Sop for Facility Manager

Standard Operating Procedure: Facility Management & Infrastructure Governance

Document ID: SOP-FAC-042
Department: Global Enterprise Operations & Infrastructure Management

---

1. Document Control & Revision History

---

2. Executive Summary & Scope

2.1 Scope

This Standard Operating Procedure (SOP) defines the mandatory governance, daily execution frameworks, and emergency response protocols for Facility Managers across all enterprise-owned and leased commercial assets. This standard applies to structural maintenance, environmental health and safety (EHS), critical infrastructure systems (HVAC, power distribution, life safety), vendor management, and physical security integrations.

2.2 Regulatory Standards & Compliance

All operations executed under this SOP must strictly adhere to the following regulatory frameworks:

• OSHA (29 CFR 1910): General Industry Safety Standards.
• NFPA 101 / 70: Life Safety Code and National Electrical Code.
• ISO 41001: Facility Management Management Systems (Requirements and guidance for use).
• ADA Standards: Americans with Disabilities Act Title III compliance for public and employee spaces.
• ASHRAE Standard 55/62.1: Thermal Environmental Conditions and Ventilation for Acceptable Indoor Air Quality.

---

3. Prerequisites & Tool Requirements

3.1 Certifications & Qualifications

• Mandatory: Certified Facility Manager (CFM) via IFMA, or Professional Facility Manager (PFM) designation.
• Safety: OSHA 30-Hour General Industry Certification.
• Life Safety: Valid certification in CPR/AED and First Aid; NFPA 70E Standard for Electrical Safety in the Workplace.

3.2 Hardware & Software Tool Stack

• Computerized Maintenance Management System (CMMS): Enterprise deployment (e.g., IBM Maximo, Fiix) for asset tracking and work order routing.
• Building Management System (BMS): Direct Digital Control (DDC) platform access for environmental and mechanical monitoring.
• Diagnostic Equipment: Fluke infrared thermal imaging camera, Extech digital psychrometer, calibrated sound level meter, non-contact voltage detector.
• Personal Protective Equipment (PPE): ANSI-approved safety footwear (composite toe), high-visibility vest, ANSI Z87.1 safety glasses, NFPA 70E-compliant arc flash PPE (Category 2 minimum when accessing electrical panels), and hearing protection.

---

4. Roles & Responsibilities (RACI Matrix Table)

Legend:

• R = Responsible (The role that performs the activity)
• A = Accountable (The role with final approval and fiduciary ownership)
• C = Consulted (The role providing advisory input)
• I = Informed (The role kept updated on progress)

---

5. Step-by-Step Operational Procedure

Phase 1: Daily Infrastructure Verification & Telemetry Audit

• 1.1 Access the Building Management System (BMS) dashboard at 0700 hours to review overnight environmental logs, static pressures, and supply air temperatures.
• 1.2 Verify that all critical infrastructure parameters (Chilled Water Supply: 42°F–45°F; Boiler Hot Water Supply: 160°F–180°F; Server Room Ambient: 65°F–68°F at 45-55% relative humidity) are operating within nominal tolerance ranges.
• 1.3 Review the CMMS overnight queue for any P1 (Emergency) or P2 (High) service requests submitted outside standard operating hours.
• 1.4 Conduct a physical walkthrough of common areas, primary egress routes, and main mechanical plant rooms by 0900 hours, noting any anomalies in lighting, flooring integrity, or acoustic signatures of rotating equipment.

Phase 2: Work Order Triage, Resource Allocation & CMMS Management

• 2.1 Classify incoming work orders within the CMMS based on operational impact:
  • P1 (Emergency): Life safety hazard, active flooding, security breach. Immediate dispatch within 15 minutes.
  • P2 (Urgent): Significant operational degradation (e.g., partial HVAC failure in core zone). Dispatch within 2 hours.
  • P3 (Standard): Minor cosmetic or non-critical asset repair. Schedule within 48 hours.
  • P4 (Scheduled): Preventive maintenance (PM) routines. Execute per annual calendar.
• 2.2 Assign P1 and P2 work orders to internal Lead Technicians or dispatch SLA-bound external service-level agreement (SLA) contractors.
• 2.3 Verify that all technicians assigned to high-risk tasks have pulled relevant Job Safety Analyses (JSAs) and locked out/tagged out (LOTO) energy sources in accordance with OSHA 1910.147.

Phase 3: Vendor Oversight & Compliance Verification

• 3.1 Validate that all third-party contractors sign in at the facility security desk, present valid Certificates of Insurance (COI) matching enterprise minimums ($5M aggregate), and possess required trade licenses.
• 3.2 Conduct a pre-work briefing with contracted service teams to review site-specific hazards, hazardous material locations (Asbestos/Lead registers), and emergency evacuation routes.
• 3.3 Inspect completed vendor work against contractual scopes of work (SOW) before authorizing electronic sign-off in the vendor management module.

Phase 4: EHS & Life Safety System Inspections

• 4.1 Perform a visual inspection of all fire extinguisher gauges, ensuring indicators are in the green zone and access paths are unobstructed by inventory or furniture.
• 4.2 Test emergency lighting circuits via monthly push-button checks on a rolling departmental schedule, documenting results in the physical life-safety logbook.
• 4.3 Ensure eyewash stations are flushed weekly and document performance metrics (flow rate, tepid water delivery) to maintain ANSI Z358.1 compliance.

---

6. Quality Assurance & Verification Criteria

6.1 Audit Checklist

• Preventive Maintenance (PM) Completion Rate: $\ge 98%$ execution within the designated calendar month.
• Work Order Resolution Time: P1 resolution under 2 hours; P2 resolution under 24 hours.
• BMS Alarm Response Time: Average acknowledgment of critical system alarms under 5 minutes during operational hours.
• Vendor SLA Compliance: 100% compliance with contracted response windows and safety protocols.

6.2 Acceptance Benchmarks

• Indoor Air Quality (IAQ): $\text{CO}2$ levels must not exceed 1,000 ppm in open office environments; particulate matter ($PM{2.5}$) must remain below $35,\mu\text{g/m}^3$.
• Electrical Infrastructure: Thermal imaging scans of main distribution panels must show no temperature differentials ($\Delta T$) exceeding $10^\circ\text{C}$ between adjacent phases under normal load.

---

7. Practical Troubleshooting Scenarios

Scenario 1: Unscheduled Chiller Plant Shutdown (Partial Loss of Cooling)

• Immediate Symptoms: BMS registers chilled water supply temperature spike above 55°F; occupant discomfort reports escalating in zone nodes.
• Diagnostic Protocol:
  1. Check main electrical distribution breakers feeding the chiller compressor for tripped thermal overloads.
  2. Verify cooling tower water flow, sump levels, and condenser water pump operations.
  3. Inspect refrigerant loop pressures via local digital manifold gauges to rule out low-charge lockout.
• Corrective Action Protocol:
  • Step 1: If a high-head pressure fault occurred, manually clear the interlock after inspecting condenser coil fouling and verifying cooling tower fan operation.
  • Step 2: If fault persists, isolate the primary unit, engage the emergency backup secondary chiller via the BMS manual override console, and notify the VP of Operations.
  • Step 3: Issue an enterprise-wide communication via the facilities helpdesk detailing the remediation window. Log incident root cause in CMMS within 24 hours.

Scenario 2: Main Building Water Supply Line Rupture

• Immediate Symptoms: Water intrusion detected in basement mechanical room; active drop in domestic water loop pressure.
• Diagnostic Protocol:
  1. Identify the zone of rupture via leak detection sensor telemetry or physical walkthrough.
  2. Locate the nearest sectional isolation valve or main domestic water shut-off valve.
• Corrective Action Protocol:
  • Step 1: Don rubber insulating boots and safety glasses. Immediately close the primary sectional isolation valve to arrest water flow.
  • Step 2: Dispatch emergency mitigation vendor (e.g., SERVPRO) for extraction and drying within 45 minutes of incident declaration.
  • Step 3: De-energize adjacent electrical switchgear if water migration approaches floor-mounted conduits or panels, utilizing LOTO protocol.
  • Step 4: File an emergency insurance loss notification report and complete the internal Incident Safety Investigation form.