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EuroTB

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Bordeaux, Bucharest, Budapest, Celje, Cracow, Gothenburg, Lille, Ljubljana, ... Athens, Barcelona, Bilbao, Bordeaux, Celje, Cracow, Dublin, Le Havre, Lille, ... – PowerPoint PPT presentation

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Title: EuroTB


1
APHEIS 2
Air Pollution and Health A European Information
System A Health Impact Assessment of Air
Pollution In 26 European Cities Emilia Maria
Niciu1, Anna Paldy2, Eszter Erdei2, Michal
Krzyzanowski3 Sylvia Medina4, Antonio Placencia5,
on behalf of the Apheis network 1- Institutul de
Sanatate Publica (Institute of Public Health),
Bucharest, Romania 2- Jozsef Fodor National
Center for Public Health, National Institute of
Environmental Health), Budapest, Hungary 3-
WHO European Centre for Environment and Health,
Bonn Office, Germany 4- Institut de Veille
Sanitaire, Saint-Maurice, France 5- Institut
Municipal de Salut Pública (Municipal Institute
of Public Health), Barcelona, Spain ISEE CEE
Chapter ,Balaton, Hungary, 4-6 October 2003
2
Who funds Apheis
  • Co-funded by
  • Pollution-Related Diseases Programme of Health
    and Consumer Protection DG of the European
    Commission, contract Nos.
  • SI2.131174 99CVF2-604
  • SI2.297300 2000CVG2-607
  • SI2.326507 2001CVG2-602
  • Participating institutions in 12 European
    countries

3
What methods did we use
  • Network
  • Network of environmental and public-health
    professionals
  • 16 centres totalling 26 cities in 12 European
    countries
  • Each centre part of a city, regional or
    national institution active in the field of
    environmental health

4
What methods did we use
  • Network

5
What methods did we use
Network



Health outcomes monitoring (local/national
institutes of public health, EUROSTAT, WHO)
Exposure assessment
Quantitative relationships of exposure and
health-effect estimates
(local networks, European Env. Agency WHO
collaborating ? centre for air quality
control, Berlin European Reference Laboratory
Air Pollution, Ispra)

?
(APHEIS)


?


Health impact assessment (cases, population,
attributable risks)
(APHEIS, WHO-ECEH)
?


Dissemination of information for defined target
audiences (APHEIS)

?
?
?
EH professionals
Decision makers
Citizens
?

Air quality management/Public-health actions
?
Evaluation (European Commission)
6
What methods did we use
Network
Participating APHEIS Cities
APHEIS coordination centre Paris and Barcelona
Local/regional coordinator
Technical committee Exposure assessment Epidemiolo
gy Statistics Public Health Health Impact
Assessment
Advisory groups Exposure assessment Epidemiology S
tatistics Public health Health impact assessment
City committee NEHAPs Local/national
authorities Medical/environmental
sciences Citizens
7
Actions, steps and results during the first year
  • Created five advisory groups public health
    health-impact assessment epidemiology exposure
    assessment statistics
  • Drafted guidelines for designing and implementing
    the surveillance system, and for developing a
    standardised protocol for data collection and
    analysis for HIA
  • Review of capacities for HIA in institutions of
    participating cities

8
(No Transcript)
9
Actions, steps and results during the second year
  • Implement or adapt organisational models designed
    during first year
  • Collect and analyse data for health-impact
    assessment
  • Prepare different health-impact scenarios
  • Prepare HIA report in standardised format (HIA in
    26 cities)

10
Five main steps in HIA
  • 1. Specify exposure
  • PM10, BS
  • Urban background stations

11
Five main steps in HIA
  • 2. Define the appropriate health outcomes
  •   Acute effects
  • - Premature mortality excluding accidents and
    violent deaths
  • - Hospital admissions for respiratory diseases
    65 age group
  • - Hospital admissions for cardiac diseases all
    ages
  • Chronic effects
  •   - Premature mortality

12
Five main steps in HIA
  • 3. Specify the exposure-response functions
  • Short-term exposure APHEA2

13
Five main steps in HIA
  • 3. Specify the exposure-response functions
  • Long-term exposure HIA in Austria, France and
    Switzerland based on two American cohort studies
    (Künzli et al, 2000).

3
Health indicator

RR for 10 µg/m

95CI

Total mortality

30 years

1.043

1.026
-
1.061

ICD9 lt800


14
Five main steps in HIA
  • 4. Derive population baseline frequency measures
    for health outcomes
  • 5. Calculate number of attributable cases in
    target population

15
HIA modelKünzli, Kaiser, Medina et al, Lancet
2000 356 795 - 801
Incidence/ prevalence
E-R function
Attributable cases
Scenarios
Observed level annual mean
PM10
Reference level PM10
16
Descriptive findings
  • Demographic characteristics
  • Nearly 39 million inhabitants in Western and
    Eastern Europe ( 34 mil. in 21 WE cities 5 mil.
    in 5 CEE cities)
  • Proportion of people over 65 years 15, with
    highest proportion in Barcelona and lowest in
    London

17
Descriptive findings
  • Air pollution levels
  • PM10 - measurements provided by 19 cities
  • Bordeaux, Bucharest, Budapest, Celje, Cracow,
    Gothenburg, Lille, Ljubljana, London, Lyon,
    Madrid, Marseille, Paris, Rome, Seville,
    Stockholm, Strasbourg, Tel Aviv and Toulouse
  • Black Smoke - measurements provided by 15
    cities
  • Athens, Barcelona, Bilbao, Bordeaux, Celje,
    Cracow, Dublin, Le Havre, Lille, Ljubljana,
    London, Marseille, Paris, Rouen and Valencia

18
Descriptive findings
  • Distribution of annual mean levels (10th and 90th
    percentiles) of PM10



19
Descriptive findings
  • Distribution of annual mean levels (10th and 90th
    percentiles) of Black Smoke


20
Descriptive findings
  • Health indicators Standardised mortality rates
    for all causes of deaths in the 26 cities



21
Descriptive findings
  • Health indicators Incidence rates for hospital
    admissions in 22 cities
  • ( 8 with emergency admissions, 14 with general
    admissions)



22
Health impact assessment findings
  • Acute effects scenarios
  • Reduction of PM10/BS levels to a 24-hour value
    of 50 µg/m3 (2005 and 2010 limit values for
    PM10) on all days exceeding this value
  • Reduction of PM10/BS levels to a 24-hour value
    of 20 µg/m3 (to allow for cities with low levels
    of PM10/BS) on all days exceeding this value
  • Reduction by 5 µg/m3 of all the 24-hour daily
    values of PM10/BS (to allow for cities with low
    levels of PM10/BS)

23
Health impact assessment findings
  • Chronic effects scenarios
  • Reduction of the annual mean value of PM10 to a
    level of 40 µg/m3 (2005 limit values for PM10)
  • of 20 µg/m3 (2010 limit values for PM10)
  • of 10 µg/m3 (to allow for cities with low levels
    of PM10)
  • Reduction by 5 µg/m3 of the annual mean value
    of PM10 (to allow for cities with low levels of
    PM10)

24
HIA findings PM10 acute-effects scenarios
  • Potential benefits of reducing daily PM10 levels
    by 5 µg/m3 - Number of deaths per 100 000
    inhabitants attributable to the acute effects of
    PM10 (95 C.I.)


25
HIA findings Black Smoke acute-effects scenarios
  • Potential benefits of reducing daily black smoke
    levels by 5 µg/m3- Number of deaths per 100 000
    inhabitants attributable to the acute effects of
    black smoke (95C.I.)


26
HIA findings PM10 chronic-effects scenarios
  • Potential benefits of reducing annual mean values
    of PM10 by 5 µg/m3- Number of deaths per 100 000
    inhabitants attributable to the chronic effects
    of PM10 (95 C.I.)


27
HIA findings PM10 in CEE cities
  • CEE CITIES
  • out of a total of 32 mil in 19 cities
  • HIA for long term exposure on total mortality
    found that
  • 5 547 (3 368 - 7 744) premature death could be
    prevented annually if PM10 concentrations were
    reduced by 5 µg/m3

28
Interpretation of findings
  • Standardised protocol for data collection and
    analysis
  • Conservative approach
  • Did not consider newborn or infant mortality
    separately
  • Did not consider many other health outcomes
    listed by WHO
  • Did not consider independent effect of ozone
  • Used range of reference levels in different
    scenarios

29
Interpretation of findings
  • Transferability of Exposure-Response (E-R)
    functions
  • Short-term exposure Question avoided by using
    E-R functions developed by APHEA 2
  • Long-term exposure Open question - used U.S.
    E-R functions

30
Interpretation of findings
  • Conclusions
  • Our HIA provides a conservative but accurate
    and detailed picture of the impact of air
    pollution on health in 26 European cities, and
    shows that air pollution continues to threaten
    public health in Europe.
  • Even very small and achievable reductions in
    air pollution levels have an impact on public
    health
  • This impact justifies taking preventive
    measures even in cities with low levels of air
    pollution

31
Apheis 2002-2003
32
Actions, steps and results during the third year
(2002-03)
  • To keep our HIA as accurate and up-to-date as
    possible
  • - Produce new exposure-response functions on
    short-term effects of AP
  • - Calculate years of life lost or reduction in
    life expectancy, in addition to the attributable
    number of deaths based on long-term effects

33
Actions, steps and results during the third year
  • To fulfill our mission of making our learnings
    available to the broadest possible audiences, and
    to evaluate the usefulness of our work on HIA
    among those who need to know
  • - Explore and understand how best to meet the
    information needs of policy makers concerned with
    the impact of air pollution on public health
  • and
  • - Understand how to meet those needs in terms of
    content and form

34
The broad view
  • Apheis is a multiyear, multiphase proactive
    public-health programme
  • Each phase builds on learnings of previous phase
  • First broad-based European HIA of air pollution
    on both the city and European levels
    simultaneously
  • Consistent with other HIAs on air pollution
    worldwide
  • Translates epidemiological findings into
    decision-making tool
  • One more brick in the wall of evidence that air
    pollution continues to threaten public health

35
The future
36
Epheis
Environmental Pollution and Health A European
Information System
37
Background
  • Call for proposals DGSANCO 2003-2008
  • ENHIS Environment and Health Information System
    (WHO- ECEH Bonn)
  • Six modules
  • Identification of relevant policies/corresponding
    needs
  • Development of Indicators
  • Methods for data retrieval/processing
  • Creation of NCC, networking
  • Integrate HIA (Epheis)
  • Database development and maintenance
  • Coordination WHO-Bonn
  • Steering Committee
  • Length first year 1 Feb 2004-30 Jan 2005

38
Objective
  • Comparative risk assessment (CRA) of different
    environmental risk factors in Europe
  • Selected environmental risk factors
  • Method based on HIA and CRA

39
For further information please visit
www.apheis.org
40
Who are our partners
  • 1. University of Athens, Athens, Greece
  • 2. Institut Municipal de Salut Pública (Municipal
    Institute of Public Health), Barcelona, Spain
  • 3. Departamento de Sanidad, Gobierno Vasco,
    Vitoria-Gasteiz, Spain
  • 4. Institutul de Sanatate Publica (Institute of
    Public Health), Bucharest, Romania
  • 5. Jozsef Fodor National Center for Public
    Health, National Institute of Environmental
    Health), Budapest, Hungary
  • 6. National Institute of Hygiene, Warsaw, Poland
  • 7. Saint James Hospital, Dublin, Ireland
  • 8. Institut de Veille Sanitaire, Saint-Maurice,
    France
  • 9. Inštitut za Varovanje Zdravja RS, (Institute
    of Public Health), Ljubljana, Republic of
    Slovenia

41
Who are our partners
  • 10. Saint Georges Hospital Medical School,
    London, UK
  • 11. Dirección General de Salud Pública,
    Consejeria de Sanidad,
  • Comunidad de Madrid (Department of Public
    Health, Regional
  • Ministry of Health, Madrid Regional
    Government), Madrid, Spain
  • 12. ASL RM/E Local Health Authority Roma E, Rome,
    Italy
  • 13. Escuela Andaluza de Salud Pública (Andalusia
    School of Public
  • Health), Granada, Spain
  • 14. Umeå University, Department of Public Health
    and Clinical
  • Medicine, Umeå, Sweden
  • 15. Tel Aviv University, Tel Aviv, Israel
  • 16. Escuela Valenciana de Estudios para la Salud
    (Valencia School
  • of Health Studies), Valencia, Spain

42
Who are our partners
  • Steering Committee
  • Ross Anderson, Saint Georges Hospital Medical
    School, London, UK
  • Emile De Saeger, Joint Research Centre, Institute
    for Environment and Sustainability, Ispra,
    Italy
  • Klea Katsouyanni, Department of Hygiene and
    Epidemiology, University of Athens, Athens,
    Greece
  • Michal Krzyzanowski, WHO European Centre for
    Environment and Health, Bonn Office, Germany
  • Hans-Guido Mücke, Umweltbundesamt - Federal
    Environmental Agency, WHO Collaborating
    Centre, Berlin, Germany
  • Joel Schwartz, Harvard School of Public Health,
    Boston, USA
  • Roel Van Aalst, European Environmental Agency,
    Copenhagen, Denmark

43

Who are our partners
  • Coordinators
  • Sylvia Medina, Institut de Veille Sanitaire
    (Institute of Public Health), Saint-Maurice,
    France
  • Antoni Plasència, Institut Municipal de Salut
    Pública (Municipal Institute of Public Health),
    Barcelona, Spain
  •   
  • Programme Assistant
  • Claire Sourceau, Institut de Veille Sanitaire,
    Saint-Maurice, France
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