Atmospheric Measurement and Observation Facility (AMOF) - 2
Lead Research Organisation:
University of Leeds
Department Name: National Centre for Atmospheric Science
Abstract
The Atmospheric Measurement and Observation Facility (AMOF) is a world-class, cutting edge and internationally leading facility for atmospheric observation.
It enables research across a wide range of areas including, but not limited to, air quality, greenhouse gases, aerosol and cloud microphysics, surface exchange and micrometeorology, dynamics and convection. AMOF will support expert and non-expert researchers to improve the representation of complex atmospheric processes and the development of evidence-based mitigations to complex problems.
AMOF capability is not just the instrumentation, it encompasses the product and service delivered and the support provided through the entire project lifecycle.
Facility staff are embedded in host institution groups that are research active and are research-active themselves. It is the long-term support through NC funding of staff that enables them to be repositories of skill and experience, factors that are at the core of enhancing the service that can be provided especially to early career researchers (ECRs) and students.
The close relationship between staff and the target communities makes the AMOF provision unique ensuring the Facility is delivering what the community want, the way they want it and to the highest of standards.
Key strategic goals for AMOF are:
to be agile, inclusive and transparent in meeting the changing needs of all users,
to facilitate, support and enable the science needs of a wide and diverse user base,
to ensure scientific excellence and value for money,
to minimise the carbon footprint of both its own activities and the projects it supports,
to ensure staff are enabled to develop and innovate and are actively engaged in the running of the facility.
It enables research across a wide range of areas including, but not limited to, air quality, greenhouse gases, aerosol and cloud microphysics, surface exchange and micrometeorology, dynamics and convection. AMOF will support expert and non-expert researchers to improve the representation of complex atmospheric processes and the development of evidence-based mitigations to complex problems.
AMOF capability is not just the instrumentation, it encompasses the product and service delivered and the support provided through the entire project lifecycle.
Facility staff are embedded in host institution groups that are research active and are research-active themselves. It is the long-term support through NC funding of staff that enables them to be repositories of skill and experience, factors that are at the core of enhancing the service that can be provided especially to early career researchers (ECRs) and students.
The close relationship between staff and the target communities makes the AMOF provision unique ensuring the Facility is delivering what the community want, the way they want it and to the highest of standards.
Key strategic goals for AMOF are:
to be agile, inclusive and transparent in meeting the changing needs of all users,
to facilitate, support and enable the science needs of a wide and diverse user base,
to ensure scientific excellence and value for money,
to minimise the carbon footprint of both its own activities and the projects it supports,
to ensure staff are enabled to develop and innovate and are actively engaged in the running of the facility.
Organisations
Publications
Abdunabiev S
(2024)
Validation and traceability of miniaturized multi-parameter cluster radiosondes used for atmospheric observations
in Measurement
Auerswald T
(2024)
Effect of Flow Variability on Dispersion of Continuous and Puff Releases in a Regular Street Network
in Boundary-Layer Meteorology
Bencardino M
(2024)
Patterns and trends of atmospheric mercury in the GMOS network: Insights based on a decade of measurements
in Environmental Pollution
Chawner H
(2024)
Atmospheric oxygen as a tracer for fossil fuel carbon dioxide: a sensitivity study in the UK
in Atmospheric Chemistry and Physics
Courtier B
(2024)
Advantages of G-band radar in multi-frequency liquid-phase microphysical retrievals
in Atmospheric Measurement Techniques
Diez S
(2024)
Long-term evaluation of commercial air quality sensors: an overview from the QUANT (Quantification of Utility of Atmospheric Network Technologies) study
in Atmospheric Measurement Techniques
Ding S
(2024)
Statistical properties of neutrally and stably stratified boundary layers in response to an abrupt change in surface roughness
in Journal of Fluid Mechanics
Finney D
(2024)
Deep Convective Microphysics Experiment (DCMEX) coordinated aircraft and ground observations: microphysics, aerosol, and dynamics during cumulonimbus development
in Earth System Science Data
Gallacher DJ
(2024)
A Gaussian-plume based Monte Carlo method for calculating radiation dose in the near field of buildings.
in Journal of radiological protection : official journal of the Society for Radiological Protection
Hancock P
(2024)
The wake of a large wind turbine in stable atmospheric boundary layer flow, simulated in the EnFlo stratified-flow wind tunnel
in Journal of Renewable and Sustainable Energy
