Category: technology

Technology Blogs

  • Ecosystem Changes Are Essential for Emission Reduction and EV Expansion

    In 2025, numerous companies are actively investing in carbon emission reduction initiatives, employing various strategies to achieve their sustainability goals.

    Achieving Carbon Emission Reduction

    To achieve carbon emission reduction, a combination of policy measures, technological innovations, and behavioural changes are essential. Here are the main strategies:

    • Transition to Renewable Energy
    • Energy Efficiency Improvements
    • Electrification of Transportation
    • Carbon Capture and Storage (CCS)
    • Carbon Pricing
    • Promoting Sustainable Agriculture and Forestry
    • Circular Economy and Waste Management
    • Government Policies and International Cooperation
    Electricity generated from non-renewable energy sources

    Renewable Energy vs. Electric Energy

    Renewable Energy:

    • Definition: Renewable energy refers to energy sources that are naturally replenishing and virtually inexhaustible on a human timescale. These energy sources are environmentally friendly and produce minimal or no greenhouse gases.
    • Examples:
      • Solar Energy: Captured from the sun’s rays.
      • Wind Energy: Captured from the movement of air (wind).
      • Hydropower: Generated from the flow of water, often in the form of dams or river currents.
      • Geothermal Energy: Heat derived from the Earth’s internal processes.
      • Biomass: Energy from organic materials, such as plant and animal waste.

    Electric Energy:

    • Definition: Electric energy refers to energy in the form of electricity, which can be generated from a variety of sources, including both renewable and non-renewable resources.
    • Examples:
      • Coal-fired Power Plants: Generate electricity by burning coal.
      • Natural Gas Power Plants: Generate electricity using natural gas.
      • Nuclear Power Plants: Generate electricity using nuclear fission.

    In essence, renewable energy is one of the key solutions to producing electric energy in a sustainable manner, which can help reduce carbon emissions and combat climate change.

    How Oil is Used to Generate Electricity

    Natural oil (often referred to as oil or petroleum) can be used to generate electricity, but it is less commonly used compared to other fossil fuels like coal and natural gas. When oil is used for electricity generation, it is typically burned in a thermal power plant, where the heat produced from burning the oil is used to generate steam, which in turn drives turbines connected to generators.

    Why is Oil Less Common for Electricity Generation?

    Cost: Oil is generally more expensive than coal and natural gas for electricity generation, especially considering the volatility in global oil prices.

    Environmental Impact: Burning oil for electricity produces significant greenhouse gas emissions, which contribute to air pollution and climate change. This makes it less favourable compared to cleaner energy sources, such as natural gas or renewable’s

    Availability: In many regions, natural gas and coal are more readily available and more cost-effective for generating electricity.

    Oil-fired power plants are used in various parts of the world, but they are typically concentrated in regions with limited access to cheaper or more abundant fuel sources like natural gas or coal. These plants are often used as backup or peaking plants to meet electricity demand during periods of high consumption. Here are some notable oil-fired power plants around the world:

    Source for this list are derived from www.iea.org, https://www.eia.gov/, https://www.worldbank.org/ext/en/home, https://globalenergymonitor.org/

    Power Plant NameLocationFuel TypePurpose
    Kawasaki Oil-Fired Power PlantKawasaki, Kanagawa Prefecture, JapanHeavy Oil (Bunker Oil)Used for peak electricity demand and emergency power during high demand periods.
    Yanbu Power PlantYanbu, Saudi ArabiaCrude OilPlays a significant role in Saudi Arabia’s power generation infrastructure.
    Paiton Power PlantPaiton, East Java, IndonesiaOil and Coal (Dual-Fuel)Provides electricity to meet growing demand in Indonesia, using oil when necessary.
    Bujumbura Power PlantBujumbura, BurundiDiesel OilProvides electricity to the capital and surrounding areas, especially during high demand.
    Fujairah Power and Desalination PlantFujairah, UAEOil and Natural GasGenerates electricity and desalinated water for the UAE, using oil as backup fuel.
    Power Plant at the AzoresAzores, PortugalOilProvides electricity to the islands due to limited access to alternative fuel sources.
    Tanzania Petroleum Power PlantDar es Salaam, TanzaniaDiesel OilProvides electricity to Tanzania’s grid, using oil as the primary fuel.
    La Planta Termoeléctrica de San LorenzoSan Lorenzo, Santa Fe, ArgentinaOil and Natural GasGenerates electricity using oil during fuel shortages or high demand periods.
    Masbate Power PlantMasbate, PhilippinesDiesel OilCritical for local power supply, especially during peak demand.
    Bahrain Power PlantManama, BahrainOilProvides electricity for Bahrain, using oil for domestic and industrial needs.
    Malta Power StationMarsa, MaltaHeavy Fuel OilOne of the island’s largest energy facilities, uses oil as the primary fuel.
    Sime Darby Power PlantMalaysiaOilSupplies electricity during periods of peak demand across the country.
    El Salvador Power PlantsVarious locations, El SalvadorDiesel and OilUsed in El Salvador during disruptions in other power sources like hydro or geothermal.
    Puerto Rico Power PlantPuerto Rico, USAOil (and Natural Gas)Relies on oil-fired plants, especially after Hurricane Maria, to meet energy needs.
    Jeddah Power PlantJeddah, Saudi ArabiaCrude OilProvides electricity and supports desalination in the coastal city of Jeddah.

    Primary Sources of Electricity for EVs

    The source of energy for all electric vehicles (EVs) is electricity, which powers their batteries. However, the origin of this electricity can vary widely depending on how it is generated and delivered.

    1. Renewable Energy:
    • Solar Power: Electricity generated by solar panels.
    • Wind Energy: Produced by wind turbines.
    • Hydropower: Sourced from dams and other water-driven systems.
    • Geothermal Energy: Generated using heat from the Earth’s interior.
    • Biomass Energy: Derived from organic materials.

    Benefits:

    • Clean and sustainable.
    • Helps EVs achieve true carbon neutrality.

    Challenges:

    • Dependent on location and weather conditions.
    • Requires infrastructure for renewable energy storage and distribution.

    2. Non-Renewable Energy:

    • Coal: Burned in power plants to generate electricity.
    • Natural Gas: Used in gas turbines or combined cycle power plants.
    • Oil: A less common source for electricity generation today.
    • Nuclear Power: Generates electricity through nuclear fission.

    Benefits:

    • Reliable and consistent electricity supply.
    • Existing infrastructure supports distribution.

    Challenges:

    • Higher carbon footprint for fossil fuels.
    • Nuclear power poses waste disposal and safety concerns.

    How EVs Use This Energy

    1. Charging Stations
    • EVs plug into public or private charging stations connected to the grid.
    • The grid electricity source determines the emissions profile of the EV.

    2. On-Site Renewable Energy

    • Some EV owners use home solar panels or wind turbines to charge vehicles directly.

    3. Battery Technology

    • EVs store energy in lithium-ion batteries or other advanced battery systems, which power the motor.

    Energy Sources in Europe

    The primary energy sources for electricity generation vary across European countries, reflecting their unique resource availability, historical development, and policy choices.

    Vehicle-to-grid

    Europe’s electrical infrastructure comprises a vast network of transmission and distribution systems that deliver electricity across the continent. These grids are managed by various Transmission System Operators (TSOs) and Distribution System Operators (DSOs) to ensure a stable and efficient power supply.

    Here is an updated table that includes the 40 member Transmission System Operators (TSOs) from 36 countries in Europe, as per the European Network of Transmission System Operators for Electricity (ENTSO-E), along with the primary energy sources for electricity generation in each country:

    CountryTSO NamePrimary Energy Sources
    AlbaniaOperatori i Sistemit te Transmetimit (OST)Hydropower
    AustriaAustrian Power Grid AG (APG)Hydropower, Solar, Wind
    BelgiumElia Transmission (Elia)Nuclear, Natural Gas, Wind
    Bosnia and HerzegovinaBiH Independent System Operator (NOS BiH)Coal, Hydropower
    BulgariaElectroenergien Sistemen Operator (ESO)Nuclear, Coal
    CroatiaCroatian Transmission System Operator (HOPS)Hydropower, Wind
    CyprusCyprus Transmission System Operator (Cyprus TSO)Oil, Solar
    Czech RepublicČEPSCoal, Nuclear, Hydropower
    DenmarkEnerginetWind, Biomass
    EstoniaEleringOil Shale, Wind, Biomass
    FinlandFingridNuclear, Hydropower
    FranceRéseau de Transport d’Électricité (RTE)Nuclear, Hydropower, Wind
    GermanyTransnetBW (TNG), TenneT, Amprion, 50HertzCoal, Wind, Natural Gas, Nuclear
    GreeceIndependent Power Transmission Operator (IPTO)Natural Gas, Wind, Solar
    HungaryMAVIRNuclear, Natural Gas, Coal
    IcelandLandsnetGeothermal, Hydropower
    IrelandEirGridNatural Gas, Wind, Biomass
    ItalyTernaNatural Gas, Solar, Wind, Hydropower
    LatviaAugstsprieguma tīkls (AST)Hydropower, Wind
    LithuaniaLitgridNatural Gas, Wind, Solar
    LuxembourgCreos LuxembourgImported Electricity, Natural Gas
    MontenegroCrnogorski elektroprenosni sistem AD (CGES)Hydropower
    NetherlandsTenneTNatural Gas, Wind, Solar
    North MacedoniaMEPSOCoal, Hydropower
    NorwayStatnettHydropower
    PolandPolskie Sieci Elektroenergetyczne (PSE)Coal, Wind, Solar
    PortugalRedes Energéticas Nacionais (REN)Wind, Hydropower, Solar
    RomaniaTranselectricaCoal, Hydropower
    SerbiaElektromreža Srbije (EMS)Coal, Hydropower
    SlovakiaSlovenská elektrizačná prenosová sústava (SEPS)Nuclear, Hydropower
    SloveniaElektro-Slovenija (ELES)Nuclear, Hydropower
    SpainRed Eléctrica de España (REE)Wind, Solar, Nuclear, Hydropower
    SwedenSvenska Kraftnät (SVK)Hydropower, Nuclear, Wind
    SwitzerlandSwissgridHydropower, Nuclear
    UkraineUkrenergoCoal, Nuclear, Hydro
    United KingdomSystem Operator for Northern Ireland (SONI)Natural Gas, Renewables (Wind, Solar)

    Primary Energy Sources

    • Coal: A significant source for countries like Poland, Germany, and Serbia, but the usage is declining due to environmental concerns and EU decarbonization goals.
    • Nuclear: A primary energy source for countries like France, Hungary, Slovakia, and the UK, contributing to low-carbon electricity generation.
    • Hydropower: A dominant source in countries with suitable geography, such as Norway, Iceland, and Albania.
    • Wind & Solar: Increasingly important in countries like Denmark, Spain, Germany, and Portugal due to the transition towards renewable energy.
    • Natural Gas: Common in many countries like Italy, the Netherlands, and Greece, though it’s being gradually replaced by renewables in some regions.

    Energy Sources in the United States

    In the United States, the transmission of electricity is managed by a combination of Independent System Operators (ISOs) and Regional Transmission Organizations (RTOs). These entities oversee the high-voltage transmission network, ensuring reliability and efficiency in electricity delivery across various regions.

    U.S. energy consumption by source and sector 2023

    Here is a list of the primary U.S. Independent System Operators (ISOs) and Regional Transmission Organizations (RTOs), their states, and the primary energy sources they use for electricity generation:

    ISO/RTOStates CoveredPrimary Energy Sources
    California Independent System Operator (CAISO)CaliforniaNatural Gas, Renewables (Solar, Wind), Hydropower
    Electric Reliability Council of Texas (ERCOT)TexasNatural Gas, Wind, Coal
    Midcontinent Independent System Operator (MISO)14 states: Arkansas, Iowa, Kansas, Louisiana, Minnesota, Mississippi, Missouri, Montana, Nebraska, North Dakota, Oklahoma, South Dakota, Wisconsin, and parts of CanadaCoal, Natural Gas, Wind
    ISO New England (ISO-NE)Connecticut, Maine, Massachusetts, New Hampshire, Rhode Island, VermontNatural Gas, Nuclear, Renewables
    New York Independent System Operator (NYISO)New YorkNatural Gas, Nuclear, Hydropower
    PJM Interconnection (PJM)13 states: Delaware, Illinois, Indiana, Kentucky, Maryland, Michigan, New Jersey, North Carolina, Ohio, Pennsylvania, Tennessee, Virginia, West Virginia, and the District of ColumbiaNatural Gas, Coal, Nuclear
    Southwest Power Pool (SPP)14 states: Arkansas, Iowa, Kansas, Louisiana, Minnesota, Mississippi, Missouri, Nebraska, New Mexico, North Dakota, Oklahoma, South Dakota, Texas, and WyomingWind, Coal, Natural Gas
    Alaska Systems Coordinating Council (ASCC)AlaskaNatural Gas, Hydropower
    Florida Reliability Coordinating Council (FRCC)FloridaNatural Gas, Coal, Nuclear
    Hawaii Electric Reliability Administrator (HERA)HawaiiOil, Renewables (Solar, Wind), Coal

    Way forward

    Renewable energy sources make EVs truly eco-friendly when used for charging.

    Grid energy mix affects the environmental impact of EVs; regions with renewable-heavy grids provide cleaner electricity.

    Increasing adoption of smart grids and decentralized renewable energy generation is vital to aligning EVs with global sustainability goals.

    JobsReach: Bridging Talent and Resources for a Sustainable EV Future

    JobsReach can contribute to EV adoption and resource identification in several ways

    Connecting Talent with EV Industry: JobsReach can help match skilled professionals with companies in the electric vehicle sector, supporting the growth of EV production, research, and infrastructure development.

    Promoting Green Jobs: JobsReach can highlight job opportunities in the renewable energy and EV sectors, encouraging more people to pursue careers that support sustainability and green technologies.

    Supporting Resource Discovery: By linking professionals with the right networks, JobsReach can help businesses identify resources, from raw materials for EV production to innovative solutions in renewable energy and charging networks.

  • How JobsReach is Revolutionizing Recruitment with AI

    JobsReach is transforming the recruitment industry by leveraging advanced AI technology to address long-standing challenges faced by employers. Traditionally, businesses relied heavily on sourcing agencies to find talent, often leading to high costs, longer timelines, and dependency on third parties. JobsReach eliminates these inefficiencies through innovative AI-driven solutions, offering unmatched speed, precision, and scalability.

    JobsReach empowers employers to take control of their hiring process by streamlining recruitment
    JobsReach empowers employers to take control of their hiring process

    1. Automated Job Requirements with Industry-Standard Recommendations

    JobsReach simplifies the process of creating job postings by using AI to analyze job descriptions and provide tailored recommendations. This ensures that job listings align with industry standards, attract the right candidates, and set clear expectations. By automating this step, employers can save time and focus on critical aspects of recruitment.

    2. AI-Driven Candidate Filtering and Screening

    Before candidates even apply, JobsReach integrates intelligent screening mechanisms that assess potential hires through customized questions. This pre-application filtering ensures that only qualified candidates move forward in the recruitment process, reducing the volume of irrelevant applications.

    3. Skill Evaluation Against Job Requirements

    After candidates apply, AI tools evaluate their skills and qualifications against the job’s specific requirements. This automated matching ensures that shortlisted candidates meet the employer’s expectations, streamlining decision-making and minimizing biases.

    4. On-Demand Hiring Without Long Planning Cycles

    AI-powered automation enables employers to hire resources quickly without extensive planning or delays. This is particularly beneficial for industries like aviation, healthcare, and technology, where immediate hiring needs often arise.

    5. Reduced Dependency on Sourcing Agencies

    By providing an end-to-end solution that handles job postings, candidate filtering, and skills evaluation, JobsReach reduces the reliance on traditional sourcing agencies. Employers gain direct control over their hiring processes while enjoying cost savings and greater efficiency.

    The Impact

    JobsReach’s use of AI has redefined the recruitment industry by offering a streamlined, efficient, and on-demand hiring experience. Employers can now fulfil vacancies faster, reduce time-to-hire, and achieve better talent alignment, ensuring business continuity without the bottlenecks of traditional methods.

    By addressing these challenges, JobsReach empowers businesses to stay competitive in today’s fast-paced job market while offering candidates a more transparent and efficient application process.