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Volume 2

Environment Pollution and Climate Change

ISSN: 2573-458X

Climate Change 2018 &

Global ENVITOX 2018

October 04-06, 2018

October 04-06, 2018

London, UK

16

th

Annual Meeting on

Environmental Toxicology and Biological Systems

&

5

th

World Conference on

Climate Change

JOINT EVENT

On aerosol-chemistry-cloud-climate interactions and entanglements

Rong-Ming Hu

1

, C D O´Dowd

1

, L Coleman

1

, C Noone

1

, T Grigas

1

, S Bekki

2

, O Boucher

2

and

J-L Dufresne

2

1

National University of Ireland Galway, Ireland

2

Institut Pierre Simon Laplace (IPSL), France

A

erosols and chemically reactive gases have important impacts on regional and global air quality and climate change. Despite

decades of efforts, the model simulations of aerosols, chemically reactive gases and clouds are still uncertain due to the

complex conundrum of aerosol-chemistry-cloud-climate interactions. The complicated entanglements and feedbacks among

those atmospheric elements lead to a difficult and painstaking task for reducing the uncertainties in the future air quality and

climate predictions. Nevertheless, the increasing demands for the accurate future air quality and climate information with high

resolution require the high performance of multi-scale modelling. The Aerosol Chemistry Model Intercomparison Project

(AerChemMIP) provides us a good opportunity to quantify the air quality and climate impacts of aerosols and chemically

reactive gases. The project is designed to reduce the uncertainties in emissions, atmospheric compositions, radiative forcing

and climate feedbacks, and improve the capabilities of model predictions. The outcomes of global model simulations will also

be a benefit to improving the regional model simulations using the downscaling technique. With the amazing progress from

ground-based, airborne and space-based measurements, we advocate an approach of integrating modelling and observation

for model process studies, model validations and data assimilation. More

in situ

measurements and model improvements are

necessary to better predict future air quality and climate change on multiple temporal and spatial scales.

Recent Publications

1. Dhomse S, et al. (2018) Estimates of ozone return dates from chemistry climate model initiative simulations, atmospheric.

Chemistry and Physics Discussions 1–40.

2. Shere K, et al. (2013) Trace gas/aerosol boundary concentrations and their impacts on continental-scale AQMEII

modelingsub-regions. Atmos. Environ. 53:38–50.

3. Appel KW, et al. (2012) Examination of the community multiscale air quality(CMAQ) model performance over the North

American and European domains. Atmos. Environ. 53: 142–155.

4. Hu R-M, et al. (2009) Light scattering and absorption properties of dust particles retrieved from satellite measurements.

JSQRT 110:1698–1705.

5. Hu R-M, et al. (2009) New algorithms and their application for satellite remote sensing of surface PM2.5 and aerosol

absorption. Journal of Aerosol Science 40(5):394–402.

Rong-Ming Hu et al., Environ Pollut Climate Change 2018, Volume 2

DOI: 10.4172/2573-458X-C1-002