Keynote and plenary talks from renowned speakers

The program will include invited plenary lectures, contributed talks and poster sessions highlighting the latest latest research in Spatial Statistics.
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Chinese Agricultural University East Campus, Beijing, China 22-25 July 2027

Welcome to the 8th Spatial Statistics conference, which will be held at Beijing, China, from 22-25 July 2027, under the theme Content Arrangement.
During the Spatial Statistics 2027 conference in Beijing (China), specific attention is given to the important and unprecented bridge between spatial statistics and analytical intelligence. It embeds predictive modelling, artificial intelligence, real-time decision support systems and many more.
We live in an era often described as the age of data. Every day, billions of observations are recorded from satellites, environmental sensors, mobile devices, social networks, transportation systems, healthcare infrastructures, and digital platforms. Much information from these data is inherently spatial, while every decision ultimately affects places, communities, and environments. Spatial statistics provides the scientific foundation and means for our understanding and interpretation. It equips us with rigorous methods to model spatial dependence, quantify uncertainty, detect patterns, predict future scenarios, and distinguish genuine signals from random variation. In the end, it transforms geographic information into analytical intelligence—the capacity to support decisions that are both data-driven, context-aware and scientifically sound.
Analytical intelligence encompasses predictive modelling, machine learning, artificial intelligence, digital twins, and real-time decision support systems. These technologies reach their full potential when grounded in robust statistical principles. Spatial statistics bridges between sophisticated algorithms and reliable inference, ensuring that increasingly powerful computational methods remain interpretable, reproducible, and trustworthy. The integration of spatial statistics with artificial intelligence represents one of the most exciting frontiers in contemporary analytical intelligence. Machine learning excels at discovering complex patterns, while spatial statistical models provide principled approaches for incorporating spatial dependence, quantifying uncertainty, and producing interpretable results. Together, they enable a new generation of intelligent analytical systems capable of addressing challenges that are simultaneously scientific, societal, and strategic.
Comments from delegates of the 6th Spatial Statistics Conference
“High quality of content and well thought out schedule and time for discussion through on-site lunches with poster sessions.”
“Great atmosphere, very collaborative and collegial.”
“I got the opportunity to meet and interact with some renowned experts in spatial statistics whom I have read and referenced during my Ph.D. study.”
Our society, atmosphere and environment are dynamic, and are continuously changing at many scales of time and space. A recent rapid development in society concerns the emergence of AI.
AI is supported by large numbers of available data, requiring statistical methods to handle these. Simultaneously, in the spatial domain, a large and important collection of spatial statistical methods and domain knowledge are being developed to help address the demands of society. The number and variety of data sources are increasing with the advent of more and more satellite and aircraft sensors, ground stations, surveys, mobile devices, and internet sources, recording human, climatic and environmental processes. These spatial and spatio-temporal data require to be transformed into meaningful information and both spatial statistics and AI are complementary in achieving this.
Artificial Intelligence has its roots in computer science. In the past, it has resulted in artificial neural networks including the multi-layer perceptron, while more recently, we recognize how deep learning has resulted in the development of convolutional neural networks and the transformer. Now, natural language processing has brought about a profound shift in thinking and opened great opportunities for research.
Spatial statistics, with its roots in probability theory and stochastic processes, has much to bring to the AI table. Moreover, the development of Statistical Learning in a spatial context has built a bridge towards spatial big data.
At the dawn of AI, therefore, spatial statistics should play a major role in the development and application of AI and, at the same time, AI can benefit the development of spatial statistics.
Methods
Predictive modelling
Space-time statistics: geostatistics, point patterns, estimation methods, large dimensions
Causality in space and time
Modeling and predicting of extremes
Digital twins and spatial analytics
Hierarchical spatial models
Artificial intelligence
Hybrid AI and statistical models
Spatial deep learning
Spatial statistical learning
Spatial machine learning
Reinforcement learning in spatial systems
Natural language processing for spatial challenges
Neural networks in space
Geospatial Artificial Intelligence (GeoAI)
Decision support systems
Explainable AI for spatial decision-making
And more…
Spatio/temporal modeling of points and objects
Discrete spatial variation
Spatial and spatio/temporal variability and dependence
Stochastic geometry, tessellation, point processes, random sets
Change-of-support problems
Measurement error in spatial data
Functional spatial data analysis
Spatial compositional data analysis
High-performance computing for large spatial datasets
Applications
Environment
Environmental and climate applications
Climate change modelling
Environmental risk assessment
Air pollution mapping
Water resources management
Forest monitoring
Biodiversity and ecological modelling
Wildfire prediction
Coastal and marine spatial analysis
Natural hazard assessment
Disaster risk reduction and resilience
Health
Spatial epidemiology
Disease mapping
Infectious disease surveillance
Public health analytics
Environmental health
Pandemic modelling
Urban and Transport
Smart cities
Urban growth modelling
Sustainable urban development
Transportation and mobility analytics
Traffic forecasting
And more…
Land use and land cover modelling
Housing market analysis
Energy systems modelling
Abstract Submission Deadline: 29 January 2027
Author Notification Deadline: 25 March 2027
Author Registration Deadline: 23 April 2027
Early bird Registration Deadline: 23 April 2027

The program will include invited plenary lectures, contributed talks and poster sessions highlighting the latest latest research in Spatial Statistics.

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The Spatial Statistics Society aims to create a community and network of scientists who are interested in the theory and application of spatial statistics in the widest sense, including all physical and social/economic domains. An ad-hoc committee consisting of the following members Alfred Stein, Edzer Pebesma, Kate Calder, Renato Assuncao, Benedikt Graler, and Denis Allard has been formed and has taken some preliminary first steps.
Do you want to be kept up to date on this new Spatial Statistics Society? If so, please visit our websiteopens in new tab/window to sign up to be a member

Spatial statistics society
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Spatial deep learning
Spatial statistical learning
Neural networks in space
Large language models in space
Natural language processing for spatial challenges
Spatio/temporal modeling of points and objects
Causality in space and time
Modeling and predicting of extremes
Space-time statistics: geostatistics, point patterns, estimation methods, large dimensions
Discrete spatial variation
Spatial and spatio/temporal variability and dependence
Stochastic geometry, tessellation, point processes, random sets
Environment: soil, water, atmosphere
Interface of neural computing and spatial/spatio-temporal statistics
Climate system modeling and observations
Health e.g. epidemiology, geohealth and global health
Spatially-explicit ecological models
Plant and animal epidemiology
Quantifying the spatial extent of hazards and risk
Crime, poverty, liveability mapping
Space-time statistics, e.g. geostatistics, point patterns, estimation methods, large dimensions
Spatial deep learning
Inverse modeling
Modeling of extremes
Stochastic geometry, tesselation, point processes, random sets
Causal statistical modeling
Trajectory/movement modeling
Climate system modeling and observations
Spatially-Explicit Ecological Models
Health e.g. epidemiology, geohealth and global health
Air, Water and Soil spatio-temporal variability
Plant and animal epidemiology
Quantifying the spatial extent of hazards and risk
Crime and poverty mapping
Space/time econometrics
Interface of Neural Computing and Spatial/Spatio-Temporal Statistics
Inferring Movement and Behavior from Telemetry
Space-time statistics, e.g. geostatistics, point patterns, estimation methods, large dimensions
New spatial data sources, e.g. social media, Google, citizen science, crowd source maps
Stochastic geometry, tesselation, point processes, random sets
Causal statistical modeling
Trajectory/movement modeling
Predictive modelling
Spatial data quality and uncertainty
With these methods being applied in a range of relevant domains. For the theme of the conference, we particularly invite contributions in:
Image analyses, e.g. satellite images
Traffic and transport
Global change
Ecology, e.g. dispersion, migration, colonisation and invasion of species
Plant and animal epidemiology, e.g. emerging epidemics
Hazards, disasters and risks, e.g. outbreaks, risk mapping
Crime and poverty mapping
Health e.g. epidemiology, geohealth and global health
Spatial econometrics
Space-time statistics
Models for point processes
Lattice models
Geostatistics
Copulas in space and time
Spatial extremes
Change-point analysis
Estimation methods
Issues of scale: upscaling and downscaling methodology
Stochastic geometry, random sets and stereology
Causal statistical modeling
Image analysis (e.g. satellite sensor image time-series, DNA data, brain imaging)
Predictive modelling
Spatial data quality and uncertainty
New spatial data sources (e.g. social media, Google, citizen science, crowd sourced data)
Large dimensional big spatial data
With these methods being applied in a range of relevant domains. For the theme of the conference, we particularly invite contributions in:
Statistical aspects of epidemiology
Geo-Health and One Health
Plant and animal diseases
Health and Global change
Zoonotic and vector-borne diseases (e.g. emerging epidemics)
Hazards, disasters and risks (e.g. outbreaks, risk mapping)
Ecology (e.g. dispersion, migration, colonisation and invasion of species)
Spatial econometrics
Space-time statistics (e.g. point patterns models, estimation methods, large dimensions, scale issues)
Spatial data quality and uncertainty
Parameter estimation in PDEs
Stochastic geometry, tesselation, point processes, random sets
Spatial econometrics
New spatial data sources (e.g. big, data, social media, Google, citizen science, crowd source maps)
Image analyses (e.g. satellite images time series, DNA data, nano particles, nervous systems)
Predictive modelling
Tipping points (e.g. sea-level rise, socio-economic shifts)
Hazards, disasters and risks (e.g. tsunamis, earthquakes, landslides, air pollution levels)
Global change (e.g. stochastic weather generators)
Health, medical and epidemiology
Plant and animal epidemiology (emerging epidemics)
Ecology (e.g. dispersion, migration, colonisation and invasion of species)
Spatial Statistics 2013 Conference
Spatial Statistics for Mapping the Environment (2011)