Atmospheric Impact Assessment - Verre online · Atmospheric Impact Assessment ARIA Technologies SA...

Post on 15-May-2018

213 views 0 download

Transcript of Atmospheric Impact Assessment - Verre online · Atmospheric Impact Assessment ARIA Technologies SA...

Glassman Europe , Lyon , 13-14 May 2008

Atmospheric Impact Assessment

ARIA Technologies SA8-10, rue de la Ferme – 92100 Boulogne Billancourt – France

Telephone: +33 (0)1 46 08 68 60 – Fax: +33 (0)1 41 41 93 17 E-mail: info@aria.fr – http:/ /www.aria.fr

Armand ALBERGEL– aalbergel@aria.fr

ARIA TechnologiesARIA Technologies was founded in 1990 by a

group of researchers from the R&D department of EDF, the French electricity board.

It is now an independent company, leader in its field in Europe. Its headquarters are located near Paris, with offices in France and a sister company, ARIANET, in Milan, Italy.

One focus: modeling the atmospheric environment •from building scale to continental scale •from simple screening models to full-blown CFD solutions•keeping consulting, software, systems and training tightly linked•with an international and open approach, close to top R&D centres.

Application domains

Environmental Impact Assessment

Since 1998, ARIA Technologies has taken part in over one hundred air pollution dispersion studies related to industrial sites Power plants, incinerators, Waste Treatment facilities.

Fos -Berre

Air quality and ground deposition

OdorsHealth Risk

Assessment.

Environmental Impact Assessment

3D meteorological fields.Site

0

50

100

150

200

250

300

350

26/5

/93

0:00

26/5

/93

3:00

26/5

/93

6:00

26/5

/93

9:00

26/5

/93

12:0

0

26/5

/93

15:0

0

26/5

/93

18:0

0

26/5

/93

21:0

0

27/5

/93

0:00

Date

mic

rog/

m3

FOS - MesuresBouffées - CalculsParticules - CalculsEulérien - Calculs

Validation vs. experimental data

3 different models

Environmental Impact AssessmentHealth Risk Assessment

•Identification of dangers:•chronic toxicity•carcinogenic risk

•Dose-response relationship analysis: •threshold toxicants known as "systemic toxics" •non-threshold toxicants such as carcinogenic pollutants

•Calculation of exposure: •inhalation•ingestion

•Assessment of health risk: •Threshold toxicants: danger ratio •Non-threshold toxicants: probability of developing a cancer

Environmental Impact AssessmentOdors

On-site modelling system : ARIA View®

Meteorological data (site station - forecast)

Maps of results (Web compatible)

9

S02 CO PS PbJ1 264 30 48 0,6J2 222 25 40 0,5J3 342 39 62 0,8J4 350 40 64 0,8…J28 425 48 77 1,0J29 369 42 67 0,9J30 201 23 36 0,5

kg/j

• Concentrations, depositions• Odours • Tracking critical points• Backwards trajectories

Emission data, computed / measured

Data collection, model runs

Industry : ROMPETROL (Romania)

• Manage exposure and risk• Broadcast results• Evaluate health risks

Regulatory constraints

Collective air pollution control in an industrial basin

Share the responsibility and the investments on air concentration bases and not only on total year emissions

Ambient air monitoring networks are generally not enough dense to cover the whole area

Individual air control for some industries

Example of a domestic waste incinerator : Monitoring the impact in the vicinity of the installation (Art 30 et 31 of the law 20 September 2002 concerning burning installation of hazardous and non-hazardous waste) :

Initial diagnostic : before the installation opening

Between 3 and 6 months : after the installation runing

Routine update : at least annually

Reference : INERIS (mandated by the French MOE) « Methode de surveillance des retombées des dioxines et furanes autour d’une UIOM » 2001 10

Need of an on-line Supervision tool

A global tool to :

Optimize the atmospheric environment supervision

Improve internal and external communication (HQ and quick adaptability): neighborhood , Local authorities, routine reporting, nongovernmental association…

Analyze, understand and explain the impact of their own releases

How ?

On-line concentration and deposition of main pollutants (NO2, dioxines, heavy metals…) considering real emissions and actual meteorological data

Comprehensive Maps Help to design measurement campaign Ready to run in case of accidental / exceptional releases

A detailed knowledge of the impact of their own installations

11

Need of an on-line Supervision tool

Editing results every 3 hours:

concentration and deposition maps

summary table of values

Continuous update of computational values on key points:

daily,MonthlyAnnually (main statistics as centils)

Time series of meteorological data and emission

Data base backup for all data and results (Yearly base)

Detailed run on request (peak, accidental or exceptional release)

Optimization (measurement, day-to-day reporting,…) of the supervision

12

Where are the difficulties ?

Numerical geographical data OKTopography and land use largely available world wide now and especially in EuropeGIS are widely used

Meteorological data OKBetter sensors and denser networkNumerical forecast and analyses better qualityProgress on Meso-scale modeling

Emissions OK ?Better understanding using ‘universal’ classification like SNAP and emission factorsSelf-monitoring emission CEMS or PEMS

Computational and numerical network OKPower increased on low cost computerInternet / intranet / ADSL communication

Numerical techniques become central

13

General flowchart

14

Meteo data Wind, temperature, rain

Emission monitoring

Site

ResultsDatabase consolidation Automatic impact model run

• Air Concentration data• Maximum : Localization and values • Editing values on a list of key points

• Monthly and annual synthesis• Maps of concentrations et deposition (dry

and with rain)• Detailed peak episode on request• Automatic and exhaustive data backup

and archives

Sampling program

Self control continuous measurements:HCl, CO, CO2, SO2, NOx, COT, NH3, H2O, O2, N2O, flowrate and temperature

1HCLC--L1

mg/Nm310

320258308304352344327355329352307218287373351289143224113

7178

192379400

71400278

24:00

2SO2C-- L1

mg/Nm350

928537

14167

045

028

0540

92151114

5828

00002

42

0151

4108:00

3CO2C--L1

%

8,110,4

8,99,38,08,18,48,08,56,97,07,76,56,87,37,17,27,66,46,37,07,37,06,6

6,310,4

7,6

4O2 C--L1

%

12,19,2

10,311,212,611,410,912,611,912,412,811,812,812,812,012,312,411,912,913,612,712,112,612,9

8,313,611,6

5POUSC--L1

mg/Nm3

45,239,240,154,851,242,138,137,540,235,442,645,739,134,240,742,151,254,137,140,352,445,237,838,2

34,254,842,7

6HCL C--L2

mg/Nm310

3,82,94,00,92,40,91,50,24,45,3

30,822,2

2,41,22,51,21,53,56,74,58,23,24,81,7

0,230,8

3,502:00

7SO2C--L2

mg/Nm350

40990

33022311843

112417136373529

2302042408531273130343728

2740910668

8COC--L2

mg/Nm350

13638

487

0330

223480

251

1213

000000

26

01361624

9CO2C--L2

%

6,45,14,66,24,14,04,43,95,13,94,85,53,44,13,83,83,73,63,43,43,33,93,44,3

3,36,44,3

10NOxC--L2

mg/Nm3

242523152422242821233225192018192017202122202226

153222

11HCC--L2

mg/Nm3

000000000000000000000000

000

12O2C--L2

%

14,114,114,114,315,415,815,716,215,416,116,515,315,014,213,613,614,314,314,815,515,616,115,515,3

13,616,5

15

13POUSC--L2

mg/Nm3

0,00,00,00,00,00,00,00,00,00,00,00,00,00,20,00,00,00,00,00,20,00,00,00,0

0,00,20,0

14DEBITL2

KNm3/h

33,1633,3032,8433,0233,5133,5233,5833,4333,4334,8534,6233,9135,5335,9434,8335,7735,1735,6436,1035,5235,8835,3535,6636,05

32,8436,1034,61

Daily report DRIRE JOUR L1 - L2 : 29 february 2000 North Oven Station n°1

Installation reference : Labo Poissy Validity criterion : 80%

average24h

UnitThresh.2

1 : 00 2 : 00 3 : 00 4 : 00 5 : 00 6 : 00 7 : 00 8 : 00 9 : 00

10 : 00 11 : 00 12 : 00 13 : 00 14 : 00 15 : 00 16 : 00 17 : 00 18 : 00 19 : 00 20 : 00 21 : 00 22 : 00 23 : 00 24 : 00

Min.Max.Avg.Thresh.2

Nota: "HCL C---L1" threshold is instantaneous threshold express in duration. "SO2 C--L1" and "HCL C--L2" threshold are calculated threshold expressin duration. Others areinstantaneous thresholds express in number.

Data acquisition system andAutomatic report editing

Specific analyses as heavy metals and dioxins…)

Thiverval-Grignon Incinerator Plant (France)

Stack seen from the roof

Site surroundings

Site features:Isolated plant

Gently rolling terrain

Single stack

CEMS system in place (ESA)

Dedicated meteorological station

15

Thiverval-Grignon Incinerator plant (France)

ARIA View : instantaneous plume every 30 minutes

16

ARIA View : monthly averaged ground impact

Thiverval-Grignon Incinerator Plant (France)

17

ROMPETROL Refinery (Romania)

18

Site features :

Large petro-chemical platform on the Black Sea shore (Costantza)

CEMS in place (ENVIRONNEMENT SA)

Dedicated meteorological station

ROMPETROL Refinery (Romania)

19

ROMPETROL Refinery (Romania)

20

What next : real time for local scale

4h2002

MSS : Urban Dispersion with obstacles

21

Questions ?

Now or

aalbergel@aria.fr