Air Quality assessment during indoor use of the Tobacco Heating System 2.2

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Transcription:

Air Quality assessment during indoor use of the Tobacco Heating System 2.2 THS 2.2. is commercialized under the IQOS brand name Maya Mitova, Catherine Goujon Ginglinger, Michel Rotach, Serge Maeder Philip Morris International R&D, Philip Morris Products S.A. (Part of Philip Morris International group of companies) CORESTA October, 8-12. Kitzbühel (Austria)

PMI Tobacco Heating System 2.2 vs. cigarette Tobacco Heating System Cigarette Others ; Nicotine ; 1.43 5.25 Glycerin ; 4.85 Water ; 44.65 [mg/stick] Glycerin ; 2.47 Others ; 20.80 Nicotine ; 2.07 Water ; 20.51 [mg/stick] Heating maintains the tobacco temperature below combustion, which creates an aerosol with a very different composition compared to cigarette smoke Main constituents are water, glycerin and nicotine The concentrations of Harmful or Potentially Harmful Compounds (HPHCs) in THS 2.2 aerosol are reduced on average by 90 to 95% compared with smoke from a 3R4F standard reference cigarette (HC smoking regime)*. *Schaller et al, 2016. Evaluation of the Tobacco Heating System 2.2 Part 2: Chemical composition, genotoxicity, cytotoxicity, and physical properties of the aerosol. Regul. Toxicol. Pharmacol. 2

THS 2.2 in simulated indoor environments Following the use of THS 2.2 under Residential category I and II, Office and Hospitality environments (EN 15251:2007)*: Only two compounds increased above background: nicotine and acetaldehyde Their levels much lower than maximum exposure levels in air quality guidelines *Mitova et al, 2016. Comparison of the impact of the Tobacco Heating System 2.2 and a cigarette on indoor air quality. Regul. Toxicol. Pharmacol. 3

IAQ room and simulated environments Simulated environments: EN 15251:2007 Environments Air changes [per hour] Design Occupancy [m 2 /person] Test items Residential I 1.68 8 12 Residential II 1.20 8 12 Residential III 0.50 8 12 Office 2.16 8 16 Hospitality 7.68 4.8 32 Air change: 0.5 to 12.2 per hour Ventilation: 37 to 879 m 3 /h Air filtration (dust, microparticles, VOCs) Low-emission / washable furniture Fans to homogenize air Temperature (23±3 C) & pressure controlled Humidity monitored (40-56 RH%) 4

Selection of markers Category (Norm) -[unit] Constituents Rationale for selection ISO measurement standards for ETS (ISO Norms 15593, 2001; 18144, 2003; 18145, 2003; 11454, 1997) - [µg/m 3 ] ISO measurement standard for TVOCs (ISO 16000-6, 2011) - [µg/m 3 ] Carbonyls - [µg/m 3 ] Volatile Organic Compounds (VOCs) - [µg/m 3 ] Tobacco-specific Nitrosamines (TSNAs) - [ng/m 3 ] Product-specific compounds: aerosol formers- [µg/m 3 ] Inorganics (CO [ppm], NO [ppb],no x [ppb]) RSP gravimetric, UVPM-THBP, FPMscopoletin, Solanesol, 3-Ethenylpyridine, Nicotine Total Volatile Organic Compounds (TVOC) Acetaldehyde, Acrolein, Crotonaldehyde, Formaldehyde Acrylonitrile,Benzene, 1,3-Butadiene, Isoprene, Toluene N-nitrosonornicotine (NNN) Nicotine derived nitrosamine ketone (NNK) Glycerin, Propylene Glycol Carbon monoxide, Nitrogen oxide, Nitrogen oxides PM2.5 & tobacco smoke related particulate matter markers Gas-phase tobacco smoke specific markers Air quality marker Relevance for air quality Relative abundance in THS2.2 aerosol (i.e. the most abundant) Carbonyls, VOCs, TSNAs: part of the FDA list of HPHCs Product-specific markers Gas-phase tobacco smoke non-specific markers 5 Gas-phase combustion marker

How to measure the impact of THS 2.2? 9:00 10:00 11:00 12:00 13:00 14:00 15:00 Preparation of the room People present in the room not using any product Break Room ventilated Same people, THS 2.2 used according to study protocol End of the sessions Background (BKG) How people contribute to indoor air pollution Product-use session How product contributes to indoor air pollution Concentration in product-use sessions is not increased above BKG: NO IMPACT ON IAQ Concentration is different between BKG and product-use sessions: THE IMPACT IS THE DIFFERENCE BETWEEN PRODUCT-USE SESSION AND BKG Concentrations are compared to existing air quality guidelines (e.g. WHO, EU, MOH) 6

Example: Carbon monoxide Non-specific marker of ETS. IAQ marker: 10 ppm (WHO) Background Marlboro Gold Background THS 2.2 x10 7

Example: Formaldehyde Non-specific marker of ETS. IAQ marker: 100 µg/m 3 (WHO) Background THS 2.2 Marlboro Gold 8

Example: Nicotine Above background in THS 2.2 session but significantly lower compared with cigarette. EU: 500 µg/m 3. Background THS 2.2 Marlboro Gold 9

Example: Total Volatile Organic Compounds Broader view of chemical composition (bp 69-287 C). IAQ marker: 400 µg/m 3 (MOH, Japan) TVOC value Mean (SD) µg/m 3 20.4 (0.6) 22.2 (0.9) 479 (19.4) C 6 C 16 1 2 3 4 5 6 Background THS 2.2 Marlboro Gold Compounds above 2 µg/m 3 : butanol (1), cyclotrisiloxane (2), benzaldehyde (3), benzyl alcohol (4), nonanal (5), decamethylpentasiloxane (6) The chemical compositions of Background & environmental aerosol of THS 2.2 are comparable in contrast to ETS 10

Table of results µg/m 3 Analyte [unit] Residential I Residential II Residential III Office RSP gravimetric [µg/m 3 ] THS 2.2 is not a source of 236 268 642 204 147 UVPM-THBP [µg/m 3 ] Environmental Tobacco Smoke 39.6 40.8 92.1 38.5 18.4 FPM-scopoletin [µg/m 3 ] (absence of combustion markers) 8.05 8.5 20.4 7.88 4.04 Solanesol [µg/m 3 ] 10.2 9.84 23.8 10.2 4.68 3-Ethenylpyridine [µg/m 3 ] 6.02 7.61 10.5 6.39 3.94 Nicotine [µg/m 3 ] 0.69 1.81 0.70 1.10 0.66 29.7 29.1 49.8 34.7 34.6 Acetaldehyde [µg/m 3 ] 2.66 5.09 3.26 3.65 1.40 70.2 83.8 123 58.8 33.1 Acrolein [µg/m 3 ] 6.94 5.65 11.6 6.42 3.03 Crotonaldehyde [µg/m 3 ] 2.19 2.11 3.54 2.04 0.99 Formaldehyde [µg/m 3 ] 2 compounds listed as HPHCs 27.1 35.5 58.4 28.9 17.5 Acrylonitrile [µg/m 3 ] clearly attributable to the use of 2.53 3.61 5.26 2.61 1.36 Benzene [µg/m 3 ] THS 2.2: Nicotine & 7.09 9.24 14.4 6.58 3.5 1,3-Butadiene [µg/m 3 acetaldehyde ] 13 16.8 17.4 12.6 5.79 Isoprene [µg/m 3 ] 71.5 99.4 164 75.9 37 Toluene [µg/m 3 ] 11.1 26.1 25 14.9 8.76 TVOC [µg/m 3 ] nm guideline levels nm nm nm 144 451 nm nm NNN [ng/m 3 ] nm nm nm nm nm nm 8.89 nm nm NNK [ng/m 3 ] nm nm nm nm nm nm 1.49 nm nm Glycerin [µg/m 3 ] nm nm 12.1 nm nm nm nm 10.3 nm nm Propylene glycol [µg/m 3 nm nm nm ] nm nm nm 60.5 nm nm CO [ppm] 1.63 2.17 2.66 1.58 0.92 NO [ppb] 26.2 35.6 59.4 27 14.8 NO x [ppb] 0.52 29.4 39.7 62.8 29.4 15.3 THS vs Background (difference in units) Hospitality Concentrations of glycerin 100 times below the existing Residential I Residential II Residential III Office Cigarette vs Background (difference in units) Hospitality PM2.5 & tobacco smoke-related chemical markers Compounds selected based on: - Relevance for air quality - Relative abundance in THS 2.2 aerosol (i.e. the most abundant) Product specific markers Gas-phase combustion marker nm not measured 11

Wrap-up In simulations of residential environment with low air change and high consumption of THS 2.2 : Markers of combustion are absent THS 2.2 does not emit Environmental Tobacco Smoke (ETS) Out of the measured compounds only three compounds, nicotine, acetaldehyde and glycerin were found at very low concentrations. These levels are below the maximum exposure levels as defined in existing air quality guidelines. Using THS 2.2 indoors has no negative impact on the overall air quality 12

Back-up slides 13