3 Sources
[1]
How the Brain Filters Distractions to Stay Focused on a Goal - Neuroscience News
Summary: A new attention model reveals how the human brain allocates limited perceptual resources to focus on goal-relevant information in dynamic environments. Researchers developed "adaptive computation," a system that prioritizes important visual details -- like traffic signals over flashy cars
[2]
Attention scan: How our minds shift focus in dynamic settings
A person's capacity for attention has a profound impact on what they see, dictating which details they glean from the world around them. As they walk down a busy street, the focus of their attention may shift to a compelling new billboard advertisement or a shiny Lamborghini parked on the
[3]
How the brain decides what to focus on - and what to ignore - Earth.com
We often think we're aware of everything around us, but our brains are constantly deciding where to focus. Think about walking down a busy street. You might glance at a flashy car or a bright advertisement. But when it comes time to cross the street, those distractions vanish. Instead, your brain
Share
Copy Link
Yale psychologists have developed a new model called "adaptive computation" that explains how the human brain allocates attention in complex, dynamic environments. This breakthrough could lead to more human-like AI systems.
Researchers at Yale University have developed a groundbreaking model that sheds light on how the human brain allocates attention in complex, dynamic environments. The study, published in the journal Psychological Review, introduces the concept of "adaptive computation," which explains how our minds prioritize goal-relevant information while filtering out distractions
1
.The new model, termed "adaptive computation," is essentially a software program that rations elementary computational processes to focus on goal-relevant objects. This system mimics the brain's ability to prioritize important visual details based on task relevance
2
.
Source: Neuroscience News
"We have a limited number of resources with which we can see the world," explained Ilker Yildirim, assistant professor of psychology at Yale and senior author of the study. "Each perception we experience, such as the position of an object or how fast it's moving, is a result of exerting some number of these elementary perceptual computations."
1
To test their model, the researchers conducted experiments involving multiple moving objects:
3
.In another experiment, researchers varied the number of distractor objects and their speed, asking participants to rate task difficulty. The model's predictions aligned with participants' subjective difficulty ratings, providing a computational signature of the feeling of mental exertion
2
.This research could have significant implications for the development of artificial intelligence systems. Unlike current AI that attempts to process all available information, this model mimics the human ability to selectively focus on relevant data while ignoring distractions
3
."We think this line of work can lead to systems that are a bit different from today's AI, something more human-like," Yildirim stated. "This would be an AI system that when tasked with a goal might miss things, even shiny things, so as to flexibly and safely interact with the world."
1

Source: Earth.com
Related Stories
The adaptive computation model also helps explain what's sometimes considered a "human quirk": the ability to make perceptions of non-task-oriented objects disappear when focusing on a specific goal. This selective attention allows us to navigate complex environments efficiently
2
.
Source: Medical Xpress
The researchers aim to further explore the computational logic of the human mind by creating new algorithms of perception and attention and comparing their performance to that of humans. This approach could lead to advancements in both our understanding of human cognition and the development of more sophisticated AI systems
3
.As we continue to unravel the mysteries of human attention, this research opens up new avenues for cognitive science and artificial intelligence, potentially revolutionizing how we approach machine learning and human-computer interaction.
Summarized by
Navi
[1]
[2]
20 Apr 2025•Science and Research

17 Jun 2025•Science and Research

17 Sept 2024

1
Science and Research

2
Technology

3
Technology
