Abstract
New construction materials, building and car interiors, and furnishings typically cause air pollution by means of emitting toxic chemical substances indoors. The level of health hazard to the occupants depends on the emission rate of the pollutants, the period of occupant exposure to the pollutants and the concentration of the emitted toxic substances. Typical health effects induced by the indoor air contaminants include symptoms such as dizziness, light-headedness, concentration trouble, nausea, epistaxis, eyes, nose and throat irritation, dryness of nose and throat, and decreased mucous flow rate. Traditional offline indoor air detection techniques, namely, mass spectrometry (MS), gas chromatography (GC) and UV spectroscopy involve collection of indoor air samples from the field followed by laboratory analysis. Because these techniques are slow and time consuming, online indoor air detection and monitoring techniques which are fast, reliable and accurate enough to trigger more extensive analysis are required. In this paper, ion mobility spectrometry for an alternative indoor air detection technique is studied. An aspiration-type ion mobility spectrometer (IMS), in the form of a portable and handheld unit, is employed for the online detection of indoor air contaminants. By means of sniff tests performed on the 62 most commonly occurring indoor air contaminants, the sensitivity of aspiration-type IMS technique towards the indoor air contaminants and hence its suitability for indoor air quality detection is evaluated and demonstrated.
References
Liu Y, Zhou X, Wang D, Song C, Liu J (2015) A diffusivity model for predicting VOC diffusion in porous building materials based on fractal theory. J Hazard Mater 299:685–695
Wu P, Feng Y, Pienaar J, Xia B (2015) A review of benchmarking in carbon labelling schemes for building materials. J Clean Prod 109:108–117
Solgi E, Fayaz R, Behrouz Mohammad Kari B (2016) Cooling load reduction in office buildings of hot-arid climate, combining phase change materials and night purge ventilation. Renew Energy 85:725–731
Zhao Y, Lu W, Wang H (2015) Volatile trace compounds released from municipal solid waste at the transfer stage: evaluation of environmental impacts and odour pollution. J Hazard Mater 300:695–701
Can E, Özlem Özden Ü, Döğeroğlu T, Gaga EO (2015) Indoor air quality assessment in painting and printmaking department of a fine arts faculty building. Atmos Pollut Res 6:1035–1045
Weschler CJ (2009) Changes in indoor pollutants since the 1950s. Atmos Environ 43:153–169
Ye W, Won D, Zhang X (2015) A simple VOC prioritization method to determine ventilation rate for indoor environment based on building material emissions. Procedia Eng 121:1697–1704
Liu Y, Zhou X, Wang D, Song C, Liu J (2015) A prediction model of VOC partition coefficient in porous building materials based on adsorption potential theory. Build Environ 93:221–233
Cheng Y-H, Lin C-C, Hsu S-C (2015) Comparison of conventional and green building materials in respect of VOC emissions and ozone impact on secondary carbonyl emissions. Build Environ 87:274–282
Ramel M, Nomine M (2000) Physicochemical characterisation of odours. Analusis 28:171–179
Deshmukh S, Bandyopadhyay R, Bhattacharyya N, Pandey RA, Jana A (2015) Application of electronic nose for industrial odors and gaseous emissions measurement and monitoring-An overview. Talanta 144:329–340
Seon Park H, Ji C, Hong T (2016) Methodology for assessing human health impacts due to pollutants emitted from building materials. Build Environ 95:133–144
Abraham S, Li X (2014) A cost-effective wireless sensor network system for indoor air quality monitoring applications. Procedia Comput Sci 34:165–171
Kim M, Liu H, Kim JT, Yoo C (2014) Evaluation of passenger health risk assessment of sustainable indoor air quality monitoring in metro systems based on a non-Gaussian dynamic sensor validation method. J Hazard Mater 278:124–133
Mandayo GG, Gonzalez-Chavarri J, Hammes E, Newton H, Castro-Hurtado I, Ayerdi I, Knapp H, Sweetman A, Hewitt CN, Castaño E (2015) System to control indoor air quality in energy efficient buildings. Urban Climate 14:475–485
Yu CWF, Kim JT (2010) Building pathology, investigation of sick buildings-VOC emissions. Indoor Built Environ 19:30–39
Vuokko A, Selinheimo S, Sainio M, Suojalehto H, Järnefelt H, Virtanen M, Kallio E, Hublin C, Karvala K (2015) Decreased work ability associated to indoor air problems-An intervention (RCT) to promote health behavior. Neurotoxicology 49:59–67
Kallvik E, Putus T, Simberg S (2015) Indoor air problems and hoarseness in children. J Voice. doi:10.1016/j.jvoice.2015.02.012
Villanueva F, Tapia A, Amo-Salas M, Notario A, Cabañas B, Martínez E (2015) Levels and sources of volatile organic compounds including carbonyls in indoor air of homes of Puertollano, the most industrialized city in central Iberian Peninsula. Estimation of health risk. Int J Hyg Environ Health 218:522–534
Mentese S, Mirici NA, Otkun MT, Bakar C, Palaz E, Tasdibi D, Cevizci S, Cotuker O (2015) Association between respiratory health and indoor air pollution exposure in Canakkale, Turkey. Build Environ 93:72–83
Raeppel C, Appenzeller BM, Millet M (2015) Determination of seven pyrethroids biocides and their synergist in indoor air by thermal-desorption gas chromatography/mass spectrometry after sampling on Tenax TA ® passive tubes. Talanta 131:309–314
Wu Y, Chang VW (2012) Development of analysis of volatile polyfluorinated alkyl substances in indoor air using thermal desorption-gas chromatography–mass spectrometry. J Chromatogr A 1238:114–120
Mercier F, Gilles E, Saramito G, Glorennec P, Le Bot B (2014) A multi-residue method for the simultaneous analysis in indoor dust of several classes of semi-volatile organic compounds by pressurized liquid extraction and gas chromatography/tandem mass spectrometry. J Chromatogr A 1336:101–111
Yoshida T (2009) Simultaneous determination of 18 pyrethroids in indoor air by gas chromatography/mass spectrometry. J Chromatogr A 1216:5069–5076
Zhou J, Li P, Zhang S, Long Y, Zhou F, Huang Y, Yang P, Bao M (2003) Zeolite-modified microcantilever gas sensor for indoor air quality control. Sensors Actuators B 94:337–342
Bender F, Barie N, Romoudis G, Voigt A, Rapp M (2003) Development of a preconcentration unit for a SAW sensor micro array and its use for indoor air quality monitoring. Sensors Actuators B 93:135–141
Frank J, Meixner H (2001) Sensor system for indoor air monitoring using semiconducting metal oxides and IR-absortion. Sensors Actuators B 78:298–302
Utriainen M, Kärpänoja E, Paakkanen H (2003) Combining miniaturized ion mobility spectrometer and metal oxide gas sensor for the fast detection of toxic chemical vapors. Sensors Actuators B 93:17–24
Miller RA, Eiceman GA, Nazarov EG, King AT (2000) A novel micromachined high-field asymmetric waveform-ion mobility spectrometer. Sensors Actuators B 67:300–306
Räsänen R-M, Håkansson M, Viljanen M (2010) Differentiation of air samples with and without microbial volatile organic compounds by aspiration ion mobility spectrometry and semiconductor sensors. Build Environ 45:2184–2191
Mikedi K, Pallis GC, Koumoundouros GC, Vamvakari J, Statheropoulos G, Psarras G, Moll VH, McEntee R, Statheropoulos M (2016) Enhancing capabilities of aspiration-type ion mobility spectrometer using a pulsed sampling system and a heated transfer line. Sensors Actuators B 222:240–248
Mäkinen M, Nousiainen M, Sillanpää M (2011) Ion spectrometric detection technologies for ultra-traces of explosives: a review. Mass Spectrom Rev 30:940–973
Fernández-Maestre R (2012) Ion mobility spectrometry: history, characteristics and applications. Rev UDCA Act Div Cient 15:467–479
Puton J, Nousiainen M, Sillanpää M (2008) Ion mobility spectrometers with doped gases. Talanta 76:978–987
Eiceman G, Karpas Z, Hill HH Jr (2014) Ion mobility spectrometry. CRC Press, ISBN 13:978-1-4398-5997-1
Sun Y, Ong KY (2005) Detection technologies for chemical warfare agents and toxic vapors. CRC press, ISBN 1-56670-668-8
Mäkinen MA, Anttalainen OA, Sillanpää ME (2010) Ion mobility spectrometry and its applications in detection of chemical warfare agents. Anal Chem 82:9594–9600
Holopainen S, Nousiainen M, Anttalainen O, Sillanpää MET (2012) Sample-extraction methods for ion-mobility spectrometry in water analysis. TrAC Trends Anal Chem 37:124–134
Vautza W, Sielemann S, Baumbach JI (2004) Determination of terpenes in humid ambient air using ultraviolet ion mobility spectrometry. Anal Chim Acta 513:393–399
Hübert T, Tiebe C, Stephan I, Miessner H, Koch B (2008) Detection of mould in indoor environments using a mini ion-mobility spectrometer system
Hübert T, Tiebe C, Stephan I (2011) Detection of fungal infestations of wood by ion mobility spectrometry. Int Biodeterior Biodegrad 65:675–681
Tiebe C, Miessner H, Koch B, Hübert T (2009) Detection of microbial volatile organic compounds (MVOCs) by ion-mobility spectrometry. Anal Bioanal Chem 395:2313–2323
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Arnanthigo, Y., Anttalainen, O., Safaei, Z. et al. Sniff-testing for indoor air contaminants from new buildings environment detecting by aspiration-type ion mobility spectrometry. Int. J. Ion Mobil. Spec. 19, 15–30 (2016). https://doi.org/10.1007/s12127-016-0189-0
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DOI: https://doi.org/10.1007/s12127-016-0189-0