Javascript must be enabled to continue!
Predicting spatio‐temporal distributions of migratory populations using Gaussian process modelling
View through CrossRef
Abstract
Knowledge concerning spatio‐temporal distributions of populations is a prerequisite for successful conservation and management of migratory animals. Achieving cost‐effective monitoring of large‐scale movements is often difficult due to lack of effective and inexpensive methods.
Taiga bean goose Anser fabalis fabalis and tundra bean goose A. f. rossicus offer an excellent example of a challenging management situation with harvested migratory populations. The subspecies have different conservation statuses and population trends. However, their distribution overlaps during migration to an unknown extent, which, together with their similar appearance, has created a conservation–management dilemma.
Gaussian process (GP) models are widely adopted in the field of statistics and machine learning, but have seldom been applied in ecology so far. We introduce the R package gplite for GP modelling and use it in our case study together with birdwatcher observation data to study spatio‐temporal differences between bean goose subspecies during migration in Finland in 2011–2019.
We demonstrate that GP modelling offers a flexible and effective tool for analysing heterogeneous data collected by citizens. The analysis reveals spatial and temporal distribution differences between the two bean goose subspecies in Finland. Taiga bean goose migrates through the entire country, whereas tundra bean goose occurs only in a small area in south‐eastern Finland and migrates later than taiga bean goose.
Synthesis and applications. Within the studied bean goose populations, harvest can be targeted at abundant tundra bean goose by restricting hunting to south‐eastern Finland and to the end of the migration period. In general, our approach combining citizen science data with GP modelling can be applied to study spatio‐temporal distributions of various populations and thus help in solving challenging management situations. The introduced R package gplite can be applied not only to ecological modelling, but to a wide range of analyses in other fields of science.
Title: Predicting spatio‐temporal distributions of migratory populations using Gaussian process modelling
Description:
Abstract
Knowledge concerning spatio‐temporal distributions of populations is a prerequisite for successful conservation and management of migratory animals.
Achieving cost‐effective monitoring of large‐scale movements is often difficult due to lack of effective and inexpensive methods.
Taiga bean goose Anser fabalis fabalis and tundra bean goose A.
f.
rossicus offer an excellent example of a challenging management situation with harvested migratory populations.
The subspecies have different conservation statuses and population trends.
However, their distribution overlaps during migration to an unknown extent, which, together with their similar appearance, has created a conservation–management dilemma.
Gaussian process (GP) models are widely adopted in the field of statistics and machine learning, but have seldom been applied in ecology so far.
We introduce the R package gplite for GP modelling and use it in our case study together with birdwatcher observation data to study spatio‐temporal differences between bean goose subspecies during migration in Finland in 2011–2019.
We demonstrate that GP modelling offers a flexible and effective tool for analysing heterogeneous data collected by citizens.
The analysis reveals spatial and temporal distribution differences between the two bean goose subspecies in Finland.
Taiga bean goose migrates through the entire country, whereas tundra bean goose occurs only in a small area in south‐eastern Finland and migrates later than taiga bean goose.
Synthesis and applications.
Within the studied bean goose populations, harvest can be targeted at abundant tundra bean goose by restricting hunting to south‐eastern Finland and to the end of the migration period.
In general, our approach combining citizen science data with GP modelling can be applied to study spatio‐temporal distributions of various populations and thus help in solving challenging management situations.
The introduced R package gplite can be applied not only to ecological modelling, but to a wide range of analyses in other fields of science.
Related Results
Journal of Mathematical Imaging and Vision
Journal of Mathematical Imaging and Vision
This paper describes a generalized axiomatic scale-space theory that makes it possible to derive the notions of linear scale-space, affine Gaussian scale-space and linear spatio-te...
Odd version Mathieu-Gaussian beam based on Green function
Odd version Mathieu-Gaussian beam based on Green function
Like the theoretical pattern of non-diffracting Bessel beams, ideal non-diffracting Mathieu beams also carry infinite energy, but cannot be generated as a physically realizable ent...
Role of the Frontal Lobes in the Propagation of Mesial Temporal Lobe Seizures
Role of the Frontal Lobes in the Propagation of Mesial Temporal Lobe Seizures
Summary: The depth ictal electroencephalographic (EEG) propagation sequence accompanying 78 complex partial seizures of mesial temporal origin was reviewed in 24 patients (15 from...
Bayesian Spatio-temporal Additive Modeling of Severe Food Insecurity Dynamics Across Africa
Bayesian Spatio-temporal Additive Modeling of Severe Food Insecurity Dynamics Across Africa
Abstract
Spatio-temporal analysis is a powerful tool for exploring geo-referenced data containing space and time information. The models are often visualized through maps t...
Brain gene expression reveals pathways underlying nocturnal migratory restlessness
Brain gene expression reveals pathways underlying nocturnal migratory restlessness
AbstractMigration is one of the most extreme and energy demanding life history strategies to have evolved in the animal kingdom. In birds, champions of long-distance migrations, th...
Dynamic adaptive spatio–temporal graph network for COVID‐19 forecasting
Dynamic adaptive spatio–temporal graph network for COVID‐19 forecasting
AbstractAppropriately characterising the mixed space–time relations of the contagion process caused by hybrid space and time factors remains the primary challenge in COVID‐19 forec...
Influences on flood frequency distributions in Irish river catchments
Influences on flood frequency distributions in Irish river catchments
Abstract. This study explores influences which result in shifts of flood frequency distributions in Irish rivers. Generalised Extreme Value (GEV) type I distributions are recommend...
Timing shapes flyway selection in juvenile white storks at the European migratory divide
Timing shapes flyway selection in juvenile white storks at the European migratory divide
Abstract
Migratory divides are junctures where populations of the same species following different migratory routes intersect. In white storks (Ciconia ciconia), migratio...

