Healthy building

Source: Wikipedia, the free encyclopedia.
Part of a series on
Living spaces
Main
Issues
Society and politics
Other

Healthy building refers to an emerging area of interest that supports the physical, psychological, and social health and well-being of people in buildings and the built environment.[1] Buildings can be key promoters of health and well-being since most people spend a majority of their time indoors.[2] According to the National Human Activity Pattern Survey, Americans spend "an average of 87% of their time in enclosed buildings and about 6% of their time in enclosed vehicles."[3]

Healthy building can be seen as the next generation of green building that not only includes environmentally responsible and resource-efficient building concepts, but also integrates human well-being and performance.[4] These benefits can include "reducing absenteeism and presenteeism, lowering health care costs, and improving individual and organizational performance."[1]

Integrated design

Healthy building involves many different concepts, fields of interest, and disciplines.[5] 9 Foundations describes healthy building as an approach built on building science, health science, and building science.[6] An integrated design team can consist of stakeholders and specialists such as facility managers, architects, building engineers, health and wellness experts, and public health partners. Conducting charrettes with an integrated design team can foster collaboration and help the team develop goals, plans, and solutions.[7]

Buildings and health components

There are many different components that can support health and well-being in buildings.

Indoor air quality

Spengler considers indoor air quality as an important determinant of healthy design.[8] Buildings with poor indoor air quality can contribute to chronic lung diseases such as asthma, asbestosis and lung cancer.[9] Chemical emissions can be outgassed by building materials, furnishings, and supplies. Air fresheners, cleaning products, paints, printing, flooring, and wax and polish products can also be a source of volatile organic compounds (VOCs) and semi-volatile compound (SVOCs). The LEED v4 Handbook posits that indoor air quality is "one of the most pivotal factors in maintaining building occupants' safety, productivity, and well-being."[10]

Ventilation

Higher rates of ventilation affect indoor pollutants, odors, and the perceived freshness of air by diluting contaminants in the air.[11] ASHRAE's Standard 55-2017 has minimum standards of 8.3 L/s/person. In one study, raising the rate to 15 L/s/person increased performance by 1.1% and decreased sick building symptoms by 18.8%.[12] Whole Building Design Guide recommends separating ventilation from thermal conditioning so as to increase comfort.[13]

Natural ventilation is discouraged in buildings that have strict filtration requirements, contaminant dilution concerns, special pressure relationships, speech privacy concerns, and internal heat load demands. The San Joaquin ASHRAE chapter recommends assessing the outside air quality and configuration of the facade and building before demonstrating compliance and control of natural ventilation. ASHRAE Standard 55-2017 section 6.4 requires the natural ventilation be "manually controlled or controlled through the use of electrical or mechanical actuators under direct occupant control."[14] Chris Schaffner, CEO of the Green Engineer, describes operable windows as the "HVAC engineer's ultimate safety factor."[15] Spengler and Chen recommend natural ventilation being used wherever possible.[8]

Dust and pests

Dust and dirt can be a source of exposure to VOC and lead as well as pesticides and allergens. High efficiency filter vacuums can remove particles such as dander and allergens that otherwise result in breathing issues.[16] A study of asthmatic children in inner city urban communities suggests they became sensitive to the presence of cockroaches, mice, or rats due to their presence in their homes.[17]

The use of disposable material

The US culture relies heavily on disposable products, especially within healthcare, to minimize on cost and time. In hospitals, for example, healthcare providers cut on costs associated with sterilizing equipment between patient cares by using ready-to-use disposable trays. However, this may at a cost to the environment; in one study,[18] disposable cotton towels were suspected to have an adverse environmental impact. It is estimated that cotton production requires 6.6 kg of carbon dioxide equivalents and 0.024 kg of nitrogen emissions, in addition to a substantial amount of water, fertilizer and work. Healthcare managers are urged to request transparency of medical product production (and waste management) lines to provide assurance that products used have zero or minimal impacts on human health and our environment.[citation needed]

Thermal comfort

Thermal comfort is influenced by factors like air temperature, mean radiant temperature, relative humidity, air speed, metabolic rate, and clothing.[19] Thermal conditions can affect learning, cognitive performance, task completion, disease transmission, and sleep. ASHRAE defines an acceptable thermal environment as one that 80% of occupants find acceptable, though individual occupant thermal control results in higher satisfaction of occupants.[20] Indoor spaces that are not air conditioned can create indoor heat waves if the outside air cools but the thermal mass of the building traps the hotter air inside. Cedeño-Laurent et al. believe these may become worse as climate change increases the "frequency, duration, and intensity of heat waves" and will be harder to adjust to in areas that are designed for colder climates.[21]

Moisture and humidity

The Whole Building Design Guide recommends the indoor relative humidity to be between 30 and 50% to prevent unwanted moisture and to design for proper drainage and ventilation.[13] Moisture is introduced into the building either by rainwater intrusion, outside humid air infiltration, internally generated moisture, and vapor diffusion through the building envelope.[22] High temperatures, precipitation, and building age enable mold.[23] It contributes to mold and poor indoor air quality. Vapor retarders have traditionally been used to prevent moisture in walls and roofs.[22]

Noise

While noise is not always controllable, it has a high correlation and causation relationship with mental health, stress, and blood pressure.[24] One study suggests that there is a higher correlation of noise irritation and bodily pain or discomfort in women.[25] Effects of excessive noise pollution include hearing impairment, speech intelligibility, sleep disturbance, physiological functions, mental illness, and performance. The World Health Organization recommends creating a "National Plan for a Sustainable Noise Indoor Environment" specific to each country.[26]

Water quality

Water quality can be contaminated by inorganic chemicals, organic chemicals, and microorganisms.[27] The World Health Organization considers waterborne diseases to be one of the world's major health concerns, especially for developing countries and children. WHO recommends following water safety plans that include management, maintenance, good design, cleaning, temperature management, and preventing stagnation.[28] Stagnant water is found to deteriorate the microbiological quality of water, and increase corrosion, odors, and taste issues.[29] The bacterial pathogen Legionella may have a higher potential for growth in large buildings due to long water distribution systems and not enough maintenance.[28]

Awareness of these issues is recommended by the WHO in order to maintain water quality:[citation needed]

  • Backflow
  • Cross connections
  • External quality management
  • Independent water supply
  • Material use
  • Minimization of dead ends and stagnation
  • Seasonal use areas
  • Storage tank integrity
  • Water pressure
  • Water temperature

Safety and security

Concerns of safety affect the mental and possibly physical health of residents by reducing the amount of physical activity.[30] Fear of crime can result in less physical activity as well as increased social isolation. Atkinson posits that crime is based on motivated offenders, targets, and the absence of guardians. Adjusting these in buildings may increase presumed safety.[31]

Lighting and view

The type and timing of light throughout the day affects circadian rhythms and human physiology. In a study done by Shamsul et al., cool white light and artificial daylight (approximately 450-480 nanometers) was associated with higher levels of alertness.[32] Blue light positively affects mood, performance, fatigue, concentration, and eye comfort and enabled better sleep at night.[33] Bright light during winter has also been shown to improve self-reported health and reduce distress.[34]

Daylighting refers to providing access to natural daylight, which can be aesthetically pleasing and improve sleep duration and quality.[35] The LEED handbook writes that daylighting can save energy while "increasing the quality of the visual environment" and occupant satisfaction.[19]

Views to green landscapes can significantly increase attention and stress recovery.[36] They can also have a positive influence on emotional states.[37][38] Ko et al. consider views to be "important for the comfort, emotion, and working memory and concentration of occupants." Providing a view to nature through a glass window may benefit occupants' well-being and increase employee's effectiveness.[39]

Site selection

Creating a walkable environment that connects people to workplaces, green spaces, public transportation, fitness centers, and other basic needs and services can influence daily physical activity as well as diet and type of commute.[40] In particular, proximity to green spaces (e.g., parks, walking trails, gardens) or therapeutic landscapes can reduce absenteeism and improve well-being.[41]

Foundations

Problems in foundations and underground conditions can have drastic impacts on the health of the building including structural issues such as cracking, humidity issues and indoor air quality and mould problems. These can arise from various factors. Different types of soil possess varying properties, and some can challenge foundation stability. Expansive soils like clay expand and shrink with moisture changes, causing foundation movement and settlement. Loose or poorly compacted soil can lead to uneven settling. Inadequate drainage around a building can lead to excessive soil moisture, exerting pressure on the foundation. This can result in movement, heaving, or settling. Large trees near a building can have extensive root systems that extract moisture from the soil, causing it to shrink and destabilize the foundation. Root growth can also apply pressure, leading to cracks or movement. Poor construction practices, including low-quality materials, inadequate reinforcement, or improper design, can compromise the foundation's structural integrity. Leaking or burst water pipes beneath the foundation can saturate the soil, destabilizing it and causing foundation movement or settlement. Earthquakes, floods, or storms can subject the foundation to extreme forces and vibrations, resulting in damage or shifting. Soil erosion due to heavy rainfall, landscaping issues, or improper grading can wash away supporting soil around the foundation, causing settlement or shifting. Extreme temperature fluctuations and freeze-thaw cycles can cause soil expansion and contraction, exerting pressure on the foundation and potentially leading to cracks or movement.[42][43]

Especially the climatic effects are expected to worsen as climate change progresses.[44] Addressing foundation issues promptly is crucial to mitigate these consequences and maintain the safety, value, and integrity of the building. Monitoring solutions include ground penetrating radar and electrical resistivity tomography.[45] Protective measures include regular inspections and maintenance, good drainage and moisture control, appropriate ventilation and tending to trees and plants at the site.[42]

Building design

There are many aspects of a building that can be designed to support positive health and well-being. For example, creating well-placed collaboration and social areas (e.g., break rooms, open collaboration areas, cafe spaces, courtyard gardens) can encourage social interaction and well-being. Quiet and wellness rooms can provide quiet zones or rooms that help improve well-being and mindfulness. Specifically, a designated lactation room can support nursing mothers by providing privacy and helping them return to work more easily.[46]

Biophilic design has been linked to health outcomes such as stress reduction, improved mood, cognitive performance, social engagement, and sleep.[47] Ergonomics can also minimize stress and strain on the body by providing ergonomically designed workstations.[citation needed]

Occupant engagement

While some components of healthy buildings are inherently designed into the built environment, other components rely on the behavioral change of occupants, users, or organizations residing within the building. Well-lit and accessible stairwells can provide building occupants the opportunity to increase regular physical activity.[48] Fitness centers or an exercise room can encourage exercise during the work day, which can improve mood and performance, leading to improved focus and better work-based relationships.[49] Exercise can also be promoted by encouraging alternative means of transportation (e.g., cycling, walking, running) to and from the building. Providing facilities such as bicycle storage and locker/changing rooms can increase the appeal of cycling, walking, or running.[citation needed] Active workstations, such as of sit/stand desks, treadmill desks, or cycle desks, can encourage increased movement and exercise as well."Behavioral measures" can be taken to "encourage better public health outcomes: e.g., reducing sedentary behaviors by increasing access to stairways, using more active transportation options, and working at sit-to-stand desks."[50] Other examples that can promote health and well-being include establishing workplace wellness programs, health promotion campaigns, and encouraging activity and collaboration.[citation needed]

Infectious disease

ASHRAE states that "Transmission of SARS-CoV-2 through the air is sufficiently likely that airborne exposure to the virus should be controlled. Changes to building operations, including the operation of heating, ventilating, and air-conditioning systems, can reduce airborne exposures."[51] Current recommendations include increasing air supply and exhaust ventilation, using operable windows, limiting air recirculation, increasing hours of ventilation system operation and upgraded filtration.[15] Joseph Allen of the Healthy Buildings Program at Harvard[52][53][54] suggests 4-6 air changes per hour in classrooms, especially when masks are off.[55]

Proper ventilation of areas has been found to have the same effect as vaccinating 50-60% of the population for influenza.[56] Enhanced filtration using a MERV 13 filter would be adequate to protect against transmission of viruses.[15] Allen mentions three ways humidity can affect transmission: respiratory health, decaying, and virus evaporation. Drier air also dries out the respiratory cilia that catch particles. Viruses decay faster between 40 and 60% humidity.[57] Respiratory droplets that become aerosols are less likely to do so at higher humidity. After 60%, mold growth begins to be encouraged.[58]

Sustainable design of patient rooms, intensive care units, and courtyards [59] could offer opportunities to not only maximize on human safety and wellbeing, but also environmental energy efficiency, waste management recycling, and performance optimization – all of which constitute the core of sustainability. However, this may come at an unexpected cost of enabling growth and spread of opportunistic microbes.[citation needed]

Health and well-being in standards and rating systems

There are several international and governmental standards, guidelines, and building rating systems that incorporate health and well-being concepts:[60]

GreenSeal Standards for Healthy Buildings and Schools

Founded in 1989, GreenSeal is a leading global ecolabeling organization (that is part of The Global Ecolabelling Network) that has set strict criteria for occupant health, sustainability, and product performance.[67] The Healthy Green Schools & Colleges initiative assists facility managers in locating low- or no-cost actions that have a significant impact on indoor air quality and health. The curriculum covers the full spectrum of facilities management methods and was created in collaboration with renowned school facility management professionals:[citation needed]

  • Indoor Air Quality Testing and Monitoring
  • Cleaning and Disinfecting
  • Integrated Pest control
  • Sustainable Purchasing
  • HVAC and Electric management
  • Training and intercommunications

WELL Building Standard Certification

The WELL Building Standard Certification was first launched in 2014 (WELL v1),[68] and it focuses on the well-being and health of occupants in buildings. It was developed by Delos Living LLC and is currently administered by the International WELL Building Institute (IWBI) who released the second version (WELL v2) in 2020.[69] Generally speaking, WELL v2 [70] has updated requirements for investigating the relationship between building design and human health, adds more diversity to spaces and applications of the standard, and features a single rating system that resembles USGBC LEED's efforts.

More specifically, WELL v1 discussed 100 performance features that can be considered for the certification of a building. Those 100 performance features are classified into 7 "concepts" as follows: Air, Water, Nourishment, Light, Fitness, Comfort, and Mind. Of these 100 features, 41 were required preconditions, and 59 were optional optimizations. In order to achieve a WELL certification, a building has to meet the following:

  • For a WELL silver certification: 41 required preconditions.
  • For a WELL gold certification: all the requirements for silver certification plus 40% optimizations.
  • For a WELL platinum certification: all the requirements for gold certification plus 80% optimizations.

On the other hand, WELL v2 uses a four-certification system that mimics LEED's scoring system. The required preconditions are decreased to only 23 (vs. 41 in v1), and the optimizations rose to 92 (vs. 59 in v1). WELL v2 also added 3 more "concepts": Sound, Materials and Community. With these updates, more buildings could qualify for a certification under the new system:

  • For a WELL bronze certification: 40 points are required (this is only available for shell and core buildings)
  • For a WELL silver certification: 50 points are required.
  • For a WELL gold certification: 60 points are required.
  • For a WELL platinum certification: 80 points are required.

There are some caveats with WELL v2, however. For instance, a building has to meet all required 23 preconditions before qualifying a certification. If one precondition is not satisfied, the building may not proceed with WELL standard certification irrespective of how many points achieved. Additionally, a building must earn at least 4 points in the "Thermal Comfort" and "Air" concepts, and 2 points at minimum in the remainder of the concepts. Lastly, a building can attain a maximum of 110 points because of an additional 10 points that could be achieved for innovation and performance.

Based on most recent surveys more than 72M sqft of residential and commercial spaces have been certified around the globe to date.[71]

See also

References

  1. ^ a b "Buildings and Health". GSA Sustainable Facilities Tool. Retrieved 2020-12-17.
  2. ^ Berkowitz, Bonnie; Stanton, Laura (2014-08-06). "Are you in an unhealthy office relationship?". Washington Post. Retrieved 2018-08-07.
  3. ^ Klepeis, Neil E.; Nelson, William C.; Ott, Wayne R.; Robinson, John P.; Tsang, Andy M.; Switzer, Paul; Behar, Joseph V.; Hern, Stephen C.; Engelmann, William H. (2001-07-26). "The National Human Activity Pattern Survey (NHAPS): a resource for assessing exposure to environmental pollutants". Journal of Exposure Science & Environmental Epidemiology. 11 (3): 231–252. doi:10.1038/sj.jea.7500165. ISSN 1559-064X. PMID 11477521.
  4. ^ Ramanujam, Mahesh (2014-03-28). "Healthy buildings and healthy people: The next generation of green building". US Green Building Council. Retrieved 2020-12-17.
  5. ^ "Integrative Design Process - GSA Sustainable Facilities Tool". sftool.gov. Retrieved 2018-08-08.
  6. ^ "Welcome to the Healthy Buildings Movement". 9Foundations.
  7. ^ Todd, Joel Ann (2016-11-19). "Planning and Conducting Integrated Design (ID) Charrettes". www.wbdg.org.
  8. ^ a b Spengler, John D.; Chen, Qingyan (2000-11-01). "Indoor air quality factors in designing a healthy building". Annual Review of Energy and the Environment. 25 (1): 567–600. doi:10.1146/annurev.energy.25.1.567. ISSN 1056-3466.
  9. ^ Jones, A. P. (1999-12-01). "Indoor air quality and health". Atmospheric Environment. 33 (28): 4535–4564. Bibcode:1999AtmEn..33.4535J. doi:10.1016/S1352-2310(99)00272-1. ISSN 1352-2310.
  10. ^ Kubba, Sam (2016-01-01), Kubba, Sam (ed.), "Chapter 7 - Indoor Environmental Quality (IEQ)", LEED v4 Practices, Certification, and Accreditation Handbook (Second Edition), Butterworth-Heinemann, pp. 303–378, doi:10.1016/b978-0-12-803830-7.00007-4, ISBN 978-0-12-803830-7, PMC 7150165
  11. ^ Allen, Joseph G. (2020-03-04). "Your Building Can Make You Sick or Keep You Well". The New York Times. ISSN 0362-4331. Retrieved 2020-12-18.
  12. ^ Fisk, W. J.; Black, D.; Brunner, G. (2011). "Benefits and costs of improved IEQ in U.S. offices". Indoor Air. 21 (5): 357–367. Bibcode:2011InAir..21..357F. doi:10.1111/j.1600-0668.2011.00719.x. ISSN 1600-0668. PMID 21470313. S2CID 25227339.
  13. ^ a b "Promote Health and Well-Being". WBDG - Whole Building Design Guide. 2018-04-09. Retrieved 2020-12-18.
  14. ^ McConahey, E. (2019). The Feasibility of Natural Ventilation [PowerPoint]. Retrieved from https://sjvashrae.starchapter.com/images/downloads/Natural_Ventilation.pdf Archived 2021-10-07 at the Wayback Machine
  15. ^ a b c Schaffner, C., (2020) Pandemic Resilience in Buildings:  Proposed LEED Pilot Credit [PowerPoint presentation]. USGBC Healthy Economy Forum, Online
  16. ^ Thorn, Ariana (2020-12-08). "Healthy Buildings: How to Improve Indoor Air Quality". Illumtek Corporation. Archived from the original on 2021-01-16. Retrieved 2020-12-18.
  17. ^ Crain Ellen F; Walter Michelle; O'Connor George T; Mitchell Herman; Gruchalla Rebecca S; Kattan Meyer; Malindzak George S; Enright Paul; Evans Richard; Morgan Wayne; Stout James W (2002-09-01). "Home and allergic characteristics of children with asthma in seven U.S. urban communities and design of an environmental intervention: the Inner-City Asthma Study". Environmental Health Perspectives. 110 (9): 939–945. doi:10.1289/ehp.02110939. PMC 1240995. PMID 12204830.
  18. ^ Schmoldt A, Benthe HF, Haberland G (1975). "Digitoxin metabolism by rat liver microsomes". Biochem Pharmacol. 24 (17): 1639–41. doi:10.1016/j.jclepro.2015.01.076. PMID 10.
  19. ^ a b Kubba, Sam. (2016). LEED v4 Practices, Certification, and Accreditation Handbook (2nd Edition) - 7.1 General Overview. Elsevier. Retrieved from https://app.knovel.com/hotlink/pdf/id:kt010SFR91/leed-v4-practices-certification/leed-v4-pr-general-overview
  20. ^ Shahzad, Sally; Brennan, John; Theodossopoulos, Dimitris; Hughes, Ben; Calautit, John Kaiser (2017-01-02). "A study of the impact of individual thermal control on user comfort in the workplace: Norwegian cellular vs. British open plan offices" (PDF). Architectural Science Review. 60 (1): 49–61. doi:10.1080/00038628.2016.1235544. ISSN 0003-8628. S2CID 114414700.
  21. ^ Cedeño-Laurent, J.G.; Williams, A.; MacNaughton, P.; Cao, X.; Eitland, E.; Spengler, J.; Allen, J. (2018-04-01). "Building Evidence for Health: Green Buildings, Current Science, and Future Challenges". Annual Review of Public Health. 39 (1): 291–308. doi:10.1146/annurev-publhealth-031816-044420. ISSN 0163-7525. PMID 29328864.
  22. ^ a b Prowler, Don (2016-12-19). "Mold and Moisture Dynamics". WBDG - Whole Building Design Guide. Retrieved 2020-12-18.
  23. ^ Norbäck, D.; Zock, J.-P.; Plana, E.; Heinrich, J.; Tischer, C.; Bertelsen, R. Jacobsen; Sunyer, J.; Künzli, N.; Villani, S.; Olivieri, M.; Verlato, G. (2017). "Building dampness and mold in European homes in relation to climate, building characteristics and socio-economic status: The European Community Respiratory Health Survey ECRHS II". Indoor Air. 27 (5): 921–932. Bibcode:2017InAir..27..921N. doi:10.1111/ina.12375. ISSN 1600-0668. PMID 28190279. S2CID 45486328.
  24. ^ Jensen, Heidi A. R.; Rasmussen, Birgit; Ekholm, Ola (2018-12-01). "Neighbour and traffic noise annoyance: a nationwide study of associated mental health and perceived stress". European Journal of Public Health. 28 (6): 1050–1055. doi:10.1093/eurpub/cky091. ISSN 1101-1262. PMID 29846583.
  25. ^ Jensen, Heidi A. R.; Rasmussen, Birgit; Ekholm, Ola (2019-11-12). "Neighbour noise annoyance is associated with various mental and physical health symptoms: results from a nationwide study among individuals living in multi-storey housing". BMC Public Health. 19 (1): 1508. doi:10.1186/s12889-019-7893-8. ISSN 1471-2458. PMC 6849169. PMID 31718590.
  26. ^ Berglund, Birgitta; Lindvall, Thomas; Schwela, Dietrich H. World Health Organization Occupational and Environmental Health (1999). "Guidelines for community noise".
  27. ^ Allen, Joseph G; Bernstein, Ari (2020). "The 9 Foundations of a Healthy Building" (PDF). 9Foundations. Retrieved 2020-12-17.
  28. ^ a b Guidelines for drinking-water quality (Fourth ed.). Geneva: World Health Organization. 2017. ISBN 978-92-4-154995-0. OCLC 975491910.
  29. ^ Inkinen, Jenni; Kaunisto, Tuija; Pursiainen, Anna; Miettinen, Ilkka T.; Kusnetsov, Jaana; Riihinen, Kalle; Keinänen-Toivola, Minna M. (2014-02-01). "Drinking water quality and formation of biofilms in an office building during its first year of operation, a full scale study". Water Research. 49: 83–91. Bibcode:2014WatRe..49...83I. doi:10.1016/j.watres.2013.11.013. ISSN 0043-1354. PMID 24317021.
  30. ^ Yu, Ge; Renton, Adrian; Schmidt, Elena; Tobi, Patrick; Bertotti, Marcello; Watts, Paul; Lais, Shahana (2011-09-01). "A multilevel analysis of the association between social networks and support on leisure time physical activity: Evidence from 40 disadvantaged areas in London". Health & Place. 17 (5): 1023–1029. doi:10.1016/j.healthplace.2011.07.002. ISSN 1353-8292. PMC 5066841. PMID 21784693.
  31. ^ Atkinson, Rowland; Blandy, Sarah (2017). Domestic fortress: fear and the new home front. Manchester: Manchester University Press. pp. 86–106. ISBN 978-1-5261-0817-3. OCLC 966969696.
  32. ^ Batista Ferrer, Harriet; Cooper, Ashley; Audrey, Suzanne (2018). "Associations of mode of travel to work with physical activity, and individual, interpersonal, organisational, and environmental characteristics". Journal of Transport & Health. 9: 45–55. Bibcode:2018JTHea...9...45B. doi:10.1016/j.jth.2018.01.009. PMC 6011385. PMID 29951354. Evidence from systematic reviews suggests that adult populations who use active modes of transport (walking and cycling) for commuting have overall higher physical activity than car commuters, and also have decreased risk of cardiovascular disease and all-cause mortality (Hamer and Chida, 2008, Saunders et al., 2013
  33. ^ Viola, Antoine U.; James, Lynette M.; Schlangen, Luc JM; Dijk, Derk-Jan (2008). "Blue-enriched white light in the workplace improves self-reported alertness, performance and sleep quality". Scandinavian Journal of Work, Environment & Health. 34 (4): 297–306. doi:10.5271/sjweh.1268. ISSN 0355-3140. PMID 18815716.
  34. ^ Partonen, Timo; Lönnqvist, Jouko (2000-01-01). "Bright light improves vitality and alleviates distress in healthy people". Journal of Affective Disorders. 57 (1): 55–61. doi:10.1016/S0165-0327(99)00063-4. ISSN 0165-0327. PMID 10708816.
  35. ^ Boubekri, Mohamned Boubekri; Cheung, Ivy N.; Reid, Kathryn J. (2014-06-15). "Impact of Windows and Daylight Exposure on Overall Health and Sleep Quality of Office Workers: A Case-Control Pilot Study". Journal of Clinical Sleep Medicine. 10 (6): 603–611. doi:10.5664/jcsm.3780. PMC 4031400. PMID 24932139.
  36. ^ Li, Dongying; Sullivan, William C. (2016-04-01). "Impact of views to school landscapes on recovery from stress and mental fatigue". Landscape and Urban Planning. 148: 149–158. Bibcode:2016LUrbP.148..149L. doi:10.1016/j.landurbplan.2015.12.015. ISSN 0169-2046.
  37. ^ Ulrich, Roger S. (2016-07-26). "Natural Versus Urban Scenes: Some Psychophysiological Effects". Environment and Behavior. 13. doi:10.1177/0013916581135001. S2CID 145353028.
  38. ^ Ulrich, Roger S. (1979-03-01). "Visual landscapes and psychological well-being". Landscape Research. 4 (1): 17–23. Bibcode:1979LandR...4...17U. doi:10.1080/01426397908705892. ISSN 0142-6397.
  39. ^ Kaplan, Rachel (October 1993). "The role of nature in the context of the workplace". Landscape and Urban Planning. 26 (1–4): 193–201. Bibcode:1993LUrbP..26..193K. doi:10.1016/0169-2046(93)90016-7. hdl:2027.42/30542.
  40. ^ "Strategies for Enhancing the Built Environment to Support Healthy Eating and Active Living". www.preventioninstitute.org. Retrieved 2018-08-08.
  41. ^ Rose, Emma (2012-11-01). "Encountering place: A psychoanalytic approach for understanding how therapeutic landscapes benefit health and wellbeing". Health & Place. 18 (6): 1381–1387. doi:10.1016/j.healthplace.2012.07.002. ISSN 1353-8292. PMID 22918064.
  42. ^ a b CSIRO (2021): Foundation maintenance and footing performance. Commonwealth Scientific and Industrial Research Organisation.
  43. ^ Scalisi, T. (2023): How To Know When To Walk Away From Foundation Issues. Forbes.
  44. ^ Parshall, A. (2023): Underground Climate Change Is Weakening Buildings in Slow Motion. Scientific American.
  45. ^ Deep Scan Tech (2023): Deep Scan Tech launches a new R&D project to reduce carbon footprint in the built environment.
  46. ^ How To Label Lactation Rooms at Work Retrieved 9sebtember 2023
  47. ^ "Biophilic Design - GSA Sustainable Facilities Tool". sftool.gov. Retrieved 2018-08-07.
  48. ^ "Healthy Buildings: Take the Stairs". Pfaulong Architecture. Retrieved 2020-12-18.
  49. ^ Coulson, J.C.; McKenna, Jim; Field, M (2008-09-26). "Exercising at work and self-reported work performance". International Journal of Workplace Health Management. 1 (3): 176–197. doi:10.1108/17538350810926534.
  50. ^ "Green Building Advisory Committee - Advice Letter and Report: Recommendations for Adoption of Health and Wellness Policies for Federal Facilities". www.gsa.gov. Retrieved 2018-08-07.
  51. ^ "COVID-19: Resources Available to Address Concerns". www.ashrae.org. Retrieved 2020-12-18.
  52. ^ Harvard School of Public Health Faculty profile for Joseph G. Allen, DSc, MPH
  53. ^ Healthy Buildings for Health subpage on Keeping Schools Open
  54. ^ Twitter page for Joseph G. Allen, DSc, MPH
  55. ^ Allen, Joseph G.; Bleich, Sara. "Opinion | Why three feet of social distancing should be enough in schools". Washington Post. ISSN 0190-8286.
  56. ^ Smieszek, Timo; Lazzari, Gianrocco; Salathé, Marcel (2019-02-18). "Assessing the Dynamics and Control of Droplet- and Aerosol-Transmitted Influenza Using an Indoor Positioning System". Scientific Reports. 9 (1): 2185. Bibcode:2019NatSR...9.2185S. doi:10.1038/s41598-019-38825-y. ISSN 2045-2322. PMC 6379436. PMID 30778136.
  57. ^ Washington State Department of Health. Ventilation and Air Quality for Reducing Transmission of COVID-19. Online. 2020.
  58. ^ Allen, Joseph G.; Iwasaki, Akiko; Marr, Linsey C. "This winter, fight COVID-19 with humidity". Washington Post. ISSN 0190-8286. Retrieved 2020-12-18.
  59. ^ Schmoldt A, Benthe HF, Haberland G (1975). "Digitoxin metabolism by rat liver microsomes". Biochem Pharmacol. 24 (17): 1639–41. doi:10.1016/j.scs.2020.102405. PMC 7367033. PMID 10. S2CID 220603067.
  60. ^ "GBAC Crosswalk - GSA Sustainable Facilities Tool". sftool.gov. Retrieved 2018-08-07.
  61. ^ "Standard 189.1". ashrae.org. Retrieved 2018-08-17.
  62. ^ "Exploring Machine Learning in Healthcare and its Impact on the SARS-CoV-2 Outbreak". ResearchGate. Retrieved 2021-09-18.
  63. ^ "Fitwel". fitwel.org. Retrieved 2018-08-17.
  64. ^ "Facilities Standards (P100) Overview". gsa.gov. Retrieved 2018-08-17.
  65. ^ "Department of Defense Unified Facilities Criteria Program". wbdg.org. Retrieved 2018-08-17.
  66. ^ "International WELL Building Institute". wellcertified.com. Retrieved 2018-08-17.
  67. ^ "GreenSeal Standards for Health Building". greenseal.org. Retrieved 2022-12-15.
  68. ^ "International WELL Building Institute". wellcertified.com. Retrieved 2022-12-10.
  69. ^ Schmoldt A, Benthe HF, Haberland G (1975). "Digitoxin metabolism by rat liver microsomes". Biochem Pharmacol. 24 (17): 1639–41. doi:10.1016/j.buildenv.2022.109539. PMID 10. S2CID 252127855.
  70. ^ "International WELL Building Institute". wellcertified.com. Retrieved 2022-12-10.
  71. ^ "International WELL Building Institute Projects Directory". wellcertified.com. Retrieved 2022-12-10.
Retrieved from "https://en.wikipedia.org/w/index.php?title=Healthy_building&oldid=1250583825"