Energy Management System in the Steel Industry

SOLVERA LYNX CASE STUDY

ENERGY MANAGEMENT SYSTEM IN THE STEEL INDUSTRY

The company is one of the largest steel producers in Europe. It manufactures a wide range of more than 200 different steel grades, dimensions, and forms – from carbon and alloy structural steels to tool and specialty steels – in the form of rolled and forged products.

The company decided to implement an energy management project with the following objectives:

  • real-time monitoring and analysis of energy consumption,
  • definition and analysis of key energy performance indicators,
  • implementation of an energy management system,
  • development of benchmarking and savings calculation methodologies,
  • introduction of energy cost allocation and billing,
  • reduction of energy consumption as a result of active energy management.

KEY FACTS

RESOURCE CONSUMPTION

Electricity, natural gas, compressed air, oxygen, heat, water, argon, nitrogen

MEASUREMENT POINTS

340× electricity, 78× natural gas, 10× compressed air, 10× oxygen, 9× cooling water, 31× heating, 2× argon, 1× nitrogen, 42× potable water

CONSUMPTION

Electricity Consumption

12 GWh/month

Primary consumer: Electric Arc Furnace (EAF)

Natural Gas Consumption

3 million Nm³ per month

Main consumers: industrial furnaces

Heat Consumption

800 MWh per month

Main consumer: heating systems

Technical Gases Consumption

870,000 kg per month

  • Oxygen: 700,000 kg/month
  • Nitrogen: 150,000 kg/month
  • Argon: 20,000 kg/month

Compressed Air Consumption

3 million Sm³ per month

Main consumers: compressor systems

Water Consumption

300,000 m³ per month

OUR SOLUTIONS AND PROJECT RESULTS: GEMALOGIC

Core Tools: general overview, real-time data monitoring, historical data analysis, alarms (SMS, email), user-generated reports, geolocation features.

Energy Efficiency Tools: load profile visualization, specific consumption indicators (KPIs), benchmarking, time-based comparisons, target-based energy monitoring, M&T and CUSUM analysis, energy cost allocation and billing across different suppliers, buildings, metering points, and energy products.

MacBook Air_Dashboard - product description2
MacBook Air_GemaLogic

OUR SOLUTIONS

Energy Consumption Monitoring
Electricity, natural gas, compressed air, oxygen, heat, water, argon, nitrogen

Energy Efficiency Analysis and Forecasting
Energy performance indicators
Correlation between energy consumption and production output

Energy Performance and Target Management
Target energy consumption volumes and costs
Deviation alerts for abnormal consumption or cost levels

CO₂ Emissions Accounting

PROJECT RESULTS

Full Transparency of Energy Consumption and Advanced Analytics

Digitalization of energy data, automated alerts, and rapid response to system deviations.

Implementation of an Alarm System

Detection of anomalies and root causes in energy consumption, enabling fast corrective actions.

Improved Energy Efficiency

Through real-time monitoring, advanced analytics, benchmarking, and forecasting.

Advanced Benchmarking

Key performance indicators (KPIs) and M&T analysis.

BENEFITS OF PROJECT IMPLEMENTATION

01

Implementation of a comprehensive energy management system and supporting measures as a foundation for long-term energy consumption reduction.

02

Reduction of electricity consumption through monitoring of energy inputs and outputs and optimization of the distribution network.

03

Reduction of water consumption through efficient leak detection and elimination.

04

Identification of technical and non-technical losses.

CONSUMPTION REDUCTION

0
%
electricity
0
%
natural gas
0
%
industrial gases, heat, water, compressed air

The implementation of the energy management system resulted in a significant reduction in resource consumption across various production processes. Electricity consumption was reduced by 3% through distribution network optimization and improved efficiency of the Electric Arc Furnace (EAF). Natural gas consumption decreased by 5–7% due to furnace optimization and enhanced process flows. In addition, industrial gases, heat, water, and compressed air recorded a combined reduction of 7%, primarily as a result of improved leak detection and continuous system monitoring.

These reductions not only delivered substantial financial savings but also significantly reduced the company’s environmental footprint.


Share this post