Category: Energy Transformation

As part of our services, we conduct a detailed analysis of production processes to identify specific opportunities for improving energy efficiency. By modifying technological procedures and implementing modern solutions, companies can achieve significant energy savings, reduce operational costs, and increase their competitiveness.

1. Energy Consumption Analysis of Production Processes

We begin with a comprehensive analysis of energy consumption across various technological processes. We assess energy use at each production stage, identifying the most energy-intensive and costly processes, such as:

• Energy use in heating, cooling, mechanical, and transport processes,
• Efficiency metrics for individual equipment and production lines,
• Historical and trend data analysis to identify energy consumption patterns and areas for optimization.

2. Identifying and Eliminating Energy Losses in Processes

One of the most critical optimization steps is identifying energy losses in production processes and proposing actions to reduce unnecessary energy use, such as:

• Reducing heat loss by improving thermal insulation of equipment and installations,
• Optimizing material and resource flows to reduce transport energy,
• Eliminating idle energy consumption, e.g., by automatically switching off machines during inactivity.

3. Optimization of Production Equipment Operating Parameters

Energy efficiency can often be improved by optimizing equipment and production line parameters based on data analysis and testing, adjusting factors such as:

• Temperature, pressure, and operational speed of equipment to actual process requirements,
• Equipment operation cycles and production times to reduce energy use and eliminate idle time,
• Automatic adjustment of parameters based on current production needs, minimizing excessive energy use.

4. Automation and Digitization of Production Processes

Implementing automation and modern monitoring and control systems (e.g., SCADA, IoT) allows for precise, real-time energy management, enabling:

• Automated management of machine operation cycles, enhancing efficiency and reducing energy losses,
• Quick identification of deviations in energy consumption and faults for immediate response,
• Integration with ERP (Enterprise Resource Planning) systems, facilitating production planning and control.

5. Energy Recycling and Heat Recovery from Technological Processes

Many technological processes generate excess heat that can be recovered and reused in other areas of the facility. Example solutions include:

• Implementing recuperation systems to recover heat from exhaust air or used media (e.g., water),
• Using waste heat to power other production processes, heat spaces, or preheat utility water,
• Employing heat exchangers and energy storage units to store surplus thermal energy for later use.

6. Transition to More Energy-Efficient Production Technologies

In some cases, modernization or complete overhaul of production technology can bring significant energy savings. We analyze available technologies and advise clients on their potential benefits, such as:

• Replacing energy-intensive machines with more efficient models,
• Shifting to production processes that utilize alternative energy sources, such as renewable energy-based technologies,
• Using low-temperature or low-pressure technologies characterized by lower energy consumption.

7. Virtualization and Simulation of Production Processes

Process virtualization allows for simulation of various production scenarios and their impact on energy consumption, enabling us to:

• Test different machine configurations and work schedules to find the most efficient solutions,
• Forecast energy consumption for planned technological changes, minimizing investment risks,
• Optimize production sequence and resource allocation based on real data and analyses.

8. Reducing Downtime and Minimizing Idle Operation

Extended downtimes and excessive idle equipment operation lead to energy losses. As part of process optimization, we:

• Implement maintenance schedules that minimize downtime and increase machine availability,
• Automate equipment operation cycles to shut down or enter energy-saving modes during downtime,
• Propose organizational changes for better production planning and efficient machine use.

9. Employee Training and Engagement in Energy Efficiency Management

Employee training and awareness-raising about energy efficiency are essential to optimization. We offer educational programs that:

• Inform employees about best practices for energy savings and efficient machine management,
• Encourage active participation in energy-saving initiatives, such as suggesting cost-saving ideas,
• Enhance employee involvement in energy efficiency efforts, leading to better results and a more sustainable work culture.

10. Reporting Results and Long-Term Monitoring of Progress

Following the implementation of recommendations and process optimizations, we prepare regular reports presenting achieved savings and the impact of changes. Based on monitoring results:

• We analyze efficiency metrics showing actual energy savings and cost reductions,
• Review progress towards energy goals and recommend further optimization actions,
• Continuous monitoring enables the optimization strategy to adapt to changing production and technological conditions.

Benefits of Technological Process Optimization

Optimizing technological processes brings measurable benefits, such as:

• Reduction of energy and material costs through more efficient resource use,
• Increased production efficiency and reliability, minimizing downtime and improving machine availability,
• Reduction of CO₂ emissions and environmental impact by lowering energy use and minimizing waste,
• Enhanced competitiveness through lower operational costs and implementation of modern technologies.

By optimizing technological processes, companies not only achieve cost savings but also improve their operational efficiency and strengthen their reputation as a business committed to sustainable development.

With the implementation of monitoring systems, a company can continuously track energy consumption, analyze energy performance indicators, and identify areas with potential for optimization. Our solutions support businesses in making quick, informed energy management decisions, which leads to reduced operational costs and minimized environmental impact.

1. Designing and Implementing Energy Monitoring Systems

We collaborate with clients to develop energy monitoring systems tailored to their needs and business specifics. Implementation includes installing modern energy meters, sensors, and analytical software that collect data across various operational areas. This enables:

• Real-time energy monitoring across departments, buildings, and even individual devices.
• A comprehensive overview of the company’s energy usage to identify optimization areas.
• Online data access, enabling remote management and monitoring of energy infrastructure.

2. Analysis and Reporting of Energy Efficiency (KPI)

The energy monitoring system automatically calculates energy efficiency KPIs, which help assess a company’s energy performance. Examples of KPIs include:

• Energy consumption per production unit, allowing monitoring of production efficiency.
• Energy cost relative to revenue or other financial parameters.
• Energy loss rate in transmission and distribution. Regular KPI reporting enables companies to assess progress in energy efficiency and respond to changes before they result in higher costs.

3. Early Detection of Anomalies and Energy Savings

Real-time energy monitoring enables quick detection of anomalies, such as sudden energy spikes, equipment failures, or unplanned downtimes. The system can generate alerts when consumption values exceed set limits, allowing for:

• Immediate identification of technical or operational issues.
• Prompt response to inefficient equipment performance, minimizing energy losses and costs.
• Better demand management during peak hours, avoiding costly energy charges.

4. Predictive Analytics and Energy Consumption Forecasting

Using data analytics, we help companies forecast future energy consumption based on historical trends and seasonal variables. Predictive analytics allows:

• Forecasting energy usage in the coming weeks or months, facilitating budget and energy procurement planning.
• Optimizing equipment and production schedules to minimize energy costs.
• Anticipating energy demand increases during critical periods, avoiding unexpected loads and operational disruptions.

5. IoT and Big Data in Energy Management

Our energy monitoring systems leverage the latest IoT and Big Data technologies, enabling the collection and processing of vast amounts of data. IoT integrates devices, meters, and energy management systems, allowing:

• Real-time tracking of energy consumption at the device and process levels.
• Fast data processing and generation of reports on energy consumption and efficiency.
• Automation of energy management processes, such as adjusting device temperature or power to meet current demand.

6. Interactive Reporting and Data Visualization

Energy monitoring systems provide interactive reports and data visualizations that facilitate energy consumption analysis by the management team. Visualization allows:

• Quick identification of energy usage patterns and areas for optimization.
• Comparison of energy consumption over time and between company departments.
• Presentation of energy results and indicators in a clear way for management and stakeholders, facilitating strategic decision-making.

7. Real-Time Energy Management

Implementing monitoring systems enables real-time energy management, crucial for companies with high energy consumption. Continuous data analysis allows a company to:

• Dynamically adjust device operating parameters to minimize energy consumption.
• Automatically control temperature, lighting, and other systems depending on the time of day, employee count, or weather conditions.
• Optimize energy consumption during peak hours, reducing the risk of system overload.

8. Long-Term Optimization and Improvement of Energy Efficiency

Continuous energy monitoring and data analysis allow companies to systematically improve infrastructure and processes. This facilitates long-term optimization, enabling:

• Ongoing reduction of energy costs by identifying and eliminating energy-intensive processes.
• Modernizing equipment and infrastructure based on monitoring results.
• Setting realistic energy-saving goals and tracking progress towards achieving them.

9. Compliance Reporting and Support for Sustainable Development

Energy monitoring and regular reporting of efficiency indicators support sustainability efforts. Monitoring systems allow for the generation of compliance reports, which:

• Demonstrate compliance with energy efficiency and environmental protection regulations.
• Support ESG (Environmental, Social, Governance) initiatives and sustainable development, enhancing the company’s image.
• Provide stakeholders with data on the company’s progress in CO₂ reduction and other environmental goals.

Benefits of Energy Consumption Monitoring and Data Analytics

By implementing energy monitoring systems, a company achieves:

• Reduced operational costs through more efficient energy management and minimized losses.
• Improved operational efficiency with rapid problem response and process optimization opportunities.
• Long-term savings and support for sustainable development strategies.
• Better resource management and visibility into energy consumption, simplifying decision-making on infrastructure upgrades.

The implementation of energy consumption monitoring and data analytics allows a company to control energy use, continually improve processes, and contribute to achieving sustainability goals, enhancing competitiveness and profitability.

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An energy consumption audit in IT and data centers allows companies to understand how their IT infrastructure, including servers, cooling, ventilation, and power systems, contributes to overall energy use. Our audit provides a detailed analysis of the energy intensity of IT equipment and support systems, identifying areas with high energy demand. This approach delivers actionable recommendations to help reduce energy consumption, lower operational costs, and support sustainable development.

1. Inventory and Analysis of IT Equipment
Our first step involves an inventory of IT equipment, including servers, storage, networking hardware, and UPS units. We assess the energy consumption of each device, evaluating efficiency and load. This analysis helps identify energy-intensive devices and underutilized ones that may contribute to unnecessary energy waste.

2. Evaluation of Cooling and Ventilation Systems Efficiency

Data centers and server rooms generate significant heat, requiring efficient cooling and ventilation. We assess the efficiency of cooling systems, including precision air conditioning and ventilation, examining factors like:

• Cooling system efficiency in relation to power demand,
• Server arrangement and airflow optimization to reduce cooling needs,
• The potential for zonal cooling to target heavily used areas only.

3. Energy Use in UPS Systems and Power Management

UPS systems ensure uninterrupted power for IT equipment but also consume energy. We evaluate the UPS system’s efficiency and energy management, including:

• Determining which loads require UPS support and which can operate without backup to reduce energy use,
• Using advanced energy management features in UPS devices for optimized performance,
• Verifying backup power needs against actual load requirements.

4. Virtualization and Resource Consolidation Recommendations

Virtualization and server consolidation are key strategies for reducing the number of physical devices, thus lowering energy demand. We recommend:

• Server virtualization to run multiple applications on one server, reducing the physical server count,
• Hardware consolidation to maximize resource use and eliminate inefficient devices,
• Upgrading to modern, energy-efficient servers and networking hardware for greater performance with lower energy consumption.

5. Adoption of Energy-Efficient Cooling Technologies

Modern cooling technologies, such as “free cooling” (using outside air) and liquid cooling, can significantly cut energy use in data centers. In our audit, we:

• Assess the feasibility of implementing free cooling, especially effective in cooler climates,
• Evaluate liquid cooling for high-load devices to improve heat dissipation,
• Analyze zonal cooling methods to focus cooling on intensively used areas only.

6. Optimization of Airflow in Data Centers

Efficient airflow in server rooms reduces cooling system load. We analyze airflow in server rooms and suggest optimized equipment layout for maximum cooling efficiency, recommending measures like:

• Hot and cold aisle configurations to better direct cool air to servers and remove warm air,
• Use of physical barriers and containment to prevent warm and cool air from mixing,
• Adjusting fan speeds based on cooling requirements.

7. Implementation of Real-Time Energy Monitoring Systems

Energy monitoring systems enable real-time tracking of energy use, helping identify areas for optimization. We introduce monitoring systems that:

• Track energy use by individual IT devices, cooling, and power systems,
• Enable rapid response to unexpected energy spikes or technical issues,
• Support analysis of long-term energy trends for ongoing optimization.

8. Recommendations for Transition to Energy-Efficient Equipment

Many older IT devices consume far more energy than modern solutions. Based on audit results, we recommend replacing equipment with more energy-efficient alternatives, including:

• Upgrading old servers to newer models with higher performance and lower energy use,
• Selecting ENERGY STAR-certified IT equipment for optimal energy efficiency,
• Implementing energy management software to automatically adjust energy use based on workload.

9. Development of a Long-Term Energy Optimization Strategy

At the audit’s conclusion, we provide a long-term action plan, including:

• Regular energy use monitoring and efficiency reviews,
• Ongoing upgrades, including phased equipment replacement and new technology adoption,
• Training programs for the IT team on energy management, fostering employee engagement in achieving energy goals.

Benefits of IT and Data Center Energy Consumption Audits

An IT energy consumption audit delivers numerous benefits, including:

• Significant energy cost savings through more efficient IT infrastructure management,
• Reduced greenhouse gas emissions contributing to a smaller carbon footprint,
• Improved reliability of IT and cooling systems through optimized performance parameters,
• Increased operational efficiency by maximizing IT resource use and enabling real-time infrastructure monitoring.

Our energy consumption audit in IT and data centers helps companies reduce costs, meet sustainable development standards, and become leaders in IT energy efficiency.

White Certificates, or energy efficiency certificates, formally confirm a company’s actions to improve energy efficiency. Our support in this area includes conducting comprehensive energy efficiency audits aimed at obtaining White Certificates, in line with the Energy Efficiency Act of May 20, 2016. These certificates not only confirm energy savings but also provide additional financial benefits for companies.

1. Assessment of Project Potential for White Certificate Eligibility
Our team of specialists analyzes potential energy efficiency actions that may qualify for White Certificates. We evaluate projects such as modernization of heating, cooling, lighting systems, and optimization of technological processes for their energy savings potential and compliance with formal requirements.

2. Conducting Energy Efficiency Audits

We carry out energy efficiency audits required to apply for White Certificates. The audit includes:

• A detailed analysis of energy consumption before and after the implementation of modernization measures to determine energy savings,
• Calculations of the energy savings achieved by the project and their value concerning White Certificates,
• Technical documentation and economic analysis of the project, essential to demonstrate that the planned actions will result in real energy consumption reduction.

3. Preparing Documentation for the White Certificate Application

Our support includes preparing the comprehensive application documentation required for the White Certificate submission. This documentation includes:

• An energy efficiency audit report with a complete description of the project and savings calculations,
• Identification of technologies and methods applied to achieve energy savings,
• Economic and technical justification showing that the project will lead to lasting improvements in energy efficiency.

4. Ensuring Compliance with Legislative Requirements
We verify that projects comply with the legal requirements outlined in the Energy Efficiency Act and regulatory guidelines. We ensure each project meets the criteria defined in the regulations, including minimum energy savings and the sustainability of the modernization’s effects.

5. Financial Benefits Calculation from White Certificates
White Certificates have market value and can be sold on the Energy Commodity Exchange, providing additional revenue for the company. We offer support in calculating the financial benefits achievable through certificate sales. We also analyze the investment payback period, considering income from certificates to aid the company in precise budget planning.

6. Monitoring and Verification of Energy Savings
After obtaining White Certificates, we monitor the project’s energy savings to confirm the achieved results. Regular monitoring and data analysis help maintain compliance with certificate conditions and demonstrate real reductions in energy consumption.

7. Support in Regulatory Control Audits
If the regulator requests a control audit of the project, we assist the company in preparing for the review by providing full documentation and energy savings monitoring results. Our team collaborates with external auditors, ensuring compliance with all legal requirements and standards.

8. Planning Future Projects and Optimization
After completing a project, we assist the company in planning further modernization activities that may qualify for additional White Certificates. Based on identified areas for improvement, we help select projects that can bring further energy and financial benefits.

Benefits of Obtaining White Certificates

With our support, companies gain numerous measurable benefits from White Certificates:

• Energy cost reduction – More efficient energy use translates into lower operational costs,
• Additional revenue – White Certificates can be sold on the market, providing extra income,
• Enhanced company image – Obtaining certificates emphasizes the company’s commitment to sustainable development and environmental responsibility,
• Regulatory compliance – Implementing efficiency measures ensures compliance with regulations, reducing the risk of potential sanctions.

Our consulting services for obtaining White Certificates are comprehensive and tailored to the company’s specific needs, helping achieve both energy savings and maximize the financial benefits of certification.

Our consulting services offer comprehensive support in designing energy-efficient heating, cooling, and ventilation (HVAC) systems that are optimized both for energy efficiency and the specific operational needs of your company. Through our solutions, businesses can reduce energy consumption, lower operational costs, and simultaneously improve user comfort and indoor environmental quality.

1. Energy Needs Analysis and Business Specifics
We begin by conducting an in-depth analysis of the company’s energy profile and operational specifics. By evaluating existing HVAC systems, building structure, working conditions, and heating, cooling, and ventilation needs, we gain a precise understanding of the company’s energy requirements. This analysis also includes assessing the impact of specific technological processes, such as temperature and humidity needs, which may vary by industry.

2. Designing HVAC Systems Tailored to Building and Process Requirements

Based on gathered information, we design HVAC systems suited to the actual needs of the company, ensuring optimal performance and minimizing energy losses. Each design is created with the building and its occupants in mind, considering:

• Zones with varying temperature and ventilation demands, enabling efficient climate control in different building areas,
• Technological processes requiring specific environmental conditions,
• The ability to adapt HVAC systems to fluctuating energy needs, such as seasonal changes or working hours.

3. Selection of Energy-Efficient Equipment and Technologies

We assist in choosing high-efficiency, low-operating-cost technologies and equipment, including:

• Modern heat pumps to replace traditional fossil fuel-based heating systems,
• High-efficiency condensing boilers, ventilation units with heat recovery, and other systems to reclaim heat from exhaust air,
• Cooling systems utilizing technologies like absorption cooling, which improve energy use in the cooling process.

4. Utilization of Renewable Energy Sources (RES)
When designing energy-efficient HVAC systems, we recommend solutions based on renewable energy sources. The installation of heat pumps, solar systems, or geothermal systems powers heating and cooling with renewable energy, reducing electricity consumption and greenhouse gas emissions. We prepare cost-benefit analyses to help companies evaluate the return on investment of such solutions.

5. Automation and Smart HVAC Control Systems

Modern automation systems enable precise indoor climate control in a dynamic way. We offer guidance in implementing smart control systems that automatically adjust HVAC parameters to changing conditions. Examples include:

• Sensors for temperature, humidity, and occupancy to automatically adjust system performance based on current needs,
• Lighting management systems that work with HVAC systems to reduce thermal load in rooms,
• Integrating HVAC systems with building management software (BMS) to monitor energy use in real-time and respond quickly to undesired changes.

6. Energy Recovery Systems from Technological Processes

In facilities with high waste heat or other heat-generating processes, we help design energy recovery systems, including:

• Heat recovery systems for reusing energy in heating or water heating,
• Recovering heat from production or cooling processes for use in other facility areas,
• Optimizing airflow and water distribution to minimize energy losses during distribution and storage

7. Implementation of Energy Efficiency Standards
We provide advice on implementing energy efficiency standards that help the company meet regulatory requirements and increase competitiveness. Our support includes preparing documentation and guidelines for HVAC installation, operation, and maintenance to ensure long-term efficiency.

8. Cost and Savings Analysis

We prepare detailed analyses of investment costs and projected savings, enabling the company to make informed decisions based on real financial data. Our analyses cover:

• Estimating the return on investment period,
• Comparing operating costs of various technological solutions,
• Identifying potential energy cost savings over the next few years.

9. Support for Funding and Energy Incentives
We also advise on obtaining financing and incentives for energy efficiency investments, assisting in applying for grants, subsidies, and tax credits that can reduce investment costs and speed up payback time. Partnering with financial institutions and environmental funds, we help clients find the most beneficial financial solutions.

10. Monitoring and Post-Implementation Optimization
Following the design and installation process, we provide ongoing support for monitoring HVAC system performance. We analyze energy use and introduce further optimizations if necessary. Real-time monitoring allows us to continually adjust system parameters, ensuring maximum efficiency and lasting savings.

Benefits of Designing Energy-Efficient HVAC Systems

By designing and implementing energy-efficient heating, cooling, and ventilation systems, companies can achieve numerous benefits, including:

• Significant operational cost reductions through decreased energy use,
• Improved indoor environmental conditions, enhancing work comfort and productivity,
• Environmental protection through reduced CO₂ emissions and other pollutants,
• Accelerated return on investment through access to incentives, grants, and energy cost savings.

Our consulting in designing energy-efficient HVAC systems offers comprehensive support that helps companies improve energy efficiency, enhance work comfort, and meet the growing demands of sustainable development.

A long-term energy efficiency strategy is a key element of sustainable resource management within an enterprise. Based on collected data, analyses, and recommendations, we develop a four-year action plan aimed at optimizing energy use, reducing operational costs, and supporting sustainable development initiatives. This plan is tailored to the specific needs and characteristics of the company, incorporating both short- and long-term goals related to energy efficiency.

1. Defining Key Strategic Objectives

The long-term strategy begins with setting core objectives that guide the journey towards energy optimization. These goals include:

• Reducing total energy consumption by a specified percentage within four years,
• Cutting energy costs by reducing expenses on electricity, heating, and other energy sources,
• Lowering greenhouse gas emissions in compliance with environmental and ESG standards,
• Implementing and regularly monitoring energy efficiency indicators (KPIs).

2. Prioritizing Areas for Modernization
Based on prior analyses, we identify areas with the highest potential for savings, prioritizing modernization efforts. We focus on energy-intensive equipment, technological processes, and energy distribution systems. Prioritization considers financial investment levels and anticipated return on investment, enabling the company to gradually implement actions with minimal operational disruptions.

3. Phased Implementation of Optimization Actions

The action plan is divided into phases, encompassing short-term (1 year), medium-term (2–3 years), and long-term (4 years) solutions:

• Short-term actions: Quick improvements yielding immediate savings, such as LED lighting upgrades, HVAC system optimization, thermal insulation enhancement, and cycle optimization for selected equipment.
• Medium-term actions: Targeting key energy installations, including new pumps, more efficient heating, cooling, and ventilation systems. This stage also involves automation and digitalization to facilitate real-time monitoring and energy management.
• Long-term actions: Major technological changes, such as production system upgrades, installation of renewable energy sources (RES), and implementation of advanced energy management systems (EMS).

4. Implementing Monitoring and Reporting Systems
An effective strategy requires ongoing energy usage monitoring and progress tracking. Implementing monitoring systems enables real-time energy consumption tracking, trend analysis, and prompt responses to deviations from established targets. Solutions include SCADA, IoT systems, and EMS software that automatically collect and analyze energy usage data.

5. Savings Analysis and Performance Reporting

Each year, we analyze the outcomes of implemented actions and update the plan based on the results. Sample metrics include:

• Percentage reduction in energy consumption compared to the baseline year,
• Actual reduction in energy costs,
• Decrease in CO₂ emissions and other greenhouse gases.
  Regular performance reporting allows for progress evaluation and strategy adjustment to meet new challenges and changing business needs.

6. Operational Cost Optimization and Resource Allocation
The long-term energy strategy also includes operational cost optimization and efficient budget management. Based on anticipated savings, we develop a resource allocation plan for subsequent action phases. As the strategy progresses, the company gains greater financial flexibility, allowing for more advanced technological solutions and increased investment in energy efficiency improvements.

7. Employee Education and Engagement
The strategy includes training and educational programs for employees to raise awareness of energy efficiency and encourage active participation in savings initiatives. Introducing motivational programs, such as competitions for the best energy-saving ideas, can yield positive results and enhance employee engagement.

8. Strategy Evaluation and Update
At the end of the four-year period, we conduct a comprehensive evaluation of the strategy’s results, analyzing achieved savings, completed goals, and implemented changes. Based on this information, we prepare an updated strategy for the coming years to continue driving energy efficiency and sustainable development.

Benefits of Implementing a Long-Term Energy Efficiency Strategy

The four-year strategy offers numerous benefits for the enterprise, including financial performance improvements, operational efficiency, and a positive environmental impact:

• Reduced energy costs: The company can achieve sustainable savings on energy purchase and consumption costs.
• Increased infrastructure reliability: Regular upgrades and optimizations reduce the risk of breakdowns, enhancing production availability and minimizing downtimes.
• Enhanced competitiveness: Companies that consistently optimize energy processes gain a competitive edge and improve their reputation as environmentally responsible organizations.
• Reduced CO₂ emissions and environmental protection: Strategy implementation contributes to a smaller carbon footprint, helping meet regulatory requirements and environmental commitments.

This strategy enables the enterprise to progressively increase energy efficiency, foster a culture of sustainability, and pursue long-term savings while protecting the natural environment and strengthening brand value and competitiveness.

Precise energy measurements of installations are a key stage in evaluating the effectiveness of a company’s infrastructure. Through detailed assessments of air and water flows, thermographic analyses, and measurements of energy carrier consumption, we gain accurate information on actual energy demand and potential savings. This process eliminates energy waste and enhances energy efficiency by aligning modernization efforts precisely with the company’s needs.

1. Measurement of Air and Water Flows

We perform precise measurements of air and water flows in HVAC systems, heating networks, cooling networks, and other installations impacting energy use. These studies enable:

• Optimization of Fan and Pump Operation – By utilizing precise data, we can adjust equipment parameters to minimize energy losses caused by excessive flow or inefficient distribution of thermal or cooling energy.
• Detection of Leaks – Flow measurement quickly identifies any potential leaks that lead to energy loss. Eliminating these losses helps reduce operational costs and improve overall system efficiency.

2. Thermography – Precise Analysis of Heat Loss

Using thermal imaging cameras, we perform thermographic studies of building infrastructure and equipment. Thermal imaging allows us to identify areas with increased heat loss, enabling:

• Assessment of Thermal Insulation – Thermographic analysis reveals areas of significant heat loss due to insufficient or damaged insulation, allowing us to recommend specific actions to improve insulation and reduce heating demand.
• Identification of Overheated Components – Thermographic examinations of equipment help identify areas of dangerous overheating, potentially leading to energy losses or increased failure risk. This allows for timely maintenance or modernization to improve performance.

3. Electricity and Heat Energy Consumption Measurements

We conduct detailed measurements of electricity and heat consumption at both the individual device and system levels. Based on this, we identify the most energy-intensive components of the infrastructure and determine actual energy needs, which enables:

• Adjustment of Equipment Operating Parameters – Analysis allows us to align equipment parameters with real energy use, reducing waste and lowering operational costs.
• Optimization of Operating Cycles – By analyzing real-time energy use, we can propose optimized operating cycles for equipment, leading to better utilization of energy resources and avoidance of idle operation.

4. Measurement of Energy Carrier Flows

Besides air and water, we also measure flows of energy carriers like steam, gas, and other media used in the company. Examining their use enables:

• Efficient Management of Energy Carriers – We can precisely determine the consumption of each energy carrier, identifying areas where optimization or substitution with more efficient or economical carriers is possible.
• Reduction of Transmission Losses – Analysis of energy carrier flows reveals potential transmission losses from leaks or poor quality in pipes and valves, allowing us to recommend specific actions to prevent further losses.

5. Analysis of Thermal and Humidity Parameters

In industries with specific thermal and humidity requirements, such as food or pharmaceutical sectors, we monitor thermal and humidity parameters to:

• Reduce Energy Use for Stable Conditions – Measuring and analyzing these parameters enables optimized settings in HVAC systems and cooling installations.
• Improve Production Quality – Maintaining appropriate thermal and humidity conditions improves production quality, which can reduce material losses and energy use.

6. Real-Time Energy Consumption Monitoring

We offer implementation of energy monitoring systems that enable ongoing tracking and analysis of equipment and infrastructure performance parameters, allowing the company to:

• Quickly Respond to Energy Consumption Anomalies – In cases of sudden energy spikes, the system immediately alerts, enabling swift intervention to minimize losses.
• Better Energy Demand Management – Analyzing monitoring data allows for adjusting production and equipment operation to the changing energy demand, thereby reducing costs.

7. Reporting Results and Recommendations

After completing measurements, we prepare a detailed report presenting:

• Measurement Results in Key Areas (air and water flows, thermography, energy carrier consumption),
• Analysis of Potential Savings and Possible Optimizations,
• Recommendations for Modernization and Improvements to Achieve Energy and Financial Savings.

 

Benefits of Conducting Precise Energy Measurements

Through accurate energy measurements, companies gain a complete picture of energy use across various operational areas, enabling:

• Significant Reduction in Energy Costs by eliminating waste,
• Improved Performance and Reliability of Equipment through precise parameter adjustments,
• Enhanced Working Conditions and Better Production Quality by controlling thermal and humidity parameters,
• Reduction of Greenhouse Gas Emissions through efficient energy carrier management.

Precise energy measurements are the foundation of conscious and responsible energy management within an enterprise. With our service, a company can not only achieve significant financial savings but also enhance its energy efficiency, aligning with modern ecological standards and sustainable development requirements.

Evaluating energy efficiency potential is a critical element of energy management within an organization. Our team of specialists conducts in-depth analyses and utilizes technical expertise to identify areas where measurable energy and financial benefits can be achieved. This process highlights potential savings and suggests specific optimization measures that contribute to reducing energy costs and increasing operational efficiency.

1. Energy Intensity Analysis and Benchmarking
We begin by analyzing the company’s energy intensity indicators, comparing them with industry data and best practices in the sector. This allows us to precisely determine how the company’s energy consumption compares with similar enterprises, establishing realistic improvement goals for energy efficiency.

2. Identification of Energy-Intensive Processes and Equipment
We assess processes and equipment with the highest energy demand, focusing on those that incur the greatest costs and offer the most optimization potential. This approach helps us pinpoint inefficient devices or technologies, such as outdated boilers, energy-draining compressors, or old lighting systems.

3. Proposals for Technical and Modernization Actions

Based on the identified areas for improvement, we present specific modernization recommendations, which include:

• Equipment modernization: We recommend replacing outdated devices with more energy-efficient models, such as installing modern heat pumps, upgrading to LED lighting, or implementing more efficient HVAC systems.
• Automation and digitalization: We propose implementing automation systems that enable precise device control and energy use adjustment according to fluctuating demand. This includes intelligent energy management systems (EMS) and online monitoring solutions.

4. Optimization of Technological Processes

In evaluating process efficiency, we suggest specific enhancements, such as:

• Adjusting production parameters: Optimizing machine settings (e.g., temperature, pressure) to maximize energy efficiency.
• Work scheduling: Developing schedules based on actual demand, avoiding idle periods or standby operation.
• Energy recirculation: In some processes, energy recirculation is possible, such as reclaiming heat from production and utilizing it elsewhere in the facility, reducing the need for new energy sources.

5. Internal Transport and Logistics Efficiency
We analyze the internal transport and logistics organization for energy efficiency. Optimizing transport routes, reducing unnecessary trips, and employing more energy-efficient transport methods are actions that can significantly reduce energy use in this area.

6. Use of Renewable Energy Sources (RES)
We recommend implementing renewable energy sources, such as solar panels, wind turbines, or heat pumps, where economically feasible. Using RES helps the company not only to reduce energy costs but also to lower its carbon footprint.

7. Real-Time Energy Consumption Management
A key aspect of optimization is real-time energy monitoring, enabling the quick identification of irregularities or sudden increases in energy use. By utilizing IoT tools and data analytics, it is possible to monitor the operation of equipment and infrastructure in real time, enabling rapid responses to changes and avoiding unnecessary waste.

8. Training and Employee Awareness
Often, small adjustments in daily employee actions can yield substantial savings. We offer training in energy efficiency, where employees learn best practices and ways to minimize energy consumption in daily work. Increased awareness in this area leads to higher employee engagement and positively impacts the organization’s overall results.

9. Detailed Report and Recommendations for Management

After completing the energy efficiency improvement assessment, we prepare a report covering:

• Detailed analysis results and identified high-potential optimization areas,
• Estimated energy savings and cost reductions from implementing recommended actions,
• Priority guidelines for optimization and modernization activities,
• Implementation plan for recommendations, with both short-term (quick gains) and long-term (strategic energy transformation) actions.

10. Monitoring Progress and Strategy Updates

After implementing recommendations, we regularly monitor progress, analyzing energy use against established efficiency indicators. We continuously adapt the strategy and suggest further actions so the company can maintain ongoing energy optimization and respond to changing market conditions.

 

Our team’s efforts help the company achieve measurable financial benefits, such as lower energy bills, and reduce its environmental impact. Effective energy management and implementing recommended actions allow the company to build a long-term competitive advantage, establishing itself as a leader in sustainability and energy efficiency.

An energy balance is a detailed breakdown of all sources and areas of energy consumption within a company. Based on this, we identify key energy intensity indicators, pinpoint high-energy-demand areas and processes, and estimate optimization potential. It is a fundamental step in improving the energy efficiency of a company, providing a comprehensive view of energy usage across the facility and uncovering savings opportunities.

1. Data Collection and Energy Analysis
In developing an energy balance, we gather detailed data on energy consumption within the company. This data includes information on electricity, heating, cooling, fuel consumption, and other energy carriers used in each production process, equipment, and building. Additional energy consumption measurements are conducted to ensure a complete view and precise energy intensity indicators.

2. Structuring the Energy Balance

We create a structure for the energy balance, which encompasses all energy sources and areas of usage. This balance is divided into primary sectors, such as:

• Production and distribution of electricity,
• Energy consumption in production processes,
• Energy usage by HVAC systems (Heating, Ventilation, Air Conditioning),
• Energy losses resulting from distribution and storage,
• Energy usage in internal transport and auxiliary equipment.

This structure allows for precise determination of energy intensity across various areas of company operations.

3. Identification of Key Energy Intensity Indicators

Based on the collected data and conducted measurements, we determine key energy intensity indicators for each process and device. These include:

• Energy consumption per unit of production,
• Energy loss in distribution and storage processes,
• Efficiency of heating, cooling, and ventilation systems.

These energy intensity indicators allow us to compare the energy efficiency of different processes and equipment, identifying the most energy-intensive ones and prioritizing areas for optimization.

4. Analysis of Energy Cost Structure
The energy balance also enables an analysis of the structure of energy costs. We examine which processes and equipment generate the highest energy costs, allowing the company to accurately assess where energy expenditures are greatest and where savings can be realized. We identify areas that can lead to significant operational cost reductions through changes in energy management.

5. Assessment of Potential Energy Losses
The energy balance also includes identifying potential energy loss areas—in production processes and during transmission and storage. Losses may stem from leaking distribution systems, outdated equipment, a lack of automation, or inefficient machine operation. By determining the size of these losses, we can propose specific corrective measures aimed at eliminating or minimizing these losses.

6. Identification of Areas for Optimization and Modernization
Based on the energy balance analysis, we identify areas with the greatest potential for energy efficiency improvement. These may include processes that require equipment modernization, energy optimization for HVAC systems, or the introduction of lighting and control systems management. We conduct a cost-benefit analysis of the proposed changes, highlighting actions that will yield the highest savings.

7. Planning of Optimization Activities

Based on the energy balance, we prepare an optimization action plan that includes both short- and long-term solutions. We develop a timeline of actions that includes:

• Modernization or replacement of equipment,
• Installation of automated energy monitoring and management systems,
• Implementation of energy-saving operational procedures.

This timeline is tailored to the specific needs and capabilities of the company, ensuring that implementing changes is as seamless as possible while delivering maximum benefits.

8. Reporting and Monitoring Progress Indicators

After developing the energy balance and implementing optimization actions, we create a report containing key indicators to monitor progress. Example indicators include:

• Reduction in energy consumption per production unit,
• Lower energy-related costs,
• Reduction of energy losses in transmission.

Regular monitoring of these indicators allows the company to track the effectiveness of the implemented changes and take further steps toward improved energy efficiency.

Benefits of Developing an Energy Balance

Creating an energy balance provides the company with not only precise information about its energy consumption but also strategic insights for future actions. With an energy balance, the company gains:

• Significant operational cost reduction,
• Enhanced efficiency and competitiveness,
• Improved equipment performance and extended lifespan,
• Reduced greenhouse gas emissions, supporting sustainable development,
• Compliance with legal requirements and regulations.

An energy balance is a tool that empowers companies to manage energy consumption more consciously and sustainably. Its development enables data-based decision-making, supporting the company’s long-term growth and environmental commitments.

We conduct a thorough assessment of the energy-consuming equipment and facilities, focusing on electrical, heating, cooling energy sources, distribution networks for energy and water, as well as technological processes and internal transportation. This service allows us to identify areas with the highest potential for energy and cost optimization.

1. Electric Power Sources – We analyze power sources, covering both local installations and network connections. This includes evaluating efficiency, level of wear, and potential energy losses from outdated equipment or non-optimal settings. When prioritizing modernization needs, we focus on identifying alternative energy sources such as photovoltaic systems or Combined Heat and Power (CHP) generators that can yield savings and improve energy efficiency.

2. Thermal and Cooling Energy Sources – We assess the status of heating, cooling, and ventilation systems, with particular attention to HVAC (Heating, Ventilation, and Air Conditioning) installations. We provide a detailed analysis of the efficiency and energy consumption levels of boilers, furnaces, heat pumps, coolers, and air conditioning systems. This assessment reveals opportunities to improve efficiency, such as by installing more modern, energy-efficient systems or implementing automation and thermal energy management.

3. Energy and Water Distribution Networks – We examine the networks responsible for distributing heat, cooling, and electricity within the company’s infrastructure. Our assessment includes verifying that the existing installations, such as pipelines, distribution channels, and transmission lines, are free from leaks and energy losses. Additionally, we evaluate monitoring and flow control systems, suggesting solutions to reduce transmission losses and optimize distribution based on the company’s actual needs.

4. Technological Processes – We analyze all technological processes within the company for energy efficiency, including production equipment, machinery, and installations supporting production. By determining energy consumption indicators for each production stage, we can identify the most energy-intensive processes. Based on this analysis, we develop recommendations for technological improvements, such as equipment modernization, process automation, or the adoption of energy-efficient production technologies.

5. Internal Transportation – Our assessment also covers the efficiency of internal transportation, which includes moving materials, semi-finished products, and goods within the facility. We evaluate the management of transport equipment, such as forklifts, conveyor lines, loading systems, and more. This involves exploring options to reduce fuel or electricity consumption, which can result from implementing more efficient operational schedules for transport devices, using energy-saving drives, or automating selected logistics processes.

6. Monitoring and Automation of Energy Infrastructure Management – Our analysis includes evaluating energy monitoring and automated management systems within the facility. Leveraging the latest IoT (Internet of Things) technologies and SCADA-class software, we can monitor equipment operation in real-time and pinpoint areas where energy losses occur. Automation solutions optimize energy consumption by automatically adjusting equipment operation parameters to changing energy demands.

7. Identification of Alternative Energy Sources – As part of our analysis, we also explore the potential for introducing renewable energy sources, such as photovoltaic panels, heat pumps, or wind turbines. We conduct feasibility studies and assess potential savings associated with implementing alternative energy sources, which can reduce operational costs and lower the company’s carbon footprint.

8. Modernization and Infrastucture Optimization Recomendation – Based on a comprehensive infrastructure analysis, we prepare a report containing detailed recommendations on modernizing or replacing equipment, optimizing processes, and implementing automation and digitalization in energy infrastructure.

Conducting an energy infrastructure analysis provides companies with a complete picture of the condition of their installations and the potential for reducing energy consumption. Thanks to our expertise, companies can make informed decisions on infrastructure modernization, achieving both financial savings and improvements in energy efficiency and environmental sustainability.