Category Archives: Environment Management

Energy efficient comfort air conditioning

Legacy buildings with a total built-up area exceeding 15,000 square meters pose significant challenges to the Facility Management team in accomplishing transformative energy efficiency objectives. An evaluation of the existing energy performance of building services, coupled with a comprehensive, value-added transformative action plan regarding operational procedures and capital investment in retrofit engineering projects, is crucial for enhancing energy efficiency. This article centres on the HVAC system, which accounts for approximately 45-55% of the total energy consumption in a typical fully air-conditioned commercial building operating 24/7, 365 days a year.

The energy components of an HVAC system in a commercial building are

  • Ventilation system (~30-35%)
  • Cooling Plant (~25-30%)
  • Heating (~15-20%)
  • Pumps (~10-15%)
  • Cooling Towers (~5 – 10%)

(Reference:: www.energy.gov.au; hvac-factsheet-basics-energy-efficiency)

What is Thermal Comfort?

Thermal comfort is defined as that condition of mind which expresses satisfaction with the thermal environment.

Acceptable Thermal Environment – a thermal environment that a substantial majority (more than 80%) of the occupants find thermally acceptable.

– American Society of Heating, Refrigerating and Air-Conditioning Engineers (ASHRAE – 55,2020)

Balancing comfort and energy efficiency in air-conditioning requires careful consideration. Building design and commissioning using the adaptive method establishes acceptable indoor temperature ranges based on function and climate. Standards like ASHRAE 55-2020, ISO 7730–2005, and EN 15251–2007 incorporate adaptive models, which consider behavioural and technical adjustments, acclimatisation, and psychological acceptance.

Six influencing factors of comfort air-conditioning in an open-plan office

  • Personal attributes- Metabolic rate (Physical activities), Clothing insulation (Dress code)
  • Environmental attributes – Average room temperature, Average air speed, Average radiant temperature, and Humidity

How Facility Management can facilitate comfort air-conditioning for maximum occupants in a large office space (> 15,000 m2).

General approach

On-site physical measurements and target setting

ITEMEQUIPMENTPERFORMANCE INDICATORBASELINETARGET
1WHOLE BUILDINGGSF —— sqft /ton
2WHOLE BUILDING ENERGY PERFORMANCE INDEX (EPI)——– kWh/m2/Year
3WHOLE BUILDING HVAC SYSTEM ENERGY PERFORMANCE INDEX (EPI)——– kWh/m2/Year
4CHILLER— kW/ton (—/kWR)
5COOLING TOWER—kW/ton (—kW/kWR)
6CHILLED-WATER PUMP—-kW/ton (—-kW/kWR)
7CONDENSER WATER PUMP—-kW/ton (—-kW/kWR)
8AIR HANDLING UNIT—-kW/ton (—-kW/ton)

Energy Conservation Measures (ECM)

Decision-making regarding Energy Conservation Measures is contingent upon business management choices based on-

  • Driving factors – Business objectives, Regulatory guidelines, Climatic impact, Functional needs, Building architecture, construction and senior Management’s operational priorities.
  • Technical feasibility and risk assessment of proposed ‘Energy Conservation’ measures.
  • Prioritisation based on business impact
  • Occupants’ acceptance of behavioural change management within the facility.
  • Forecast energy savings and carbon emission abatement.
  • Cost-impact analysis
  • Branding and reputation

INDICATIVE ENERGY CONSERVATION MEASURES (ECM)

THERMAL ENVIRONMENT ENERGY CONSERVATION MEASURESENERGY EFFICIENCY IMPACTIMPLEMENTATION-EASE / COMPLEXITYCOST IMPACT OF ECM IMPLEMENTATION
PERSONAL ATTRIBUTES
ClothingDevelop and communicate a season-appropriate dress code for building occupants.ModerateEasy to implement
AwarenessConduct workshops to develop awareness of energy conservation and general acceptance of adaptive thermal comfort management..Every 1 0C increase in room temperature can result in a 2 to 3% reduction in HVAC system energy consumption.Easy to implement
SurveyConduct a thermal comfort survey, analyse and share feedback, and create a collaborative approach to improving sustainable indoor environmental quality.ModerateEasy to implement
ENVIRONMENTAL ATTRIBUTES
Reduce radiant heat gainsApply thermal insulation to walls and roofs to reduce heat transfer.

Apply high solar reflective index (SRI) paint on the rooftop and exterior walls to reduce solar heat gain.

SignificantModerateModerate
Indoor LightingEnergy-efficient LED lighting will reduce radiant room temperature.ModerateModerateModerate
Glass windows, façade, doorsTemporary shading – use of blinds or curtains to prevent indoor sun glare.ModerateEasy to implementLow
Dynamic glazing, including chromogenic glazingSignificantComplexHigh
Smart Energy and HVAC System MeteringCalibrate sensors periodically and replace faulty sensors.

Introduce a smart energy management system for continuous monitoring and control.

SignificantSignificantModerate
Room Temperature and humidity improvement.Roof top gardening, indoor potted plantersModerateEasy to implementLow
Smart thermostats to optimise temperature and ventilation rate settings based on occupancy.SignificantModerateModerate
Improve whole building air tightness.Sealing air duct leaks and maintaining clean filters of air handling units can yield up to 10% energy savings for HVAC systems.SignificantModerateLow
Exterior joints, cracks, and holes in the building envelope should be caulked, gasketed, weather stripped, or otherwise sealed to minimise air leakages.SignificantModerateLow
Conduct air leakage tests as per ISO 9972:2015 or ASTM E779, E1827, or E3158 to determine root causes. If leakages exceed 25% of the building commissioning test value, perform an infrared imaging along with a visual inspection and smoke test.SignificantSignificantModerate
Improve the performance efficiency of Cooling Towers, Condensers, and Chiller Plant.Evaluate and assess the performance effectiveness of the primary heat exchange equipment – cooling tower, condensers, and chiller plant. Examine the root causes of a heightened approach temperature in relation to the information provided in the commissioning test report.SignificantEasy to implementLow
Variable Air Volume systemExplore the opportunity for retrofitting VAV systems where occupancy variation is significant throughout the day or week. (Sports amenities, cafeteria, conference and meeting room, etc.)SignificantModerateModerate
Introduce Smart PumpsReplace multiple time-repaired pump motors with new smart pump sets.SignificantModerateModerate
Improve Fan efficiencyReplace the entire fan assembly with a high-efficiency fan assembly.SignificantComplexHigh
Replace conventional V-belts with energy-efficient flat belts or cogged, raw-edged V-belts with AHU fan units.ModerateModerateModerate
Electronically Commutated Motors (ECMS) can provide significant energy savings and controllability in series-fan-powered Air Terminal Units (ATUS), which are used in constant volume air distribution systems.SignificantModerateModerate
Effective Ventilation SystemAnalyse and explore the opportunity for integration of the ‘Demand Controlled Ventilation’ (DCV) system in the HVAC system.SignificantModerateModerate
Explore opportunities for Energy Recovery Ventilation (ERV) systems in hot and humid, as well as temperate, climatic zones.SignificantModerateHigh
Opportunities for retrofitting Free Cooling – Air or Water Economisers.SignificantModerateModerate
HVAC system equipment optimisationProgrammable thermostats and smart Controllers for predictive scheduling of equipment run hours based on cooling demand.SignificantComplexHigh
Investigate the possibility of installing variable speed drives on centrifugal chillers and implementing intelligent optimisation (Central Plant Optimiser) for chillers, cooling towers, and air handling units.SignificantComplexHigh
Low Delta T syndromeAddress the underlying causes of Low Delta T syndrome in the HVAC system.SignificantModerateLow

Challenges in the Implementation of Energy Conservation Measures

  • Management buy-in
    • Lack of awareness about the environmental, reputational, market, and financial benefits of ECMs.
    • Lack of coordination among multiple stakeholders in multi-tenant properties, including various investors, facility maintenance teams, and local government authorities.
    • Cultural resistance to changes in office etiquette can have a direct or indirect impact on energy management discipline.
    • Inadequate regulatory measures for energy conservation.
    • The absence of, or inadequate awareness of, financial or non-financial incentives from governmental authorities fails to drive initiatives for ECMs.
  • Insufficient budget allocation.
    • The estimated initial soft costs, which cover the energy audit process and the engagement of a team of experts for analytical cost-benefit and environmental impact analysis, are not allocated.
    • A high-cost investment-grade audit procedure does not guarantee savings from energy-saving measures due to the long payback period, typically ranging from 3 to 5 years or more, and the unpredictable dynamics of business operations within the property.
  • Difficulties in project planning.
    • An inadequate energy management system is in place to monitor and track operating systems.
    • Insufficient and poor-quality information and historical data from the site.
  • An unskilled in-house team.
  • Insufficient knowledge and skill set to conduct on-site testing procedures for Chiller Plant equipment, cooling towers, fans, blowers, and the air-tightness of air ducts and rooms.

Conclusion

In today’s workspaces, feeling comfortable with the temperature is a key part of enjoying your workplace experience. When discomfort lingers, it can significantly impact productivity. That’s why energy-efficient air conditioning is so important; it adds significant value that the facilities management team can bring to any building. With thoughtful planning and innovative measures, even older buildings can see a remarkable transformation.

Property Manager’s Dilemma: Reusing Treated Wastewater in Group Housing Society

Water is an essential resource necessitating sustainable management practices. SDG target 6.3 focuses on halving the amount of untreated wastewater and greatly enhancing global recycling and safe reuse by 2030. SDG indicator 6.3.1 tracks the proportion of total, industrial, and domestic sewage that meets national or local treatment standards. Water stress affects residential, industrial, and agricultural sectors worldwide. The global platform 50L Home promotes water circularity, resilient water management, and carbon efficiency. According to its observation, “On average, the energy required for household water use is approximately 18% of total energy use in the home, contributing to greenhouse gas (GHG) emissions.”

Why does Property Management need to focus on Water Management?

A strong water management system is essential for environmental and operational sustainability and for safeguarding the health and well-being of communal housing residents. Governmental and non-governmental ecological protection agencies are becoming more watchful of water pollution and consumption. Regulations are continuously being established and updated, aiming at water conservation and environmental preservation. Consequently, housing societies need to develop innovative strategies to ensure the health and well-being of residents while maximising water conservation.

The prevalent challenges associated with transitioning from a disposable wastewater model to a practice of optimised freshwater usage, efficient wastewater treatment, and the reuse of treated wastewater within communal housing water management regimes.

  • Lack of access to adequate clean domestic water
  • Poor monitoring systems for drinking water quality and continuity.
  • Minimal or no recycling and reuse of treated safe wastewater
  • Insufficient metering system for tracking water flow usage.
  • Inadequate understanding of water sustainability issues.

Why is treated wastewater reuse significant for the Housing Society?

  • Reusing treated wastewater is a key approach to achieving water sustainability, as envisioned by 50L Home’s goal of “daily 50L per person that feels like 500L”.
  • Groundwater is depleting at an accelerated rate, necessitating government authorities to implement regulations concerning water extraction hawkishly.
  • City Administrators are dealing with significant water scarcity and environmental pollution, mandating stringent water supply and sewage discharge norms for group housing.
  • On average, wastewater is estimated to account for 80% of the domestic water supply. The target for efficient treatment and reuse of wastewater is 40%, with a progressively higher share of total wastewater generation in the coming years.
  • The energy expenditure constitutes a substantial portion of the overall operational costs associated with water management. Housing societies aiming for sustainability accreditation and certification necessitate implementing adequate water and energy management systems.

Property Manager’s approach

  1. Design Parameters of a Sewage Treatment Plant
  • Challenges for Property Managers
    • Lack of sufficient knowledge regarding design intent and details.
    • Undercapacity of the STP is a common issue within the Group Housing Society.
    • Assessing the design and construction gap poses a significant challenge for Property Management’s in-house team.
  1. Options for Reuse of Treated Wastewater in Group Housing
  • Challenges in Group Housing Society
    • Cultural and perception barriers hinder the acceptance of recycled wastewater for domestic non-potable use.
    • Inadequate maintenance leads to frequent failures in treating grey and black water at the Sewage Treatment Plant. The quality of recycled wastewater supplied to residential units, landscaping, and other usage points deteriorates, leaving end users unaware of the system’s failures.
    • There is also insufficient monitoring of the availability of treated wastewater for reuse.
    • The Property Management team has not effectively established a mechanism to resolve end-user complaints.
      • Reuse options   

3. Choice of Sewage Water Treatment technology

Various technologies have been established in the sewage treatment engineering sphere.

  • Challenges in choosing the right technology–
    • The growing demand for reusing treated wastewater has required the implementation of suitable technology based on operational needs loads from the outset of the construction phase and during any modifications and expansions. Property Management would need subject matter experts to identify the most suitable technology.
    • Subject matter experts and stakeholders must deeply dive into the cost viability of installation, operations, and maintenance.
    • Innovative solutions requiring capital investment are being slowly adopted. A comprehensive risk assessment is essential to building a business case for adopting new technology.

Implementing new technology is intended to achieve specific objectives related to reuse. The selection process for appropriate technology necessitates careful evaluation of both on-site and off-site options, considering factors such as land area (sqm/KL), capital investment (INR/KL), operational costs, reliability, and maintainability.

4. Metering and monitoring the domestic water system

  • Challenges in metering water system
    • General negligence regarding water sustainability is evident.
    • The lack of financial motivations for water conservation resulted in most users relying on unmetered water.
    • Without a metering system, the maintenance team operates on flawed assumptions about water utilisation.
    • Insufficient metering data prevents proactive maintenance and operational measures from being implemented.
    • Consequently, sustainability initiatives and reporting suffer.

In group housing societies, smart meters can be installed to monitor, control, report and analyse water availability and usage and identify opportunities for conservation.

Bulk metering systems should be designed by zone and group consumers within a system or subsystem to conduct a water audit.  This approach will help pinpoint areas where water is being wasted.

5. Service Level Benchmarks

The terms of service level are intended to establish appropriate expectations among service partners and stakeholders. The service level delineates the guiding principles from a design, construction, operations, and maintenance perspective.

  • Challenges arise in the implementation of these standards in setting and effectively implementing Service Level terms are –
    • The design and construction of the sewage treatment plants (STPs) have been inadequately executed to curtail capital expenditures.
    • Financial incentives and sustainability certifications are confined to a few group housing societies.
    • The cost recovery mechanism for wastewater treatment plants’ construction, operation, and maintenance has not been meticulously designed.
    • There is a significant lack of awareness regarding sewage pollutants’ environmental, public health, and well-being impacts.
    • The limitations surrounding advanced technology and innovations to achieve qualitative and capacity-handling objectives are notable.

Service level benchmarks

    • Coverage of Sewerage (100%)
    • Treatment Capacity Quality of Sewerage Treatment Plant (100%)
    • Reuse and recycle of sewage (20%)
    • Cost recovery in wastewater management (100%)
    • Redressal of Customer Complaints (80%)
    • Extent of metering of watering connections (100%)

The Central Public Health and Environmental Engineering Organisation (CPHEEO-India) has outlined standards for the quality of treated wastewater.

6. Water Conservation

    • Promote public awareness concerning water sustainability.
    • Utilise treated wastewater and harvested rainwater for irrigation, toilet flushing, cooling towers, and vehicle washing.
    • Promote the use of water meters or timers among consumers.
    • Implement strategies to identify and mitigate water leakages. Particular attention should be paid to leaking toilets, sink faucets, and showerheads, as these account for a significant portion of water wastage.
    • Minimise the flushing volume of water closets, showers, kitchen sinks, and toilet handwashing facilities.
    • Promote drought-resistant planting alongside efficient irrigation systems.
    • Encourage the adoption of water-efficient appliances, including washing machines and dishwashers.

Sewage water treatment plant operation and maintenance are vital for property management services. The Property/Facility Management team is responsible for maintaining the system, with the primary goal of promoting the environmental sustainability objectives set forth. Whether through sustainability certifications or not, maintaining the STP and repurposing treated wastewater is crucial in contemporary group housing societies.

Sustainable Food Services for Office Facility

The office cafeteria service is a must-have amenity for workplaces with over fifty full-time employees. The overall workplace experience is significantly influenced by cafeteria services, encompassing various elements such as food menus, preparation, delivery, logistical support, and many nuanced customer expectations. A cafeteria serves as a crucial employee-centric amenity that reflects an organisation’s management priorities, emphasising cultural inclusivity, health, and the promotion of diversity within the workplace. Incorporating sustainability throughout the process presents a challenge for the Cafeteria Facility Manager. The Manager’s responsibilities include ensuring acceptability, reasonable satisfaction, health, and hygiene for employees while maintaining cost efficiency in service delivery.
For a service model that includes hot-plating, delivery, and serving or delivery of bulk hot cook-serve of bulk food followed by plating and serving, the Cafeteria Manager must plan out minute detailing of logistics support.
 Space
 Food
 Water
 Energy
 Waste
 Cost

 

Space –
• Food storage
• Freezer areas for perishable items
• Parking and cleaning areas for food items and trolleys
• Food preparation (on-site or off-site cooking)
• Cooking or Reheating equipment
• Plating areas
• Dishwashing and potwashing
• Staff dining
• Adjoining amenities for staff

Food-
To ensure food safety, it is imperative to conduct inspections through authorised third-party entities and achieve full compliance with guidelines and standards set by food safety local governmental authorities. The selection of menu items should meticulously consider factors such as maximum patron capacity, health, safety, hygiene, seasonal availability, and the significance of sourcing ingredients locally. It is advisable to avoid stockpiling perishable goods and refrain from purchasing items with a high carbon footprint due to long-distance transport.

Water-
Water efficiency is essential for the sustainable practices implemented within cafeteria services. Establishing a baseline and comparing improvements against industry benchmarks are crucial for incremental enhancements.

Energy-
A commercial-grade kitchen can account for up to 40% of the total energy consumption in a typical commercial building. Cooking and hot-plating equipment necessitate high-energy devices. However, significant energy waste can be avoided by carefully selecting cooking equipment and optimising food preservation and serving processes.

Waste-
Efficient waste management in large food service operations relies on three primary strategies: waste reduction, repurposing, and recycling. To develop effective control measures, it is crucial to monitor and establish a baseline for the reduction of food and non-food item waste, as well as for items that are repurposed, recycled, or sent to landfills.

Cost-
Subsidising food services for employees is a widely adopted practice that emphasises employee-centric benefits. The subsidy percentage may range from 0% to 100%, depending on the organisation’s policies regarding employee benefits. Cost efficiency is crucial for creating a sustainable arrangement that benefits management and the employee community. It is vital to track and analyse costs throughout all stages, from procurement to delivery, to establish benchmarks and compare them with industry standards within the local region.

Office Indoor Environment Control

Introduction

The annual ambient (outdoor) Air Quality Index in Delhi NCR has consistently been around 200 over the past 10 years, excluding the pandemic year 2020. This is four times higher than the acceptable limit of 50. The elevated Air Quality Index (AQI) adversely affects individuals suffering from respiratory and cardiovascular health issues. It is widely acknowledged that indoor air quality in office environments significantly influences occupants’ indoor environmental comfort, health, and performance. The design of the building must consider the business’s operational requirements, the needs of visitors and full-time employees, the levels of predominant contaminants in the surrounding outdoor air, and the occupants’ expected acceptability of indoor environmental quality.
Why IAQ is important for Office employees
Office employees dedicate approximately 60 hours per week to their occupational duties in a conventional office setting. In certain circumstances, employees receive additional amenities such as food services, recreational facilities, and sports options within the office premises. Given the considerable amount of time spent in a constructed environment, the quality of the indoor environment presents a greater risk to human health than that of the outdoor environment.

  1. Source of Indoor Air Quality contamination
    Familiar sources of contamination are –
    • Building location
    • Building Design and Construction
    • HVAC system design, operation and maintenance
    • Building renovation or restack work
  2. Indoor Environment Quality Management –

2.1 Measurements, monitoring, and assessment of IAQ

o Particle sizes ranging from 0.3 to 10.0 micrometres
o Temperature, Humidity, CO2, CO
o Indoor illumination, Daylighting factor
o Noise, Odor

2.2 Control Measures

  •  Source Controls
      • Identification and containment of sources of water and air ingress
      • Careful choice of construction materials, low VOC emissions indoor furnishings (cabinetry, furniture)
  • Engineering control measures
      • Effective filtration system for Fresh Air Treatment system
      • Demand-based outdoor air control
      • Treatment mechanism of outdoor air systems in the building
      • Air duct cleaning
      • Maintain positive air pressure in occupied office space
        Manual Air Balancing
         Variable Fan Speed Controls
         Differential Pressure-based Controls
         Offsetting airflow
        Energy efficiency and ventilation controls
        o Create customised solutions for efficient ventilation systems.
        o Application of outdoor Air Economisers (Heat Wheels), Energy Recovery Ventilation system
  • Indoor Plantation
    • Spider plant, Golden Pothos (Money Plant), Snake plant, Aloe vera, Rubber plant, etc
    • Preferably one plant / 100 sqft office space.
  • Cleaning Regime
    • Green cleaning regimen and hygiene
  • Pest Control Regime
      • Chemical-free pest control practice.
  • Indoor furniture, janitorial chemicals and appliances storage room 
      • Ventilation-controlled room for storage  
  • Environmental Protection Measures – Office Renovation Works
      • Essential protective measures to tackle dust and noise pollution effectively!
      • Incorporate environmental factors into the procurement decision-making process to ensure sustainable practices.
      • Close coordination and collaboration with the building management team.

3.0 Occupants’ Experience Survey

AQI and associated Health Impact

(Source: PIB; Government of India Ministry of Environment, Forest and Climate Change.)

Challenges and Solutions for Treatment and Reuse of Wastewater – Residential Group Housing

“Many of the wars this century were about oil, but those of the next century will be over water.”

– Ismail Serageldin, Vice President, World Bank-1995.

Wastewater treatment and reuse are critical in conserving water resources and promoting sustainable practices. The process involves a complex set of challenges for both the design and construction team and the facility management team over the system’s lifespan. Treating wastewater requires addressing technical hurdles while reusing it, which brings forth significant challenges related to public acceptance, compliance with local and national regulations, and potential health implications. Facility managers are tasked with carefully evaluating the associated risks, navigating regulatory requirements, addressing health considerations, and assessing the advantages of implementing a wastewater treatment and reuse program.

Government Policy, Regulatory Guidelines for Wastewater Treatment and Reuse-

  • The Haryana State Government released the Reuse of Treated Wastewater Policy 2019 to achieve 50% reuse of Treated Wastewater (TWW) by 2025 and 80% reuse of TWW by 2030.
  • Achieve 100 percent treatment of collected sewage per Central Pollution Control Board/ State Pollution Control Board norms.
  • Every municipality must utilize at least 25% of the treated wastewater within the time range established by the local body’s policy.
    • To reuse 50% Treated Wastewater (TWW) by 2025
    • To reuse 80% TWW by 2030
  • Safe Reuse of Treated Water (SRTW)
    • The government’s commitment to environmental sustainability and achievement of SDG 6.3 is to improve water quality through increased recycling and safe reuse.
  • ISO Guidelines for treated wastewater use for irrigation projects (Part-1, 2, 3 & 4), i.e., ISO16075-1, ISO16075-2, ISO16075-3 & ISO16075-4.

Guiding Principles and Engineering – Toilet Flushing

  • Active participation from all stakeholders is crucial to guarantee the universal acceptance of treated wastewater reuse.
  • Reusing treated wastewater for toilet flushing is acceptable only after physical filtration through activated carbon and ultra-filtration membranes.
  • It shall not be made mandatory in layouts and confined condominiums.
  • A risk management program must be in place to ensure the safe reuse of treated wastewater and protect the health of end-users.
  • The fundamental costs, sustainability, and public acceptance principles must guide the reusing of treated wastewater.

In major metropolitan cities like Delhi, Mumbai, Bangalore, and Chennai, treated grey water is used for toilet flushing in some prominent condominiums and high-rise apartment complexes. Care should be taken to ensure that Ultrafiltration membranes are used in the treatment process to safeguard against chances of waterborne diseases.

The STPs based on Sequencing Batch Reactor (SBR) and Moving Bed Biofilm Reactor (MBBR) are the predominant technologies in the State of Haryana, India.

Challenges of Wastewater Management

  • Capacity Gap – Gap between generated sewage and installed Sewage Treatment Plant capacity. High cost of installation, operation, and maintenance of advanced technology for treating wastewater.
  • Dependence on older versions of technologies for wastewater treatment. High cost of installation, operation, and maintenance of advanced technology for treating wastewater.
  • The negligent monitoring and maintenance regime causes a decline in the quality of treated wastewater, severely limiting its potential for reuse in horticulture and other non-potable water applications.
  • Potential pathogenic health risks from untreated or inadequately treated wastewater in households. Lack of expertise in health and environmental risk assessment and mitigation.
  • Negative public perception of reusing treated wastewater.

 

Scope 3 Emissions Management-Commercial Facilities

Assessing Scope 3 Emissions for Buildings- Challenges and Solutions

51% of India’s top 100 listed companies disclosed their Scope 3 data for FY23 despite it being a voluntary disclosure in the BRSR: PwC India Report

The measurement and reporting of carbon emissions have been widely embraced across various business sectors. Reporting on carbon emissions, establishing baselines, achieving emission reductions, and benchmarking have become integral to contemporary responsible business policies and practices. The preservation of the environment is widely acknowledged as fundamental to the principles of sustainability at individual, societal, and regional levels.

The UNEP reports that the building and construction sector contributes approximately 37% of global carbon emissions. According to an IEA report in 2023, in 2022, building sector emissions represent around a third of total energy system emissions, including building operations (26%) and embodied emissions (7%) associated with producing materials used for their construction. Out of the total global emissions, 8% accounts for direct emissions from buildings, while 18% stems from indirect emissions linked to the production of electricity and heat used in buildings.

The facility manager is responsible for assessing and improving the skills of facility team members, who are integral to the effective execution of building services operating procedures and practices in alignment with the sustainability principles endorsed by business owners and property stakeholders. Moreover, the facility service team has access to the field metering regime, which enables them to derive insightful analytical observations essential to the sustainability program.

  1. Why is accounting for Scope 3 emissions necessary?

According to the CDP Technical Report (June 2024), Scope 3 emissions make up over 93% of total emissions in the Real Estate sector. However, reporting Scope 3 carbon emissions presents a formidable challenge for facility owners and service providers.

2. Recognise the Challenges –

3. Corporate Management of GHG emissions

4. Standards to refer to

5. Facility Management Carbon Management in Value Chain of Building Infrastructures (Ref. EN 15978)

6. Solutions to look for

Facility Management plays a crucial role in proactively managing environmental impact. This includes establishing clear boundaries, setting key performance indicators, selecting appropriate calculation methodologies, and conducting insightful historical and future projections analysis.

 

Office Furniture Sustainability: Challenges and Solutions for Facility Managers

Some interesting facts about the Office Furniture Industry

  • According to the World Furniture Outlook by CSIL, the global furniture market was worth around US$420 billion in 2010 alone. China (37%) dominates the market.
  • According to Statista
    • The global furniture market revenue is expected to increase from 2024 to 2029 by $156.6 billion, or 20.47%, reaching a peak of $921.6 billion in 2029.
    • The annual growth rate (CAGR) from 2024 to 2029 is expected to be 9.01%
    • The global office furniture market was valued at approximately 54.24 billion U.S. dollars in 2021. The worldwide office furniture market was forecast to be worth around 85 billion U.S. dollars in 2026

Furniture management presents a series of challenges for Facility Managers responsible for overseeing large and small commercial office operations. As these offices expand or undergo layout modifications, the refurbishment and appropriate disposal of old, deteriorating furniture emerge as critical facets of the sustainability program. It is not uncommon for the Facility team to store old furniture in discreet locations such as corner rooms or basements to uphold an aesthetically pleasing environment for both visitors and occupants.

This write-up concerns challenges and framing criteria aligned to foster the sustainability initiative throughout the furniture’s lifespan: New Procurement, Use phase, Refurbishments, and End-of-Life.

Challenges

Challenges commonly encountered by the Facility Management team in the adoption of sustainable practices for office furniture management include the following:

  1. Knowledge Gap in Facility stakeholders – 75% of Office Furniture is sourced from unorganised small players in the local market.
  2. The facility Owner and stakeholders’ top management lacks the willingness and initiative to adopt sustainability practices.
  3. Inadequate or absence of government policy framework focusing on specific green requirements of Office Furniture.
  4. Inadequate knowledge and local ecosystem supporting regulations and certification programs promoting sustainability of the Furniture industry.
  5. The absence of locally certified refurbishment and end-of-life service providers compounds the cost imperatives for procuring green-certified furniture products.

Advancing Forward

  1. Setting comprehensive sustainable criteria for Furniture management

2. Awareness of standards for compliance by manufacturers and suppliers of Office Furniture

3. Business Impact Assessment of Green Furniture

  • It is imperative to recognise that a substantial segment of carbon emissions associated with furniture emanates from the manufacturing phase. As reported in the ‘Benchmarking carbon footprints of furniture products’ by FIRA International, the average CO2 equivalent emissions are 72 kgCO2e for a task chair and 45 kgCO2e for a 1600mm x 1200mm workstation.
  • Refurbishing and reusing old furniture extends its useful lifespan, saving 35% on new furniture costs.
  • Awareness of Environmental impact fosters
  • Increase awareness among buyers of the potential for furniture refurbishment services.
  • Provide incentives for using recycled wood fibres by including an award criterion.
  • Promote the circular economy by negotiating a take-back deal with manufacturers and suppliers for recycling, refurbishing, repurposing, and reusing old furniture.
  • Signal the market to encourage producers to elevate the use of recycled plastic.
  • Stimulate innovation in furniture companies regarding the design for disassembly and partial replacement of components.
  • Cultivate skills development in furniture repair and renovation and responsible End-of-Life (EoL) disposal, facilitated by either the tendering companies or third parties.
  • Decrease the volume of furniture waste sent to landfills by facilitating easier product separation.

4. Green Seals

Green labelling gives purchasers and consumers a robust view of the product’s sustainable attributes.

Environmental sustainability is of utmost importance globally and affects all conscientious individuals. Understanding the ecological repercussions of everyday items and implementing substantial and long-lasting sustainable practices has become increasingly crucial in modern times.

Sustainability Approach for the Airports Facility Management Services

Airlines and airports globally have wholeheartedly embraced a mission for carbon neutrality and sustainability in every aspect of their airside and landside operations. Local environmental, cultural, and political boundaries have firmly set the framework for sustainability programs. The Facility Management team, responsible for the logistics and upkeep of airport infrastructure, possesses an exceptional opportunity to lead the transformative journey towards sustainability. The facility services within its scope can undoubtedly bring about a positive transformative effect on the PLANET (environment), PEOPLE (service people, customers) and PROFIT (economic) sustainability.

International Civil Aviation Organization (ICAO):

“The three pillars of sustainable development are especially relevant to the aviation sector that, by offering a safe and efficient means of mass transportation, is universally recognised as an essential component of the global economy and universal social progress.”

  • Globally, there are currently 576 accredited airports at Level 1 Mapping, Level 2 Reduction, Level 3 Optimisation, Level 3+ Neutrality, Level 4 Transformation, Level 4+ Transition and Level 5.
  • 85 Airports in the Asia-Pacific and Middle East have achieved accreditation through the Airport Carbon Accreditation program at Level 1 Mapping, Level 2 Reduction, Level 3 Optimisation, Level 3+ Neutrality, Level 4 Transformation, and Level 4+
  • In India, there are currently 30 accredited airports at Level 2 Reduction and Level and Level 4+

Here are a few Key facts about Indian Aviation Industry –

  • India’s aviation sector has witnessed significant expansion, with 545 routes operationalised under the Ude Desh ka Aam Nagrik (UDAN), aimed at improving air connectivity to underserved regions.
  • Alongside route expansion, 21 Greenfield Airports have been identified for development in the country, out of which 12 have been operationalised, reflecting the government’s commitment to enhancing air travel infrastructure.
  • With 158 operational Airports and the construction of 84 airports over the last decade, India’s aviation network is rapidly evolving.
  • Over 770,483 aviation movements occurred in the April to June 2024 quarter, representing an 8.1% increase compared to the same quarter in 2023. (source: Airport Authority India)
  • Over 99.539 million people travelled by air from April to June 2024, representing a 7.1% increase compared to the same quarter in 2023.
  • The recorded air freight was 906,397.4 tonnes in the April to June 2024 quarter, an approximately 14% increase compared to the same quarter in 2023.

Read more at https://www.aai.aero/en/business-opportunities/aai-traffic-news

Initiatives and facilitation of the Sustainability Program by Airport Facility Services

The Facility Service team effectively manages and controls the critical pillars of environmental sustainability, including energy, water, and waste management. People-centric policies and governance models significantly impact the workplace experience for in-house and outsourced service team members, as well as the experience of customers. Additionally, the carefully chosen application of technology, risk management program, and lean management strategy, with a laser focus on stakeholders’ interests, are poised to yield profitability.

The Airport Authority of India (AAI) has implemented a policy to transform into a greener, cleaner, and healthier environment in line with India-specific sustainability program contributing to Nationally Determined Contributions (NDC) targets. AAI targets to reduce Scope I and II emissions by 5% per passenger per year and to reduce direct emissions by 75% by 2030 (over the 2015 baseline) at its airports. The transformative roadmap towards carbon neutrality and net-zero emissions outlines key operational performance and quality indicators for the Facility Service team to collaborate, coordinate, and make substantial contributions.

Key Drivers for Facility Management Service Business

Typical service portfolios managed by in-house or outsourced Facility Management team

Sustainability initiatives and support services

The evolution of service levels in facility management reflects the changing demands of end users, with Gen Zers placing more emphasis on environmental protection. The Facility Service team must prioritize the development of sustainable service frameworks to meet these needs and actively seek opportunities to improve and protect the environment, thereby contributing to wider sustainability efforts.

 

Choice of Air-conditioning System-Facility Manager’s Guide

Choice of Air Conditioning system for Building Services

Selecting the right air conditioning system for building services is not just a task; it’s a crucial step that can significantly impact the efficiency and reliability of building operations. To make the best choice, it’s essential to thoroughly evaluate key considerations such as purpose, initial and operating costs, and installation and operational requirements.

When troubleshooting air conditioning systems, paying attention to high probability and high-impact failures documented in the operational history or derived from industry-specific information is essential.

Broadly, many tailored design systems are adopted for Heating, Ventilation, and Air-conditioning (HVAC) systems. The design approach begins with a needs statement from the end-use customer. The requirement for an HVAC system must adequately articulate a minimum of the following criteria.

  • The area under consideration for air-conditioning

o   Rule of thumb –

(1.0 TR of cooling = 3,024 kCal/hr heat rejection)

  • Occupancy hours and purpose of the area
  • Adaptive Thermal Comfort –
  • Indoor operative temperature = (0.078 x Outdoor temperature) + 23.25 0C
  • The 90% acceptability range for the adaptive models for a conditioned building is +/- 1.50C.
  • Indoor room temperature can be monitored and controlled for thermal comfort using IoT sensors and data analytics relating to air temperature, mean radiant temperature, relative humidity, and air speed.

(Ref.- ECBC )

Staff Uniforms and ESG

Sustainable Staff Uniforms and ESG

Workplace uniforms are more than just clothing. They represent an organisation’s identity, fostering a sense of belonging among employees and projecting a professional image to clients. Today’s Gen Zers prioritize Environmental, Social, and Governance (ESG) policies and practices in their workplace and client premises. Therefore, organizations need to take a more holistic approach to cohesive programs.

Facility service providers have significant responsibilities, including establishing and enforcing a dress code and procuring and managing uniforms for a sizable workforce deployed at client sites across diverse locations. The primary objective of uniforms for service personnel is to promote professional attire and discipline while adhering to the organization’s branding and ESG (Environmental, Social, and Governance) principles. This analysis focuses on the usage, end-of-life, and disposal phases, which notably consume a significant share of energy and water in the carbon chain within the Uniform’s lifecycle. Industry-specific quality controls, including usage, washability, durability, recyclability, and reusability of uniforms in the Facility Management Service domain, are particularly interesting for Facility Managers.

Developing, implementing, and managing a successful uniform program across diverse teams, regions, and service types requires a strategic approach considering the “Triple P” – Purpose, Planet, and Profit. Here’s a breakdown of how Facility Managers can navigate this challenge:

Purpose:

  • Safety: Uniforms should prioritise safety features like high-visibility reflective materials for staff working in low-light conditions, near traffic, or around hazardous materials. Flame retardant properties are essential for welding, soldering, or other high-heat personnel. Disposable or reusable Personal Protective Equipment apparel may include a full-body overall with head and foot covers. In Industrial, Airport, Storage facilities, high-rise buildings, and similar critical environment workplaces, the selection of protective clothing for firefighters and working personnel performing hazardous tasks must comply with minimal relevant requirements stipulated in applicable standards.
  • Reference StandardScopeApplication
    ASTM F2894Standard Test Method for Evaluation of Materials, Protective Clothing, and Equipment for Heat ResistanceIndustrial
    ISO 11611Protective Clothing For Use In Welding And Allied ProcessesIndustrial, Buildings
    EN 61482 (Part 1 and 2), NFPA 70ELive Working – Protective Clothing Against The Thermal Hazards Of An Electric ArcWorking on Electrical Systems
    ISO 20471, CSA Z96-2015High Visibility Clothing – Test Methods And RequirementsVehicle parking management, confined room work, and high-traffic movement places.
    ISO 11613Protective clothing for firefighters who are engaged in support activities associated with structural firefighting — Laboratory test methods and performanceFirefighters
    ISO 17493Clothing and equipment for protection against heat — Test method for convective heat  resistance using a hot air circulating ovenIndustrial
    NFPA 1971Standard on Protective Ensembles for Structural Fire Fighting and Proximity Fire Fighting (2018)Firefighters
    NFPA 1975Standard on Emergency Services Work ApparelFire warden
    NFPA 2112Standard on Flame-Resistant Clothing for Protection of Industrial Personnel Against Short-Duration Thermal Exposures from FireIndustrial
    NFPA 1990Standard on Liquid Splash-Protective Ensembles and Clothing for Hazardous Materials EmergenciesIndustrial
    ISO 14644-5 (Annex B)Guidelines for disposable or reusable staff uniforms to protect the indoor environment from dust and chemical contamination originating from working personnel.Clean environment – Data Centre, Laboratories, Pharmaceuticals, Food IndustryFunctionality: The design and materials of uniforms should directly enhance job performance. Janitorial staff uniforms might benefit from features like reinforced knees for kneeling, multiple pockets for cleaning supplies, and moisture-wicking fabrics for comfort during exertion. Security personnel uniforms may require a more formal look to project authority while incorporating features like easy access to security tools and hidden compartments for identification badges.

    • Functionality: The design and materials of uniforms should directly enhance job performance. Janitorial staff uniforms might benefit from features like reinforced knees for kneeling, multiple pockets for cleaning supplies, and moisture-wicking fabrics for comfort during exertion. Security personnel uniforms may require a more formal look to project authority while incorporating features like easy access to security tools and hidden compartments for identification badges.

Functionality: The design and materials of uniforms should directly enhance job performance. Janitorial staff uniforms might benefit from features like reinforced knees for kneeling, multiple pockets for cleaning supplies, and moisture-wicking fabrics for comfort during exertion. Security personnel uniforms may require a more formal look to project authority while incorporating features like easy access to security tools and hidden compartments for identification badges.

Minimum functional requirements of staff uniform.

  • Job-fit workwear for every individual
  • Clear identification of the Employer of the working personnel
  • Employer’s logo on the Uniform
  • Large-scale Uniform procurement would require careful selection of textile quality checks, sourcing, uniform design standardisation, and a storage facility near the work site.
  • Some textile quality controls and uniform design requirements include reusability, durability, abrasion resistance, colour fastness, thermal resistance, and meet seasonal needs.
  • Uniforms’ washability must be carefully considered based on fabric material and usage. The quality of uniform fabric and design must comply with ISO standards. Laundering and maintenance requirements require considering engaging a third-party professional laundry service.

Reference Standards for Textiles:

Reference Standards for TextilesApplication
ISO 12947Determination of the abrasion resistance of fabrics by the Martindale method
ISO 105 Part-A01Tests for colour fastness — Part A01: General principles of testing
ISO 105 Part-A02Tests for colour fastness — Part A02: Grey scale for assessing change in colour
ISO 105 Part- A03Tests for colour fastness — Part A03: Grey scale for assessing staining
ISO 105 Part- C01 to 06Tests for colour fastness — Part C01 to 06: Colour fastness to washing and laundering
ISO 3175Professional care, dry cleaning and wet cleaning of fabrics and garments.
ISO 7768Method for assessing the appearance of durable press fabrics after domestic washing and drying.
ISO 7769Method for assessing the appearance of creases in durable-press products after domestic washing and drying.
ISO 7770Method for assessing the appearance of seams in durable-press products after domestic washing and drying.
ISO 9867Evaluation of the wrinkle recovery of fabrics- Appearance method
ISO 5077Textiles — Determination of dimensional change in washing and drying
ISO 5085Textiles — Determination of thermal resistance — Part 1 and 2: Low and High thermal resistance
  • Professionalism: A clean, consistent, professional Uniform appearance fosters trust and confidence with clients, building occupants, and staff. A well-designed uniform program can also contribute to a sense of team identity and pride among employees. When designing uniforms, it is essential to prioritize personnel comfort, consider socio-cultural context, address trade-specific needs, and align with the branding of the employer’s and customers’ work culture. Basic prerequisites for a professional workforce include personal hygiene, immaculate uniforms, and a trade-specific appearance.
  • Governance: It is essential to distribute a comprehensive policy document outlining the dress code to all employees. The dress code should aim to foster a sense of belonging, discipline, and pride across all organizational levels and departments. Implementing well-designed and colour-coded uniforms can enhance mobility and cohesion across various ranks and departments. Additionally, embracing digital administration controls for procurement, storage, distribution, usage, maintenance, and disposal of uniforms must be encouraged.

 Planet:

Why are Environmental, Social, and Governance (ESG) principles relevant to Staff Uniforms?

  • Environmental, Social, and Governance (ESG) principles are crucial for business sustainability. Today, Gen Zers are passionate about safeguarding the health, safety, the environment, and profit.
  • Implementing policies and practices aligned with ESG principles for staff uniforms fosters professionalism, boosts employee motivation, and enhances market competitiveness.
  • Reporting and verifying Corporate Social Responsibility (CSR) initiatives elevates the organisation’s brand value and generates interest from investors and clients.
  • Staff uniforms represent a significant portion of a facilities service provider’s annual operating budget. CSR reporting (GRI, SASB, Accountability’s AA1000, ISO 26000) includes uniform policy, sourcing, usage, and disposal practices for validation.
  • Smart and sustainable management practice has the potential to save carbon footprint and costs and improve profitability.

A few of the Important facts about the textile industry.

Key areas to focus on for easy-to-implement roadmaps towards decarbonisation and sustainability.

  • Digitalising processes like procurement and administration controls through the use stage, and traceability across all stages will improve controls and analytics-based actions.
  • Reduce, Repair, Reuse, and Repurpose.

Though the share of carbon emissions at the end of use is the lowest in the lifecycle chain, reducing, repairing, closed-loop recycling, and repurposing will significantly reduce environmental impacts.

  • Recycled fabric

Incorporating eco-friendly fabrics from recycled materials or organic cotton into the uniform program. This reduces the environmental impact of uniform production and disposal.

  • Durability:

Durable, high-quality uniforms reduce waste by needing to be replaced less frequently. Look for uniforms with reinforced stitching, stain-resistant finishes, and fabrics that withstand multiple wash cycles.

  • Energy-Efficient Care:

Opt for uniforms that are easy to clean and require less water or harsh chemicals during laundering. Explore laundry service providers who utilize energy-efficient cleaning methods.

  • Circularity:

(Source: Quantis Study:2008)

  • Textiles ECO-Conformance and Labels

  • Energy and CO2 emissions in the

In a study done by the Stockholm Environment Institute on behalf of the Bio-Regional Development Group, the energy used (and therefore the CO2 emitted) to create 1 ton of spun fibre is much higher for synthetics than for cotton:

FibreKg CO2 / Ton of Fibre
Polyester9.52
Cotton – Conventional5.89
Cotton – Organic3.75

 

The Embodied Energy used in the production of various fibres

 

FibreEnergy in MJ / Ton of Fibre
Cotton55
Wool63
Viscose100
Polypropylene115
Polyester125
Acrylic175
Nylon250

Profit:

  • Cost Control: Negotiate bulk discounts with uniform suppliers to reduce overall program costs. Consider offering a limited selection of core uniform options to streamline procurement and inventory management.
  • Employee Retention: Attractive and functional uniforms can boost employee morale and satisfaction, reduce turnover, and improve recruitment efforts. When employees feel comfortable and well-represented in their uniforms, they are more likely to take pride in their work and provide exceptional service.
  • Uniform Maintenance: Explore cost-effective laundry services or implement on-site washing solutions to streamline uniform care and reduce dependence on expensive dry cleaning services.
  • Workwear Rental: Workwear rental service has gained traction across major consumer markets. Rental service brings value and efficiency to quality controls, flexible inventory management, repairs, laundering, repurposing and reuse on a large scale. Overall cost and quality efficiency at end-use and disposition of the uniforms can be largely realised through a professional rental service model. According to a market research report from Custom Market Insights, the global workwear rental market is estimated to be USD 1.9 billion and is projected to grow at a CAGR of 7.7% from 2024 to 2033.

Challenges and Considerations:

  • Diversity of Services: Facility Management encompasses a wide range of services, from janitorial work to security to technical maintenance. Each service may have specific uniform needs regarding functionality, safety, and durability.
  • Multiple Clients and Locations: FM companies often serve clients across regions with varying weather conditions and cultural norms. Uniforms need to be adaptable and culturally appropriate.
  • Scalability and Cost-Effectiveness: Uniform programs must scale efficiently across various team sizes while maintaining affordability.
  • Inventory management: The high attrition rate, business operational needs, and transportation logistics are potential crisis points that require close attention and planning.
  • Barriers to CSR in the Textile Industry
    • Lack of awareness among stakeholders and customers
    • Lack of knowledge and training on the importance of ESG
    • Lack of top management commitment to compliance with ESG principles.
    • Inadequate or absent regulations and standards
    • Resistance to change in Company Culture towards Carbon neutrality and environmental sustainability.

Balancing the Triple P:

Purpose:

Safety: Uniforms should prioritise safety features like reflective materials for high-visibility environments or flame retardancy for certain tasks.

Functionality: Design uniforms with features that enhance job performance, such as tool pockets or breathable fabrics for physical activity.

Professionalism: A professional appearance fosters trust and confidence with clients and building occupants.

Planet:

Sustainable Materials: Consider using eco-friendly fabrics from recycled materials or organic cotton.

Energy-Efficient Care: Opt for uniforms that are easy to clean and require less water or harsh chemicals.

Durability: Durable uniforms reduce waste by needing to be replaced less frequently.

 Profit:

Cost Control: Smart control measures should encompass sourcing, quality controls, transportation, digitized tracking, distribution monitoring, recollection, and uniform reuse/repurposing.

Employee Retention: Attractive and functional uniforms can boost employee morale and reduce turnover.

Uniform Maintenance: Explore cost-effective laundry services or on-site washing solutions.

Uniforms on Rent: Explore professional service partners to rent workwear on a large scale and across multiple operations regions.

Recycled fabric: Uniforms made from recycled fabric help the environment and save costs.

Good Practices:

  • Uniform Policy: Outline clear guidelines regarding dress code expectations, acceptable attire, and uniform maintenance responsibilities. It is the employer’s responsibility to provide job-fit and body-comfortable uniforms for workplace personnel.
  • Standardization and Customization: Standardize base uniform elements while allowing customization based on job needs, socio-cultural,  or regional climate.
  • Invest in Quality: While affordability is important, prioritize durable and comfortable uniforms that require less frequent replacement.
  • Partner with a Reputable Supplier: A uniform supplier who understands the FM industry and can offer various options to meet operational needs.
  • Employee Input: Involve your team in the selection process to ensure the uniforms meet their comfort and functionality needs.

By adopting a strategic approach to staff uniforms, Facility Managers can create a program that promotes safety, professionalism, and environmental responsibility, all while considering cost-effectiveness and employee well-being. This will contribute to a smoother operation and enhance the overall image of your FM service.