The phrase "allocation of spatial" is not complete on its own but can be correct and usable in written English when part of a larger context.
It can be used in discussions related to geography, urban planning, or resource management where the distribution of space is being analyzed or described.
Example: "The allocation of spatial resources in urban areas is crucial for sustainable development."
Alternatives: "distribution of space" or "spatial distribution".
Previous research has demonstrated that number perception influences the allocation of spatial attention, such that the presentation of a spatially nonpredictive number at fixation results in attention being allocated to the left when the central number is low (e.g., 1), and attention being allocated to the right when the central number is high (e.g., 9).
To examine this issue, we used a version of a standard probe-detection task to measure the allocation of spatial attention [8], [19].
This increase might represent (I) allocation of spatial attention to the cued side [64], (II) short term memory processing of the cue position [65], (III) response preparation [66], (IV) temporal integration [67], (V) expectation of the task relevant visual stimulus [68], [69], and (VI), aspects of the decision process ("Is the square in the upper or lower half of the screen?") [70], [71].
This is consistent with the notion that foreground (nearer) locations receive higher processing priority, possibly via enhanced allocation of spatial attention there compared to background objects [Ozkan and Braunstein, 2010, see also Pomplun et al. 2013].
A related finding suggests that variation in WMC predicts the flexible allocation of spatial attention when combined with a task in which near-fixation distracters must be suppressed (Bleckley et al., 2003).
Visual cortex and parietal regions associated with the allocation of spatial attention in a visual cueing task also show enhancement by the presence of reward incentives for speeded performance [ 10].
Safety-critical embedded systems are designed with specific reliability targets, and design practices include the appropriate allocation of both spatial and temporal redundancies in the implementation to meet such requirements.
Here we used the flickering paradigm to investigate behavioral and neuro-physiological correlates of the allocation of visuo-spatial attention in complex three-dimensional (3D) environments.
Here we present a GIS-based framework that can help decision-makers to prioritize the spatial allocation of policy interventions at different spatial scales or administrative levels.
This process does not simply select spatial locations, since the allocation of attention to a spatial location can automatically lead to the attentional selection of objects at that location [2], [3].
As a measurement of spatial allocation and structure of land use patterns, landscape indices has become a useful tool in the study of land uses and landscapes.
