Electrum announces the #ClimateTech YoungTalents contest

#ClimateTech YoungTalents Electrum, a leading renewable energy company in Poland, invites high school students from the Podlaskie Voivodeship to participate in the #ClimateTech YoungTalents contest. The aim of the competition is to promote creativity and innovation in the field of green energy. We want to encourage young people to take active steps towards preventing climate change and improving the state of the environment in their region.

What is the #ClimateTech YoungTalents contest about?

The competition involves preparing and submitting a contest entry that presents an idea for using renewable energy technology. To address a problem related to climate change or the state of the environment in the participant’s surroundings. This problem should be significant from the perspective of the local community, and the solution should be realistic, practical, and effective. The contest entry can be in written, graphic, or multimedia form.

Who can participate in the contest?

The #ClimateTech YoungTalents competition is open to students in the final two grades of high school in the Podlaskie Voivodeship. Participants can enter individually or in teams of up to three people.

How to enter the contest?

To enter the contest, you must:

  • Fill out the registration form available on the project’s website: YoungTalents – Electrum Holding
  • Prepare the contest entry according to the rules and guidelines available on the project’s website
  • Send the contest entry to the email address: climatetech@electrum.pl by April 2, 2024

What are the prizes in the competition?

From the submitted entries, the contest committee, consisting of experts from Electrum and the substantive partner, the Association of Science Advocates, will select the top three, whose authors will receive the following prizes: a paid internship at Electrum and modern e-book readers. The winners of the competition will be announced on the project’s website and on Electrum’s social media profiles.

Why participate in the contest?

Participating in the contest not only offers the chance to win attractive prizes but also:

  • Develop your interests and passions related to renewable energy and environmental protection
  • Establish connections with experts and mentors from Electrum and the Association of Science Advocates who will assist in preparing the contest entry
  • Gain professional experience and practical knowledge through a paid internship at Electrum, a leader in the renewable energy industry in Poland
  • Showcase your talent and creativity to a wide audience and the media
  • Do something good for your local community and the natural environment

Where to find more information about the #ClimateTech YoungTalents contest?

If you want to learn more about the competition, we invite you to visit the project’s website: YoungTalents – Electrum Holding. There you will find all the necessary information, rules, registration form, and schedule of consultations with mentors. You can also follow our social media profiles on Facebook and Instagram. We will post updates and interesting facts related to the competition. If you have any questions or concerns, please contact us at the email address: climatetech@electrum.pl.

Let’s start a new chapter together, inspiring youth to take action for green energy!

Contest #ClimateTech YoungTalents

#ClimateTech YoungTalents We are organizing a contest called “#ClimateTech Young Talents.” One of Electrum’s missions is to promote and support education on renewable energy sources. Through initiatives like internship programs, we can also engage young talents who consider the fate of the planet as important as we do.

#ClimateTech Young Talents is aimed at high school students who wish to actively contribute to combating climate change in their region. Through a creative approach, participants will have the opportunity to present their visions for utilizing renewable energy to protect the environment. The prize for the authors of the most inspiring projects is a paid internship at Electrum and modern e-book readers.

The contest involves proposing innovative solutions to significant problems in the local community, utilizing energy from renewable sources such as solar, wind, or water energy. Participants can enter individually or in teams of up to three people. In preparing their projects, they will be supported by experts from Electrum and the Association of Science Advocates, the substantive partner of the initiative.

To facilitate the preparation of competition entries, we have prepared a form along with details about the task and a schedule for consultations with mentors, available on the project’s website.

Let’s start a new chapter together, inspiring youth to take action for green energy!

Read also:

Climate Education: Why It Is Important?

Climate-Tech: Revolutionising Climate Technology

 

New technologies in solar power maintenance: What’s next?

solar panels and wind turbinesOne of the biggest challenges associated with photovoltaics is ensuring reliable and efficient solar power maintenance, which occupy large areas and consist of many components. To maintain high efficiency and performance of solar panels, regular monitoring, PV panel maintenance, and repair of installations are necessary.

For this purpose, increasingly advanced technologies are being used, allowing for quick and accurate diagnosis of the technical condition of the solar farm, as well as automation and optimization of servicing processes. In this article, we will present several examples of new technologies that are being used or will be used in the near future in the solar power maintenance.

New technologies in solar power maintenance: Drones and artificial intelligence 

Drones are unmanned aerial vehicles that can be remotely controlled or operate autonomously. Drones are increasingly being used in various sectors of the economy, including renewable energy. In the servicing of photovoltaic farms, drones can serve many functions, such as: 

  • Visual inspection of PV panels, which allows for the detection of damage, dirt, shading, or other anomalies that may affect the performance of the installation. Drones can perform inspections faster and more accurately than humans and can reach hard-to-access areas. 
  • Thermography, which involves measuring the temperature of PV panels using a thermal camera. Thermography allows for the identification of hot spots, which may indicate damage or degradation of photovoltaic cells. Thermography can also be used to assess the quality of electrical connections and inverters. 
  • Photogrammetry, a measurement technique involving the creation of three-dimensional models of objects based on photos taken from different angles. Photogrammetry can be used to create maps and plans of photovoltaic farms, as well as to measure the surface area and tilt angle of PV panels. 

Discover our service: solar power maintenance

Drones can also be equipped with artificial intelligence, which allows for the analysis and processing of data collected by drones. Artificial intelligence can be used to: 

  • Classify and locate damage to PV panels based on visual and thermographic images. Artificial intelligence can use machine learning and deep learning techniques to learn to recognize different types of damage and their locations on PV panels. 
  • Generate service reports and recommendations based on data collected by drones. Artificial intelligence can summarize inspection results, indicate priorities and repair costs, and suggest optimal solutions and service schedules.  

Read also: SCADA: The Heart of Modern Solar and Wind Farm Monitoring (electrum.pl)

Robots and the Internet of Things 

Robots are machines capable of performing physical tasks autonomously or under remote control. Robots are also increasingly being used in the servicing of photovoltaic farms, where they can serve many functions, such as: 

  • new technologies in solar power maintenanceCleaning PV panels, which involves removing dust, sand, snow, leaves, or other contaminants that may reduce the efficiency and lifespan of PV panels. Robots can perform cleaning regularly and automatically, and can also adapt to weather and terrain conditions. 
  • Repairing PV panels, which involves replacing or repairing damaged photovoltaic cells, modules, cables, or other installation components. Robots can perform repairs quickly and precisely, and can also minimize the risk of damaging other parts of the installation. 
  • Installing PV panels, which involves installing new PV panels or expanding an existing photovoltaic farm. Robots can perform installation efficiently and safely, and can also ensure proper connection and alignment of PV panels. 

Robots can also be connected to the Internet of Things, which is a network of devices and sensors capable of communication and data exchange. The Internet of Things can be used to: 

  • Monitor the operation and condition of PV panels, inverters, batteries, and other photovoltaic farm components. The Internet of Things can collect and transmit data on voltage, current, power, temperature, humidity, sunlight, and other operating parameters and environmental conditions of the installation. 
  • Control and optimize the operation of the photovoltaic farm. The Internet of Things can regulate and adjust the operation of PV panels, inverters, batteries, and other photovoltaic farm components to ensure maximum performance and reliability of the installation. The Internet of Things can also collaborate with the power grid and other energy sources to ensure the stability and flexibility of the energy system.  

New technologies in solar power maintenance – Summary 

New technologies in solar power maintenance are not only an interesting topic but also a necessity in the face of growing demand for renewable energy. Drones, artificial intelligence, robots, and the Internet of Things are just some examples of technologies that are being used or will be used in the near future in the servicing of photovoltaic farms. These technologies aim to improve the quality, efficiency, and reliability of photovoltaic farm servicing, thereby increasing the economic and environmental benefits of photovoltaics. 

Climate Education: Why It Is Important?

What is Climate Education?

Climate education is the process of developing knowledge, skills, and attitudes related to climate protection and adaptation to climate change. It is essential to understand the causes and effects of global warming and to take responsible and effective actions towards sustainable development. In this article, you will learn why climate education is important in the world of renewable energy sources (RES) and how to implement it in practice.

A light bulb symbolizing knowledge in the field of renewable energy sources Why is climate education important?

Climate change is one of the greatest challenges humanity faces in the 21st century. According to the 2021 IPCC report, human activity is the main cause of the rise in global temperature, which has already exceeded 1°C above pre-industrial levels.

One of the key solutions to mitigating climate change is the transition to renewable energy sources. RES are sources that do not deplete or pollute the environment, such as solar, wind, hydro, geothermal, and biomass energy.

Advantages of renewable energy sources

Renewable energy sources have many advantages, such as:

  • Reduction in greenhouse gas emissions and other air, water, and soil pollutants
  • Conservation of natural resources like oil, coal, and gas, which are limited and expensive
  • Improvement in energy security by diversifying sources and reducing dependency on imports
  • Creation of jobs and local development in the RES sector
  • Lower energy costs in the long term due to decreasing prices of RES technologies

How does climate education help?

To fully leverage the potential of RES, climate education is necessary to:

  • Raise awareness about the threats associated with climate change and the benefits of RES
  • Shape pro-environmental and pro-social attitudes, such as responsibility, solidarity, cooperation, and innovation
  • Develop skills needed for planning, implementing, and managing RES projects, such as analysis, critical thinking, communication, and creativity
  • Inspire action for climate protection and the promotion of RES in various areas of life

How to implement climate education?

Climate education should be implemented at all levels and stages of education, from preschool to higher education, as well as in non-formal and continuing education. It should be based on current and reliable scientific knowledge, tailored to the needs and capabilities of the audience, and engaging and practical. Here are some examples of how climate education can be implemented in different contexts:

Climate education in primary and preschool education

At early education stages, basic concepts and phenomena related to climate and RES can be introduced, for example, through weather observation, experiments, games, stories, songs, or drawings. Field trips to RES-related places, such as wind farms, photovoltaic farms, or biogas plants, can also be organized. It is important to develop a child’s curiosity and interest in the natural world and to foster attitudes of respect and care for the environment.

climate education Climate education in middle and high schools

At this stage, it is valuable to deepen knowledge and understanding of climate change principles and mechanisms and RES, for example, through lessons, presentations, discussions, films, articles, or quizzes. Skills related to RES can also be developed through workshops, projects, simulations, competitions, or research. Encouraging students to think critically and evaluate information is crucial.

Climate education in higher education

In higher education, students can specialize in fields related to RES, for example, by choosing a specific major, course, thesis topic, or internship. Expanding horizons and exchanging experiences with other students and experts from home and abroad is also possible. Developing professional and personal competencies and building a network of contacts and collaborations in the RES sector is important.

In non-formal and continuing education

Knowledge and skills related to RES can be updated and expanded through courses, training, webinars, podcasts, blogs, or e-learning. Engaging in climate protection activities and promoting RES in various areas of life is also encouraged. Staying up-to-date with trends and challenges in the RES world and being a conscious and responsible citizen is essential.

Summary

Climate education is important because it helps understand and address the issue of climate change and leverage the potential of RES. Climate education should be implemented at all levels and stages of education, as well as in non-formal and continuing education.

Electrum and PAD RES will develop another solar project

PAD RES and Electrum Concreo will build a photovoltaic power plant complex with a total capacity of 130.4 MWp. The complex, named PV Stargard, will be located in the West Pomeranian Voivodeship. The agreement, signed by both companies in recent weeks, also includes the creation of an energy distribution system consisting of 63 km of MV and HV cable lines.

Farma fotowoltaiczna Electrum Concreo, a company operating within the Electrum group with a climate tech profile, has previously collaborated with PAD RES as a general contractor on several projects. It has previously completed the construction of the 35 MW Genowefa photovoltaic farm, located in central Poland, and is currently constructing two solar facilities with a total capacity of 117 MW in Sztum and Mikołajki.

The PV Stargard complex is another significant initiative within the portfolio of renewable energy projects in the PAD RES group, emphasizing our commitment to the development of green energy and active involvement in the energy transformation process,” evaluates Wojciech Jasiński, Director of Construction Department at PAD RES. “It is no coincidence that we invited Electrum to implement this project. This decision was influenced, among other things, by the successful cooperation in the implementation of previous contracts and understanding the complexity of the planned undertaking. We see that we share common goals – we want our projects to contribute to further transforming Poland towards a more sustainable energy future,” explains Wojciech Jasiński.

This is our next investment carried out jointly with PAD RES in Pomerania. Investments in this region are of particular importance to our business,” emphasizes Tomasz Słyż, Director of Implementation Team at Electrum Concreo. “We are pleased that through this implementation, we have the opportunity to work together with our partner towards the development of modern technologies for energy transformation and economic decarbonization,” adds Tomasz Słyż.

The PV Stargard photovoltaic power plants will cover an area of 176 hectares and generate energy equivalent to powering 69,000 households, thereby avoiding emissions of over 118,000 tons of carbon dioxide. The installation is expected to be operational in the first quarter of 2025.

 

About Electrum

Electrum Group is a leading Polish Climate Tech business based in Białystok, offering comprehensive solutions in the field of cutting-edge technology development, project construction, and management in the energy and information sectors. The technological maturity of its experts allows them to deliver products and services that respond to the evolving needs of the industry and businesses in line with the ongoing energy transformation. Electrum creates and implements solutions and builds projects based on the idea of an individual energy mix, striking a balance between the social and environmental responsibility of the business and its economic aspect.

You can find more about the Electrum Group on our social media channels on LinkedInFacebooku and Instagramie.

 

About PAD RES

PAD RES is a Polish developer of clean energy specializing in projects related to renewable energy, infrastructure investments, and commercial real estate. Founded in 2010, the company successfully manages the development of its investments from inception to the “ready for construction” or “ready for operation” stage. In September 2021, the majority of PAD RES shares were acquired by Griffin Capital Partners and Kajima Europe. The group plans to focus on further developing the PAD RES portfolio, which includes investments in photovoltaic and wind projects at various stages of development, both in the developer phase and ready for construction, with a total secured capacity exceeding 1 GW. Such a portfolio places the platform at the forefront of the developing national renewable energy sector.

The Impact of Geographic Conditions on the Design and Construction of PV Farms

pv solar farmWhere does the sun shine brightest?

Have you ever wondered why some regions of the world are dotted with photovoltaic (PV) farms, while others seem to bypass this green revolution? The key lies in geography. Geographic conditions like sunlight exposure, terrain, and local climate significantly impact the efficiency of solar farms. Where the sun generously shares its rays, solar panels thrive.

Climate and panel efficiency

Did you know that both the amount of sunshine and the temperature affect the efficiency of PV panels? High temperatures can decrease the efficiency of photovoltaic modules. Therefore, when designing a solar farm, it’s important to balance sunlight intensity with thermal conditions.

Read more: Photovoltaic Farm Project – What You Need to Know?

Terrain topography and panel placement

The role of terrain shaping cannot be overlooked. Hills, valleys, and even local vegetation can affect the availability of sunlight for panels. When designing a PV farm, analyzing the terrain thoroughly ensures maximum sunlight utilization.

Wind and weather – friends or foes?

Wind and changing weather conditions can impact solar farms. Strong winds challenge panel stability, while sudden weather changes require flexible farm design to protect against storms or hail. It’s essential to have a contingency plan!

summary solar farmSummary – the sun, our green ally

Geographic conditions play a crucial role in the planning, design, and solar farm construction. The ideal location offers optimal sunlight, moderate temperatures, favorable terrain, and stable weather conditions. The sun is our ally in the quest for green energy, but we must skillfully harness its potential, adapting to nature’s whims. Photovoltaic farms represent not just an investment in the future, but also harmonious coexistence with natural forces.

Read also: How to Choose the Best Location for Solar Panels? – Electrum Holding

SCADA: The Heart of Modern Solar and Wind Farm Monitoring

What is SCADA System?

SCADA (Supervisory Control And Data Acquisition) is a computer system used for monitoring and controlling technological or production processes. Its main functions include:

  • scada control systemCollecting real-time data (measurements) from measurement and executive devices such as PLC controllers, I/O modules, sensors, meters, etc.
  • Visualizing data in the form of schematics, charts, tables, alarms, etc.
  • Controlling the process by setting parameters, turning devices on and off, operating the process manually or in emergency mode, etc.
  • Archiving historical data and generating reports.

SCADA is a supervisory system in relation to remote terminal units (RTUs) that collect information about the status of technical devices and transmit it to the central SCADA system. They also accept commands from the central system and act on devices accordingly. SCADA can integrate multiple PLC controllers and support various communication protocols.

Why is SCADA essential for solar and wind farms?

Solar and wind farms are crucial sources of renewable energy that are becoming increasingly popular and profitable. However, to effectively manage and maintain such farms, it is necessary to monitor the areas where they are located and the parameters of the devices. This is precisely what the SCADA system does, providing the following benefits:

Improved safety and reliability

SCADA detects and alerts about any abnormalities such as intrusions, fires, equipment damage, exceeding alarm thresholds, etc. This allows for quick response and prevention of greater damage. Additionally, SCADA documents all events and provides evidence in case of insurance claims or legal investigations.

Optimization of performance and efficiency

SCADA enables remote control of the energy production process by adjusting device parameters to weather conditions and energy demand. This increases the utilization of installed capacity, reduces losses and operating costs, and improves the quality of energy supplied to the grid.

Read also: SCADA System on a Large-Scale PV Farm | Electrum Case Study

Data collection and analysis

SCADA collects and stores data from the energy production process, such as power, voltage, current, temperature, humidity, wind, insolation, etc. This allows for the creation of statistics, charts, trends, forecasts, energy balances, etc. This data can be used to assess the technical condition of devices, plan maintenance, optimize operating parameters, as well as for reporting and energy production accounting.

Read more:

Solar energy monitoring | What You Need to Know?

Wind farm maintenance: Innovations and challenges in operation

How to choose the right SCADA system for a solar or wind farm?

The choice of a SCADA system for a solar or wind farm depends on many factors, such as:

SCADA system and solar power plant monitoringScale and type of the farm

Depending on the number and type of devices to be monitored and controlled, the appropriate number and type of RTUs should be selected, as well as the appropriate communication protocol. Additionally, the distance between devices and the SCADA system, as well as the availability and reliability of communication, should be considered.

Functionality and flexibility of the system

The SCADA system should be able to meet all user requirements and expectations, such as remote device control and configuration, alarm and notification generation, report and summary creation, integration with other systems such as ERP, CRM, GIS, etc. Additionally, the SCADA system should be user-friendly, scalable, and flexible to adapt to changing needs and conditions.

Cost and profitability of the system

The SCADA system is an investment that should pay off within a specified period. Therefore, the costs of purchasing, installing, maintaining, and operating the system should be carefully analyzed and compared with potential benefits.

 

Discover EMACS – a system combining the advantages of SCADA and business analytics systems:

EMACS

SCADA is a computer system that forms the heart of modern solar and wind farm monitoring.

With SCADA, it is possible to collect, visualize, control, and archive data from the energy production process. SCADA ensures improvement in the safety, performance, and efficiency of farms, as well as enables data analysis and reporting. The choice of the right SCADA system for a farm depends on various factors such as the scale and type of farm, the functionality and flexibility of the system, and the cost and profitability of the system.

Read also: SCADA systems in energy source management | Electrum Holding

Energy Meets Informatics: Revolution in Energy Management

Energy and IT: Revolutionizing Power Systems

Energy management and informatics technology are two areas that increasingly intersect and complement each other. In the era of digitization, energy transformation, and growing energy demand, the utilization of modern information technologies is essential. They will help optimize and manage energy systems. In this post, we will present how energy meets informatics and what benefits come from this combination.

What is energy management?

Energy and Informatics Energy management is the process of planning, monitoring, controlling, and optimizing energy consumption and production. This enables increased energy efficiency, cost and emission reduction, and improvement in energy supply reliability and security. It covers both individual (e.g., homes, buildings, vehicles) and collective (e.g., grids, systems, regions, countries) levels.

It is not only an economic issue but also an environmental and social one. Improving energy efficiency contributes to reducing natural resource consumption, decreasing greenhouse gas emissions and pollutants, and enhancing people’s quality of life. Energy management is also a key element of energy transformation, transitioning from fossil fuels to renewable energy sources.

How does information technology assist in energy management?

Information technology is the science of processing, storing, and transmitting information using computer systems. IT offers many tools and solutions that can support energy management at various levels. Some of these include:

  • Smart meters and grids – devices and systems that enable remote reading and control of energy consumption and production, as well as the exchange of information and energy between different entities. Smart meters and grids allow for better matching of energy supply and demand. They increase the flexibility and stability of the energy system and integrate renewable energy sources.
  • Energy management systems (EMS) – software and hardware used for analyzing, monitoring, controlling, and optimizing energy consumption and production. Energy management systems help reduce costs and emissions. They improve energy efficiency and quality, as well as ensuring the reliability and security of energy supplies.
  • Artificial intelligence (AI) – a field of computer science that deals with creating computer systems capable of performing tasks that require human intelligence. Artificial intelligence can support energy management through automation, prediction, optimization, personalization, and adaptation of energy-related processes and decisions.

Read also: AI in Energy Sector: How AI is Transforming the Renewable Energy Industry

What are the benefits of combining energy and information technology?

The combination of energy and information technology can bring many benefits to various stakeholders, such as:

  • Energy Meets Informatics Energy producers and suppliers – by increasing the efficiency and profitability of energy production and distribution, improving the quality and reliability of services, enhancing competitiveness and innovation, facilitating the integration of renewable energy sources, and meeting regulatory and market requirements.
  • Energy consumers and prosumers – by reducing costs and emissions associated with energy consumption, improving comfort and safety.
  • Societies and environments – by contributing to the achievement of sustainable development goals, such as climate change mitigation. It increases energy security and independence, and supports economic and social growth.

Energy meets informatics is a trend that has enormous potential and significance for the future of energy management. 

The use of modern information technologies can help optimize and manage energy systems. They will aid in increasing energy efficiency, reducing costs and emissions, improving the reliability and security of energy supplies. They allow for the integration of renewable energy sources and energy transformation.

Read also: Energy Transformation: A Unique Case Study – Electrum Holding

Life Science Meets Energy: An Innovative Fusion

Life Science Spotyka Energetykę Have you ever wondered how the life science could revolutionize energy? By combining life science with renewable energy sources, innovative solutions emerge that can change our approach to energy production and utilization. 

Biofuels: Evolution of Traditional Energy Sources 

One of the key areas where life science intersects with energy is in biofuels. By utilizing plant biomass or microorganisms, biofuels offer a promising alternative to fossil fuels while being more environmentally friendly. 

Biocatalysts: Optimization of Industrial Processes 

Another example of synergy between life science and energy is biocatalysts, enzymes used in the chemical industry. They enable the production of chemicals in a more efficient and environmentally friendly manner, contributing to the reduction of energy consumption and pollution emissions. 

Life science meets energy – collaboration for a Better Future 

Life science It is important for scientists, engineers, and entrepreneurs to collaborate on further developing this promising synergy between life science and renewable energy sources. Only through joint work and innovation can we create more sustainable and efficient energy solutions that will serve future generations. 

The impending era where life and energy become inseparable partners could bring about a revolution in how we think about energy. With advanced technologies and collaboration across different fields of science, we can strive for a more sustainable future that considers both our needs and the needs of our planet. 

How can innovations in PV panel maintenance revolutionize the renewable energy industry?

Innovations in PV panel maintenance like Robots and Drones.Photovoltaic (PV) panels are one of the most popular and efficient ways to harness solar energy for electricity production. However, to ensure their optimal performance and lifespan, regular and professional maintenance is necessary. In this post, we will present innovations in PV panel maintenance that can increase efficiency, reduce costs, and decrease the risk of photovoltaic system failures. We will also show how these innovations can impact the development of the renewable energy industry and accelerate the energy transition. 

Why is PV panel maintenance important? 

PV panel maintenance involves regular checks of the technical condition, cleaning, and repair of photovoltaic system components. PV panel maintenance is important for several reasons: 

  • Increases energy efficiency. Contaminants such as dust, sand, leaves, snow, or bird droppings can block light access to photovoltaic cells and reduce their efficiency. According to studies, regular cleaning of PV panels can improve their performance by up to 30%. 
  • Extends lifespan. PV panels are exposed to weather factors such as rain, wind, hail, or temperature changes, which can cause mechanical damage, corrosion, cracks, or micro-damage. Regular PV panel maintenance allows for the detection and repair of such issues, which can extend panel lifespan by up to 10 years. 
  • Prevents failures and financial losses. Malfunctioning or damaged PV panels can lead to a decrease in energy production, and even fires or electrical shocks. Regular PV panel maintenance helps prevent such situations, increasing safety and cost savings. 

Read also: PV panel maintenance: The key to extended life and efficiency

What are the innovations in PV panel maintenance? 

Traditional PV panel maintenance requires frequent and time-consuming human involvement to physically inspect, clean, and repair panels. However, thanks to technological advancements, innovations in PV panel maintenance are emerging, which can automate and streamline this process. Here are some of them: 

Innovation in maintenance of pv panels.

PV panel cleaning robots

These are devices that can automatically move across the surface of panels and remove contaminants using brushes, water, air, or other methods. PV panel cleaning robots can operate in various weather conditions without damaging panels or consuming excessive energy. 

PV panel monitoring and diagnostic systems

This is software and hardware that allows for remote tracking and analysis of PV panel operating parameters, such as voltage, current, temperature, power, or efficiency. PV panel monitoring and diagnostic systems can detect and report any anomalies, damages, or performance decreases, enabling quick intervention and repair. 

Learn more about the monitoring system for photovoltaic and wind installations and energy infrastructure:

Solar power monitoring with EMACS

PV panel inspection drones

These are unmanned aerial vehicles that can capture high-quality images and videos of PV panels from various angles and distances. PV panel inspection drones can use special thermal cameras that show temperature distribution on panels and indicate potential damages or underperforming areas. 

How can innovations in PV panel maintenance revolutionize the renewable energy industry? 

Innovations in PV panel maintenance can have a positive impact on the development of the renewable energy industry because they: 

  • innovative solar farmsIncrease the efficiency and profitability of photovoltaic systems. Thanks to innovations in PV panel maintenance, it is possible to ensure their constant and high energy performance, resulting in a greater amount of produced and sold energy. Additionally, innovations in PV panel maintenance can lower the operating and maintenance costs of photovoltaic systems, increasing their profitability and return on investment. 
  • Improve the safety and reliability of photovoltaic systems. They prevent and minimize the risk of failures, fires, electric shocks, or other threats that could endanger people, property, or the environment. Furthermore, thanks to innovations in PV panel maintenance, it is possible to enhance the resilience and durability of photovoltaic systems against weather factors, increasing their reliability and lifespan. 
  • Contribute to environmental protection and climate change mitigation. They can reduce the consumption of water, energy, and other resources needed for traditional PV panel maintenance. Additionally, thanks to innovations in PV panel maintenance, it is possible to increase the share of solar energy in the energy mix, reducing greenhouse gas emissions and pollution. 

Read also: Solar power maintenance: Ensure the Efficiency of Your RES – Electrum Holding

Summary 

PV panel maintenance is a key factor influencing the efficiency, lifespan, and safety of photovoltaic systems. Thanks to technological progress, innovations in PV panel maintenance such as cleaning robots, monitoring and diagnostic systems, or inspection drones are emerging, which can automate and streamline this process. 

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