom Engineered Panel for Pharmaceuticals

Custom Engineered Panel assemblies engineered for Pharmaceuticals applications, addressing industry-specific requirements and compliance standards.

Custom Engineered Panel for Pharmaceuticals

Overview

Custom Engineered Panel assemblies for the Pharmaceuticals industry must be designed around process continuity, hygiene, validation, and electrical safety. Unlike generic industrial panels, these assemblies often serve critical utilities and production areas such as purified water systems, HVAC air handling units, cleanroom support equipment, autoclaves, CIP/SIP skids, blister packaging lines, and compressed air networks. A well-engineered pharmaceutical panel may combine ACB incomers up to 6300 A, MCCB feeders, motor starters, VFDs for pumps and fans, soft starters for high-inertia drives, APFC capacitor banks, protection relays, and PLC-based monitoring in a single IEC 61439 assembly. For pharmaceutical facilities, the base design is typically aligned with IEC 61439-1 and IEC 61439-2 for power switchgear and controlgear assemblies, with selected sections possibly referenced to IEC 61439-3 for distribution boards or IEC 61439-6 for busbar trunking interfaces. Component selection follows IEC 60947 for ACBs, MCCBs, contactors, overload relays, and motor control devices. Where panels are installed in classified zones or adjacent solvent-handling areas, enclosure and equipment measures may also need consideration under IEC 60079, while arc-flash risk mitigation and internal fault withstand are addressed through design verification and testing aligned with IEC 61641. Typical short-circuit ratings range from 36 kA to 100 kA at 400/415 V, depending on upstream fault level and busbar system design. Environmental requirements are often stricter than in standard process plants. Pharmaceutical panels may require IP54, IP55, or higher enclosure protection, corrosion-resistant powder-coated steel or stainless steel construction, anti-condensation heaters, filtered ventilation, and segregated cable compartments to support cleanroom adjacency and washdown-compatible plant areas. Form of internal separation is commonly Form 2b, Form 3b, or Form 4 for improved functional segregation, maintenance safety, and reduced outage impact during servicing. In multi-line production facilities, this helps isolate HVAC, water treatment, packaging, and utility feeders without interrupting validated production zones. Monitoring and control integration is a key requirement. Many Custom Engineered Panel solutions incorporate PLCs, remote I/O, HMI touchscreens, power meters, insulation monitors, temperature sensors, and communication gateways for Modbus, Profibus, Profinet, or Ethernet/IP integration with BMS and SCADA systems. For energy-conscious plants, VFDs and harmonic filters are selected to reduce mechanical stress, stabilize process control, and limit harmonic distortion from sensitive instrumentation loads. APFC systems can be used to maintain plant power factor and optimize utility costs. In pharmaceutical applications, traceability and documentation matter as much as hardware quality. Assemblies are typically supplied with GA drawings, SLDs, BOMs, heat calculations, routine test reports, and verification records required by IEC 61439. Where needed, design can support GMP-oriented facility practices, maintenance access constraints, and qualification activities such as FAT and SAT. Patrion, based in Turkey, engineers Custom Engineered Panel assemblies for pharmaceutical plants with a focus on safe operation, process reliability, compact layout, and compliance-driven construction tailored to global EPC and OEM project requirements.

Key Features

  • Custom Engineered Panel configured for Pharmaceuticals requirements
  • Industry-specific environmental ratings and protections
  • Compliance with sector-specific standards and regulations
  • Optimized component selection for industry applications
  • Integration with industry-standard control and monitoring systems

Specifications

PropertyValue
Panel TypeCustom Engineered Panel
IndustryPharmaceuticals
Base StandardIEC 61439-2
EnvironmentIndustry-specific ratings

Other Panels for Pharmaceuticals

Other Industries Using Custom Engineered Panel

Frequently Asked Questions

The primary framework is IEC 61439-1 and IEC 61439-2 for low-voltage switchgear and controlgear assemblies. Depending on the panel function, IEC 61439-3 may apply to distribution boards and IEC 61439-6 to busbar trunking interfaces. Individual components such as ACBs, MCCBs, contactors, overload relays, and motor starters should comply with IEC 60947. For panels installed near hazardous solvent areas or classified locations, IEC 60079 becomes relevant. If the design includes arc-fault mitigation or internal fault containment, IEC 61641 testing and documentation are often requested by EPCs and facility owners.
Pharmaceutical panels are commonly built in IP54 or IP55 enclosures, with stainless steel or epoxy-coated steel chosen based on cleaning regime, corrosion exposure, and room classification. Areas near cleanrooms, preparation rooms, and utility galleries may require anti-condensation heaters, gland plate sealing, and filtered ventilation to control moisture and particulate ingress. If the installation is in a washdown zone or exposed to aggressive sanitizing chemicals, the enclosure finish and hardware selection become critical. The final rating should be verified against the actual environment, cable entry system, and ventilation method, not just the enclosure body.
A common configuration includes an ACB or MCCB incomer, outgoing MCCB feeders, VFDs for AHUs and chilled water pumps, soft starters for large fans, protection relays for critical motors, and PLC/HMI integration for sequence control. APFC banks may be added to correct power factor, while harmonic filters help control distortion caused by multiple VFDs. Many projects also include temperature monitoring, phase failure protection, and communication gateways to BMS or SCADA. This architecture supports stable air handling, process utility continuity, and energy optimization in GMP-sensitive environments.
Form of separation improves functional segregation, reduces the risk of accidental contact during maintenance, and limits outage scope if a feeder must be serviced. In pharmaceutical facilities, where HVAC, purified water, packaging, and support utilities can all be mission-critical, Forms 3b or 4 are often specified to isolate busbars, terminals, and functional units. The choice depends on maintenance philosophy, operational criticality, and available space. Under IEC 61439, the selected form must be verified by design and routine documentation, not assumed from the drawing alone.
Yes. These panels are frequently designed with PLCs, remote I/O, power meters, smart relays, and communication interfaces such as Modbus RTU/TCP, Profibus, Profinet, or Ethernet/IP. This allows integration with SCADA, BMS, and plant historian systems for alarms, energy monitoring, runtime tracking, and preventive maintenance. In pharmaceutical plants, integration supports validated utility monitoring and quicker fault diagnosis. Communication architecture should be planned early so that control logic, cybersecurity requirements, and qualification documentation align with the overall automation strategy.
The required short-circuit withstand level depends on the upstream transformer size, cable lengths, and fault level at the point of installation. In many pharmaceutical facilities, assemblies are designed for 36 kA, 50 kA, 65 kA, or even 100 kA at 400/415 V. The busbar system, MCCB breaking capacities, and enclosure internal fault performance must all be coordinated under IEC 61439 verification rules. For high-reliability utility boards, engineers often specify a conservative margin to accommodate future load growth and transformer upgrades.
VFDs are used for pumps, fans, compressors, and process drives where precise speed control, reduced energy consumption, and soft start capability are important. In pharmaceutical plants, this helps stabilize airflow, water pressure, and process utility performance. However, multiple VFDs can introduce harmonics that affect sensitive instrumentation and power quality. Harmonic filters, line reactors, or active front-end solutions are selected to reduce THDi and maintain compliance with project power quality limits. Coordination with APFC systems is also important to avoid resonance and capacitor stress.
EPC contractors should request GA drawings, single-line diagrams, BOMs, cable schedules, heat loss calculations, short-circuit and temperature-rise verification, routine test reports, and complete IEC 61439 design verification records. For pharmaceutical projects, FAT procedures, SAT support, control narratives, I/O lists, and communication matrices are also valuable. If the panel supports GMP-critical utilities, clear labeling, maintenance accessibility, and as-built documentation are essential for commissioning and future qualification activities. These documents reduce installation risk and help ensure a smooth handover to operations and validation teams.

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