40000 kwh

10000 kwh

0.652 metric tons CO2e

12 metric tons CO2e

0 metric tons CO2e

At IFORTIS WORLDWIDE, we are committed to reducing our carbon footprint and leading by example in the fight against climate change. Our strategy for Scope 1 and Scope 2 emissions focuses on a combination of operational efficiencies, energy transformation, and innovation. These efforts are aligned with our long-term sustainability goals and support our ambition to achieve carbon neutrality. Scope 1 Emissions Reduction (Direct Emissions) 1. Transition to Electric and Low-Emission Fleet: We are phasing out our petrol and diesel vehicles in favor of electric and hybrid models. This transition not only reduces direct emissions from transportation but also positions us as a leader in sustainability within our industry. 2. Adoption of Alternative Fuels: For vehicles and machinery that require combustion, we are exploring the use of alternative fuels, such as biofuels and compressed natural gas (CNG), to lower the carbon intensity of our operations. 3. Operational Efficiency: We are optimizing fuel usage through technology, including route optimization software for our logistics and delivery fleet, and encouraging eco-driving practices across all company-owned vehicles. 4. Energy-Efficient Equipment and Infrastructure: Upgrading to more energy-efficient systems in our buildings—such as HVAC systems, lighting, and boilers—further reduces our Scope 1 emissions. Our facilities are also being retrofitted with low-carbon technologies. Scope 2 Emissions Reduction (Indirect Emissions) 1. Transition to 100% Renewable Energy: We have committed to sourcing 100% renewable energy for all our operations. This is being achieved through power purchase agreements (PPAs) with renewable energy providers, along with the installation of on-site solar panels at key locations. This shift is a critical step toward reducing our reliance on grid electricity and significantly decreasing Scope 2 emissions. 2. Energy Efficiency Enhancements: Our comprehensive energy efficiency program includes LED lighting upgrades, smart energy management systems, and energy-saving initiatives within our offices and facilities. These measures are designed to reduce overall energy consumption and optimize the use of renewable energy sources. 3. Green Building Standards: We are incorporating green building certifications (e.g., LEED, BREEAM) into our real estate strategy, ensuring that new builds and facility renovations meet the highest sustainability standards. 4. Purchase of Renewable Energy Certificates (RECs): For locations where on-site renewable energy generation is not feasible, we are purchasing Renewable Energy Certificates (RECs) to offset emissions from non-renewable energy sources, further aligning our operations with global sustainability standards.

Our approach to calculating Scope 1 and Scope 2 emissions is based on established guidelines such as the Greenhouse Gas (GHG) Protocol and industry best practices. The methodology involves quantifying emissions from both direct sources (Scope 1) and indirect sources (Scope 2), ensuring consistency, transparency, and accuracy. Below is a summary of the calculation methodology used: 1. Scope 1 Emissions Calculation (Direct Emissions) Scope 1 emissions are directly associated with company-owned or controlled sources of greenhouse gases, primarily from fuel combustion (e.g., petrol, diesel, natural gas) and other processes. The calculation methodology involves: Step 1: Identify Sources of Emissions We first identify all the fuel consumption sources within the organization, including: Vehicle fleet (petrol and diesel vehicles) Stationary combustion (e.g., boilers, generators) Other process emissions (e.g., from manufacturing equipment if applicable) Step 2: Calculate Fuel Usage We collect data on the amount of fuel consumed over the reporting period (usually annually) for each emission source, typically in liters or gallons for liquid fuels like petrol and diesel, or cubic meters for natural gas. Step 3: Apply Emission Factors For each fuel type, we apply the appropriate emission factor, which is a measure of the amount of CO₂ emitted per unit of energy or fuel consumed. Common emission factors are as follows: Petrol (Gasoline): 2.31 kg CO₂ per liter Diesel: 2.68 kg CO₂ per liter Natural Gas: 1.92 kg CO₂ per cubic meter (if applicable) These factors are sourced from reputable databases such as the IPCC or local environmental agencies. Step 4: Calculate Emissions The emissions for each fuel source are calculated by multiplying the fuel consumption by the emission factor for each fuel type: Scope 1 Emissions = ∑ ( Fuel Used × Emission Factor ) Scope 1 Emissions=∑(Fuel Used×Emission Factor) Tools Used: Manual Calculation Spreadsheets (for smaller operations) GHG Emission Calculators (for larger operations, often sourced from software like SAP Environmental Management or Energy Star Portfolio Manager) 2. Scope 2 Emissions Calculation (Indirect Emissions from Purchased Electricity) Scope 2 emissions result from the purchase of electricity, steam, heating, or cooling consumed by the company. These emissions are calculated using a two-step methodology: Step 1: Determine Electricity Consumption We collect data on the total electricity usage in kilowatt-hours (kWh) from all sources (e.g., the electricity grid, purchased power). This data is typically provided by the utility providers or through smart meters. Step 2: Apply Emission Factors The emission factor for Scope 2 emissions depends on the grid mix of electricity (i.e., the proportion of fossil-fuel versus renewable energy sources in the region). There are two types of emission factors: Location-Based Emission Factor: This is the average grid emission factor based on the region's energy mix. Typically, this is sourced from national or regional environmental agencies. For example, the global average is often assumed to be 0.4 kg CO₂/kWh for grid electricity. Market-Based Emission Factor: This reflects the emissions associated with the specific energy contracts purchased by the company. If the company buys renewable energy (e.g., through a Power Purchase Agreement or Renewable Energy Certificates (RECs)), this emission factor is zero. Otherwise, it will reflect the emissions from the energy supplier's mix. Step 3: Calculate Emissions The emissions are calculated by multiplying the total electricity consumption by the appropriate emission factor: Scope 2 Emissions = Electricity Consumption × Emission Factor Scope 2 Emissions=Electricity Consumption×Emission Factor Location-Based Emission Factor: Used when calculating emissions based on the general grid mix. Market-Based Emission Factor: Used when the organization purchases green energy or renewable energy credits. Tools Used: GHG Protocol Calculators (available from the GHG Protocol Initiative) Energy Management Software (e.g., Carbon Trust, EcoReal, or EnerNOC) Data Accuracy and Confidence in Results To ensure the accuracy of our Scope 1 and Scope 2 emissions calculations, the following practices are adhered to: 1. Data Collection Fuel Consumption Data: All fuel consumption data is sourced from verified records such as fuel purchase receipts, meter readings, and logbooks for vehicle fleet and stationary combustion. In case of any discrepancies, estimates are cross-checked with industry averages. Electricity Consumption Data: The total electricity consumption data comes directly from utility bills and smart meters. In cases of non-availability of precise data (e.g., for small or dispersed sites), we use estimates based on the average consumption per square foot or per employee. 2. Emission Factors We use standard emission factors from well-established databases such as: IPCC Guidelines (International Panel on Climate Change) EPA (Environmental Protection Agency) emission factors for the U.S. Local Energy Agencies for more precise emission factors relevant to the region in which we operate (e.g., EU-based factors for European operations). 3. Verification and Auditing Data is internally verified for consistency, accuracy, and completeness before final reporting. We engage third-party verification services for more complex and larger operations to ensure compliance with global standards such as the ISO 14064 or the CDP reporting framework. 4. Sensitivity Analysis Where data gaps or uncertainties exist (e.g., for small facilities or non-standard emissions sources), we conduct sensitivity analysis to understand the potential range of emissions. This helps us estimate the potential impact on overall emissions. 5. Use of Tools and Software Advanced tools like energy management systems or carbon footprint calculators help improve data accuracy by automating data inputs, applying the correct emission factors, and providing real-time emissions tracking. These tools ensure more granular accuracy, especially when dealing with large-scale or complex operations.

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