OVERVIEW

The CLIMATics Research Group develops next-generation tools to advance the modeling, monitoring, prediction, and optimization of the climate and environment across the Arabian Peninsula and beyond. By coupling physics-based models with artificial intelligence, data assimilation, and high-performance computing, our research delivers a new generation of digital climate intelligence systems. These systems are designed to improve predictive capabilities, enhance situational awareness, and support informed decision-making for sustainable development. Our work spans multiple scales- from local process understanding to regional and global interactions - bridging atmosphere, ocean, and land systems. Through interdisciplinary collaboration, we integrate numerical innovation with data-driven discovery to address pressing environmental challenges, strengthen resilience, and contribute to the Kingdom’s Vision 2030 sustainability objectives.

 

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Regional Climate Dynamics and Variability

We investigate the processes shaping the Arabian Peninsula’s climate across the atmosphere and ocean, examining how monsoons, aerosols, and circulation patterns drive regional variability and extremes

Control Room
 
Predictive Modeling and Early-Warning Systems

We develop physics-based and AI-enhanced frameworks to improve forecasting at weather, subseasonal, and seasonal scales, strengthening early warnings for heatwaves, dust storms, and marine hazards

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Climate Change and
Impacts

We study how global and regional climate change affects the Arabian Peninsula’s environment, resources, and ecosystems, providing science-based insights to guide adaptation and resilience strategies


 

RESEARCH THEMES

CloudClimate Dynamics and Predictability
  • Advancing numerical weather and climate models to capture regional extremes such as heatwaves, dust storms, and heavy rainfall.
  • Integrating data assimilation and nonlinear ensemble methods to improve forecast accuracy.
AIAI and Data-Driven Environmental Intelligence
  • Harnessing machine learning and deep learning to emulate complex climate processes and accelerate predictions.
  • Building AI-enabled climate emulators (e.g., Gordon Bell Prize–winning frameworks) to generate high-resolution simulations at reduced computational cost.
SatelliteRemote Sensing and Environmental Monitoring
  • Leveraging satellite and autonomous observing systems (UAVs, marine platforms, sensor networks) to monitor climate drivers, dust, air quality, and ocean health.
  • Developing near-real-time monitoring systems for hazards like coral bleaching, harmful algal blooms (HABs), and drought.
HPCHigh-Performance Computing and Digital Twins
  • Exploiting the power of Shaheen III and exascale architectures to run ultra-high-resolution climate simulations.
  • Designing the first digital twin of the Arabian Peninsula climate and environment to support operational forecasting and scenario planning.
WorldApplications and Societal Impact
  • Providing decision-support tools for renewable energy optimization, urban planning, water management, and disaster risk reduction.
  • Supporting Saudi Arabia’s Vision 2030 and the Saudi Green Initiative by informing national climate adaptation and mitigation strategies.

 

ENABLING PILLARS

Our research is powered by an integrated set of capabilities that make CLIMATics unique:

SENSING TECHNOLOGIES
Satellite observations, in-situ networks, robotics, and autonomous platforms
We integrate historical archives and real-time observations from satellites, ground-based instruments, and oceanic sensors. These continuous data streams keep the digital twin informed with the latest field insights, providing a comprehensive view of environmental conditions across scales and a solid foundation for reliable monitoring and situational awareness.

 

PHYSICS-BASED MODELING
High-resolution weather, ocean, and climate simulations
Our work relies on state-of-the-art, physics-based models to simulate key environmental processes. When observations are scarce, these models fill critical gaps with scientific rigor, enabling us to explore interactions among the atmosphere, oceans, and land—and to bring the digital twin to life with realistic, science-validated scenarios.

 

NUMERICAL INNOVATION
Data assimilation, uncertainty quantification, and advanced algorithms
Advanced data science methods connect simulated and observed data, transforming raw information into meaningful insights. Through rigorous analysis, processing, and visualization, we extract key signals from complexity—supporting evidence-based decisions, deepening understanding of Earth system dynamics, and advancing scientific discovery.

 

HIGH-PERFORMANCE COMPUTING (HPC)
Harnessing Shaheen III and exascale resources
Meeting the scale and complexity of the digital twin relies on KAUST’s advanced HPC infrastructure, which powers detailed simulations and seamlessly couples physics, data streams, and AI models. This enables us to explore environmental variability at unprecedented scales and project impacts with precision.

 

AUTONOMOUS SYSTEMS
Expanding reach through intelligent robotics
We design and deploy robotic platforms—such as autonomous underwater vehicles and aerial drones equipped with advanced sensors to monitor and explore hard-to-reach environments. Their adaptive, automated data collection enhances the digital twin’s real-time accuracy and deepens its observational capacity.

 

DATA SCIENCE & ARTIFICIAL INTELLIGENCE
Machine learning, climate emulators, and predictive analytics
AI and machine learning algorithms enable us to manage the immense volume and diversity of environmental data. By uncovering hidden patterns, generating predictive insights, and refining models, AI enhances the digital twin’s responsiveness and adaptability—allowing it to reflect current conditions and anticipate emerging trends with greater accuracy.

 

STRATEGIC POSITIONING

CLIMATics operates at the interface of science, technology, and policy, positioning itself as a key regional and global hub for climate research and innovation. Its interdisciplinary research bridges atmospheric science, oceanography, statistics, computer science, and engineering. The group’s outputs inform both academic frontiers and practical implementations, from marine environmental protection to renewable energy planning, urban development, and disaster risk reduction.

Our work is supported by three key collaborators: the Climate Change Center, the national hub for climate science and operational forecasting; Aramco, leveraging advanced climate and marine intelligence for safe and resilient operations; and NEOM, pioneering high-resolution climate tools and datasets for sustainable urban and coastal development.

See how each collaboration drives impact: