#Brainmapping

A groundbreaking international study has unveiled a novel way our brains reconfigure themselves while listening to rhythmic sounds, challenging long-held beliefs about brainwave activity and offering profound implications for music cognition, mental health, and brain diagnostics. The research, published this week in Advanced Science and led by teams at Aarhus University and the University of Oxford, introduces a method that captures the intricate dance of brainwaves as they respond to rhythm moment by moment—a discovery that could help redefine how scientists understand perception and consciousness (Neuroscience News).

A new international study reveals that the brain continuously reconfigures its networks as we listen to rhythm. Using a cutting-edge method, researchers show real-time shifts in brainwaves rather than fixed patterns, with important implications for music cognition, mental health, and brain diagnostics. The findings appear in Advanced Science and come from collaborations between Aarhus University’s Center for Music in the Brain and the University of Oxford. The work introduces FREQ-NESS, a tool that tracks how brain networks reorganize their dominant frequencies during rhythmic listening.

A joint team of Chinese and French researchers has produced an unprecedented map of the claustrum, a brain region long thought to coordinate conscious experience, in the crab-eating macaque. Published in Cell in April 2025, the study delivers a single-cell spatial transcriptome atlas and a whole-brain connectivity map, offering a detailed view of cellular diversity and neural wiring that underpins awareness in primates. The research provides a blueprint of the claustrum and advances our understanding of how consciousness may emerge from brain circuits. This progress resonates with Thailand’s growing interest in neuroscience and mental health.

In a landmark advance that could reshape how science understands consciousness, a collaboration of Chinese and French researchers has meticulously mapped the claustrum—the brain region often dubbed as a “conductor of consciousness”—in the crab-eating macaque monkey. Reporting their findings in the highly respected journal Cell in April 2025, the team unveiled an unprecedented single-cell spatial transcriptome atlas and a whole-brain connectivity map, shedding new light on the neural diversity and complex wiring that underpins conscious awareness in primates Cell, SCMP. This research not only offers a detailed blueprint of the elusive claustrum, but also marks a major step toward identifying how consciousness itself emerges from brain circuits—a quest with deep philosophical and practical significance for humanity, including Thai society.

An international team of more than 150 scientists has created the most detailed map to date of how visual information travels through the brain. The study uncovers hundreds of millions of connections within a single grain-sized sample of mouse brain tissue and brings researchers closer to understanding sight. Published in Nature on April 9, 2025, the project combines genetic engineering, high-resolution electron microscopy, and deep learning to chart both the physical wiring and the neurons’ real-time responses to visual stimuli. The result is a 1.6-petabyte dataset—a scale comparable to 22 years of continuous high-definition video—capturing a microscopic brain fragment in extraordinary detail.

A groundbreaking international study led by over 150 scientists has produced the most detailed map ever of how visual information moves through the brain, uncovering more than 500 million intricate connections within a speck of mouse brain tissue and bringing the world closer to understanding how we see. Published in the journal Nature on April 9, 2025, the research combines genetic engineering, high-powered electron microscopy, and deep learning to capture not only the physical wiring of over 200,000 brain cells but also their real-time electrical activity in response to visual stimuli. The project—hailed as one of the most complex neuroscience experiments ever attempted—has generated a dataset of unprecedented size and detail: 1.6 petabytes, about the equivalent of 22 years of continuous high-definition video, all representing a single grain-sized fragment of brain.

In an extraordinary leap that defies once-held beliefs about the limits of brain research, scientists have successfully mapped the structure and captured the cellular activity of a cubic millimeter of a mouse’s brain. This advancement, which seemed impossible 46 years ago, is a testament to the rapid evolution of neuroscience. The endeavor, resulting in a staggering 1.6 petabytes of data—equivalent to 22 years of nonstop high-definition video—has been heralded as a significant milestone for future brain mapping projects, paving the way for even greater discoveries.

A groundbreaking study has mapped the structure and captured cellular activity within a cubic millimeter of a mouse brain. This precision, once thought unattainable, illustrates how far neuroscience has progressed and generated about 1.6 petabytes of data, roughly equivalent to 22 years of nonstop high-definition video. The achievement is seen as a milestone that could accelerate larger, future brain mapping projects.

The work connects to longstanding questions about brain matter. While Nobel laureate Francis Crick doubted the feasibility of fully understanding such tiny tissue, a large international collaboration now shows that detailed brain mapping is within reach. The team’s findings focus on a region that processes visual information in mice, offering deep insights into how neurons communicate.