ENERGY LIFECYCLE MANAGEMENT

ENERGY TRANSITION PLANNING

Durrel will facilitate transitioning commercial and industrial buildings to Fossil-free, Off Grid, Clean, Green, Renewable, Reliable, Affordable, Safe and Sustainable energy source with the following offerings:

• Energy Audits and Assessments: Durrel will provide comprehensive energy audits to assess current energy usage, identify inefficiencies, and recommend improvements for transitioning to renewable energy sources.
• Renewable Energy System Installation: Durrel will facilitate deployment and commissioning installing solar panels, wind turbines, geothermal systems, Biofuels, Green Hydrogen or other renewable energy technologies tailored to commercial and industrial buildings.
• Energy Management Solutions: This may include the implementation of energy management systems (EMS) or smart building technologies to optimize energy usage, monitor performance, and identify opportunities for energy savings.
• Regulatory Compliance and Permitting Assistance: Given the regulatory complexities surrounding renewable energy projects, We provide assistance with navigating permits, regulations, and compliance requirements at the local, state, and federal levels.
• Customized Transition Planning: Durrel develops tailored transition plans based on the specific needs, goals, and constraints of each client. This could involve conducting thorough assessments and crafting comprehensive strategies to achieve their sustainability objectives efficiently.
• Holistic Sustainability Solutions: Our services extend beyond just energy to include broader sustainability initiatives such as waste reduction, water conservation, and carbon footprint mitigation. Offering a holistic approach demonstrates a commitment to comprehensive sustainability.
• Innovative Technology Integration: We stay at the forefront of technological advancements in renewable energy and sustainability by integrating cutting-edge solutions such as energy storage systems, microgrids, or innovative financing models like power purchase agreements (PPAs).
• Performance Monitoring and Optimization: Provide ongoing monitoring and optimization services to ensure that renewable energy systems operate at peak efficiency over time. This proactive approach can maximize energy savings and long-term sustainability benefits for clients.
• Education and Training Programs: Offer educational workshops, training sessions, or resources to empower clients with the knowledge and skills needed to embrace renewable energy and sustainability practices within their organizations.

ENERGY AUDIT

DURREL's in-house experts will perform energy modelling and simulation of Industrial and commercial buildings, using EnergyPlus or proprietary tools validating Building Design, HVAC&R system Analysis, Daylight analysis, Fenestration analysis, Life cycle cost analysis, water footprint assessment and waste management as per the compliance codes and others

Durrel facilitates the discovery of energy conservation possibilities in the plant by detailed study of the electrical distribution systems and electrical equipments. The Energy Audit includes the review of documentation with respect to the scope covered in audit, an on-site visit, data collection, data review & analysis, report preparation and submission. This will also require the cross check and verification of information and data which may include industry norms and peer data. 

Approach

• Establishing the energy consumption pattern
• Measurement of incoming supply for 24 hours through 3 phase power analyzer and to understand the incoming power quality through online line recording of kW, Amp, Voltage, Power Factor, Harmonics in voltage and current
• Calculate the percentage loading of transformers
• Performance evaluation of electrical system such as Servo Voltage Stabilizer, Capacitor Bank, Motors having capacity more than 10 kW, etc.
• Performance Evaluation of all DG Sets, Blowers, Compressors, ACs, AHUs, Cooling Tower, Luminaries, Pumps and water system
• Review of one year electricity bills, Estimating the potential for energy saving
• Identifying the hotspots for attention, immediate and no cost or low-cost improvements and the areas that require more detailed assessment

Key Contents of the Report

• Suggest technology substitutions along with cost analysis of technology substitutions and suggest vendors
• Energy Transition Roadmap and Framework; Consulting and Deployment
• IoT based, cloud hosted energy usage monitoring, analysis and energy saving solutions
• Building Management System with control and monitoring of HVAC and integration with all packages of energy management.
• Integration of dehumidifiers, exhaust fans, ventilation units etc.
• Energy meter integration and energy management solution
• Lighting Control system and power Conservation Solution
• Integration of generators, UPS, STP, WTP, Pumps 

Reference Standards and Guidelines Complying to Green Building Protocols

• Certification and Design for LEED / IGBC / GRIHA / ISO 50001 family / ISO 14001 family / BREEAM / BEE ECBC, MNRE, NGBS, NEERI, IEP, GEM and others
• World Green Building Council (WGBC) and the World Business Council for Sustainable Development (WBCSD) norms

DEPLOYMENT OF ENERGY MANAGEMENT SYSTEM (EMS)

An Energy Management System (EMS) is a comprehensive system designed to monitor, control, optimize energy performance and usage patterns within a commercial, industrial, and residential facility, building or organization. 

The primary goal of an EMS is to improve energy efficiency, reduce energy costs and minimize environmental impact by real-time monitoring and analysis of energy consumption data, providing insights into energy usage patterns and potential energy savings, identifying areas of inefficiency, and implementing strategies to improve energy performance. It integrates hardware, software, and services and typically includes components such as sensors, meters, data loggers, control devices, and software platforms. EMS can automate processes like lighting, heating, ventilation, and air conditioning (HVAC) systems to operate more efficiently based on factors such as occupancy, temperature, and time of day. 

Key features of an EMS may include:

• Data Acquisition: EMSs gather data from various sources, such as energy meters, sensors, and building automation systems, to collect real-time information on energy consumption, demand, and environmental conditions.
• Monitoring and analysis of energy consumption: The system analyses the collected data to identify trends, patterns, and anomalies in energy usage. This enables users to understand how and when energy is being consumed within their facilities.
• Energy data visualization: EMSs generate reports, dashboards, and visualizations to present energy consumption data in easy-to-understand clear formats such as charts, graphs, and dashboards and actionable format to facilitate decision-making. This enables stakeholders to track performance metrics, monitor progress towards energy goals, and identify areas for improvement. 
• Energy benchmarking, performance tracking and Reporting: EMS enable comparing energy usage against historical data, industry standards, or peer organizations to identify areas for improvement. They also facilitate tracking the effectiveness of energy-saving initiatives and generating reports to communicate results to stakeholders.
• Energy conservation measures, Control and Automation: EMS enables implementing strategies such as demand response, load shifting, and equipment optimization to reduce energy consumption during peak periods. EMSs often include control features that allow users to remotely manage and adjust building systems, equipment, and settings to optimize energy performance. This may involve scheduling HVAC (heating, ventilation, and air conditioning) operations, lighting controls, or equipment shutdown during periods of low demand.
• Demand Response and Load Management: Some EMSs incorporate demand response capabilities, enabling users to participate in utility programs or adjust energy usage in response to grid conditions or pricing signals. Load management features help optimize energy usage to minimize peak demand charges and avoid grid strain.
• Integration with Other Systems: EMSs can integrate with other building management systems, including HVAC, lighting, security, renewable energy systems and utility networks, to provide a centralized platform for comprehensive energy management and control across multiple domains.

ELECTRICAL SAFETY AUDIT

Electrical Safety Audit is examining the degree of safety of overall electrical systems / installations of any industrial unit or organization. Electrical Safety Audit is in the following 5 Critical Areas:

• Electrical Safety Program
• Safety Training Plan
• Hazard Assessment & Mitigation
• Job Safety Plan / Job Safety Briefings
• Preventive Maintenance

Standards, Legislations and Regulations:

• The National Electric Code, Indian Electricity Act, 2003, Electricity Rules, 2005 and the Central Electricity Authority Regulations, 2010, National Building Code are applicable in generation, distribution, installation and maintenance of electricity and aim to reduce/ eliminate electrical accidents.
• NFPA 70E Standard for Electrical Safety in the Workplace to reduce human exposure to the hazards of shock, arc flash, and arc blast while working on or near exposed electrical conductors or circuit parts that are or can become energized. Electrical equipment and electrical safety devices are constantly changing and improving. The NFPA 70E Committee addresses these changes and updates the standard every 3 years as part of keeping up with current technology and safety concerns. Employers need to keep their electrical safety program up-to-date, to address those changes, and conduct on-going audits to verify compliance with the standard.   
• OISD (Oil Industry Safety Directorate), Ministry of Petroleum and Natural Gas Standards
• TAC Guidelines
• Relevant Indian & International Standards
• Good Industry Practices (GIP)
• NEBOSH, NFPA, ILO, ICC, CFPA Europe Standards
• Certificates of safety for buildings, electrical wire harness, HV equipments, pressure equipments and plants, dangerous machines, lifts and hoists. 
• Hazloc, ATEX, IECEx and other Directives

Electrical Safety Audits helps in identifying:

• Electrical hazards to minimize the risk of accidents like fire due to short-circuits
• Areas of risk or vulnerability in electrical systems and installations,
• Non-compliance with the legislation / regulatory and industry best practices.
• Energy saving measures
• Ensuring longevity of expensive electronic equipment like computers and other machines.
• Development of safety performance culture.

Contents of Electrical Safety Audit Report:

• Introduction
• Overview of Electrical system
• Observations and Recommendations
• Lightning Protection System Evaluation
• Electrical Hazards and Control measures
• Hazardous Area- Observations & Recommendations
• Review of Electrical Accidents and control measures
• Review of Fire Hazards and Protection Measures
• Electrical Maintenance Review
• Review of Electrical Test Records & Test Procedures
• Annexure (References/Guidelines)
• Photographs

Scope for Electrical Safety Audit:

Electrical Safety Audit reviews the degree of safety of the overall electrical system in the premises, providing recommendations and measures to be taken to minimize or eliminate the risk of electrical hazards. Following is the scope in detail:

• Review of policies, procedures and management systems
• Review of the electrical hazards identification and risk assessment.
• Review of the earthing and lightning protection system implemented in the plant to ensure the equipment and human safety.
• To check earth resistance of earth pits and sockets on sampling basis.
• Review of EPM (Electrical Preventive Maintenance) program in the facility Review of the shutdown procedure, work permits, lock-out tags etc.
• To check the hotspot in the electrical installation and equipment by using a thermal imager.
• Review of the electrical distribution network & system of the plant emphasizing on adequacy and functionality of protection devices.
• Review of the electrical documents like register of electrical installations, single line diagrams, test records (Transformer oil test, Insulation Resistance test and Earth Resistance tests) and data sheets of critical electrical installations.
• Review of Lightning Protection, Electrical Hazards, Shocks & Fires, Protection Devices, Earthing Systems, Equipment Layout, Cable Size Adequacy
• Review of the availability & reliability of emergency systems such as DG set, UPS, battery etc.
• Review of the records of training and competency of employee and contractor performing the electrical work.
• Review of the awareness of employees and contractors related to electrical safety, electrical hazard at workplace and the precautions to be taken.
• Identify the training needs of the plant employee from the point of view of electrical safety.
• Physical verification of warning signage & labelling on all electrical distribution panels, transformer and switchgear.
• Review of fire system protection.

Approach and Methodology:

• A Pre-Audit Meeting (opening meeting) discussing the major guidelines with the management team and all the concerned departments.
• On-site visit and inspection to identify potential electrical hazards as per the scope of the audit. This may include incoming supply receiving section, electrical equipment installed in building, earthing, cabling, loose cabling, lighting protection, temporary wiring, maintenance condition, electrical fire hazards, shock potential etc. During the field visit the verification of the actual installation compared to the available drawing (such as electrical single line diagram (SLD), earthing layout, etc.) is also carried out.
• Review of Documentation / Records (All the relevant maintenance documentation, test records, electrical records and electrical inspector reports).
• Submission of final electrical safety audit (ESA) report to client incorporating agreed changes/comments, findings and recommendations

Our Team consists of BEE Certified Accredited Energy Auditors, Energy Managers and Industrial Experts

Other Related Audits

• Environmental Audits: ISO 14001 family, ISO 27001, REACH2/RoHS, WEEE compliance
• Water Audit and Footprint Assessment - ISO 14046
• Verification of GHG inventories - ISO 14064 standard
• Assurance to Sustainability Reports in line with AA1000AS

ENERGY CONSERVING, ENERGY EFFICIENT, SAFE AND SUSTAINABLE SOLUTIONS

DURREL facilitates deployment of solutions aimed at energy conservation / consumption optimization at large and meticulous selection of unit level energy efficient products

• IoT enabled monitoring equipments and Smart meters
• AI enabled Control panels
• VFD and HVAC performance enhancer
• Heating, Ventilation, Air Conditioning and Refrigeration Solutions
• HVLS and BLDC fans
• Energy Storage Systems, UPS, Inverters, Power Conditioners
• Skylights and Lighting control systems
• Home and plant automation
• Heat resistive paint
• Energy efficient motors
• Turbo ventilator
• Sealing and insulation
• Innovative fenestration systems

and other green building products 

Energy-efficient heating, ventilation, air conditioning, and refrigeration (HVAC&R) systems

Designing an energy-efficient heating, ventilation, air conditioning, and refrigeration (HVAC&R) systems for commercial and industrial buildings requires a combination of strategic methodologies and practical implementation techniques considering various factors such as building size, function, occupancy, usage, budget, climate, energy efficiency goals, and other sustainability objectives. Durrel specialize in adopting a comprehensive approach, integrating various methodologies and practices into HVAC&R design process and implementing them effectively at the site. We assure to offer a highly energy-efficient systems that reduce operational costs, minimize environmental impact, and enhance occupant comfort and productivity.

The best practices in approach methodologies comprise: 

• Energy Modeling and Simulation: Utilize advanced software tools for energy modeling and simulation to predict the performance of different HVAC&R system configurations under varying conditions. This helps in identifying the most energy-efficient design before implementation.
• Integrated Design Approach: Adopt an integrated design approach that considers the interactions between building envelope, HVAC&R systems, and other building systems such as lighting and controls. This ensures that the HVAC&R system is optimized to work synergistically with other building components to minimize energy consumption.
• Right-Sizing Equipment: Avoid over-sizing or under-sizing HVAC&R equipment by conducting detailed load calculations based on factors such as building orientation, occupancy, internal heat gains, and climate data. Right-sizing equipment ensures optimal performance and energy efficiency.
• High-Efficiency Equipment Selection: Prioritize the selection of high-efficiency HVAC&R equipment that meets or exceeds industry standards such as ENERGY STAR ratings or LEED certification requirements. This includes energy-efficient chillers, boilers, heat pumps, air handlers, and ventilation systems.
• Variable Speed Drives (VSD): Incorporate variable speed drives in HVAC&R equipment such as pumps, fans, and compressors to match system output with actual demand. VSDs allow for precise control and modulation of equipment speed, resulting in significant energy savings.
• Energy Recovery Systems: Integrate energy recovery systems such as heat exchangers or heat pumps to capture and reuse waste heat or coolness from exhaust air streams. This reduces the need for additional heating or cooling energy and improves overall system efficiency.
• Optimized Control Strategies: Implement advanced control strategies centralized control and optimization, with building automation systems (BAS) that integrate HVAC&R, lighting, security, and other building systems to optimize overall system operation based on real-time conditions, occupancy schedules, weather forecasts and energy demand, using sensors and algorithms to adjust settings. This includes strategies like demand-controlled ventilation, setback temperatures during unoccupied hours, and predictive maintenance.
• Passive Design Strategies: Passive design techniques focus on using building orientation, natural ventilation, shading, insulation, and thermal mass to minimize the need for mechanical heating and cooling. These strategies can complement active HVAC&R systems to improve energy efficiency.
• Commissioning and Retro-Commissioning: Ensure thorough commissioning of the HVAC&R system during installation to verify that equipment operates according to design specifications and performance requirements. Additionally, schedule periodic retro-commissioning to fine-tune system performance and identify opportunities for further energy savings.
• Regular Maintenance and Monitoring: Establish a comprehensive maintenance schedule to keep HVAC&R equipment clean, calibrated, and operating efficiently. Implement continuous monitoring and data analytics to identify performance deviations and potential energy-saving opportunities in real-time.
• Occupant Engagement and Education: Educate building occupants about energy-saving practices and encourage their participation in energy conservation efforts. Simple actions such as turning off lights and adjusting thermostat settings can contribute to significant energy savings over time.

Technical considerations of holistic HVAC&R system

Heating System: Durrel engineers spend considerable care in selection of Heat Source (furnaces, boilers, or heat pumps), Fuel Type (Natural gas, electricity, oil, or renewable energy sources), Selecting high-efficiency equipment to minimize energy consumption and operational costs, Distribution schematics (Ductwork, radiant heating, or baseboard heaters for distributing heat effectively throughout the building), Designing zoning systems to control heating in different areas independently for increased comfort and energy savings.

Ventilation System: Here the considerations include determining the required air changes per hour (ACH) to maintain indoor air quality, Air Filtration types to remove pollutants, allergens, and particulate matter from the incoming air, incorporating heat recovery ventilation systems to capture and reuse heat from exhaust air, improving energy efficiency, ensuring proper humidity levels for comfort and health, especially in humid or arid climates.

Air Conditioning System: It is very important to perform the Cooling Load Calculation for the building based on factors like size, orientation, insulation, and occupancy, Selecting the Cooling Equipment (central air conditioning units, ductless mini-split systems, or rooftop units based on the building's requirements), Using environmentally friendly refrigerants with low global warming potential (GWP) and ozone depletion potential (ODP), Opting for high-efficiency equipment and implementing energy-saving features like variable-speed compressors and fans and designing the Air Distribution Network comprising ductwork or air handlers to deliver conditioned air evenly throughout the building.

Refrigeration System: Sizing the refrigeration system to meet the specific cooling capacity requirements of refrigerated spaces such as walk-in coolers, freezers, or refrigerated display cases, Ensuring precise temperature control to preserve the quality and safety of perishable goods, Implementing defrost cycles or systems to prevent ice buildup on evaporator coils and maintain efficiency, Selecting energy-efficient compressors, condensers, and evaporators to minimize operating costs.

Controls and Automation: We take care in installing programmable or smart thermostats and sensors to monitor and regulate temperature, humidity, and air quality and Integrating HVAC&R systems with a centralized Building Management System (BMS) for remote monitoring, control, and optimization of equipment operation, Implementing Fault Detection and Diagnostics (FDD) algorithms to identify and troubleshoot equipment malfunctions or performance issues proactively.

Types of HVAC&R Systems: 

• Conventional Systems: These are traditional HVAC systems comprising centralized equipment such as boilers, chillers, air handling units (AHUs), and ductwork. They are suitable for medium to large buildings and offer centralized control.
• Variable Air Volume (VAV) Systems: VAV systems adjust the airflow to different zones or spaces within a building based on temperature requirements. They use dampers in the ductwork to regulate airflow, offering energy savings compared to constant volume systems.
• Constant Air Volume (CAV) Systems: Unlike VAV systems, CAV systems deliver a constant airflow regardless of the cooling or heating load. They are simpler in design but may be less energy-efficient compared to VAV systems, especially in buildings with varying loads.
• Heat Pump Systems: Heat pumps provide both heating and cooling by transferring heat between the indoor and outdoor environments. They are efficient in moderate climates and can be used for both comfort and process heating/cooling in industrial settings.
• Radiant Heating and Cooling Systems: Radiant systems use radiant panels, floors, or ceilings to heat or cool spaces directly through infrared radiation. They offer comfort benefits and energy savings, particularly in spaces with high ceilings or specific heating/cooling requirements.
• District Heating and Cooling Systems: In urban areas or large developments, district heating and cooling systems supply thermal energy from a central plant to multiple buildings via underground piping networks. They can utilize various heat sources, including waste heat from industrial processes.
• Energy Recovery Ventilation (ERV) Systems: ERV systems recover heat or coolness from exhaust air to precondition incoming fresh air. They are effective in improving indoor air quality while reducing energy consumption by minimizing the load on heating and cooling equipment.
• High-Performance HVAC&R Systems: These systems incorporate advanced technologies such as variable refrigerant flow (VRF), geothermal heat pumps, evaporative cooling, and advanced control algorithms to achieve superior energy efficiency, comfort, and sustainability goals.

Industrial Grade UPS and Inverters

Durrel expertise in Assemble - Integrate - Test - Deploy - Management (AITDM) model of Industrial grade UPS and inverters that are built to withstand harsher environmental conditions and are designed for heavy-duty applications in industrial plants, manufacturing facilities, large data centers, and critical infrastructure. They typically offer higher power capacities and are engineered for continuous operation under demanding conditions. Industrial grade units often incorporate advanced features such as galvanic isolation, ruggedized construction, and redundant components to ensure maximum reliability and uptime. We follow the process as follows.

• Assessment, Sizing, System Design and Integration: A thorough assessment of the facility's power requirements is essential to determine the appropriate UPS or inverter capacity. Factors such as load characteristics, power quality requirements, and criticality of equipment influence the selection process. Designing a robust power protection system involves selecting the right UPS or inverter model and integrating it with other components such as batteries, automatic transfer switches (ATS), and monitoring systems ensuring seamless operation and enhances system reliability.
• Installation, Commissioning and Maintenance: Proper installation by trained professionals is crucial to ensure optimal performance and compliance with safety standards and involves testing the system under various operating conditions to validate its functionality and efficiency. Regular maintenance routines, including battery health checks, firmware updates, and system diagnostics, help prevent potential issues and ensure long-term reliability. Prompt technical support and troubleshooting services are offered to address any operational challenges and minimize downtime.
• Training and Education: We provide training to facility staff on the operation and maintenance of UPS and inverter systems enhances their ability to respond effectively to power-related incidents and awareness programs about best practices for power management and safety.

Auxiliary Power Units (APUs)

Durrel expertise in Assemble - Integrate - Test - Deploy - Management (AITDM) model of Auxiliary Power Units (APUs), that play a crucial role in enhancing the efficiency, reliability, and sustainability of mobile vehicles and equipment by providing independent power for auxiliary functions while minimizing fuel consumption, emissions, and operational costs. They are typically used in vehicles, aircraft, and other mobile applications to provide supplementary power for various functions. Our advanced APUs are compact, lightweight, and battery powered units featuring electronic controls, remote monitoring capabilities, and integrated energy management systems for optimized performance and reliability.

• In Trucks, Recreational Vehicles, Buses and Heavy-duty vehicles, APUs are often used to power onboard systems such as heating, air conditioning, and electrical appliances without idling the main engine and help reduce fuel consumption, emissions, and engine wear by providing an independent power source for auxiliary functions during rest periods or when the main engine is turned off.
• In aircraft, APUs serve a similar purpose by providing power for onboard systems such as cabin lighting, climate control, avionics, and starting the main engines. APUs are particularly crucial during ground operations, enabling aircraft to operate independently of ground-based power sources or the main engines. They also provide backup power in case of main engine failure or electrical system malfunctions.
• In Rail and Marine Applications, APUs are used to power auxiliary systems such as lighting, ventilation, and communication equipment. They help to enhance operational flexibility and efficiency by reducing the need to run main engines for auxiliary power requirements.

Portable Power Stations

Durrel offers Large portable power stations are equipped with batteries capable of storing significant amounts of electrical energy, often ranging from several hundred watt-hours to multiple kilowatt-hours. This high capacity allows them to power a wide range of devices and appliances for extended periods, making them suitable for outdoor events, construction sites, emergency backup, and off-grid living. Large portable power stations, also known as high-capacity portable power stations or portable power generators, are robust and versatile devices designed to provide substantial amounts of electrical power for extended periods. These units typically feature high-capacity batteries, robust inverters, and multiple output ports to accommodate various electronic devices and appliances.

Features of our Portable Power Stations: 

• Multiple Output Ports: These power stations typically feature a variety of output ports to accommodate different types of devices and appliances. Common output options include AC outlets (for powering laptops, TVs, power tools, etc.), DC ports (for charging car accessories, portable fridges, etc.), USB ports (for charging smartphones, tablets, cameras, etc.), and sometimes even wireless charging pads.
• Inverter Technology: The built-in inverters in large portable power stations convert the DC power stored in the batteries into AC power, allowing them to power devices that require standard household electricity. Inverters in these units are often pure sine wave inverters, which provide clean and stable power similar to that from the grid, making them safe for sensitive electronics.
• Expandability: Some large portable power stations offer expandability options, allowing users to increase their power capacity by connecting additional battery packs or solar panels. This modular design enables users to customize their power stations according to their specific needs and power requirements.
• Portability: Our models feature built-in handles or wheels for easy transportation, and some are designed to fit in the trunk of a car or RV for travel and outdoor adventures.
• Charging Options: These power stations can be recharged via various methods, including AC wall outlets, solar panels, and car DC adapters. Solar charging is particularly useful for off-grid applications and outdoor adventures, providing a renewable and sustainable energy source for extended use.
• Safety Features: High-quality large portable power stations often incorporate safety features such as overcharge protection, over-discharge protection, short-circuit protection, and thermal protection to ensure safe and reliable operation.

Energy Storage (ESS) Systems

Energy storage system for a specific application depends on various factors including the required power output, duration of storage, scalability, site constraints, and budget considerations. Here are some common applications and suitable energy storage systems. We at Durrel specialize in Design, Selection, Deployment and Management of UPS and Energy Storage Solutions encompassing Batteries, BMS, Power converter / Hybrid inverter, Controller, HVAC, SCADA, Enclosure, Fire suppression and other associated systems

Commercial and Industrial (C&I) Energy Storage:

• Lithium-ion batteries: Provide scalable solutions for peak shaving, demand charge management, and backup power.
• Flow batteries: Suitable for C&I applications requiring longer-duration energy storage and frequent cycling.
• Thermal energy storage: Used for cooling applications in commercial buildings, leveraging off-peak electricity to generate ice or chilled water for air conditioning during peak periods.

Renewable Energy Integration:

• Lithium-ion batteries: Paired with wind or solar farms to smooth out intermittencies and ensure reliable power output.
• Hydrogen energy storage: Electrolyzers coupled with renewable energy sources to produce hydrogen for later use in fuel cells or for industrial applications.
• Flywheel energy storage: Provides rapid response and short-duration energy storage to mitigate fluctuations in renewable energy generation.

Microgrid and Remote Area Power Systems (RAPS):

• Hybrid systems: Combining multiple storage technologies such as batteries, diesel generators, and renewable energy sources to provide reliable and sustainable power in remote locations.

Transportation:

• Lithium-ion batteries: Dominant technology in electric vehicles (EVs) due to high energy density and rapid charging capabilities.
• Hydrogen fuel cells: Used in fuel cell vehicles (FCVs) for longer range and shorter refuelling times compared to battery EVs.

Popular Battery Chemistries

• Nickel - Cadmium (Ni-Cd)
• Nickel - Metal Hydride Batteries (Ni-MH)
• Nickel- Manganese-Cobalt (NMC)
• Lithium Ion Battery (Li-ion)
• Lithium Ion Polymer Battery (Li-Po)
• Lithium Ferrous Phosphate (LFP)
• Sodium Ion Batteries (SIB)

Rise of Sodium Ion Batteries

Sodium-ion batteries (Na-ion batteries) have garnered attention as potential alternatives to lithium-ion batteries due to the abundance of sodium resources and their potentially lower cost.

• Grid Energy Storage: Sodium-ion batteries can be used for grid-scale energy storage applications, including storing electricity from renewable sources like solar and wind power. They can help balance supply and demand fluctuations, improve grid stability, and support the integration of intermittent renewable energy sources.
• Electric Vehicles (EVs): Sodium-ion batteries could be used in electric vehicles, particularly in applications where cost is a significant factor. While they may have lower energy density compared to lithium-ion batteries, they could offer a more cost-effective solution for certain types of electric vehicles, such as buses or fleet vehicles.
• Stationary Storage Systems: Sodium-ion batteries can be deployed in stationary storage systems for residential, commercial, and industrial applications. They can store energy during off-peak hours and discharge it during peak demand periods, reducing electricity costs and providing backup power during outages.
• Consumer Electronics: While lithium-ion batteries dominate the consumer electronics market, sodium-ion batteries could find applications in less demanding consumer electronics such as low-power devices, remote sensors, or devices in regions where cost considerations outweigh energy density requirements.
• Backup Power Systems: Sodium-ion batteries can be used as backup power systems for critical infrastructure, telecommunications, data centers, and emergency lighting. Their lower cost compared to lithium-ion batteries makes them attractive for applications where long-duration energy storage is essential but high energy density is not a primary concern.
• Remote Off-Grid Applications: In remote or off-grid locations where access to electricity is limited, sodium-ion batteries can provide a reliable and cost-effective energy storage solution. They can power off-grid homes, telecommunications towers, remote monitoring stations, and other infrastructure.
• Marine and Aerospace Applications: Sodium-ion batteries may find applications in marine vessels, such as ferries and offshore platforms, where cost and safety are critical considerations. They could also be explored for aerospace applications, such as satellites or unmanned aerial vehicles (UAVs), where weight and cost constraints are less stringent compared to lithium-ion batteries.
• Research and Development: Sodium-ion batteries continue to be an active area of research and development, with ongoing efforts to improve their performance, energy density, cycle life, and safety characteristics. As technology advances and manufacturing scales up, new applications may emerge, further expanding the market for sodium-ion batteries.

EV / EVSE / EVCS PROJECT MANAGEMENT SERVICES

CHARGE POINT COMMISSIONING PROJECT MANAGEMENT

• Deploy, commission, maintain and manage private/retail, commercial/utility, public and cargo fleet/rideshare charging infrastructure - Type1, Type2, CHAdeMO, CCS, Bharat AC 001, Bharat DC 001 and others
• Cloud based intuitive app for remote O&M
• Real time health monitoring of uptime, capacity utilization, power consumption, performance ratios, degradation and others
• Predictive maintenance alerts: time / event / usage based alerts, warranty, diagnostics and service reminders
• Protection from damage and theft using geotagging and geofencing
• Execute Annual Maintenance Contract on behalf of OEM

ESG FRAMEWORK

ESG or Environmental, Social, and Governance, represents a framework used by investors, businesses, and organizations to evaluate and measure the sustainability and ethical impact of an investment or business operation

• Environmental: Focuses on factors related to environmental sustainability, such as climate change, greenhouse gas emissions, energy efficiency, waste management, and natural resource conservation.
• Social: Addresses social issues, including labour practices, human rights, diversity and inclusion, community engagement, health and safety, and supply chain management.
• Governance: Covers governance structures, policies, and practices, including board diversity, executive compensation, transparency, ethics, risk management and shareholder rights.

ESG SERVICES

Durrel will support clients with the following multipronged approach encompassing Auditing, Training. Advisory Consulting and Deployment frameworks for ESG Compliance, Sustainability Reporting and Disclosure, Carbon border taxes and other related areas across the value chain

• Sustainable ESG Strategy Development and Deployment Methodologies: Assists clients in developing ESG strategies aligned with their business goals, values, and stakeholder expectations. Deployment methodologies may comprise Materiality Assessment, ESG Integration, Impact Measurement, Stakeholder Engagement and dialogue facilitation to understand their ESG concerns and expectations and integrate feedback into decision-making processes
• Data Automation for ESG Reporting and Disclosure framework: Helps clients prepare and improve ESG disclosures and reports through data management automation feeding into reporting frameworks and standards like GRI, PRI, TCFD, BRSR, SASB, SEC, SFDR, CCRF, CSRD, CBAM, ISSB, SBTi, CDP, Higg, GHG PROTOCOL, UNSDG Policies, Protocols, Principles, Frameworks, Regulations, Goals and Actions, for Scope 1, 2 and 3 emissions
• ESG Performance Measurement, Benchmarking and Analysis: Develop key performance indicators (KPIs) and metrics to track and measure ESG performance over time, Ongoing Monitoring, Evaluation, and Continuous Improvement
• ESG Training and Capacity Building: Provides training and capacity-building programs to enhance internal capabilities for managing ESG issues and initiatives
• Carbon Neutrality Achievement aligning with Circular Economy: Effective deployment of Offsetting and Reduction strategies comprising Carbon Life Cycle Assessment, Accounting, Reduction in CO2 and GHG emissions inventory leading to achieve net zero emission / carbon neutrality / decarbonization and aligning in line with Circular economy. We facilitate full cycle e-waste management handling Reclaim-Recover-Reduce-Retire or Reclaim-Refurbish-Repair-Restore-Reuse or Reclaim-Repurpose-Reuse processes
• ESG Risk and Reputation Management: Identify and assess ESG risks and opportunities, mitigate risks of Green Hushing and Green Washing that may impact the financial performance and reputation of a company
• Financial Benefits: Access to Capital and Low Barrowing Cost, Pricing Adjustment – Trading – Monetization and Savings on border taxes through CBAM Compliance and others

Why Choose Us?

• Expert Guidance: With our team of seasoned ESG consultants by your side, you'll gain access to unparalleled expertise and insights into best practices for sustainability reporting and GHG emissions reduction. From establishing ambitious sustainability goals to implementing robust reporting frameworks, we'll guide you every step of the way.
• Tailored Solutions: We understand that every business is unique, with its own set of challenges and opportunities. That's why we take a customized approach to BRSR consulting, working closely with your team to develop tailored strategies that align with your organization's values, objectives, and industry requirements.
• Enhanced Reputation: By demonstrating a commitment to transparency and accountability through comprehensive sustainability reporting, your business can enhance its reputation and build trust with stakeholders, including investors, customers, employees, and regulatory agencies. Our BRSR consulting services will help you tell your sustainability story effectively and authentically.
• Risk Mitigation: In today's interconnected world, environmental and social risks can have far-reaching implications for businesses of all sizes. Our proactive approach to BRSR consulting is designed to help you identify and mitigate risks associated with GHG emissions, climate change, supply chain management, and more, safeguarding your business's long-term viability and resilience.

MATERIALITY ASSESSMENT

Materiality assessment is a systematic process used by companies to identify, prioritize, and evaluate the significance of various environmental, social, and governance (ESG) issues to their business and stakeholders. The goal of a materiality assessment is to determine which ESG factors are most relevant and impactful to the company's operations, performance, and long-term sustainability.

The materiality assessment typically involves the following steps:

• Stakeholder Engagement: Companies engage with a diverse range of stakeholders, including investors, customers, employees, suppliers, communities, NGOs, and regulators, to understand their perspectives on ESG issues and concerns.
• Issue Identification: Through stakeholder engagement, as well as internal analysis and research, companies identify a broad range of ESG issues that may be relevant to their business. These issues can include environmental impacts, social issues such as labour practices and human rights, and governance matters like board diversity and executive compensation.
• Issue Prioritization: Once the full range of ESG issues is identified, companies prioritize them based on their potential impact on the company's financial performance, reputation, and stakeholder interests. Factors such as the likelihood and magnitude of impact, regulatory requirements, industry norms, and stakeholder expectations are considered in this prioritization process.
• Assessment Criteria: Companies develop criteria for assessing the materiality of ESG issues, which may include factors such as strategic importance, financial relevance, reputational risk, legal and regulatory compliance, stakeholder concerns, and emerging trends.
• Materiality Matrix: Companies often present the results of the materiality assessment in the form of a materiality matrix or similar visualization tool. This matrix categorizes ESG issues based on their level of importance to the company and its stakeholders, typically using a two-dimensional grid with axes representing impact and significance.
• Integration into Strategy and Reporting: Based on the findings of the materiality assessment, companies integrate material ESG issues into their strategic planning processes, risk management frameworks, decision-making, and reporting practices. Material ESG issues are typically disclosed in corporate sustainability reports, annual reports, and other communications to stakeholders.

BUSINESS RESPONSIBILITY AND SUSTAINABILITY REPORTING (BRSR)

In today's rapidly evolving business landscape, sustainability isn't just a buzzword – it's a strategic imperative. As businesses worldwide recognize the importance of environmental, social, and governance (ESG) factors, the demand for transparent and comprehensive sustainability reporting is at an all-time high. That's where we come in.

BRSR or "Business Responsibility and Sustainability Reporting", this term encompasses the practice of organizations reporting on their environmental, social, and governance (ESG) performance, including their efforts to reduce greenhouse gas (GHG) emissions and other environmental impacts, as well as their social and ethical practices.

BRSR typically involves the disclosure of information related to a company's sustainability initiatives, such as carbon emissions, energy consumption, waste management, diversity and inclusion policies, community engagement, and more. This reporting is often done through various frameworks and standards, such as GRI, PRI, TCFD, BRSR, SASB, SEC, SFDR, CCRF, CSRD, CBAM, ISSB, SBTi, CDP, Higg, GHG PROTOCOL, UNSDG Policies, Protocols, Principles, Frameworks, Regulations, Goals and Actions.

The goal of BRSR is to provide stakeholders, including investors, customers, employees, and communities, with transparent and accurate information about a company's sustainability performance and impact, thereby promoting accountability, trust, and informed decision-making.

At DURREL, we're passionate about helping commercial and industrial establishments like yours navigate the complex terrain of sustainability and make meaningful strides towards reducing greenhouse gas (GHG) emissions. Our Business Responsibility and Sustainability Reporting (BRSR) consulting services are designed to empower your business to embrace its environmental stewardship role while driving long-term value and impact.

DATA MANAGEMENT AND AUTOMATION FOR REPORTING

Best practices in ESG data management involve several key steps to ensure accuracy, consistency, transparency, and efficiency. Automation can significantly enhance these processes by streamlining data collection, analysis, reporting, and decision-making. Here are some best practices and automation strategies for ESG data management:

• Define Data Requirements: Clearly define the ESG data requirements based on relevant standards (GRI, PRI, TCFD, BRSR, SASB, SEC, SFDR, CCRF, CSRD, CBAM, ISSB, SBTi, CDP, Higg, GHG PROTOCOL, UNSDG Policies, Protocols, Principles, Frameworks, Regulations, Goals and Actions) and stakeholder expectations. This ensures that the data collected is relevant, comparable, and aligned with industry best practices.
• Automated Data Collection: Implement automated data collection systems to gather ESG data from internal sources (e.g., financial reports, operational databases) and external sources (e.g., third-party databases, industry reports, regulatory filings). Use application programming interfaces (APIs), data scraping tools, and data integration platforms to collect data efficiently from various sources.
• Data Validation and Quality Assurance: Develop automated validation processes to ensure the accuracy, completeness, and reliability of ESG data. Implement data validation rules, consistency checks, and outlier detection algorithms to identify and address data errors or inconsistencies in real-time.
• Data Aggregation and Normalization: Use automated data aggregation and normalization techniques to consolidate ESG data from different sources and formats into a standardized data repository. This enables consistent reporting and analysis across the organization and facilitates benchmarking against industry peers.
• Data Analysis and Visualization: Leverage automated analytics and visualization tools to analyze ESG data, identify trends, patterns, and correlations, and generate actionable insights. Use machine learning algorithms and predictive analytics models to uncover hidden patterns and forecast future ESG performance.
• Stakeholder Engagement: Implement automated stakeholder engagement platforms to gather feedback, input, and preferences from stakeholders on ESG issues. Use online surveys, social media monitoring tools, and sentiment analysis algorithms to capture stakeholder perspectives and incorporate them into decision-making processes.
• Reporting and Disclosure: Automate the process of ESG reporting and disclosure by generating standardized reports, dashboards, and disclosures using predefined templates and data sets. Use reporting software and sustainability management platforms to streamline the preparation, review, and distribution of ESG reports to internal and external stakeholders.
• Continuous Monitoring and Improvement: Establish automated monitoring systems to track ESG performance metrics, KPIs, and targets in real-time. Implement alerts and notifications to flag deviations from targets or thresholds and trigger corrective actions as needed. Continuously assess and improve ESG data management processes based on feedback, lessons learned, and emerging best practices.

CARBON LIFE CYCLE ASSESSMENT

Carbon life cycle assessment (LCA) involves several steps to comprehensively analyze the carbon footprint of a product, process, or service. 

• Goal Definition and Scope: Define the objectives of the assessment and establish the boundaries of the study, including the system boundaries (i.e., which stages of the life cycle will be included), functional unit (e.g., one ton of product produced, one kilometer travelled), and the time frame.
• Inventory Analysis: Collect data on the inputs (e.g., raw materials, energy) and outputs (e.g., emissions, waste) associated with each stage of the product or process life cycle. This involves gathering data on energy consumption, material usage, transportation, and waste generation.
• Life Cycle Impact Assessment: Evaluate the environmental impacts associated with the carbon emissions identified in the inventory analysis. This step often involves converting the emissions data into common units (e.g., carbon dioxide equivalents) and assessing their impact on climate change.
• Interpretation: Analyze the results of the inventory analysis and impact assessment to identify the key sources of carbon emissions, hotspots in the life cycle, and opportunities for improvement. This step may also involve sensitivity analysis to assess the robustness of the results to different assumptions and scenarios.
• Improvement Analysis: Identify and evaluate potential mitigation measures to reduce carbon emissions throughout the life cycle. This could include energy efficiency improvements, process optimization, material substitutions, and other strategies to minimize environmental impact.
• Reporting and Communication: Prepare a report summarizing the findings of the carbon LCA, including the methodology, results, and recommendations for improvement. Communicate the results to stakeholders, such as clients, investors, regulators, and the public, to raise awareness and support decision-making.
• Review and Verification: Conduct a peer review or independent verification of the carbon LCA to ensure its accuracy, completeness, and credibility. This step may involve external experts or certification bodies to provide assurance to stakeholders.

ACCOUNTING GHG EMISSIONS:

In the fight against climate change, understanding and managing greenhouse gas (GHG) emissions is crucial for businesses. Emissions are categorized into three scopes—Scope 1, Scope 2, and Scope 3—each encompassing different sources of emissions. This categorization helps organizations comprehensively assess their carbon footprint and devise strategies to mitigate their environmental impact.

Scope 1 Emissions: Direct Emissions: They are direct GHG emissions from sources that are owned or controlled by the company. This includes emissions from combustion in owned or controlled boilers, furnaces, vehicles, and emissions from chemical production in owned or controlled process equipment like Fuel combustion in company vehicles, Emissions from on-site manufacturing processes and Fugitive emissions from refrigerants.

Scope 2 Emissions: Indirect Emissions from Purchased Energy: They are indirect GHG emissions from the consumption of purchased electricity, steam, heat, and cooling. These emissions occur at the facility where the energy is generated, not at the point of consumption. Examples include Electricity purchased from a utility provider, purchased steam or chilled water etc.

Scope 3 Emissions: Other Indirect Emissions: They encompass all other indirect emissions that occur in a company’s value chain. These emissions are a result of activities from assets not owned or controlled by the reporting organization arising out of Business travel, Employee commuting, Production of purchased goods and services, Waste disposal, Use of sold products etc.

ISO 14083: 2023 is a international standard that focuses on quantifying and reporting greenhouse gas (GHG) emissions from transportation. This standard aims to provide a consistent and reliable method for measuring and managing emissions across various modes of transport, including road, rail, air, and sea. 

ISO 14083 will cover all significant aspects of GHG emissions related to transportation activities. This includes emissions from the operation of vehicles, the production of fuel and energy used in transportation, and other related sources. The standard aims to standardize the methodology for calculating and reporting emissions, ensuring that organizations can consistently measure their transportation-related emissions and compare them over time or across different entities.

Measurement and Reporting: 

ISO 14083 will outline the types of data required to accurately measure transportation emissions, such as fuel consumption records, vehicle mileage, and specific emission factors for different types of vehicles and fuels. It will provide detailed calculation methods and equations to convert raw data into GHG emissions figures. This will likely include guidance on handling various fuel types, vehicle technologies, and operational practices. The standard will include or reference appropriate emission factors for different transportation modes and activities, ensuring that calculations reflect the latest scientific and industry knowledge.

Implementation and Use: 

ISO 14083 will be applicable to a wide range of organizations, from small businesses with company vehicles to large corporations with extensive transportation networks. The standard is aligned with existing ISO environmental standards, such as ISO 14064 (which deals with general principles and requirements for GHG inventories) and ISO 14001 (which focuses on environmental management systems). This alignment will help organizations integrate transportation emissions reporting into their broader environmental management and sustainability strategies.

CARBON BORDER ADJUSTMENT MECHANISM (CBAM)

As Carbon Border Adjustment Mechanism (CBAM) specialists, Durrel can offer a range of services to help clients navigate the complexities of CBAM implementation and compliance. We facilitate clients navigate the transition to a low-carbon economy and ensure compliance with CBAM regulations while maximizing opportunities for sustainable growth and competitiveness.

CBAM Compliance Assessment:

• Evaluate your operations and supply chains to determine their potential exposure to CBAM regulations.
• Assess the carbon footprint of their products and identify areas for emissions reduction to mitigate CBAM-related costs.
• Analyze the impact of CBAM on your clients' competitiveness and market positioning.

Policy Analysis and Guidance:

• Keep you informed about CBAM developments, including legislative updates, regulatory requirements, and compliance timelines.
• Provide guidance on how CBAM regulations may affect your clients' business strategies, investments, and operations.
• Advise on potential opportunities and risks associated with CBAM implementation.

Carbon Accounting and Reporting:

• Assist you in accurately measuring and reporting their carbon emissions to comply with CBAM requirements.
• Develop methodologies for calculating the carbon intensity of products and assessing their eligibility for CBAM exemptions or reductions.
• Help your clients establish robust carbon accounting systems and protocols to track emissions throughout their value chain.

Supply Chain Optimization:

• Work with you to optimize their supply chains for reduced carbon emissions and enhanced competitiveness under CBAM.
• Identify opportunities for sourcing lower-carbon materials, components, and energy sources.
• Collaborate with suppliers to improve transparency and traceability of carbon emissions data.

Carbon Offsetting and Reduction Strategies:

• Develop carbon offsetting strategies to help your clients meet CBAM requirements and reduce their carbon liabilities.
• Identify cost-effective opportunities for emissions reduction, energy efficiency improvements, and renewable energy adoption.
• Assist in the development and implementation of carbon reduction projects and initiatives.

Trade Compliance and Risk Management:

• Provide advice on trade compliance issues related to CBAM, including customs procedures, tariff classifications, and documentation requirements.
• Assist your clients in developing risk management strategies to address potential trade disputes, legal challenges, and market uncertainties associated with CBAM implementation.

Stakeholder Engagement and Advocacy:

• Engage with policymakers, industry associations, and other stakeholders to advocate for your clients' interests and influence CBAM regulations and implementation.
• Facilitate dialogue and collaboration between your clients and relevant stakeholders to address common challenges and promote best practices in carbon management.

The Carbon Border Adjustment Mechanism (CBAM) is a policy tool proposed by the European Union (EU) for advancing the EU's climate goals under the European Green Deal and achieving carbon neutrality by 2050. It is designed to address the issue of carbon leakage and ensure a level playing field for industries facing unequal carbon pricing regulations. It aims to prevent carbon leakage, which occurs when industries relocate their production to regions with less stringent carbon pricing regulations, leading to an increase in global emissions. Its implementation involves complex technical, legal, and political considerations, and discussions are ongoing to finalize the design and scope of the mechanism.

The main objective of the CBAM is to protect the competitiveness of EU industries while encouraging global efforts to reduce greenhouse gas emissions. The mechanism operates by imposing carbon costs on imports of certain goods into the EU based on their carbon content or the carbon intensity of their production process. This effectively extends the EU's carbon pricing system to imported goods, creating a level playing field for EU and non-EU producers.

Key features of the CBAM may include:

• Carbon Pricing for Imports: Under the CBAM, importers of certain goods into the EU would be required to purchase carbon permits or pay a carbon tax equivalent to the carbon cost of producing those goods in the EU. This ensures that imported goods face a similar carbon price as domestically produced goods, preventing carbon leakage.
• Carbon Content Measurement: Importers may be required to provide data on the carbon content or carbon intensity of their products to determine the applicable carbon costs. This could involve carbon footprint assessments, life-cycle analysis, or other methodologies to quantify the emissions associated with production.
• Phased Implementation: The CBAM may be introduced gradually, with a phased approach to implementation to allow affected industries and trading partners time to adjust. This could involve initially targeting specific sectors or products with high carbon intensity before expanding coverage over time.
• Trade Compatibility: The CBAM aims to comply with World Trade Organization (WTO) rules and international trade agreements to avoid trade disputes and ensure compatibility with existing trade frameworks. This includes principles such as non-discrimination, transparency, and proportionality.
• Revenue Use: Revenue generated from the CBAM may be reinvested in measures to support the transition to a low-carbon economy, such as funding clean energy projects, promoting energy efficiency, or assisting industries in decarbonization efforts.

MIGITATING RISKS OF GREEN HUSHING AND GREEN WASHING

Helping clients mitigate the risk of green washing and green hushing involves implementing robust ESG (Environmental, Social, and Governance) frameworks and practices.

• Transparent Reporting: Encourage your clients to provide transparent and accurate reporting of their ESG initiatives. This includes clear communication of goals, methodologies, progress, and outcomes. Utilize recognized reporting frameworks such as GRI (Global Reporting Initiative) or SASB (Sustainability Accounting Standards Board) to ensure consistency and credibility.
• Materiality Assessment: Conduct a materiality assessment to identify the most relevant ESG issues for your client's industry and stakeholders. This ensures that resources are focused on addressing the most significant risks and opportunities.
• Third-Party Verification: Recommend third-party verification or certification of ESG initiatives to validate their authenticity and credibility. Independent audits or certifications from reputable organizations can enhance trust and credibility among stakeholders.
• Stakeholder Engagement: Facilitate meaningful engagement with key stakeholders, including investors, customers, employees, and communities. This involves soliciting feedback, addressing concerns, and incorporating stakeholder perspectives into decision-making processes.
• Integration into Business Strategy: Advocate for the integration of ESG considerations into the core business strategy. Aligning ESG goals with overall business objectives ensures that sustainability initiatives are prioritized and embedded into the company's operations and culture.
• Continuous Improvement: Emphasize the importance of continuous improvement and adaptation in ESG practices. Encourage clients to regularly review and update their ESG strategies in response to evolving regulations, market trends, and stakeholder expectations.
• Education and Training: Provide education and training to internal stakeholders on ESG principles, best practices, and potential risks associated with greenwashing and green hushing. Building internal capacity ensures that ESG initiatives are effectively implemented and monitored across the organization.
• Benchmarking and Comparison: Assist clients in benchmarking their ESG performance against industry peers and best-in-class companies. This helps identify areas for improvement and sets aspirational targets for sustainability performance.
• Risk Management: Help clients identify and mitigate the risks associated with greenwashing and green hushing, including reputational, legal, and financial risks. Implement robust risk management processes to proactively address potential issues and ensure compliance with regulatory requirements.
• Ethical Leadership: Encourage ethical leadership and a commitment to integrity and accountability in all aspects of ESG management. By fostering a culture of transparency and responsibility, clients can build trust and credibility with stakeholders and mitigate the risk of green washing and green hushing.