Objectives

The primary objective is to conduct a comprehensive condition assessment of the existing fire fighting system at the Port of East London tanker berth. The assessment aims to identify historical failure points, evaluate current operational readiness, verify compliance with modern safety and engineering standards, and develop actionable strategies for repair, replacement, and long-term maintenance to mitigate fire hazards and ensure continuous port operations.

Scope of Services

The project covers a multidisciplinary engineering evaluation across four core areas:

• Mechanical Systems: External and internal inspections of pipework, valves, supports, expansion joints, and coating degradation.
• Fire Monitors: Mechanical integrity checks, rotational range testing, and hydraulic performance verification.
• Foam Delivery Systems: Assessment of proportioning units, pumps, suction/discharge lines, portable pourers, and functional discharge trials.
• Electrical & Control Systems: Verification of deluge valves, solenoid actuators, booster pumps, wiring logic, and control panel functionality.

Key deliverables include a detailed condition assessment report, updated as-built drawings, repair and coating specifications, a standardised Bill of Quantities, equipment inventory register, preliminary cost estimate, repair prioritisation matrix, a compliant maintenance plan, and formal handover training for the employer’s team.

Technical Requirements

Tenderers must implement rigorous inspection and testing protocols, including borescope examinations, ultrasonic thickness testing (minimum three readings per metre), and multi-method non-destructive testing on welds and fittings. Foam systems require ratio accuracy validation and discharge performance benchmarking. Control systems demand precise timing analysis for valve actuation, pre-priming cycles, and hydraulic surge modelling to assess hammer risks. The execution timeline must not exceed twenty weeks and requires a Level 3 work schedule in MSP or Primavera format. A comprehensive Health, Environment, and Safety (HES) management plan, site-specific risk assessment, and proof of regulatory compliance are mandatory. All methodologies must align with recognised marine, fire protection, and engineering standards.

Skills and Personnel Requirements

Three critical roles are strictly evaluated through documented qualifications and post-registration experience:

• Mechanical Engineer: Must hold an NQF Level 7 qualification or higher, possess professional registration with the Engineering Council of South Africa (ECSA), and demonstrate a minimum of five years’ experience specifically in fire fighting system condition assessments.
• Electrical Engineer: Must meet identical academic and professional registration criteria, with five years’ post-registration experience in fire fighting control and monitoring systems.
• Health & Safety Officer: Requires a relevant management qualification (NQF Level 5+) and three years’ experience in plant installations or construction projects.

All proposed personnel must submit verified CVs, contactable references, and certified copies of qualifications. Evaluation scoring heavily emphasises prior project experience (minimum three client reference certificates), method statement depth, programme feasibility, and HES planning capability.

Key Terminology and Standards

• Non-Destructive Testing (NDT): Inspection techniques such as magnetic particle, dye penetrant, and radiographic testing used to evaluate material integrity without causing damage.
• Industry Performance Benchmarks: Established fire protection standards dictating foam coverage, throw distance, spray patterns, and system response times.
• Corrosion Protection Standard: International specification for protective coating systems designed for highly corrosive industrial marine environments.
• CESMM-Aligned BOQ: A standardised civil and mechanical measurement schedule ensuring consistent, auditable costing for repair and replacement works.
• Class 3 Cost Estimate: A preliminary budget projection with acceptable variance ranges, developed during early engineering phases using historical data and conceptual designs.