Energytics Limited

⚡PtX Technology Course ⚡ 🔴Power-to-X converts and stores electrical energy into an energy carrier (gas, fuel or raw material) or a product (basic material, feedstock). It is a collective term for Power-to-Gas, Power-to-Liquid, Power-to-Fuel, Power-to-Chemicals and Power-to-Product. Hydrogen plays a crucial role in PtX as it is the main building block for achieving all types of PtX 🔴Energytics Limited will be organizing an online training course in PtX Technology 🔴This Energytics Training course introduces the concept of PtX and its importance in the energy transition. The course explains the potential applications of PtX, how it could be implemented, and its advantages and disadvantages. Several case studies will be presented in this course to familiarise the participants with the analysis of different PtX systems. 🔴This PtX course will cover: ✅PtX’s role in the energy transition ✅PtX and the concept of sector coupling for ✅Potential applications for PtX 🔸Ammonia 🔸Methano 🔸SAF 🔸Synthetic Methan ✅Efficiency of different PtX applications ✅Barriers to PtX technologies ✅case studies ✅PtX’s importance in the future energy system ✅Production costs for different types of PtX applications ✅Economics of PtX 🔴Course Details 🖥️Course mode: Interactive Online ⏱️Course duration: 12 hours 🗓️Dates: 22-23-24 November 💰Course fees: 150 USD, early bird (2 weeks before the course starts), and Energyics Alumni are eligible for a discounted fee of 100 USD 📝For registration and information contact us at info@energytics.net #energyticslimited #ptx #energyefficiency #energymanagement #energyindustry #energyengineering #energyinnovation #energytransition #energysecurity #energytechnology #energyexperts #renewableenergy #capacitydevelopment #trainingcourse #onlinetrainingcourse #traininganddevelopment

Solid-State Batteries Enter Pilot Production The global pursuit and anticipation of applications for solid-state batteries (SSBs) have accelerated the commercialization process of this technology. TrendForce’s latest findings reveal that major manufacturers across the globe, such as Toyota, Nissan, and Samsung SDI have already begun pilot production of all-solid-state batteries. It is estimated that production volumes could have GWh levels by 2027 as these companies race to scale up production. Solid-state batteries offer promising improvements in safety and energy density, but they continue to face significant challenges, including high production costs, complex manufacturing processes, and a lack of a mature supply chain. Semi-solid-state batteries, currently deployed in EVs, have reached GWh-level scale installation, with cell energy densities ranging from 300–360 Wh/kg. The initial price of semi-solid-state cells exceeds CNY 1/Wh due to small production scales and the relative immaturity of manufacturing technologies. TrendForce anticipates that with increased production scale and technological advancements, the comprehensive cost of semi-solid-state batteries could drop below CNY 0.4/Wh by 2035. All-solid-state batteries (ASSBs) are moving from prototype sample cells to engineering-scale production and are also expected to encounter high early-stage production costs that could raise initial product prices. TrendForce projects that, by 2030, if the scale of all-solid-state battery applications surpasses 10 GWh, cell prices will likely fall to around CNY 1/Wh. By 2035, cell prices could decline further to CNY 0.6–0.7/Wh with rapid, large-scale market expansion. Multiple manufacturers focus on sulfide-based SSB technology SSBs based on different solid-state electrolytes are being developed. Polymer-based SSBs are relatively mature and offer cost advantages; for example, PEO-based polymer Li-metal SSBs have already been commercialized in parts of Europe. However, polymer-based SSBs still need to adopt composite electrolyte materials with a wider voltage tolerance and higher ionic conductivity to expand commercialization. TrendForce notes that oxide solid-state electrolytes offer good stability and moderate costs but are difficult to process. Additionally, the “solid-solid” contact between the electrolyte and the cathode/anode active materials leads to higher internal resistance. TrendForce believes that the development of SSB technology is cautious yet optimistic. Although key performance indicators such as charge-discharge rates and cycle life have not yet reached commercialization standards—and current costs remain uncompetitive with liquid li-ion batteries—SSB costs will improve significantly as production scales up, owing to strong government policies and capital investment. The source: https://lnkd.in/etZzwanR #energyticslimited #solidstatebattery #semisolidstatebattery

Leapting G2 Robot for Solar Panel Maintenance ◾The Leapting G2 Automatic Navigation Vehicle-Mounted Cleaning Robot is an intelligent, AI-driven solution designed for large-scale solar power plants. ◾With its advanced navigation system and automatic robotic arms, the G2 provides high-precision cleaning capabilities while maintaining operational efficiency. Advanced Navigation & AI: The G2 integrates automatic navigation technology with AI recognition, allowing it to handle cleaning tasks with unparalleled accuracy. It can clean up to 20,000 PV modules per day, making it a top choice for utility-scale solar farms. Flexible Cleaning Methods: The G2 supports both brush dry cleaning and water wash options, allowing operators to choose the most suitable method for their environment. High Adaptability: Designed to be reliable and adaptable, the G2 robot can operate in diverse terrains with minimal setup and infrastructure requirements. Performance: The G2 operates at a maximum speed of 2 km/h and can clean a distance of 20 km per day, with the ability to overcome obstacles of up to 2000 mm in height. Battery & Charging: Powered by a 48V 400Ah Lithium Iron Phosphate (LFP) battery, the G2 robot features an automatic charging system that fully recharges in 5 hours using a 380VAC 6KW charging setup, ensuring continuous operation with minimal downtime. Durability: The G2 is built to withstand harsh conditions, with an operating temperature range of -30°C to 60°C and ingress protection rated at IP65, making it suitable for all-weather use. ◾Communication & Control:  Real-Time Communication: The G2 robot supports LoRa, Wi-Fi, and Bluetooth, ensuring seamless real-time monitoring and control across various terrains. Ease of Deployment: The robot requires no additional PV bridges for installation, allowing for quick deployment and smooth operation in any solar farm environment. ◾Additional Features:  Robust Construction: Built with high-grade materials, the G2 guarantees long-term reliability and is suitable for large-scale, high-demand solar power stations. Environmentally Friendly: Designed with sustainability in mind, the G2 minimizes water use and operational downtime, contributing to lower maintenance costs and increased solar plant efficiency. ◾The Leapting G2 is the perfect choice for intelligent, scalable, and highly adaptable solar panel cleaning, delivering efficient and automated performance across large solar power stations. The source: https://lnkd.in/eFch_RUW #energyticslimited #renewableenrgy #solarenergy #solarpanelmaintenance

Scientists find two tree species with potential to generate clean electricity ◾Scientists from the Rwanda Forestry Authority have discovered two types of trees that could produce clean electricity, providing power to isolated communities. ◾Rwanda aims to achieve complete electricity access by 2030, yet rural regions still need more power availability. ◾In response, scientists are investigating the possibility of producing electricity from biomass sourced from sustainably cultivated plants, evaluating the energy capacity of different tree species. ◾Bonaventure Ntirugulirwa, a senior researcher spearheading the initiative, mentioned that biomass has mostly been overlooked, even though it has the potential to serve as a high-energy substitute for traditional fossil fuels. ◾“This project was designed to meet the electricity needs in rural areas,” he said After examining the biomass potential of various rapidly growing trees and shrubs, the researchers pinpointed Senna siamea and Gliricidia sepium as top contenders for electricity production. ◾The dense wood and elevated calorific values of these trees ensure they burn effectively, offering a high-heat option compared to fossil fuels ◾Ntirugulirwa clarifies that the study’s objective was to identify trees that combust effectively and find sustainable solutions for energy shortages in isolated regions. ◾He noted that the study “would aid in achieving multiple goals, including safeguarding land, enhancing soil quality, ensuring food security, combating climate change, and reducing rural poverty.” ◾The researchers investigated the possibilities offered by versatile tree species like Cajanus cajan (pigeon pea), Calliandra calothyrsus, Hagenia abyssinica (African redwood), and Senna spectabilis (whitebark senna). ◾These trees provide not only a source of fuel for generating electricity but also essential resources for farmers and their communities, according to Ntirugulirwa. ◾According to Ntirugulirwa, the initiative will depend on farmers’ engagement in cultivating sufficient biomass for energy generation to achieve this. ◾Up to this point, the team has assessed the heating value of the biomass at the Rwanda Standards Board. ◾However, testing for additional essential elements like carbon and hydrogen will have to be done in Sweden since Rwanda needs specialized equipment. ◾Babatunde Ajayi, a professor specializing in Wood Products and BioResources Technology at the Federal University of Technology in Akure, Nigeria, commended the project’s method to tackle food shortages, poverty, and electricity deficiencies in rural regions. ◾It’s good the initiative is resolving these issues,” he said. ◾“Using biomass to generate electricity is a welcome idea, especially in rural areas where access to power is extremely poor,” added Ajayi. The source: https://lnkd.in/eydWcdmx #energyticslimited #biomassenegy

Innovative Catalyst Enhances CO2 Reduction to Formate and foster the development of more sustainable energy systems ◾ With the escalating urgency of climate change impacts, effective carbon capture and utilization have become essential. Electrochemical reduction of carbon dioxide (CO₂) stands out as a promising approach to transform CO₂ into valuable fuels or chemicals at room temperature. ◾ However, current methods often face challenges like low selectivity and competition from hydrogen evolution reactions, which restrict their efficiency. Addressing these issues calls for the creation of novel catalysts capable of substantially improving the conversion process, making this area a key focus of research. ◾ A research team from the International Research Center for Renewable Energy at Xi’an Jiaotong University recently published a study in eScience. This study presents the development of a heterojunction catalyst based on indium (In/In₂O₃), which improves formate production through the combined effect of oxygen species and vacancies. This advancement boosts both the reaction's efficiency and selectivity, representing a substantial advancement in CO₂ electroreduction. ◾ The research team developed the In/In₂O₃ heterojunction catalyst with controlled oxygen species and vacancies, which were essential to its enhanced performance. Using in situ surface-enhanced Raman spectroscopy (SERS), they confirmed that the catalyst operated via the *COOH pathway, showing high selectivity for formate production. ◾ Theoretical modeling indicated that the energy barrier for *COOH formation was substantially reduced in the presence of oxygen vacancies, achieving formate selectivity above 90 %. When powered by photovoltaics, the system achieved a solar-to-fuel efficiency of 10.11 %, surpassing prior technologies. This impressive efficiency highlights the catalyst's potential for renewable energy applications, especially in electrochemical CO₂ reduction. ◾ This research has extensive potential applications, particularly within the renewable energy sector. Efficiently converting CO₂ into formate could foster the development of more sustainable energy systems, reducing reliance on fossil fuels. Moreover, the use of solar energy to power the reaction indicates that this technology could integrate smoothly with current renewable infrastructures, presenting an encouraging outlook for carbon recycling initiatives. ◾ This research is funded by the National Natural Science Foundation of China, the Natural Science Basic Research Program of Shaanxi, the Key Research and Development Program of Shaanxi, and the Fundamental Research Funds for the Central Universities. The source: https://lnkd.in/eDVuyQZn #energyticslimited #reductionofCO₂ #sustainableenergy

China’s BAIC, Egypt’s Alkan Auto partner to establish EV factory ◾ Deputy Prime Minister for Industrial Development, Minister of Industry and Transport Kamel El-Wazir witnessed the signing of an agreement between China’s BAIC and Alkan Auto, a subsidiary of the Egyptian International Motors, to establish an electric vehicle factory in Egypt. ◾ The Minister highlighted the Ministry’s commitment to supporting this new project to quickly enter the production phase. He highlighted that the Industrial Development Authority has allocated the necessary industrial land for the project and expressed readiness to complete all industrial licensing procedures to facilitate the start of production. ◾ The Minister also affirmed the Ministry of Industry’s commitment to deepening local manufacturing and attracting global investments in the automotive and related industries to meet local market demand and boost exports, particularly to the Middle East and Africa. ◾ He emphasized the Ministry’s readiness to provide all forms of support to international car companies for production and expansion in the Egyptian market, contributing to real investment inflows, local industry localization, and creating more job opportunities for youth. ◾ The factory is planned to begin production by the end of 2025 and will be established on an area of 120,000 sqm, aiming to meet the needs of the local market and export to Middle Eastern and African markets. In the first year, the factory is set to produce 20,000 vehicles, with production projected to reach 50,000 vehicles by the end of the fifth year. The local raw materials of the project is 48%, with a target to increase it to 58%, and the project will provide around 1,200 new job opportunities. ◾ Song Wei, President of BAIC, stated that the company is committed to strengthen its presence in the Egyptian market, considering it one of the most important markets in the region. This commitment led the company to launch a new model of its cars yesterday from the heart of Egypt, marking its first global debut through the Egyptian market. The source: https://lnkd.in/eJFacdsn #energyticslimited #ev #evfactory

⚡ Introduction to Energy Regulation Course ⚡ ✅ Economic regulation is essential in sectors where functional competition is unattainable. The purpose of regulation is to address market failures in delivering desired goods, whether economic, social, or environmental. For instance, electricity networks are a natural monopoly and require regulation to curb monopoly pricing and incentivize efficient performance. ✅ It's important to note that one regulatory model cannot be universally applied to all energy systems. The ownership, competitive landscape, structure, and developmental stage of a system will influence the role of the regulator and its intervention capacity. However, various regulatory models can be employed or modified to foster the advancement of sustainable energy technologies. ☑ Energytics Limited will be organizing an online training course in 🔶 Introduction to Energy Regulation 🔶 ✅ The Energytics Training course offers a comprehensive overview of various topics crucial for understanding energy regulations. It serves as a complete introduction to the field of energy regulation, elucidating the fundamental aspects of each energy regulation topic. The course covers the most critical regulatory subjects and expounds on key economic and regulatory concepts. ✅ This Fundamentals of Energy regulation course will cover: 🔸 Understand the principles of energy regulations 🔸 Know the role of energy regulators 🔸 Identify the market energy market operation, structure, and value chain 🔸 Energy sector reform and the trilemma between energy security, environment and affordability 🔸 Energy sector reform, unbundling and deregulation 🔸 Understand the Energy market competition dynamics 🔸 Energy transition – the future of gas in a decarbonised world 🔸 Mobilizing demand-side flexibility as an enabler of the energy transition ✅ Course Details 💻 Course mode: Interactive Online ⌛ Course duration: 8 hours 📅 Dates: 8-9 November 💲 Course fees: 100 USD, early bird (2 weeks before the course starts), and Energyics Alumni are eligible for a discounted fee of 75 USD ✨ For registration and information contact us at info@energytics.net #energyticslimited #energyregulation #energyefficiency #energymanagement #energyindustry #energyengineering #energyinnovation #energytransition #energysecurity #energytechnology #energyexperts #renewableenergy #feasibilitystudy #capacitydevelopment #trainingcourse #traininganddevelopment

Next-generation perovskite solar cell can absorb near-infrared light beyond the existing visible light range Korean researchers have been successful in improving the performance of perovskite solar cells. They developed a hybrid technology that maximizes near-infrared light capture and power conversion efficiency. Korea Advanced Institute of Science & Technology (KAIST) researchers state that this innovation paves the way for the commercialization of next-generation solar cells. Moreover, it promises a brighter future for solar energy and global technological progress. This study broke new ground by significantly boosting the power conversion efficiency of the hybrid device to 24.0%, up from 20.4%. They’ve developed a high-efficiency, high-stability hybrid solar cell that can capture near-infrared light. It’s particularly special because it can absorb not only visible light (the kind we can see) but also near-infrared light, which is invisible to the human eye. This expanded light absorption range allows the solar cell to generate more electricity from sunlight. They’ve combined two types of materials: perovskite and organic photo-semiconductors. “The research team suggested and advanced a hybrid next-generation device structure with organic photo-semiconductors to complement perovskite materials limited to visible light absorption and expand the absorption range to near-infrared,” the press release noted.\ Most perovskite solar cells can only absorb visible light (with 850 nanometers (nm) or less wavelength), limiting their efficiency. This limitation prevents the cells from harnessing roughly 52% of the total solar energy available. To unlock the full potential of solar energy, they created a hybrid device that merges the strengths of perovskite and organic bulk heterojunction materials. This innovative approach resulted in a solar cell capable of absorbing light up to the near-infrared region. Moreover, the researchers identified and addressed electronic structure issues by introducing a dipole layer, resulting in a high-performance solar cell. By adding a sub-nanometer dipole layer, they improved charge transfer and near-infrared light absorption, boosting the current density to 4.9 mA/cm². In a solar cell, the internal quantum efficiency (IQE) measures how efficiently it converts incoming photons (particles of light) into electrical current. As per the press release, the device achieved a record-high IQE of 78% in the near-infrared region. Interestingly, the device proved its durability and reliability by maintaining over 80% of its peak performance for over 800 hours, even in humid environments. This innovative approach significantly boosts the overall efficiency of solar cells, leading to increased power generation. The source:https: //https://lnkd.in/eWkyjj7k #energyticslimited #perovskitesolarcell #infraredlight

Construction begins on ‘world’s first’ ammonia dual-fuel bulk carrier ◾Qingdao Beihai Shipbuilding, a part of China State Shipbuilding Corporation (CSSC), has held a steel-cutting ceremony for what it said to be “the world’s first 210,000-ton ammonia dual-fuel bulk carrier ◾Ordered by Belgium-based shipowner , ”CMB.TECH the vessel will feature an ammonia dual-fuel X72DF engine developed by German engine manufacturer WinGD. The company received a contract to equip ten 210,000 dwt bulk carriers. The engine designs will be the first of their size for ammonia, and the first ammonia engines built in China, according to WinGD. ◾Meanwhile, Chinese shipbuilder Nantong CIMC Sinopacific Offshore & Engineering (CIMC SOE) received a contract to provide liquefied ammonia fuel tanks for these bulk carriers. ◾Specifically for this project, high-pressure cylindrical tanks have been selected. According to CIMC SOE, each tank will have a geometric capacity of 3,000 cubic meters, measuring 31 meters in length and 12 meters in diameter, both featuring hemispherical heads. ◾The liquefied ammonia fuel tanks will be installed on the vessels to achieve zero-carbon emission propulsion through clean fuel. Since July 2021, Beihai Shipbuilding and”CMB.TECH have signed contracts for the construction of twenty-eight 210,000-ton bulk carriers. ◾ ”CMB.TECH told Offshore Energy that all ships can be retrofitted for ammonia or will be equipped with it upon delivery. The source: https://lnkd.in/e2VC4aWi. #energyticslimited #ammonia #dualfuelcarrier

According to a new report by the International Energy Agency: Global clean technologies to hit $2 trillion in market value by 2035 ◾Energy Technology Perspectives 2024 focuses on outlook for top 6 mass-manufactured clean energy technologies such as solar PV, wind turbines, electric cars, batteries, electrolyzers and heat pumps. ◾The global market for clean technologies is expected to grow to over $2 trillion by 2035 from $700 billion in 2023, approaching the recent value of the global crude oil market, according to report " World Energy Investment 2024" by the International Energy Agency. ◾Energy Technology Perspectives 2024 (ETP-2024) focuses on the outlook for the top six mass-manufactured clean energy technologies: solar PV, wind turbines, electric cars, batteries, electrolyzers and heat pumps. Based on today’s policy settings, trade in clean technologies is also expected to rise sharply, according to the report. ◾In a decade, it more than triples to reach $570 billion, over 50% larger than the global trade in natural gas today, it added. ◾A surge in global investment in clean technology manufacturing is underway as countries look to bolster their energy security, maintain their economic edge and cut emissions, the report reads. ◾Most of this investment is concentrated in regions with an established presence in clean technology, including China, the EU and the US, and also increasingly India. ◾However, despite the strong impact of stimulus programs in the US, EU and India, China is set to remain the world’s manufacturing powerhouse for the foreseeable future. “Under today’s policy settings, China’s clean technology exports are on track to exceed $340 billion in 2035, which is roughly equivalent to the projected oil export revenue this year of Saudi Arabia and the United Arab Emirates combined,” the report added. ◾Commenting on the report, IEA executive director Fatih Birol said that the market for clean technologies is set to multiply in value in the coming decade, increasingly catching up with the markets for fossil fuels. ◾“Clean energy transitions present a major economic opportunity, as we have shown, and countries are rightly seeking to capitalize on that,” Birol explained. ◾“However, governments should strive to develop measures that also foster continued competition, innovation and cost reductions, as well as progress towards their energy and climate goals,” he added. The source: https://lnkd.in/dt-4nU_u #energyticslimited #cleantechnologies #solarpv #windturbine #electriccars #batteries #electrolyzers #heatpumps