In line with rising energy costs and sustainability goals, solar energy systems for industrial facilities have become a strategic priority. These systems offer businesses the opportunity to reduce energy costs, reduce carbon footprints, and provide long-term energy independence.
As Tanış A.Ş., with our experience of over 60 years, we provide specialized solar energy solutions for mill and industrial facilities. Our expert engineering team designs, installs, and provides maintenance services for efficient and economical solar energy systems tailored to your business needs.
Rooftop Photovoltaic (PV) Systems
The extensive roof areas of industrial facilities provide ideal surfaces for solar energy systems:
System Structure: Photovoltaic panels, mounting systems, inverters, cabling, and protection equipment Solutions by Roof Types: Special mounting systems for trapezoidal/sandwich, reinforced concrete, membrane, and asbestos roofs Advantages: Utilization of existing space, quick installation, proximity to grid Applicability Criteria: Roof load-bearing system analysis, shading assessment, electrical infrastructure examination
Ground-Mounted Solar Power Plants
These are systems established by utilizing the land around the facility:
System Features: Ground-fixed or solar tracking mounting systems Land Requirements: 15-20 acres per MW, topography and soil structure assessment Permit Processes: Invitation letter, EIA report, construction permits, and grid connection agreements
These are dual-function systems that utilize parking areas:
Design Features: Roof structure providing protection for vehicles, optimized steel construction Advantages: Weather protection for vehicles, efficient use of parking space, electric vehicle charging station integration
Hybrid Solar Energy Systems
These are integrated solutions that combine different energy sources:
Solar-Wind Hybrid Systems: Complementary energy production profile, more stable energy generation Cogeneration Integration: Coordinated operation with existing CHP systems, increasing total energy efficiency
Photovoltaic Panel Technologies
Solar panels that form the heart of the system can be of different technologies:
Monocrystalline Panels: 18-22% efficiency, ideal for projects with space constraints Polycrystalline Panels: 15-18% efficiency, cost-effective solution, economic advantage in large areas Thin Film Technology: Flexible mounting possibilities, better performance in low light conditions Selection Criteria: Energy needs, space constraints, climate conditions, budget, and warranty periods
Inverter Technologies
These are critical components that convert the produced DC electricity to AC electricity:
String Inverters: Suitable for medium-scale systems, easy maintenance, ideal in 50-150 kW capacities Central Inverters: For large-scale systems (>500 kW), high efficiency, advanced grid management Microinverters: Panel-level conversion, minimizing shading effects, panel-based monitoring Selection Factors: System size, grid conditions, shading situation, cost-efficiency balance
Ensures safe and efficient mounting of panels:
Systems by Roof Types: Specially designed mounting solutions for each roof type Structural Requirements: Wind and snow load calculations, roof bearing capacity analysis Material Properties: Aluminum profile and stainless steel construction, materials with at least 25-year lifespan
Monitoring and Control Systems
Technologies that track system performance and health:
Remote Monitoring Platforms: Real-time production tracking, web and mobile access Data Collection and Analysis: Performance ratio calculations, anomaly detection Energy Management Integration: Integration with facility energy systems, production-consumption optimization
Feasibility and System Design
This is the first and most critical phase of the project:
Energy Consumption Analysis: Hourly/daily/monthly consumption profile, peak demand analysis Solar Energy Potential: Location-based irradiation assessment, shading analysis System Sizing: Optimal capacity determination, panel layout plan Feasibility Report: Technical design, energy production estimate, cost-benefit analysis
Permit and Approval Processes
These are the necessary legal procedures for solar energy systems:
Rooftop SPP Permits: Invitation letter, project approval file, distribution company applications Grid Connection: Connection agreement, LV/MV projects, protection relay coordination Unlicensed Generation: 10 kW-5 MW procedures, net metering regulations
This is the phase where the system is physically implemented:
Project Planning: Critical path analysis, material procurement, work safety Installation Phases: Mounting system, panel placement, cabling, inverter installation Testing and Commissioning: Electrical safety tests, inverter configuration, performance tests
Operation and Maintenance
These are the processes that ensure long-term performance of the system:
Preventive Maintenance: Regular panel cleaning, electrical controls, thermal scanning Performance Monitoring: Real-time tracking, deviation analysis, efficiency improvement Fault Management: 24/7 monitoring, rapid response, spare parts management
Financial Return Analysis
Critical metrics for economic evaluation of the investment:
Energy Savings: Annual production amount, self-consumption rate, electricity unit price Payback: Simple payback period (4-7 years), cash flow projection Detailed Analysis: Net present value (NPV), internal rate of return (IRR, 12-20%)
Financing Models and Incentives
Various options for financing the investment:
Equity and Credit: Corporate equity, green energy loans, project financing Alternative Models: Power Purchase Agreements (PPA), leasing, roof rental Incentives: YEKDEM tariff guarantee, VAT exemption, accelerated depreciation
Grid Connection Models
Grid-Connected Systems
These are standard systems that work interactively with the electrical grid:
On-grid Architecture: Grid connection equipment, bidirectional meter, protection relays Net Metering: Production-consumption balancing, sale of excess production
Self-Consumption Optimization
Aims to use the maximum level of produced energy within the facility:
Production-Consumption Matching: Shifting consumption to sunny hours, profile matching Load Management: Smart control systems, load prioritization, demand management
Energy Storage Integration
Battery Technologies
Battery technologies are the main component of storage solutions:
Lithium-ion Batteries: High energy density, 5000-10000 cycle life LFP Technology: Longer life, high safety, ideal for industrial applications Flow Batteries: Long life, scalable capacity, suitable for large-scale storage
Battery Energy Storage Systems (BESS)
Industrial-scale storage solutions:
System Components: Battery modules, power converters, battery management system Container Solutions: 100 kWh-2 MWh capacity, integrated cooling, modular design
Storage Advantages
Main benefits provided by energy storage:
Peak Load Management: Demand charge optimization, peak demand flattening Uninterrupted Energy: Protection against grid outages, feeding critical loads Self-Consumption: Night use of energy produced during the day, energy independence
Tanış A.Ş. Solar Energy Solutions
Our Turnkey SPP Projects
As Tanış A.Ş., we provide end-to-end service in solar energy projects:
Feasibility and Design: Detailed energy analysis, 3D modeling, technical-economic feasibility Permit Processes: Invitation letter, project approval, distribution company coordination Installation: Class A equipment procurement, experienced installation teams, comprehensive testing Operation and Maintenance: 24/7 monitoring, regular maintenance, performance guarantee
Our approach specific to mill and food processing facilities:
Sector-Specific Design: Solutions suitable for the dust-intensive environment of mill facilities Production Profile Compatibility: System optimization according to shift work schedule Uninterrupted Energy: Storage-supported solutions for critical processes Installation Advantages: Installation planning with minimum production interruption
Our Financing and Incentive Consulting
Financial support services we provide to our investors:
Financing Models: Analysis of suitable credit and leasing options Incentive Applications: Consulting for YEKDEM, tax advantages, and grants Investment Analysis: Detailed feasibility and cash flow projections Risk Assessment: Sensitivity analyses according to different scenarios
Frequently Asked Questions
First, the facility’s electricity consumption profile is analyzed. Hourly, daily, and monthly consumption data, peak demand values, and consumption times are examined. In the self-consumption model, the optimal capacity to meet daytime consumption is determined. The final system capacity is determined taking into account roof area constraints, structural bearing capacity, and budget factors.
Energy storage systems provide advantages in the following situations:
- In facilities with peak energy tariffs and high demand charges
- In production facilities where grid outages affect critical processes
- In businesses with shift work schedules and high night consumption
- In situations where the aim is to increase self-consumption rate and excess production sales are low
The payback period for industrial solar energy systems varies depending on location, system type, electricity tariffs, and financing conditions. In Turkey, self-consumption-focused rooftop SPP systems generally amortize themselves within 4-7 years. The rate of increase in electricity prices and YEKDEM incentives are factors that directly affect the payback period.
Conclusion
Solar energy systems for industrial facilities are an effective way to reduce energy costs and achieve sustainability goals. As Tanış A.Ş., we provide solar energy solutions that are specially designed for your needs, provide optimal performance, and offer maximum economic benefit.
You can benefit from our free site survey service to evaluate your facility’s solar energy potential. Our expert engineers will prepare a feasibility study specific to your business, showing how much you can reduce your energy costs and how you can achieve your sustainability goals.