Why Clean Air Should Top Every School’s Priority List

Poor school air quality affects student health and academic performance. Learn about Camfil’s proven air filtration solutions for educational facilities.

Every school day, approximately 51 million students and staff enter educational buildings across the United States. While lesson plans and test scores often dominate discussions about academic success, there’s a critical factor that directly impacts learning outcomes yet receives far less attention: indoor air quality.

READ: Improving Indoor Air Quality in Schools: How Proper Air Filtration Enhances Academic Performance

Clean air affects more than just comfort. Cognitive performance, physical and mental health, and the conditions students need to excel are all affected by air quality. 

Poor indoor air quality (IAQ) in schools leads to increased absenteeism, health complications, and even reduced academic achievement. Fortunately, there are solutions available. Advanced air filtration solutions can transform educational environments, benefiting everyone who walks through the doors.

The Hidden Problem Affecting Millions of Students

Educational facilities face unique air quality challenges that many people don’t realize exist. Schools house diverse environments under one roof, from science laboratories and art studios to gymnasiums and cafeterias. Each space generates different types of airborne contaminants that can compromise the health and performance of students and staff.

Common air pollutants in schools include:

Outdoor Contaminants

Many schools are located in densely populated areas where vehicle emissions, industrial pollution, and seasonal allergens infiltrate buildings through ventilation systems and open doors. Traffic fumes containing nitrogen oxides and particulate matter pose particular risks to developing respiratory systems. In more rural areas, proximity to farms and industrial facilities can introduce similar pollutants.

Indoor Sources

Chemistry and biology labs produce toxic gases and chemical vapors. Art rooms generate dust from chalk, paint particles, and craft materials. Cafeterias release cooking odors, grease particles, and steam. Even standard classroom activities, such as the use of markers, chalk, and printers, create dust and VOCs, in addition to allergens and airborne bacteria from high occupancy levels.

Biological Contaminants

Crowded conditions make schools breeding grounds for viruses, bacteria, and mold spores. Poor ventilation allows these pathogens to circulate or accumulate throughout buildings, contributing to the rapid spread of illness during flu seasons and other outbreaks.

The Measurable Impact on Learning and Health

Research consistently demonstrates the connection between air quality and academic performance. When students breathe polluted air, their cognitive abilities suffer. Concentration becomes difficult, memory retention decreases, and overall learning capacity diminishes.

The health consequences extend beyond the classroom:

Increased Absenteeism: Poor air quality triggers asthma attacks, allergic reactions, and respiratory infections, leading to more sick days for both students and teachers. Schools with inadequate filtration report significantly higher absence rates.

Long-term Health Effects: Prolonged exposure to indoor air pollutants during childhood can contribute to the development of chronic respiratory conditions, affecting students well into adulthood.

Staff Productivity: Teachers and staff members also suffer from poor IAQ, leading to decreased job performance and higher turnover rates in affected schools.

Academic Performance: Studies show direct correlations between improved air quality and better test scores, with some schools seeing measurable improvements in student achievement after upgrading their air filters.

This article details important research findings on the connections between air quality and school performance: Air Quality Considerations in Schools 

Camfil’s Educational Air Quality Solutions

Camfil has established itself as a leader in air filtration technology, offering specialized solutions designed specifically for educational environments. Understanding that schools require different approaches for different spaces, Camfil provides comprehensive filtration solutions that address the unique challenges each area presents.

Comprehensive Filtration Technology

Camfil’s solutions include particulate filtration for removing dust and allergens, molecular filtration for eliminating gases and odors, and containment filtration for specialized laboratory environments. These systems work together to create healthier learning environments across entire campuses.

Energy-Efficient Design

Modern schools must balance air quality with energy costs. Camfil filters are engineered to provide superior filtration while minimizing energy consumption, helping schools maintain budgets without compromising on air quality.

Selecting the Right Filtration for Each Space

Different areas within educational facilities require tailored filtration approaches:

Classrooms

Standard classrooms benefit from high-efficiency particulate filters that remove allergens, dust, and airborne pathogens while maintaining energy efficiency. These filters should capture particles as small as 0.3 microns to effectively eliminate most biological contaminants.

Laboratories

Science labs may require specialized molecular filtration to handle chemical vapors and toxic gases. HEPA filtration combined with activated carbon filters provides comprehensive protection for students and staff working with potentially hazardous materials.

Gymnasiums and Auditoriums

Large gathering spaces need robust filtration filters capable of handling high occupancy loads. These areas generate significant amounts of moisture, odors, and airborne particles that require powerful air cleaning capabilities.

Cafeterias and Kitchens

Food service areas need smoke and odor control along with particulate filtration. Specialized exhaust filtration prevents duct fires while maintaining pleasant dining environments.

Beyond Health: Additional Benefits of Clean Air

While protecting health remains the primary concern, quality air filtration provides additional advantages that benefit school operations:

Energy Savings: High-quality filters maintain their efficiency longer, reducing the frequency of replacements and lowering HVAC system strain. This translates to significant energy cost reductions over time.

Reduced Maintenance: Clean air systems experience less contamination buildup, extending equipment life and reducing repair costs.

Liability Protection: Maintaining good indoor air quality helps schools avoid potential legal issues related to health problems caused by poor environmental conditions.

Enhanced Reputation: Schools with superior air quality often see improved parent satisfaction and community support, contributing to better enrollment and funding opportunities.

Creating Healthier Learning Environments

Research has repeatedly shown that clean air directly supports academic success and student well-being. Schools that prioritize air quality create environments where students can focus better, learn more effectively, and stay healthier throughout the academic year.

Camfil’s full-service filtration solutions address every aspect of educational facility air quality, from removing common allergens in classrooms to handling complex chemical filtration in laboratories. With proven results in schools worldwide, these systems represent a smart investment in student success.

Don’t let poor air quality limit your students’ potential. Contact Camfil today to learn how customized air filtration solutions can transform your educational environment and support better learning outcomes for everyone in your facility.

About Camfil

The Camfil Group is headquartered in Stockholm, Sweden, and has 29 manufacturing sites, six R&D centers, local sales offices in 35+ countries, and 5,700 employees and growing. We proudly serve and support customers in a wide variety of industries and communities across the world. To discover how Camfil USA can help you protect people, processes, and the environment, visit us at www.camfil.us.

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Air Filters and Filtration Solutions

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HVAC and Facility Management Strategies for Wastewater Treatment Plants: Protecting Equipment and Communities

Wastewater treatment facilities face unique air quality challenges that extend far beyond typical industrial HVAC concerns. For facility managers overseeing these critical infrastructure assets, understanding the complex interplay between odor control, equipment protection, and regulatory compliance is essential for operational success.

READ: Enhancing Indoor Air Quality and Corrosion Monitoring with Camfil’s Advanced Solutions

New Industry Standards in Wastewater Treatment

Rising global populations and climate change pressures are placing unprecedented demands on clean water infrastructure. Wastewater treatment plants have become essential community assets, but their operational requirements create significant HVAC and air quality management challenges.

A Critical Shift in Plant Design

Modern wastewater treatment facilities differ dramatically from older installations. Previous generations of treatment plants were often constructed in remote, green locations where odors and emissions posed minimal community impact. Today’s reality is vastly different and requires specialized air filtration systems for wastewater treatment plants to mitigate harm to communities due to factors including:

• Urban proximity: Plants are increasingly located closer to high-density population areas due to land constraints and the importance of preserving green spaces
• Enclosed construction: Modern facilities are built with maximum enclosure, often partially or totally underground
• Community integration: Treatment plants now operate as neighbors to residential and commercial developments

This evolution creates new challenges for HVAC and facility managers who must balance operational efficiency with community relations and stringent environmental standards.

Understanding the Air Quality Challenges in Wastewater Treatment Plants

Facility managers must address two distinct but related air quality concerns:

1. Odor/Hazard Control and Exhaust Air Management

Severe odor issues plague most wastewater treatment plants, impacting both surrounding communities and plant personnel. These odors represent more than mere nuisance.They pose genuine health and safety risks.

The Complex Odor Profile

Wastewater treatment odors stem from a complex mixture of gases requiring specialized gas and odor control solutions:

• Hydrogen sulfide (H2S): The notorious “rotten egg smell” that’s immediately recognizable and potentially toxic
• Mercaptans: Sulfur-containing compounds with extremely low odor thresholds
• Other organo-sulfur compounds:  Additional sulfur-based molecules contributing to foul odors
• Ammonia (NH3): Sharp, pungent gas causing respiratory irritation
• Organo-nitrogen gases: Additional nitrogen-containing compounds adding to odor complexity

2. Corrosion Control and Supply Air Quality

While odor control focuses on exhaust air, supply air quality presents equally critical challenges. Acidic gases released during wastewater treatment processes attack electrical and electronic equipment essential for plant operations. Effective corrosion control for wastewater treatment facilities protects these critical assets from premature failure.

Equipment at Risk

Wastewater treatment facilities rely heavily on sophisticated control systems managing:

• Pumps and motors
• Penstocks and flow control devices
• Process monitoring equipment
• SCADA and automation systems
• Variable frequency drives
• Electrical switchgear

Without proper air filtration, these acidic gases infiltrate control rooms and equipment spaces, causing corrosion that leads to expensive, unscheduled breakdowns.

Navigating Ventilation in Enclosed Spaces

Modern enclosed wastewater treatment facilities face a challenging paradox: enclosure contains odors but creates dangerous conditions requiring extensive ventilation.

Methane Accumulation Risk

Methane, an odorless and colorless but highly flammable gas that can be explosive under the right environmental conditions, naturally accumulates in enclosed wastewater treatment spaces. HVAC systems must maintain continuous ventilation to keep methane concentrations below the explosive threshold of five percent concentration. 

Unique Ventilation Challenges

When ventilation air exhausts to the atmosphere, it carries the complex mixture of odor-causing gases directly into surrounding communities. This creates a difficult balance for facility managers:

• Insufficient ventilation risks dangerous methane buildup
• Excessive ventilation without proper filtration releases odors affecting community relations
• Energy costs escalate with increased ventilation requirements

The solution requires sophisticated wastewater treatment plant air quality solutions in exhaust air systems combined with efficient ventilation strategies.

Molecular Filtration: The HVAC Solution for Wastewater Treatment

Traditional particulate filtration cannot address the molecular-level contamination challenges in wastewater treatment facilities. Odorous and corrosive gases are thousands of times smaller than particles captured by conventional HEPA filters.

Molecular Filtration Technology

Molecular filtration systems use specially engineered media,typically activated carbon-based materials, to capture and neutralize gaseous contaminants. Advanced wastewater treatment air filtration solutions provide comprehensive protection for both exhaust and supply air challenges in modern treatment facilities.

Exhaust Air Applications

Odor Abatement

• Captures hydrogen sulfide, mercaptans, and other odor-causing gases before atmospheric release
• Protects surrounding communities from foul odors
• Ensures regulatory compliance with air quality standards
• Reduces community complaints and improves public relations

Environmental Protection

• Controls release of harmful gas concentrations
• Meets increasingly stringent environmental regulations with molecular filtration for wastewater treatment
• Demonstrates environmental stewardship
• Supports sustainability initiatives

Supply Air Applications

Control Room Protection

• Removes corrosive gases from supply air entering critical equipment spaces
• Protects expensive electrical and electronic control equipment
• Prevents corrosion-related equipment failures
• Extends equipment service life significantly

Personnel Safety

• Maintains safe, comfortable working environments for operators
• Reduces worker exposure to harmful gases
• Improves productivity by eliminating odor distractions
• Supports occupational health and safety compliance

Strategic Benefits for HVAC and Facility Managers

Operational Reliability

Implementing comprehensive molecular filtration delivers measurable operational improvements:

• Reduced unscheduled downtime: Corrosion protection prevents unexpected equipment failures
• Extended equipment life: Control systems last significantly longer in clean air environments
• Predictable maintenance: Scheduled filter changes replace emergency equipment repairs
• Process stability: Reliable equipment operation ensures consistent treatment performance

Regulatory Compliance

Wastewater treatment facilities operate under intense regulatory scrutiny. Effective air quality management supports:

• Local air quality regulations compliance
• Occupational safety standards adherence
• Environmental permit requirements
• Community impact minimization

Cost Optimization

While molecular filtration requires investment, total cost analysis reveals substantial savings:

• Avoiding  equipment replacement: Corrosion protection extends control system life by years
• Reduced emergency repairs: Preventive approach eliminates costly breakdown responses
• Lower energy consumption: Modern filtration systems incorporate energy-efficient designs
• Minimizing  liability: Proper odor control reduces community complaint risks

Implementation Best Practices

Comprehensive Assessment

Successful implementation of molecular filtration begins with a thorough facility assessment:

• Identify critical odor sources: Map emission points throughout the treatment process
• Evaluate equipment vulnerability: Determine which control systems face highest corrosion risk
• Measure baseline conditions: Document current air quality and equipment condition
• Prioritize intervention areas: Focus initial efforts where impact will be greatest

System Design Considerations

Effective molecular filtration systems require careful design:

• Proper media selection: Match filtration media to specific gas contaminants present
• Adequate contact time: Ensure sufficient residence time for gas adsorption and neutralization
• Appropriate sizing: Design for actual flow rates and contamination levels
• Maintenance accessibility: Facilitate routine filter/media changes and system inspection

Performance Monitoring

Ongoing monitoring ensures continued effectiveness:

• Regular air quality testing: Verify gas removal efficiency using the Camfil AirImage-COR
• Equipment condition tracking: Document corrosion prevention success
• Energy consumption analysis: Confirm expected efficiency gains
• Community feedback: Monitor odor complaints as performance indicator

Protect Your Wastewater Treatment Facility with Camfil’s Industry-Leading Filtration Solutions

HVAC and facility managers at wastewater treatment plants face unique air quality challenges requiring specialized solutions. The combination of odor control needs and equipment corrosion protection demands comprehensive molecular filtration strategies addressing both exhaust and supply air contamination.

Don’t let odor complaints and equipment corrosion compromise your facility’s operations or community standing. Camfil delivers specialized gas, odor, and corrosion control solutions engineered specifically for the demanding environment of wastewater treatment plants.

Success requires moving beyond traditional particulate filtration approaches toward sophisticated gas and vapor control systems. By implementing molecular filtration technology, facility managers can simultaneously protect surrounding communities from odors, preserve expensive control equipment from corrosion damage, and ensure regulatory compliance.

The investment in proper air quality management delivers substantial returns through reduced equipment failures, extended system life, improved community relations, and demonstrated environmental responsibility. For wastewater treatment facilities operating as critical infrastructure assets, comprehensive air quality management isn’t optional.It’s essential for sustainable operations.

Why Facility Managers Choose Camfil for Wastewater Treatment:

• Proven molecular filtration technology that eliminates hydrogen sulfide, mercaptans, ammonia, and other harmful gases at the source
• Comprehensive equipment protection safeguarding critical electrical control systems from corrosive damage and costly downtime
• Custom-engineered solutions designed for your facility’s unique contamination profile and operational requirements
• Expert HVAC support from specialists who understand wastewater treatment plant operations and challenges

Take the First Step Towards Transforming Your Facility’s Air Quality

Contact our wastewater treatment specialists today for a comprehensive facility assessment and discover how molecular filtration technology can deliver measurable improvements in odor control, equipment protection, and operational efficiency.

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Life Cycle Cost & Sustainability of Air Filtration in Hospitals: Reducing Environmental Impact While Protecting People

Inside a hospital, every breath matters. From operating rooms to airborne infection isolation spaces, clean air is fundamental to patient recovery, staff safety and infection prevention. What is often less visible is how the systems that protect people also shape a hospital’s environmental footprint. As healthcare organizations strive to meet sustainability goals without compromising care, air filtration has emerged as a critical intersection of clinical performance and environmental responsibility.

READ: Determining Specific Indoor Air Quality Goals in Hospitals and Healthcare Facilities for Optimum Patient Health Outcomes

Hospitals are among the most energy-intensive building types, operating continuously while maintaining strict air change, pressure and filtration requirements. According to ASHRAE, ventilation and filtration systems are essential to healthcare safety, yet they also account for a significant share of facility energy use and operating expenses. Decisions about filter selection, replacement intervals and system design directly influence the hospital air filtration lifecycle cost, as well as long-term carbon emissions and waste generation.

High-performance solutions such as HEPA and molecular filtration play a proven role in reducing infection risk in operating rooms and isolation environments while supporting better indoor air quality across hospitals and clinics. When evaluated through a lifecycle lens, high-performance air filters  can lower energy demand, reduce disposal volumes and support compliance with healthcare standards outlined by organizations such as ASHRAE and ASHE.

By focusing on hospital air filtration lifecycle cost, facility managers can make informed choices that protect patients today while supporting environmental stewardship for the future.

Understanding the Lifecycle Cost of Hospital Air Filtration

Life Cycle Cost Definition for Healthcare Applications

In healthcare environments, the true cost of air filtration extends far beyond the price listed on a filter invoice. Hospital air filtration lifecycle cost refers to the total cost of owning and operating air filters over their entire service life, including energy use, maintenance labor, disposal and the downstream impact on HVAC system performance. This lifecycle perspective is particularly important in hospitals, where air systems operate continuously and must meet strict indoor air quality and infection control requirements.

High-performance, sustainable air filters are not only an environmental choice but also a financially responsible one when evaluated over time. Advanced filters designed for healthcare applications deliver longer service life, lower pressure drop and more stable performance, which reduces total operating costs compared to lower-grade alternatives. This alignment between environmental sustainability and financial sustainability supports hospital missions to provide safe care while managing long-term operational budgets responsibly. Camfil’s guidance on hospital and clinic air quality highlights how filtration decisions influence both patient outcomes and facility efficiency.

Key LCC Components in Hospital Operations

The initial purchase cost of an air filter represents only a small portion of its overall lifecycle cost. While lower-cost filters may appear attractive upfront, they often introduce higher expenses during operation. Fan energy consumption is one of the most significant factors, as filters with higher resistance increase HVAC energy demand over time. Optimizing pressure drop can significantly reduce energy use in critical environments such as operating rooms and isolation spaces.

Labor and maintenance also play a substantial role. Frequent filter change-outs require staff time, disrupt hospital operations and increase the risk of improper handling in sensitive areas. Disposal and waste management add further cost, particularly when filters are replaced more often than necessary. Additionally, filtration performance directly affects system efficiency and HVAC equipment lifespan, influencing long-term capital investment protection.

Hidden Costs of Low-Cost Hospital Air Filters

Low-cost air filters often lead to frequent change-outs, higher energy consumption due to increased resistance and greater waste volumes requiring disposal. These factors compound over time, placing unnecessary strain on HVAC systems and accelerating equipment wear. That’s why investing in sustainable, high-performance filtration helps hospitals control lifecycle costs while maintaining critical protection against airborne contaminants.

The Energy Footprint of Air Filtration in Healthcare Facilities

Air Filtration as a Major Energy Driver in Hospitals

Energy consumption is a defining operational challenge for healthcare facilities, and air filtration plays a central role in that equation. Hospital HVAC systems operate around the clock to meet stringent indoor air quality and infection control requirements, making fan energy one of the largest ongoing costs associated with ventilation. The primary factor influencing this energy demand is resistance to airflow created by air filters. As resistance increases, fans must work harder to maintain required air volumes, driving up electricity use across the facility.

In large healthcare campuses with multiple buildings, surgical suites, isolation rooms and diagnostic areas, the cumulative energy impact of air filtration becomes substantial. Even incremental increases in pressure drop at the air filter level can translate into significant energy consumption over time. Therefore, filtration choices directly influence hospital sustainability initiatives by affecting both energy use and associated carbon emissions. Optimizing air filtration performance supports cleaner air while helping facilities meet environmental targets without compromising clinical requirements.

High-Efficiency Without High Energy Consumption

A common misconception in healthcare facilities is that higher-efficiency air filters automatically result in higher energy consumption. However, this tradeoff is not inevitable. Proper air filter design allows high-efficiency filtration, including HEPA-level performance where required, without imposing an excessive energy burden on HVAC systems.

This balance is achieved through careful attention to media selection, airflow dynamics and structural design. Filters engineered for healthcare applications can capture fine particles and pathogens effectively while maintaining lower resistance throughout their service life. This is particularly important in critical spaces such as operating rooms and airborne infection isolation rooms, where high-efficiency filtration is essential, but energy efficiency remains a priority.

Filter Design Impact on Healthcare Energy Consumption

Filter design has a direct and measurable impact on healthcare energy consumption. Low-pressure-drop air filter media reduces the effort required from supply and return fans, lowering operating costs without sacrificing filtration efficiency. Advanced pleat designs increase usable surface area within the same filter footprint, allowing air to pass more freely while maintaining high particle capture performance.

Long-life filters further contribute to energy efficiency by sustaining lower resistance over extended periods, which helps prevent sudden increases in fan energy as filters load with contaminants. Selecting air filtration solutions designed for system integration can improve the overall HVAC energy profile, protect equipment and support long-term sustainability goals in hospital environments.

Waste Management and Disposal: The Hidden Environmental Cost of Hospital Air Filters

High-Volume Hospital Waste Problem

Hospitals generate significant volumes of operational waste, and air filtration contributes more to this stream than is often recognized. Large healthcare facilities rely on multiple air-handling units serving operating rooms, patient wards, isolation spaces and support areas. Each unit requires several air filters, which means thousands of air filters may be disposed of annually across a single hospital campus. When filters are replaced frequently, waste volumes increase rapidly, especially in environments that operate continuously.

Replacement frequency plays a critical role in determining total waste output. Lower-performing filters typically require more frequent change-outs to maintain airflow and air quality standards, multiplying the amount of material sent to disposal. In healthcare settings, where filtration performance cannot be compromised, short filter lifespans often translate into higher landfill volumes and increased handling requirements.

Environmental Impacts of Hospital Air Filter Waste

The environmental impact of discarded hospital air filters extends beyond the physical space they occupy in landfills. Each filter contains embedded carbon associated with raw material extraction, manufacturing processes and end-of-life disposal. When filters are replaced more often than necessary, this embedded carbon footprint grows, increasing the overall environmental impact of hospital operations.

Transportation also contributes to emissions. Frequent deliveries of replacement filters and repeated waste removal add to fuel consumption and greenhouse gas output. These indirect emissions are often overlooked in facility planning, despite their measurable contribution to environmental performance. Additionally, conventional disposal practices limit opportunities for material recovery, which runs counter to circular economy principles increasingly adopted by healthcare organizations.

Reducing Waste Through Strategic Hospital Air Filter Selection

Strategic air filter selection offers a practical pathway to reducing waste in healthcare facilities. Long-life air filters designed for stable performance significantly reduce replacement frequency, which lowers disposal volumes and minimizes environmental impact over time. Extending filter service life delivers benefits beyond waste reduction by supporting broader sustainability initiatives and environmental reporting efforts within hospitals.

By aligning filtration strategies with sustainability goals, healthcare institutions can reduce waste, lower emissions and reinforce their commitment to environmental responsibility while maintaining high standards of patient and staff protection.

Camfil’s Sustainable Air Filtration Solutions for Hospitals 

General Ventilation Filters for Healthcare Applications

Farr 30/30 High-Capacity Pleated Panel Filter

• Guaranteed MERV 8A lifetime efficiency 
• Extended service life reducing replacement frequency and waste generation
• Multistage system prefilter or standalone filter versatility

Durafil ES3 V-Bank Style Air Filter

• High-capacity, high-efficiency design in durable ABS enclosing frame
• V-bank configuration maximizing surface area and minimizing pressure drop
• Healthcare facility optimization for demanding ventilation requirements

Durafil Compac High-Performance Filter

• 6-inch deep V-bank design for space-constrained healthcare AHU applications
• Optimal V-design benefits in restricted installation configurations
• Energy efficiency optimization for existing healthcare HVAC infrastructure

EPA, HEPA & ULPA Filters for Critical Healthcare Areas

Absolute VG HEPA Filter

• HEPA filtration efficiency in lightweight, exceptionally strong V-bank design
• Gasket or gel seal configurations for various healthcare containment requirements
• Critical area applications: Operating rooms, isolation rooms, pharmaceutical compounding

Molecular Filters for Healthcare Odor and Chemical Control

CityCarb I Compact V-Bank Filter

• Integrated particulate and molecular media for comprehensive contaminant control
• Healthcare odor management and chemical contaminant removal
• Compact design for space-efficient installation in healthcare facilities

CamCarb XG Molecular Filter

• Conical, corrosion-resistant design for demanding healthcare applications
• Filled with Camfil’s activated alumina or activated carbon for specific contaminant removal
• Chemical and odor control for healthcare environmental quality management

Conclusion 

Strategic hospital air filtration decisions have a measurable impact on lifecycle costs, environmental performance and the quality of care delivered inside healthcare facilities. When air filtration is evaluated beyond initial purchase price, sustainable solutions consistently demonstrate value through reduced energy consumption, lower waste generation and longer service life. These outcomes support both environmental responsibility and the core mission of protecting patients, staff and visitors in care environments.

Camfil’s healthcare-focused air filtration solutions show that sustainability and performance are not competing priorities. High-efficiency, long-life air filters help hospitals manage operating budgets while supporting cleaner indoor air and compliance with healthcare standards. Reduced fan energy demand and fewer filter replacements also contribute to financial stability and lower environmental impact over time.

Contact Camfil to learn how you can reduce your hospital air filtration lifecycle cost.  

^{1 https://www.ashrae.org/technical-resources/healthcare}

^{2 https://www.ashe.org/compliance/ec_02_05_01/01/indoorair}

^{3 https://cleanair.camfil.us/2023/09/23/how-air-filters-improve-indoor-air-quality-in-hospitals-and-clinics/}

^{4 https://cleanair.camfil.us/2023/11/25/improving-air-quality-in-operating-rooms-reduces-risk-of-infections/}

^{5 https://www.camfil.com/en-us/insights/case-studies/deventer-hospital-netherlands}

^{6 https://cleanair.camfil.us/2024/02/02/hepa-air-filters-serve-critical-function-in-containing-pathogens-born-in-airborne-infection-isolation-rooms/}

^{7 https://cleanair.camfil.us/2023/09/23/how-air-filters-improve-indoor-air-quality-in-hospitals-and-clinics/}

^{8 https://cleanair.camfil.us/2024/02/02/hepa-air-filters-serve-critical-function-in-containing-pathogens-born-in-airborne-infection-isolation-rooms/}

^{9 https://www.camfil.com/en-us/insights/case-studies/deventer-hospital-netherlands}

^{10 https://cleanair.camfil.us/2023/09/23/how-air-filters-improve-indoor-air-quality-in-hospitals-and-clinics/}

^{11 https://www.camfil.com/dfsmedia/baeefe6b74df44be8a2bccfb2c57af8e/587-source/brochure-molecular-in-healthcare-brochure2020}

^{12 https://www.camfil.com/en-us/insights/case-studies/deventer-hospital-netherlands}

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