Program Development of Nik Khavar Fars Power Plant
Strategic Program Overview
The development of Nik Khavar Fars Power Plant was structured as a multi-phase infrastructure program designed to deliver distributed generation capacity to the regional power grid in Safashahr, Fars Province.
Rather than being executed as a single construction project, the power plant was developed through a portfolio of coordinated component projects, each contributing to the incremental expansion of generation capability. This program-based approach enabled the organization to manage technical complexity, control risk, and progressively realize operational benefits as each phase was commissioned.
The overall program objective was to design, construct, and operate a modular distributed generation facility with an initial target capacity of approximately 25 MW, while establishing the infrastructure required for future expansion.
Program Phase 1
Engineering, Design, and Infrastructure Development
The first phase of the program focused on establishing the technical and engineering foundation necessary for the construction of the power generation facility.
Key component projects executed during this phase included:
• feasibility and engineering studies for distributed generation implementation
• civil and structural engineering design for plant infrastructure
• electrical engineering design of low-voltage and medium-voltage systems
• design and specification of switchgear and protection systems
• grid interconnection analysis and synchronization studies
• preparation of construction plans and implementation frameworksThis phase delivered the core enabling infrastructure required for subsequent generation installation and grid integration.
From a program management perspective, this phase represented the capability enablement stage, where foundational systems and plant architecture were established to support the long-term generation program.
Program Phase 2
Initial Generation Capability Deployment
Following completion of the engineering and construction preparation phase, the program moved into the initial generation deployment stage.
During this phase, four Jenbacher natural gas generator units, each with a nominal capacity of approximately 2 MW, were installed and integrated into the plant’s electrical system.
Key activities included:
• installation and commissioning of the generation units
• electrical integration with the plant’s switchgear and protection systems
• synchronization with the regional power grid
• operational testing and performance validationSuccessful commissioning of these units represented the first operational milestone of the program, delivering the plant’s initial generation capability and validating the distributed generation architecture.
Jenbacher gas engines are widely used in distributed generation facilities due to their high electrical efficiency, operational reliability, and suitability for continuous base-load power production.
Program Phase 3
Capacity Expansion with Jenbacher J616 Generation Units
Following the successful commissioning of the initial generation units, the program advanced to the capacity expansion phase, focused on scaling the plant’s generation capability.
This phase included the installation of four Jenbacher J616 natural gas engines, each with a nominal capacity of approximately 2.7 MW.
The Jenbacher J616 engine is a high-performance gas engine designed for distributed power generation and cogeneration applications. The technology provides:
• electrical output up to approximately 2.7 MW per unit
• electrical efficiency approaching 46%
• high operational availability for continuous power generation
• compatibility with combined heat and power (CHP) systemsThe integration of these units significantly increased the plant’s generation capacity while maintaining the modular design of the distributed generation architecture.
From a program management perspective, this phase delivered incremental capability expansion while leveraging the infrastructure established during earlier phases.
Program Phase 4
Diversification of Generation Assets
To further strengthen operational flexibility and generation reliability, an additional component project was initiated to install four Caterpillar natural gas generator units.
Caterpillar generator systems are widely used in distributed power plants and industrial energy facilities due to their:
• robust industrial design
• high availability and operational reliability
• flexibility for grid-connected and distributed generation applicationsThe deployment of multiple generator technologies within the plant supported the program’s objective of maintaining redundancy, operational resilience, and scalable generation capacity.
Modular Distributed Generation Architecture
Nik Khavar Fars Power Plant operates using a modular distributed generation configuration, where multiple gas engine generators operate in parallel and are connected to the grid through the plant’s electrical infrastructure.
This architecture provides several strategic advantages:
• incremental expansion of generation capacity through phased component projects
• improved operational reliability through multiple independent generating units
• enhanced grid stability and local power availability
• reduced transmission losses due to localized electricity generationGas engine distributed generation plants are widely adopted in modern power systems due to their high efficiency, fast response capability, and scalability.
Program Outcomes and Benefits
The program-based development approach enabled the organization to progressively deliver operational capability while managing technical complexity and infrastructure investment.
Key benefits realized through the program include:
• phased expansion of generation capacity
• improved regional electricity supply reliability
• modular scalability for future development phases
• integration of high-efficiency gas engine technologiesBy structuring development as a coordinated program of component projects, Nik Khavar Fars Power Plant successfully transitioned from an initial engineering concept into a fully operational distributed generation facility supporting regional energy infrastructure.
