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VOLTAGE IMBALANCE: CAUSES AND SOLUTIONS

Voltage imbalances between ground and neutral conductors represent a crucial issue in the field of industrial electrical installations. This phenomenon, characterized by the occurrence of unexpected potential differences, can significantly compromise both the integrity of electrical systems and the operational safety of industrial plants.

The most evident manifestation of this condition is the presence of return currents through the ground, a scenario where part of the load current deviates through the protective conductor instead of returning exclusively through the neutral. This not only undermines the fundamental principles governing a safe and efficient electrical design but also opens the door to a series of potential risks.

The severity of this problem lies not only in its potential to generate energy losses and damage expensive equipment but also in the risk it poses to personnel safety and operational continuity. Voltage imbalances between ground and neutral can cause issues ranging from subtle inefficiencies to catastrophic failures, including interference in control and communication systems, accelerated wear of electrical components, and in extreme cases, fire or electrocution hazards.

To better understand how to address this issue, it is crucial to identify its main causes:

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Errors in grounding system design:

Frequently, the importance of a robust equipotential network is underestimated, resulting in systems inadequate for managing electrical loads and mitigating electromagnetic disturbances present in industrial environments.

Irregularities in the construction phase:

Failures in executing unions and connections of protective conductors are particularly critical, as they can introduce high impedance points in the system and compromise its effectiveness.

Deterioration of the system due to lack of preventive maintenance:

Over time, the system’s integrity can be compromised, resulting in gradual increases in impedance at critical points in the grounding circuit, which diminishes its protective capacity.

 

To address these issues, the following solutions are proposed, categorized by the three main causes or stages of the project:

Electrical Installation Design:

a) Implement a mesh grounding system with multiple connection points, reducing the overall impedance of the system.

b) Oversize protection and neutral conductors, anticipating possible increases in future loads.

c) Integrate continuous monitoring systems for leakage currents, allowing early detection of anomalies and parametric deviations.

Electrical Installation Construction:

a) Adopt exothermic welding techniques for all critical connections in the grounding system, ensuring low impedance and high durability joints.

b) Implement a rigorous protocol for verifying the continuity and resistance of connections, thoroughly documenting the results and traceability.

c) Install physical barriers to protect ground conductors from mechanical damage, especially in high-traffic or exposed areas.

 

Electrical Installation Maintenance:

a) Establish a program of periodic measurements of the resistance of the grounding system and equipotential bonds, with frequencies adapted to the specific operating environment.

b) Conduct regular thermographic inspections to detect hot spots in connections, indicative of anomalous resistances or component degradation.

c) Implement a system for recording and tracking ground fault events, enabling long-term trend analysis and proactive identification of problem areas.

The effective management of industrial electrical systems requires a comprehensive and dynamic approach. By systematically addressing the imbalances between ground and neutral, from the initial design to continuous maintenance, not only is operational safety improved, but the overall plant performance is optimized. This proactive strategy translates into greater equipment longevity, a significant reduction in downtime, and an increase in energy efficiency.

As professionals in the sector, our fundamental role is to stay at the forefront of best practices, implementing innovative solutions and adapting to changing technological demands. In doing so, we not only protect the facilities we oversee, but also drive the evolution of the entire industry towards higher standards of excellence and sustainability.

At Voltia, we have a team of Engineering and Technical Operations professionals to assist in the safe management of industrial electrical infrastructure and minimize the impact of this type of situation. For more information, please write to info@voltia.com.co, describing your case, and our expert team will show you the best alternatives for smart and safe management of your electrical infrastructure.

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The Importance of Breakers in Electrical Systems

Coordination of electrical protections is a crucial aspect in the design and operation of industrial plants. Inadequate coordination can lead to dangerous and costly situations. This article explores the 5 most common causes of poor coordination, presents 5 real-life cases, and discusses the 5 most serious consequences.

 

5 Common Causes of Poor Protection Coordination

Lack of Detailed Information:

The absence of comprehensive information about the electrical system hinders the accurate study of protection coordination.

Undocumented Changes:

Modifications in the installation without updating the plans can affect the protection coordination.

Incorrect Device Selection:

Choosing the wrong protection devices can lead to poor coordination.

Relay Programming Failures:

Incorrect configurations of protection relays can cause inadequate coordination.

Lack of Testing and Adjustments:

Failing to conduct regular testing and adjustments on protection devices can lead to their malfunction.

These factors can lead to risk situations and unplanned shutdowns in plant operations. Therefore, it is crucial to ensure proper coordination of protections in industrial systems.

5 real-life cases demonstrating poor protection coordination

Design:

Petrochemical Plant. In a refinery, the protection system was designed without considering actual short-circuit currents. This resulted in the failure of a main transformer during a fault event, causing a widespread blackout.

Repair:

Textile Factory. After repairing a main breaker, it was not properly calibrated. During an overload event, the breaker did not trip, causing extensive damage to downstream machinery.

Construction:

Data Center. During construction, lower-capacity breakers were mistakenly installed in a critical circuit. This led to frequent trips and data loss when the load reached normal operating levels.

Plant Expansion:

Automotive Factory. During an expansion, the short-circuit study was not updated. The new protections installed were not adequate for the actual fault currents, resulting in the destruction of a distribution panel during a short circuit.

Food Processing Plant:

When modernizing control systems, electromagnetic compatibility with existing protections was not considered. This caused untimely trips and production losses.

These cases illustrate the importance of proper protection coordination to avoid serious consequences in terms of safety, operational continuity, and economic impact.

5 Serious Consequences of Having Inadequate Protection Coordination at the Industrial Level

Damage to Equipment and Machinery:

Poor protection coordination can lead to serious damage to equipment and machinery, resulting in costly repairs or replacements. This can cause significant disruptions in production and substantial economic losses.

 

Fires:

Lack of protection coordination increases the risk of fires in industrial facilities. An undetected short circuit or overload can trigger a fire, causing property damage, loss of products, and most importantly, endangering the lives of workers.

Production Disruption:

When an electrical system failure occurs due to inadequate protection coordination, production can come to a complete halt. This interruption can have a significant impact on productivity, delivery schedules, and the company’s reputation.

Risk to Worker Safety:

The lack of adequate protection coordination can jeopardize worker safety. Uncontrolled electrical failures can lead to dangerous situations such as fires, explosions, or electric shocks, resulting in serious injuries or even loss of life.

 

Legal and Reputational Costs:

In serious cases, inadequate protection coordination can result in legal claims from injured workers or damages to third parties. Additionally, it can damage the company’s reputation and affect its relationships with customers, suppliers, and regulatory authorities.

Proper coordination of electrical protections is essential for the safety, reliability, and efficiency of industrial plants. Errors in this area can have devastating consequences, both in terms of safety and economically. It is essential to conduct regular studies, update systems as needed, and ensure that all personnel involved are properly trained in the importance of correct protection coordination.

Continuous monitoring, updating studies, and investing in modern protection systems are key to maintaining a safe and efficient industrial electrical system.

¿Has experimentado situaciones similares en tu entorno industrial?

At Voltia, we offer Consulting, Installation, and Maintenance Services to ensure that your facilities meet the highest electrical safety standards. Contact us for more information!

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ELECTRICAL OVERLOAD: THE 5 MOST COMMON CAUSES

In industrial electrical infrastructures, motor overload is a recurring problem that can cause costly downtime and significant damage to equipment. This article explores the most common causes of these overloads, the human factors that contribute to them, and the most effective solutions to prevent them.

5 Main Causes of Motor Overloads:

Mechanical Overload:

Non-electrical issue that occurs when the motor has to move a load greater than what it was designed to handle, causing material buildup or blockages in the mechanism that the motor is driving.

Voltage Issues:

Variations in supply voltage, such as voltage spikes or voltage sags, can adversely affect the operation of the motor, leading to an overload.

Faulty Electrical Wiring:

Loose, corroded or damaged connections can cause uneven current distribution, increasing the load on the motor.

Bearing Failures:

Worn or damaged bearings increase internal friction within the motor, requiring more energy to maintain the same level of performance.

Adverse Environmental Conditions:

Factors such as high temperatures, excessive humidity, dust, or corrosive environments can affect the motor’s performance, leading to overheating.

5 Human Factors Contributing to Overloads:

Pressure to Meet Deadlines in Production:

This can lead operators to work hastily to fulfill orders, adding more material than the machine is designed to process, thus causing overloads.

Lack of Compliance with Safety Standards:

Failure to adhere to established safety regulations for the operation and maintenance of electric motors can increase the risk of overloads and other workplace accidents.

Inexperience or Lack of Training

Lack of experience in operating and maintaining electric motors, as well as inadequate training on the specific risks of overload, can contribute to their occurrence.

Lack of Communication:

Poor communication between operators and maintenance personnel can result in neglect of preventive maintenance needs.

Fatigue or Lack of Attention:

Workplace fatigue or lack of attention during equipment operation can lead to errors in loading or handling motors, potentially resulting in overloads.

Solutions from Electrical System and Maintenance Management:

Planning and Scheduling of Preventive Maintenance:

Establishing a preventive and corrective maintenance program that includes regular inspections and operational testing to detect and address potential issues before they cause overloads.

Implementation of Continuous Monitoring Systems:

Utilizing remote monitoring systems to constantly oversee operational conditions of motors, such as temperature, current, and voltage, to identify potential overloads and take preventive measures.

Training and Development of Personnel:

Providing appropriate training to personnel on motor specifications, safe operating practices, and correct maintenance procedures to minimize human errors that may cause overloads.

Implementation of Protection Systems:

Installing protection devices such as thermal relays and fuses that can detect overloads and automatically disconnect the motor to prevent further damage.

Root Cause Analysis and Continuous Improvement:

Conducting root cause analysis to identify underlying reasons for overloads and implementing corrective actions to prevent them. Additionally, implementing a continuous improvement process to optimize maintenance and operational procedures.

Preventing overloads in industrial motors requires a holistic approach that integrates cutting-edge technology, continuous training, and rigorous maintenance practices. By implementing these strategies, not only can equipment lifespan be extended, but operational efficiency can also be optimized while reducing costs associated with failures and downtime.

Staying updated, sharing knowledge, and continuing to innovate are crucial aspects for addressing future electrical challenges in industries.

Have you had similar experiences or additional strategies that you have found effective?

At Voltia, we offer Consulting, Installation, and Maintenance Services to ensure that your facilities meet the highest electrical safety standards. Contact us for more information!

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TURN OFF, UNPLUG, SAVE: THE SILENT THIEF

Did you know that? Behind the apparent inactivity of your electronic devices lies a secret that can affect your energy bill: phantom power consumption.

 

But what does phantom energy consumption really mean? When you turn off your TV, your washing machine, or even your coffee maker, do you think they stop consuming energy? Unfortunately, many of these devices remain plugged in, ready to power up quickly when you need them. This residual energy they use while “off” is known as phantom consumption or standby power, sleep mode, or standby mode.

A common example is the television: even when turned off with the remote control, a red indicator light often stays on, signifying that, although it’s off, it’s still consuming energy. The technical explanation is that electronic devices have a transformer inside with two coils, one of which is always active when the device is plugged in. That’s why you often see a red light on the device: the standby indicator.

5  tip to beat phantom energy consumption

1. Unplug when not in use: The most effective method to stop this energy waste

2. Power strip control: Use power strips with switches to turn off multiple devices at once, or not, with a switch

3. Set up savings: Adjust your devices’ settings to low-power mode.

4. Opt for efficiency: Choose devices or appliances with energy efficiency labels.

5. Educate and share: Share knowledge with your family and friends about phantom energy consumption to raise awareness.

 

Responsible savings: A step towards a more sustainable world:

Reducing phantom energy consumption not only benefits our finances but also has a highly positive impact on the environment. By decreasing energy waste, we contribute to reducing greenhouse gas emissions and help preserve natural resources.

The power to stop phantom energy consumption is literally in your hands: unplugging a device on standby not only saves energy but also lights the way to a more efficient and responsible home!

SOURCES OF CONSULTED INFORMATION

(1)  Website of  legal journal of the Comunidad de Madrid, Phantom Consumption: The Silent Expense of Appliances  https://www.comunidad.madrid/servicios/consumo/consumo-fantasma-gasto-silencioso-electrodomesticos#:~:text=Hay%20un%20tipo%20de%20consumo,aunque%20no%20los%20estemos%20utilizando

(2) Website of  Revista Semana, Phantom Consumption: The Device Wasting Energy When Left Plugged In, https://www.semana.com/economia/articulo/consumo-fantasma-el-dispositivo-que-derrocha-energia-al-dejarlo-conectado/202351/

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TOP 10: Failures of industrial electrical installations

In the previous blog, we explored the first five most common electrical failures that can occur in industrial installations, ranging from overloads to problems in the electrical system design. However, what about other electrical issues that can affect the proper functioning of an industrial facility?

In the following blog, we will present new electrical failures along with their consequences. It is important to be aware of these issues to continue maintaining the safety and efficiency of electrical installations and prevent serious accidents to employees.

It is important to highlight that prevention is key and the best strategy to avoid these electrical failures. By following recommended electrical maintenance practices such as regular inspections, testing, and timely repairs, industry professionals can minimize risks and ensure the safety and efficiency of their operations.

Remember, if you have any doubts or need professional assistance, don’t hesitate to contact an industrial electrician. Don’t wait for an anomaly to occur before taking action; start implementing preventive measures today to ensure efficiency and safety in your industry!

SOURCES OF CONSULTED INFORMATION

(1) Website of Fluke, 13 common causes of motor failure” https://www.fluke.com/es-es/informacion/blog/motores-accionamientos-bombas-compresores/13-causas-comunes-del-fallo-del-motor

(2) Redalyc Magazin, Quality of electrical power from the perspective of grounding  systems  https://www.redalyc.org/journal/5075/507555007009/html/

(3) Website of RLC Ingenieros SAC, What happens when there is poor electrical power quality? https://rlcingenieros.com/que-ocurre-cuando-no-se-tiene-una-buena-calidad-de-energia-electrica/

(4) Website of ISMD Ingeniería Sostenible, Electrical installations maintenance http://www.ismd.com.co/blog-mantenimiento-instalaciones-electricas/

(5) Website of ILO, International Labour Organization, Electrical safety https://www.ilo.org/global/topics/labour-administration-inspection/resources-library/publications/guide-for-labour-inspectors/electrical-safety/lang–es/index.htm

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TOP 5: Failures of industrial electrical installations.

Did you know that? One of the main causes of workplace accidents in the industry is related to electrical failures in installations? Electrical installations are complex and are exposed to various malfunctions that can affect their energy efficiency and jeopardize the safety of workers. It is recommended to read the blog post on Electrical Safety: Assess your production plant and company level in 3 minutes.

Here are the most common electrical failures in installations:

 

SOURCES OF CONSULTED INFORMATION

(1) Website of Kraus Muller, Get to know the main failures in industrial electrical installations: https://www.krausmuller.com.br/es/conozca-las-principales-fallas-en-las-instalaciones-electricas-industriales/

(2) Website of GAL Electric, Insulation failures: Silent enemies of your electrical system https://www.galelectric.com.co/blog/fallas-de-aislamiento/

(3) Website of E3 series centers, Planning and design of the power distribution system https://www.e3seriescenters.com/es/blog-de-ingenieria-electrica-moderna/planificacion-y-diseno-del-sistema-de-distribucion-de-energia

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SUCCESS STORIES: COMPANIES EMBRACING ENERGY TRANSITION

In Colombia, the manufacturing industry has been a significant driver of the economy for decades. However, in recent years, these companies have faced a series of challenges related to increasing energy costs, environmental regulations, and the need to reduce their carbon footprint. As a result, they have started to embrace energy transition in their operations, enabling them to reduce costs and improve their environmental impact. Here are some success stories of companies in Colombia that have implemented renewable energy:

For the past 75 years, Alpina has been promoting sustainable development in Colombia. To become carbon neutral, they have implemented initiatives that have allowed them to reduce greenhouse gas emissions in their operations. Over the past 10 years, they have successfully decreased CO2 emissions by 25% through the implementation of an information and carbon footprint management system.

Additionally, Alpina’s biogas plant in Sopó generates energy from wastewater treatment, supplying more than 30% of the electricity demand for their plant. This has led to a 2% reduction in the company’s overall carbon footprint. Furthermore, Alpina has made significant efforts to renew and optimize their vehicle fleet. They currently have Euro IV technology, six gas-powered vehicles, and ten refrigerated vans that operate using solar panels.

By 2023, Alpina aims to source 60% of its electrical energy from renewable sources, with a significant capacity of solar energy in their plants. These efforts demonstrate Alpina’s commitment to sustainability and the transition towards renewable energy sources.

Celsia, a subsidiary of the Argos Group, has made significant progress in the renewable energy business in Colombia. They have developed four large-scale solar farms in the country: Celsia Solar Bolívar, Celsia Solar Espinal, Celsia Solar El Carmelo, and Celsia Solar Yumbo. Furthermore, they have more than 15 solar farms under evaluation, which they plan to develop in partnership with Cubico Sustainable Investment in different regions of the country. These projects will add nearly 650 MW of installed capacity, with investments totaling $1.3 trillion, of which $420 billion will be financed through the Green Bonds program. Celsia’s commitment to expanding renewable energy infrastructure demonstrates their dedication to sustainable development and the transition to clean energy sources.

Isagen is another significant company that has been actively implementing the generation and commercialization of energy in Colombia. They operate 19 power plants with a total capacity of around 3,000 megawatts (2,914.7 MW from hydroelectric sources, 32 MW from wind, and 38 MW from solar, based on Net Effective Capacity). Isagen is moving towards developing a portfolio of renewable energies that harness sources such as water, wind, and solar power.   To strengthen their renewable energy generation capacity, Isagen has added 360 megawatts of renewable energy, including approximately 200 megawatts from nine small hydroelectric plants acquired in the department of Antioquia in 2021. This acquisition reaffirms their commitment to hydroelectric power as a clean and cost-effective generation source. Isagen’s efforts contribute to the diversification of Colombia’s energy mix and the promotion of sustainable and environmentally friendly energy solutions.

Grupo Nutresa implements various initiatives to reduce its dependence on non-renewable energy sources. In 2021, the Meat Business, in partnership with Celsia, installed 110 panels at the Rionegro plant in Antioquia, with an installed capacity of 55,870 kWh/year. Additionally, the Biscuit Business, in collaboration with Galletas Noel in Colombia, advanced to phase 2 of photovoltaic energy generation, achieving an installed capacity of 720,000 kWh/year. Both initiatives contribute to the reduction of emissions and contribute to self-sufficiency and energy security through clean energy, resulting in a reduction of 314 tons of CO2 equivalent per year. Grupo Nutresa’s commitment to renewable energy showcases its dedication to sustainability and environmental responsibility.

The adoption of renewable energy in businesses is a valuable strategy that not only contributes to environmental protection but can also generate economic benefits and enhance the company’s image in terms of sustainability and social responsibility. The success stories of companies that have implemented renewable energies in Colombia demonstrate the potential of these clean technologies to drive the transition towards a more sustainable energy model.

The time to act is now! We invite you to take action and lead the way towards a greener and more sustainable future for your company and the planet. Together, we can make a difference!

SOURCES OF CONSULTED INFORMATION

(1) Periódico Portafolio, Alpina cumpre meta de neutralidade de plástico e carbono https://www.portafolio.co/negocios/empresas/alpina-cumple-objetivo-de-carbono-y-plastico-neutro-para-mayor-sostenibilidad-579564

(2)Periódico Portafolio, Renewables: the six companies that already reign in the business https://www.portafolio.co/negocios/empresas/renovables-las-seis-empresas-que-ya-reinan-en-el-negocio-555323

(3) Revista Semana, Five cases of companies that bet on the energy transition in Colombia https://www.semana.com/mejor-colombia/articulo/ejemplares-cinco-casos-de-empresas-que-le-apostaron-a-la-transicion-energetica-en-colombia/202300/

(4) Revista Semana, More sustainable: Isagen strengthens its operation with renewable energy https://www.semana.com/sostenibilidad/hablan-las-marcas/articulo/mas-sostenible-isagen-fortalece-su-operacion-con-energias-renovables/202206/

(5)Nutresa Integrated Report 2021: Emissions, Climate Change Mitigation, and Adaptation https://data.gruponutresa.com/informes/2021/Informe_integrado_2021-Emisiones_mitigacion_y_adaptacion_al_cambio_climatico.pdf

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“How Energy Transition Reduces Costs and Increases Profitability”

The energy transition is the most crucial challenge of our time. With the increasing global population and growing economic development, the demand for energy continues to rise. However, our reliance on fossil fuels has come at a significant environmental, social, and business cost. It is time to take bold actions and transform our energy mix towards clean and renewable sources for the future of the planet, future generations, and industries. However, achieving this transition effectively, sustainably, cost-effectively, and prosperously for all requires concerted efforts. Here are some ways we can accomplish this goal:

Adoption of renewable energy technologies such as:

 

 

 

 

Solar Energy

Produced from solar radiation. It is harnessed through photovoltaic (PV) or solar thermal panels, as they assist production facilities in generating their own energy and reducing their dependence on traditional electrical grids.

It is particularly attractive for industries because peak electricity demand often occurs during daylight hours.

 

 

 

Wind Energy

Wind energy generates electricity from the wind. It is utilized through wind turbines and is one of the most cost-effective and mature technologies in the renewable energy sector. This energy improves energy resilience by reducing dependence on fossil fuels and is beneficial for businesses that rely on large amounts of energy, such as manufacturing plants and refineries.

 

 

Hydropower

Obtained from the movement of water, utilizing dams or hydraulic turbines. It is important for companies involved in power generation as it can provide a stable, reliable, and predictable energy source, especially in countries with significant hydropower capacity. Additionally, it can be used as reserve energy, for water pumping, and wastewater treatment.

 

 

Geothermal energy

Produces electricity from the natural heat generated within the Earth’s interior. One advantage of geothermal systems is that they can have a lifespan of over 25 years, providing a constant source of energy for many years.

These systems offer low-cost heating and cooling solutions to production facilities.

 

 

Biomass Energy

Refers to the generation of energy from organic matter, such as agricultural or forestry residues. This technology can be significant for companies that generate organic waste.

In addition to generating electricity, biomass energy can also provide heating and, in some cases, be used as fuel in industrial processes.

For companies, the use of renewable energy technologies can bring several benefits, such as reducing energy costs, decreasing carbon footprint, complying with environmental regulations, and enhancing corporate image. Implementing these technologies can improve energy efficiency and enhance competitiveness in the market. While the initial investment in renewable energy technologies may be significant, in the long run, they can generate significant savings in energy and maintenance costs, resulting in a positive impact on the company’s profitability.

By implementing technologies for improving energy efficiency, for example:

 

LED Lighting, is more efficient than conventional lighting as it consumes less energy and has a longer lifespan, allowing for greater flexibility in light control and regulation. This reduces the overall energy demand, which can help curb the increase in emissions.

Efficient HVAC technologies, such as high-efficiency air conditioning systems, heat pumps, and ventilation systems, can significantly reduce energy consumption for heating and cooling buildings.

Thermal Insulation, Proper thermal insulation in walls, roofs, and floors can significantly improve the energy efficiency of buildings and reduce the amount of energy required for heating and cooling.

Energy Management Technology, enables users to monitor and control the energy consumption of equipment and systems in real-time, allowing for greater operational efficiency and cost reduction.

High-Efficiency Motors, utilize technologies such as variable speed and energy recovery, which can significantly reduce energy consumption in high-demand applications such as transportation systems and industrial machinery.

Thanks to the energy transition, excellent economic and broader social benefits can be achieved. Both investments in renewable energy technologies and energy efficiency can create jobs in the production, installation, and maintenance of equipment, as well as in research and development.

SOURCES OF CONSULTED INFORMATION

(1) Webside of International Renewable Energy Agency. (IRENA) – Energy transition, technologies  https://www.irena.org/Energy-Transition/Technology

(2) Webside of International Renewable Energy Agency. (IRENA) – Power generation costs https://www.irena.org/Energy-Transition/Technology/Power-generation-costs

 

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Key Facts About Energy Transition Worldwide

The energy transition offers numerous advantages for manufacturing industries. In addition to reducing their environmental impact, the adoption of renewable energy technologies and improved energy efficiency can also help reduce costs and enhance profitability. Here are some relevant statistics:

Hydropower: It expanded at a similar level to previous years. Two-thirds of the expansion occurred in China. Other countries where capacity increased by over 500 MW were Canada, Ethiopia, Laos, and Pakistan.

Solar Energy: Photovoltaic solar energy accounted for nearly worldwide in 2022, with an increase of 191,450 MW and a 125 MW increase in concentrated solar power. Expansion in Asia was 112 GW in 2022 (compared to 75 GW in 2021). Significant capacity increases were seen in China (+86.0 GW) and India (+13.5 GW). Japan also added 4.6 GW, slightly more than in 2021. Outside of Asia, the United States added 17.6 GW of solar capacity in 2022, Brazil added 9.9 GW, and the Netherlands and Germany added 7.7 GW and 7.2 GW respectively.

Wind Energy:With an increase of 75 GW in 2022, wind energy growth remained slower compared to the previous two years. China accounted for almost half of this expansion (37 GW), and capacity in the United States increased by 7.8 GW. Most of the remaining capacity expansion occurred in Brazil and a handful of European countries. Offshore wind continued to represent around 7% of total capacity.

Bioenergy: Expansion slightly slowed in 2022 (+7.6 GW compared to +8.1 GW in 2021). Bioenergy capacity in China increased by 4.3 GW, and other countries with significant increases were Brazil (+854 MW), Indonesia (+735 MW), and Japan (+885 MW).

Geothermal Energy: It saw very little increase in 2022, with most of this expansion occurring in Kenya (+86 MW), Indonesia (+57 MW), and the United States (+56 MW).

The energy transition in the global electricity sector is in full swing, driven by the need to combat climate change. Renewable energies, especially solar and wind energy, are experiencing unprecedented growth, while coal and gas-fired power plants are being phased out of the energy system. Additionally, the cost of renewable energy is decreasing, making it more economically attractive and stimulating its adoption worldwide.

The following blog explains “How Energy Transition Reduces Costs and Increases Business Resilience”

SOURCES OF  CONSULTED  INFORMATION

(1)  Website of  IRENA – Renewable Capacity Statistics 2023 https://www.irena.org/Publications/2023/Mar/Renewable-capacity-statistics-2023

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ELECTRICAL SAFETY: assess your level in your production plant in 3 minutes.

5 ELEMENTS THAT CAN SAVE YOU MILLIONS IN LOSSES.

  1. The most important document, the one-line diagram of the entire electrical infrastructure of the plant, is it up to date and ACCURATELY REFLECTS the reality of the entire electrical installation? Yes – No
  2. On the correct sizing of electrical components, do the CALCULATION MEMORIES for each and every branch circuit of the plant exist and comply with the requirements of the Electrical Code of the respective country? Yes – No.
  3. Do you have traceability documents regarding Protection Coordination, Isolation Coordination, the Grounding System, and the Comprehensive Lightning Protection System, and do these documents reflect the reality of the electrical infrastructure and its ability to mitigate/prevent associated electrical risks? Yes – No.
  4. Are the sources of the 11 electrical risks fully IDENTIFIED, and do protocols and procedures exist to safely communicate and carry out activities that may be performed on or near those sources? Yes – No.
  5. Does the personnel directly or indirectly involved in the electrical infrastructure and/or its associated areas have the REQUIRED KNOWLEDGE AND COMPETENCIES to perform their functions safely? Yes – No.

DIAGNOSTIC

CASE 1: If the affirmative answers were 5, Congratulations! Your infrastructure and the human team managing it, directly or indirectly, are world-class.

CASE 2: If the affirmative answers were 4, there is still a possibility that, in the event of an occurrence that materializes an electrical risk, your electrical infrastructure or human team may be SLIGHTLY AFFECTED. You have the opportunity to promote/implement actions that elevate your management to a world-class level.

CASE 3: If the affirmative answers were 3 or less, in the event of an occurrence that materializes an electrical risk and in which your infrastructure and/or human team are MODERATELY OR HIGHLY AFFECTED, your company and the direct responsible individuals for the electrical installations are legally unprotected.

For CASES 2 and 3, we recommend contacting our #ExpertTeam in #IntelligentManagement of #IndustrialElectricalInfrastructure, Iván Bohórquez, our Director Beatriz Alvarez Pertuz, or directly contacting Voltia. Contact us to establish an agile action plan that will help your company minimize/mitigate the electrical risks associated with the management of your electrical installations. It is common for electrical professionals to minimize the effects of an electrical risk materializing in an event that, in the worst-case scenario, could result in a fatality with associated costs close to 1 million dollars, according to 2021 statistics from Fasecolda*.

*These are estimates made by the VOLTIA team, which will be addressed in the following article.