Thomas Mangos

Dr. Thomas Mangos

NCSR “Demokritos”, Atmospheric Chemistry & Innovative Technologies Laboratory, 15341 Athens, Greece
orcid

Research Focus & Metrics

Academic Career Length

21Years (2006-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

View All Publications
14 March 2016 in Atmospheric Chemistry and Physics
Verified
Journal Article
Open access
PDF file
FAFulvio Amato
Fulvio Amato
Andrés Alastuey UrósAndrés Alastuey Urós
Andrés Alastuey Urós
Angeliki KaranasiouAngeliki Karanasiou
Angeliki Karanasiou
FLFranco Lucarelli
Franco Lucarelli
SNSilvia Nava
Silvia Nava
XQXavier Querol
Xavier Querol
The AIRUSE-LIFE+ project aims at characterizing similarities and heterogeneities in particulate matter (PM) sources and contributions in urban areas from southern Europe. Once the main PMx sources are identified, AIRUSE aims at developing and testing the efficiency of specific and non-specific measures to improve urban air quality. This article reports the results of the source apportionment of PM10 and PM2.5 conducted at three urban background sites (Barcelona, Florence and Milan, BCN-UB, FI-UB and MLN-UB), one suburban background site (Athens, ATH-SUB) and one traffic site (Porto, POR-TR). After collecting 1047 PM10 and 1116 PM2.5 24 h samples during 12 months (from January 2013 on) simultaneously at the five cities, these were analysed for the contents of OC, EC, anions, cations, major and trace elements and levoglucosan. The USEPA PMF5 receptor model was applied to these data sets in a harmonized way for each city. The sum of vehicle exhaust (VEX) and non-exhaust (NEX) contributes between 3.9 and 10.8 µg m−3 (16–32 %) to PM10 and 2.3 and 9.4 µg m−3 (15–36 %) to PM2.5, although a fraction of secondary nitrate is also traffic-related but could not be estimated. Important contributions arise from secondary particles (nitrate, sulfate and organics) in PM2.5 (37–82 %) but also in PM10 (40–71 %), mostly at background sites, revealing the importance of abating gaseous precursors in designing air quality plans. Biomass burning (BB) contributions vary widely, from 14–24 % of PM10 in POR-TR, MLN-UB and FI-UB, 7 % in ATH-SUB, to < 2 % in BCN-UB. In PM2.5, BB is the second most important source in MLN-UB (21 %) and in POR-TR (18 %), the third one in FI-UB (21 %) and ATH-SUB (11 %), but is again negligible (< 2 %) in BCN-UB. This large variability among cities is mostly due to the degree of penetration of biomass for residential heating. In Barcelona natural gas is very well supplied across the city and is used as fuel in 96 % of homes, while in other cities, PM levels increase on an annual basis by 1–9 µg m−3 due to biomass burning influence. Other significant sources are the following. – Local dust, 7–12 % of PM10 at SUB and UB sites and 19 % at the TR site, revealing a contribution from road dust resuspension. In PM2.5 percentages decrease to 2–7 % at SUB-UB sites and 15 % at the TR site. – Industry, mainly metallurgy, contributing 4–11 % of PM10 (5–12 % in PM2.5), but only at BCN-UB, POR-TR and MLN-UB. No clear impact of industrial emissions was found in FI-UB and ATH-SUB. – Natural contributions from sea salt (13 % of PM10 in POR-TR, but only 2–7 % in the other cities) and Saharan dust (14 % in ATH-SUB, but less than 4 % in the other cities). During high pollution days, the largest sources (i.e. excluding secondary aerosol factors) of PM10 and PM2.5 are VEX + NEX in BCN-UB (27–22 %) and POR-TR (31–33 %), BB in FI-UB (30–33 %) and MLN-UB (35–26 %) and Saharan dust in ATH-SUB (52–45 %). During those days, there are also quite important industrial contributions in BCN-UB (17–18 %) and local dust in POR-TR (28–20 %).

1 February 2012 in Applied Catalysis B: Environment and Energy
Verified
Journal Article
Closed access
Vassilios BinasVassilios Binas
Vassilios Binas
KSK. Sambani
K. Sambani
Thomas MangosThomas Mangos
Thomas Mangos
AKA. Katsanaki
A. Katsanaki
GKG. Kiriakidis
G. Kiriakidis

1 January 2017 in Atmospheric Environment
Verified
Journal Article
Closed access
LFL. Fourtziou
L. Fourtziou
ELEleni Liakakou
Eleni Liakakou
ISI. Stavroulas
I. Stavroulas
CTC. Theodosi
C. Theodosi
PZP. Zarmpas
P. Zarmpas
NMN. Mihalopoulos
N. Mihalopoulos

1 September 2017 in Atmospheric Environment
Verified
Journal Article
Closed access
Evangelia DiapouliEvangelia Diapouli
Evangelia Diapouli
Manousos-Ioannis ManousakasManousos-Ioannis Manousakas
Manousos-Ioannis Manousakas
SVS. Vratolis
S. Vratolis
VVV. Vasilatou
V. Vasilatou
Thomas MangosThomas Mangos
Thomas Mangos
KEKonstantinos Eleftheriadis
Konstantinos Eleftheriadis

23 May 2007 in Applied Physics A
Verified
Journal Article
Closed access
PDF file
Thomas MangosThomas Mangos
Thomas Mangos
JBJ.G. Bartzis
J.G. Bartzis
PLP. Leva
P. Leva
DKD. Kotzias
D. Kotzias

25 August 2013 in Environmental Science and Pollution Research
Verified
Journal Article
Closed access
PDF file
Constantini SamaraConstantini Samara
Constantini Samara
VDVoutsa Dimitra
Voutsa Dimitra
AKAthanasios Kouras
Athanasios Kouras
KEKonstantinos Eleftheriadis
Konstantinos Eleftheriadis
Thomas MangosThomas Mangos
Thomas Mangos
MPM. Petrakakis
M. Petrakakis