Category Archives: Neuroscience

Unveiling the Secrets of the Brain Cortex: New Discoveries in Neuroscience – Medriva

Unveiling the Secrets of the Brain Cortex

In a breakthrough study, a team of neuroscientists from the Massachusetts Institute of Technology (MIT) has discovered distinct patterns of electrical activity in the brains cortex. This discovery uncovers the complex mechanisms of the brain and reveals new understandings of how our brain processes information and what could be going wrong when disorders occur. The research findings are consistent across many brain regions and animal species, including humans, suggesting a fundamental principle of brain organization.

The brains cortex, the outermost layer responsible for our complex thinking abilities, is divided into six layers. Each layer has its unique role and function. The MIT team found that these layers exhibit different patterns of electrical activity when the brain is in various states, such as awake, asleep, or anesthetized. The topmost layers show rapid gamma wave activity, while the deeper layers display slower alpha and beta wave activity. This discovery provides valuable insights into how the brain separates external sensory information from internal cognitive states.

The findings from this research also shed light on neuropsychiatric disorders such as attention deficit hyperactivity disorder (ADHD) and epilepsy. Imbalances in these oscillations the gamma, alpha, and beta waves could be implicated in these disorders. The researchers are exploring the potential of measuring and rebalancing these oscillations for diagnosing and treating neurological disorders. This discovery could eventually lead to the development of new treatments that target the specific electrical patterns associated with different disorders.

Further reinforcing the complexity of the brain cortex, the research also shows that different types of neurons in the cortex exhibit unique patterns of electrical activity. These unique patterns could be key to understanding the different cognitive functions associated with each neuron type. From sensory processing to decision-making, these patterns could underpin our most complex cognitive abilities.

While this discovery is a significant step forward, there is still much to learn about the brain and its complex mechanisms. The MIT teams findings are a promising start to a new era of neuroscience, one that leverages a deeper understanding of the brains electrical activity to improve diagnoses and treatments for neurological disorders. As we continue to unravel the mysteries of the brain, we move closer to more effective and targeted interventions for a range of debilitating neurological conditions.

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Unveiling the Secrets of the Brain Cortex: New Discoveries in Neuroscience - Medriva

Love’s Chemistry: How Dopamine Shapes Bonds and Breakups – Neuroscience News

Summary: Researchers uncover how dopamine, a key neurotransmitter, varies in response to social interactions, distinguishing between intimate and casual relationships. Their research, conducted on prairie voles, sheds light on the neurochemical dynamics of pair bonding and grief.

The study demonstrates that dopamine surges in the presence of a life partner, fueling the desire to maintain the bond. Interestingly, this surge diminishes after prolonged separation, suggesting a neurological reset that might aid in overcoming heartbreak.

Key Facts

Source: University of Colorado

Hop in the car to meet your lover for dinner and a flood of dopamine the same hormone underlying cravings for sugar, nicotine and cocaine likely infuses your brains reward center, motivating you to brave the traffic to keep that unique bond alive. But if that dinner is with a mere work acquaintance, that flood might look more like a trickle, suggests new research by University of Colorado Boulder neuroscientists.

What we have found, essentially, is a biological signature of desire that helps us explain why we want to be with some people more than other people, said senior author Zoe Donaldson, associate professor of behavioral neuroscience at CU Boulder.

The study, published Jan. 12 in the journalCurrent Biology, centers around prairie voles, which have the distinction of being among the 3% to 5% of mammals that form monogamous pair bonds.

Like humans, these fuzzy, wide-eyed rodents tend to couple up long-term, share a home, raise offspring together, and experience something akin to grief when they lose their partner.

By studying them, Donaldson seeks to gain new insight into what goes on inside the human brain to make intimate relationships possible and how we get over it, neurochemically speaking,when those bonds are severed.

The new study gets at both questions, showing for the first time that the neurotransmitter dopamine plays a critical role in keeping love alive.

As humans, our entire social world is basically defined by different degrees of selective desire to interact with different people, whether its your romantic partner or your close friends, said Donaldson. This research suggests that certain people leave a unique chemical imprint on our brain that drives us to maintain these bonds over time.

For the study, Donaldson and her colleagues used state-of-the art neuroimaging technology to measure, in real time, what happens in the brain as a vole tries to get to its partner. In one scenario, the vole had to press a lever to open a door to the room where her partner was. In another, she had to climb over a fence for that reunion.

Meanwhile a tiny fiber-optic sensor tracked activity, millisecond by millisecond, in the animals nucleus accumbens, a brain region responsible for motivating humans to seek rewarding things, from water and food to drugs of abuse. (Human neuroimaging studies have shown it is the nucleus accumbens that lights up when we hold our partners hand).

Each time the sensor detects a spurt of dopamine, it lights up like a glow stick, explained first-author Anne Pierce, who worked on the study as a graduate student in Donaldsons lab. When the voles pushed the lever or climbed over the wall to see their life partner, the fiber lit up like a rave, she said. And the party continued as they snuggled and sniffed one another.

In contrast, when a random vole is on the other side of that door or wall, the glow stick dims.

This suggests that not only is dopamine really important for motivating us to seek out our partner, but theres actually more dopamine coursing through our reward center when we are with our partner than when we are with a stranger, said Pierce.

In another experiment, the vole couple was kept apart for four weeksan eternity in the life of a rodent and long enough for voles in the wild to find another partner.

When reunited, they remembered one another, but their signature dopamine surge had almost vanished. In essence, that fingerprint of desire was gone. As far as their brains were concerned, their former partner was indistinguishable from any other vole.

We think of this as sort of a reset within the brain that allows the animal to now go on and potentially form a new bond, Donaldson said.

This could be good news for humans who have undergone a painful break-up, or even lost a spouse, suggesting that the brain has an inherent mechanism to protect us from endless unrequited love.

The authors stress that more research is necessary to determine how well results in voles translate to their bigger-brained, two-legged counterparts. But they believe their work could ultimately have important implications for people who either have trouble forming close relationships or those who struggle to get over loss a condition known as Prolonged Grief Disorder.

The hope is that by understanding what healthy bonds look like within the brain, we can begin to identify new therapies to help the many people with mental illnesses that affect their social world, said Donaldson.

Author: Lisa Marshall Source: University of Colorado Contact: Lisa Marshall University of Colorado Image: The image is credited to Neuroscience News

Original Research: The findings will appear in Current Biology

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Love's Chemistry: How Dopamine Shapes Bonds and Breakups - Neuroscience News

Tackling the Poor Sleep Pandemic: FRENZ Brainband by Earable Neuroscience Announces Global Sales After CES … – PR Newswire

FRENZ Brainband, a pioneering AI-powered sleep wearable initially introduced as a prototype at CES 2023, is now available for global delivery, heralding a new era in sleep tech and digital therapeutics for home use. FRENZ was early funded by Founders Fund and Samsung Ventures.

BOULDER, Colo., Jan. 14, 2024 /PRNewswire/ -- Following its CES Innovation Award for Aging Technology, Earable Neuroscience announced the global sales of FRENZ Brainband, a groundbreaking AI-powered sleep tech wearable designed to help people sleep better. FRENZ Brainband, paired with the complimentary FRENZ AI Sleep Science app, has been clinically proven to help people fall asleep 24 minutes faster on average, as published on Nature Scientific Report. FRENZ is now ready for shipping globally from frenzband.com. The product is currently trending in the Fitness & Activity Monitors category on Amazon.

FRENZ Brainband represents a significant advancement in sleep technology, offering precise tracking and real-time brain activity stimulation using non-invasive audio therapy. Its unique comfortable design includes bone-conduction speakers and sophisticated AI algorithms to promote quicker sleep onset and longer deep sleep periods. This year, Earable showcased this revolutionary product at CES Eureka Park and was among the finalists for the CTA Foundation Pitch.

Prof. Tam Vu, Founder and CEO of Earable Neuroscience and former professor at the University of Colorado and the University of Oxford, passionately presented the Brainband at CES. "FRENZ is a comprehensive, comfortable, all-in-one sleep wearable that provides real-time, direct stimulation with precise data to effectively address sleep issues. FRENZ's science-backed audio therapies are especially beneficial for individuals who struggle to fall asleep or return to sleep after waking up at night, particularly those suffering from stress, anxiety, and running thoughts," said Vu. He highlighted the Brainband's proven efficacy in large-scale trials, with an 89% precision rate compared to the gold standard Polysomnography (PSG), and its significant impact on reducing sleep onset time.

Vu further shared, "As the CES Innovation Honoree for Aging Tech, we have received numerous accolades and interest from forward-thinking healthcare providers in the States this year. With mass production at Foxconn underway, we are poised to scale up the sleep tech market significantly. We are actively seeking strategic B2B partnerships and investments for market expansion in the healthcare and digital therapeutics space."

The Brainband is designed for a broad user base, from wellness enthusiasts to the elderly with chronic sleep issues, to those with mild sleep difficulties. It retails as a wellness device with an MSRP of $490, which includes lifetime access to the standard Fast Sleep and Back to Sleep CBT-i library. Premium content and features are anticipated for future release.

To order a FRENZ Brainband, visit http://www.frenzband.com

About Earable NeuroscienceEarable Neuroscience is a US deep tech company dedicated to delivering scalable and human-centric solutions. The FRENZ Brainband by Earable is the world's first sleep tech wearable capable of tracking and stimulating brain activities through audio therapy to promote better sleep quality.

Media Contact: [emailprotected]

Kimi Doan [emailprotected] +16178555995

SOURCE Earable Neuroscience

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Tackling the Poor Sleep Pandemic: FRENZ Brainband by Earable Neuroscience Announces Global Sales After CES ... - PR Newswire

Fly brain, mouse brain, worm brain: They all network the same – EurekAlert

image:

(Left) Network of the strongest connections among over 20,000 neurons in the fruit fly brain. (Right) Model of network formation. Some random connections are pruned, while other connections become stronger through a mixture of Hebbian and random growth.

Credit: Christopher Lynn

New York, January 17, 2024 In all species, brain function relies on an intricate network of connections that allows neurons to send information back and forth between one another, commanding thought and physical activity. But within those networks a small number of neurons share much stronger connections to one another than all the others. These abnormally strong connectionsknown as heavy tailed based on the shape of their distributionare thought to play an outsized role in brain function.

Researchers have long wondered how neural networks are able to rearrange to form these rare connections and whether the formation process is species specific or governed by a deeper shared principle. With the publication of a new paper in the journal Nature Physics, scientists at the CUNY Graduate Center Initiative for the Theoretical Sciences (ITS), Yale, University of Chicago, and Harvard are getting closer to answering these questions.

To understand these very strong connections between neurons, you can think of a social network: Some connections, like those with your best friends and family, are much stronger than most, and these are very important in the network, explains Christopher Lynn, the papers first author, previously a postdoctoral fellow with the ITS program and now an Assistant Professor of Physics at Yale. Until recently, we didnt have a way of teasing out the mechanism by which these rare connections come together, but advances in particular forms of microscopy and imaging now allow us to take a peek into how it happens.

The researchers analyzed large, openly available datasets of the wiring between neurons in fruit flies, mice and two worm species (C. elegans and Platynereis). The catalogued data, which was collected using volume electron microscopy and high-throughput image processing, allowed them to compare networks across multiple species, looking for similarities and differences in the way heavy tailed connections form.

The scientists created a mathematical model to describe how they believed wiring between neurons can rearrange to develop these strong connections. This model was based on a decades-old mechanism from neuroscience known as Hebbian plasticity, which says when neurons fire together, they wire together. The researchers showed that this Hebbian plasticity leads neurons to form the types of heavy tailed connections they observed in the data. Whats more, when they included neural activity in the model, a second key feature of neural network structure emerged: clustering, or the tendency for neurons to form tightly knit groups.

Our model was based on the assumption that neurons rearrange and connect under a mixture of Hebbian and random dynamics, said Lynn, noting that neurons sometimes connect for specific reasons, but other times randomly. The research teams model proved applicable across species, showing how simple and general principles of cellular self-organization can lead to the very strong connections and tightly connected networks that exist in the brain. The findings suggest that neuronal network formation isnt dependent on species-specific mechanisms, but instead might be governed by a simple principle of self-organization. This new knowledge could provide an important foundation for investigating brain structure in other animals and may even help to better understand human brain function.

About the Graduate Center of The City University of New York The CUNY Graduate Center is a leader in public graduate education devoted to enhancing the public good through pioneering research, serious learning, and reasoned debate. The Graduate Center offers ambitious students nearly 50 doctoral and masters programs of the highest caliber, taught by top faculty from throughout CUNY the nations largest urban public university. Through its nearly 40 centers, institutes, initiatives, and the Advanced Science Research Center, the Graduate Center influences public policy and discourse and shapes innovation. The Graduate Centers extensive public programs make it a home for culture and conversation.

Data/statistical analysis

Not applicable

Heavy-tailed neuronal connectivity arises from Hebbian self-organization

17-Jan-2024

Disclaimer: AAAS and EurekAlert! are not responsible for the accuracy of news releases posted to EurekAlert! by contributing institutions or for the use of any information through the EurekAlert system.

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Fly brain, mouse brain, worm brain: They all network the same - EurekAlert

Neuroscientists find the importance of dopamine in relationships – The Jerusalem Post

If you want to remain in love with your partner, your brain had better keep the dopamine flowing. The same hormone that is behind cravings for sugar, nicotine, and cocaine apparently infuses your brains reward center, motivating you to keep that unique bond alive.

But if you are spending time in a businesslike way with an acquaintance at work, the hormone will probably look more like a trickle instead of a flood, according to new research by neuroscientists at the University of Colorado at Boulder.

What we have found, essentially, is a biological signature of desire that helps us explain why we want to be with some people more than other people, said senior author and behavioral neuroscience Prof. Zoe Donaldson. The study was just published in the journal Current Biology under the title Nucleus accumbens dopamine release is necessary and sufficient to promote the behavioral response to reward-predictive cues.

The nucleus accumbens is part of the neural circuit that controls reward-seeking in response to reward-predictive cues. Dopamine release in the accumbens is essential for the normal functioning of this circuit.

The team didnt study human couples but prairie voles cute rodents with greyish-brownish fur on their backs and yellowish fur on their abdomens, a short tail, and small ears. Unusually for mammals, they pick a partner with whom they monogamously share their whole lives and raise their young. Only three to five percent of non-human mammals are monogamous. Because of predators and natural factors, however, their life expectancy is only about two years, and they even experience something like grief when they lose their partner.

By studying voles, Donaldson sought to gain new insight into what goes on inside the human brain to make intimate relationships possible and how we get over it, neurochemically speaking. The new study looked for answers to both questions, showing for the first time that the neurotransmitter dopamine plays a critical role in keeping love alive.

As humans, our entire social world is basically defined by different degrees of selective desire to interact with different people, whether its your romantic partner or your close friends, said Donaldson. This research suggests that certain people leave a unique chemical imprint on our brain that drives us to maintain these bonds over time.

For the study, Donaldson and her colleagues used state-of-the art neuroimaging technology to measure, in real time, what happens in the brain as a vole tries to get to its partner. In one scenario, the vole had to press a lever to open a door to the room where her partner was. In another, she had to climb over a fence for that reunion.

Meanwhile a tiny fiber-optic sensor tracked activity, millisecond by millisecond, in the animals nucleus accumbens, a brain region responsible for motivating humans to seek rewarding things, from water and food to drugs of abuse. Human neuroimaging studies have shown it is the nucleus accumbens that lights up when we hold our loved ones hand.

Each time the sensor detects a spurt of dopamine, it lights up like a glow stick, explained first-author Anne Pierce, who worked on the study as a graduate student in Donaldsons lab. When the voles pushed the lever or climbed over the wall to see their life partner, the fiber lit up like a rave, she said, and the party continued as they snuggled and sniffed one another.

In contrast, when a random vole is on the other side of that door or wall, the glow stick dims. This suggests that not only is dopamine really important for motivating us to seek out our partner, but theres actually more dopamine coursing through our reward center when we are with our partner than when we are with a stranger, said Pierce.

In another experiment, the vole couple were kept apart for four weeks -- an eternity in the life of these rodents and long enough for voles in the wild to find another partner. When reunited, they remembered one another, but their signature dopamine surge had almost vanished. In essence, that fingerprint of desire was gone. As far as their brains were concerned, their former partner was indistinguishable from any other vole. We think of this as sort of a reset within the brain that allows the animal to now go on and potentially form a new bond, Donaldson said.

This could be good news for humans who have undergone a painful break-up or even lost a spouse, suggesting that the brain has an inherent mechanism to protect us from endless unrequited love, the authors suggested. They stressed that more research is necessary to learn whether results in voles translate to their bigger-brained humans. But they believe their work could ultimately have important implications for people who either have trouble forming close relationships or those who struggle to get over loss a condition known as prolonged grief disorder.

The hope is that by understanding what healthy bonds look like within the brain, we can begin to identify new therapies to help the many people with mental illnesses that affect their social world, Donaldson concluded.

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Neuroscientists find the importance of dopamine in relationships - The Jerusalem Post

Insights from a Leading Pain Expert – Dr. Sean Mackey on HubermanLab Podcast – Medriva

Insights from a Leading Pain Expert

Dr. Sean Mackey, a renowned pain expert and professor at Stanford University, recently featured on the HubermanLab podcast. This episode offers a deep dive into the fascinating world of pain management and neuroscience, providing valuable insights that could benefit anyone interested in these topics. The podcast, hosted by Dr. Andrew Huberman, explores various aspects of human performance, neuroscience, and pain through in-depth interviews with field experts.

During the podcast, Dr. Mackey presents an enlightening discussion about different pain types and the latest treatments available. He addresses chronic pain, a condition impacting millions worldwide, and shares practical advice on managing it to improve overall well-being. Dr. Mackeys expertise offers a unique perspective on our understanding of pain, helping demystify this complex physiological and psychological phenomenon.

One of the highlights of the episode is Dr. Mackeys discussion on the neuroscience of pain. He explains how the brain processes pain, enhancing our understanding of this crucial aspect. The podcast also delves into the impact of emotions on pain perception, a topic that is garnering increased attention in the field of neuroscience.

In addition to discussing the science of pain, Dr. Mackey also touches on the placebo effect and non-pharmacological treatments for chronic pain. These topics are particularly significant given the current opioid crisis and the need for effective, non-addictive pain management strategies. Dr. Mackeys insights into these areas offer hope for those suffering from chronic pain.

The conversation also covers the impact of stress and anxiety on pain perception, another crucial aspect of pain management. As Dr. Mackey explains, understanding the role of these factors can significantly influence how we approach pain treatment.

Looking towards the future, the podcast explores the potential of technologies like virtual reality to alleviate pain. As research progresses, these innovative solutions could revolutionize the field of pain management, offering new hope for those living with pain.

The HubermanLab podcast episode featuring Dr. Sean Mackey offers an enlightening look into the complex world of pain and neuroscience. Whether youre a professional in the field, a patient seeking understanding, or simply interested in the subject, this episode is a valuable resource.

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Insights from a Leading Pain Expert - Dr. Sean Mackey on HubermanLab Podcast - Medriva

What neuroscience says about the connection between music, the brain and mental wellbeing – Scroll.in

When I hear Shania Twains Youre Still The One, it takes me back to when I was 15, playing on my Dads PC. I was tidying up the mess after he had tried to [take his own life]. Hed been listening to her album, and I played it as I tidied up. Whenever I hear the song, Im taken back the sadness and anger comes flooding back.

There is a renewed fascination with the healing powers of music. This resurgence can primarily be attributed to recent breakthroughs in neuroscientific research, which have substantiated musics therapeutic properties such as emotional regulation and brain re-engagement. This has led to a growing integration of music therapy with conventional mental health treatments.

Such musical interventions have already been shown to help people with cancer, chronic pain and depression. The debilitating consequences of stress, such as elevated blood pressure and muscle tension, can also be alleviated through the power of music.

As both a longtime music fan and neuroscientist, I believe music has a special status among all the arts in terms of the breadth and depth of its impact on people. One critical aspect is its powers of autobiographical memory retrieval encouraging often highly personal recollections of past experiences. We can all recount an instance where a tune transports us back in time, rekindling recollections and often imbuing them with a range of powerful emotions.

But enhanced recollection can also occur in dementia patients, for whom the transformative impact of music therapy sometimes opens a floodgate of memories from cherished childhood experiences and the aromas and tastes of a mothers kitchen, to lazy summer afternoons spent with family or the atmosphere and energy of a music festival.

One remarkable example is a widely shared video made by the Asociacin Msica para Despertar, which is thought to feature the Spanish-Cuban ballerina Martha Gonzlez Saldaa (though there has been some controversy about her identity). The music of Swan Lake by Tchaikovsky appears to reactivate cherished memories and even motor responses in this former prima ballerina, who is moved to rehearse some of her former dance motions on camera.

In our laboratory at Northumbria University, we aim to harness these recent neuroscience advances to deepen our understanding of the intricate connection between music, the brain and mental wellbeing. We want to answer specific questions such as why sad or bittersweet music plays a unique therapeutic role for some people, and which parts of the brain it touches compared with happier compositions.

Advanced research tools such as high-density electroencephalogram, or EEG, monitors enable us to record how the brain regions talk to each other in real-time as someone listens to a song or symphony. These regions are stimulated by different aspects of the music, from its emotional content to its melodic structure, its lyrics to its rhythmic patterns.

Of course, everyones response to music is deeply personal, so our research also necessitates getting our study participants to describe how a particular piece of music makes them feel including its ability to encourage profound introspection and evoke meaningful memories.

Ludwig van Beethoven once proclaimed: Music is the one incorporeal entrance into the higher world of knowledge which comprehends mankind, but which mankind cannot comprehend. With the help of neuroscience, we hope to help change that.

Musics ancient origins predate aspects of language and rational thinking. Its roots can be traced back to the Paleolithic Era more than 10,000 years ago, when early humans used it for communication and emotional expression. Archaeological finds include ancient bone flutes and percussion instruments made from bones and stones, as well as markings noting the most accoustically resonant place within a cave and even paintings depicting musical gatherings.

Music in the subsequent Neolithic Era went through significant development within permanent settlements across the world. Excavations have revealed various musical instruments including harps and complex percussion instruments, highlighting musics growing importance in religious ceremonies and social gatherings during this period alongside the emergence of rudimentary forms of music notation, evident in clay tablets from ancient Mesopotamia in western Asia.

Ancient Greek philosophers Plato and Aristotle both recognised musics central role in the human experience. Plato outlined the power of music as a pleasurable and healing stimulus, stating: Music is a moral law. It gives soul to the universe, wings to the mind, flight to the imagination. More practically, Aristotle suggested that: Music has the power of forming the character, and should therefore be introduced into the education of the young.

Throughout history, many cultures have embraced the healing powers of music. Ancient Egyptians incorporated music into their religious ceremonies, considering it a therapeutic force. Native American tribes, such as the Navajo, used music and dance in their healing rituals, relying on drumming and chanting to promote physical and spiritual wellbeing. In traditional Chinese medicine, specific musical tones and rhythms were believed to balance the bodys energy (qi) and enhance health.

During the Middle Ages and the Renaissance, the Christian church was pivotal in popularising music for the masses. Congregational hymn singing allowed worshippers to engage in communal music during church services. This shared musical expression was a powerful medium for religious devotion and teaching, bridging the gap for a largely non-literate population to connect with their faith through melody and lyrics. Communal singing is not only a cultural and religious tradition, but it has also been recognised as a therapeutic experience.

In the 18th and 19th centuries, early investigations into the human nervous system paralleled the emergence of music therapy as a field of study. Pioneers such as American physician Benjamin Rush, a signatory of the US Declaration of Independence in 1776, recognised the therapeutic potential of music to improve mental health.

Soon afterwards, figures such as Samuel Mathews (one of Rushs students) began conducting experiments exploring musics effects on the nervous system, laying the foundation for modern music therapy. This early work provided the springboard for E Thayer Gaston, known as the father of music therapy, to promote it as a legitimate discipline in the US. These developments inspired similar endeavours in the UK, where Mary Priestley made significant contributions to the development of music therapy as a respected field.

The insights gained from these early explorations have continued to influence psychologists and neuroscientists ever since including the late, great neurologist and best-selling author Oliver Sacks, who observed that:

Music can lift us out of depression or move us to tears. It is a remedy, a tonic, orange juice for the ear.

Music was my profession, but it was also a special and deeply personal pursuit Most importantly, it gave me a way to cope with lifes challenges, learning to channel my feelings and express them safely. Music taught me how to take my thoughts, both the pleasant and the painful ones, and turn them into something beautiful.

Studying and understanding all the brain mechanisms involved in listening to music, and its effects, requires more than just neuroscientists. Our diverse team includes music experts such as Dimana Kardzhieva (quoted above), who started playing the piano aged five and went on to study at the National School of Music in Sofia, Bulgaria. Now a cognitive psychologist, her combined understanding of music and cognitive processes helps us delve into the complex mechanisms through which music affects (and soothes) our minds. A neuroscientist alone might fall short in this endeavour.

The starting point of our research was the so-called Mozart effect the suggestion that exposure to intricate musical compositions, especially classical pieces, stimulates brain activity and ultimately enhances cognitive abilities. While there have been subsequent mixed findings as to whether the Mozart effect is real, due to the different methods employed by researchers over the years, this work has nonetheless triggered significant advances in our understanding of musics effect on the brain.

In the original 1993 study by Frances Rauscher and colleagues, participants experienced enhancement in spatial reasoning ability after just ten minutes of listening to Mozarts Sonata for Two Pianos in D.

In our 1997 study, which used Beethovens second symphony and rock guitarist Steve Vais instrumental track For the Love of God, we found similar direct effects in our listeners as measured both by EEG activity associated with attention levels and the release of the hormone dopamine (the brains messenger for feelings of joy, satisfaction and the reinforcement of specific actions). Our research found that classical music in particular enhances attention to how we process the world around us, regardless of ones musical expertise or preferences.

The beauty of EEG methodology lies in its capacity to track brain processes with millisecond accuracy allowing us to distinguish unconscious neural responses from conscious ones. When we repeatedly showed simple shapes to a person, we found that classical music sped up their early (pre-300 millisecond) processing of these stimuli. Other music did not have the same effect and nor did our subjects prior knowledge of, or liking for, classical music. For example, both professional rock and classical musicians who took part in our study improved their automatic, unconscious cognitive processes while listening to classical music.

But we also found indirect effects related to arousal. When people immerse themselves in the music they personally enjoy, they experience a dramatic shift in their alertness and mood. This phenomenon shares similarities with the increased cognitive performance often linked to other enjoyable experiences.

In a further study, we explored the particular influence of program music the term for instrumental music that carries some extramusical meaning, and which is said to possess a remarkable ability to engage memory, imagination and self-reflection. When our participants listened to Antonio Vivaldis Four Seasons, they reported experiencing a vivid representation of the changing seasons through the music including those who were unfamiliar with these concertos. Our study concluded, for example, that:

Spring particularly the well-recognised, vibrant, emotive and uplifting first movement had the ability to enhance mental alertness and brain measures of attention and memory.

Musics emotional and therapeutic qualities are highly related to the release of neurochemicals. A number of these are associated with happiness, including oxytocin, serotonin and endorphins. However, dopamine is central to the enhancing properties of music.

It triggers the release of dopamine in regions of the brain devoted to reward and pleasure, generating sensations of joy and euphoria akin to the impact of other pleasurable activities such as eating or having sex. But unlike these activities, which have clear value related to survival and reproduction, the evolutionary advantage of music is less obvious.

Its strong social function is acknowledged as the main factor behind musics development and preservation in human communities. So, this protective quality may explain why it taps into the same neural mechanisms as other pleasurable activities.

The brains reward system consists of interconnected regions, with the nucleus accumbens serving as its powerhouse. It is situated deep within the subcortical region, and its location hints at its significant involvement in emotion processing, given its proximity to other key regions related to this.

When we engage with music, whether playing or listening, the nucleus accumbens responds to its pleasurable aspects by triggering the release of dopamine. This process, known as the dopamine reward pathway, is critical for experiencing and reinforcing positive emotions such as the feelings of happiness, joy or excitement that music can bring.

We are still learning about the full impact of music on different parts of the brain, as Jonathan Smallwood, professor of psychology at Queens University, Ontario, explains:

Music can be complicated to understand from a neuroscience perspective. A piece of music encompasses many domains that are typically studied in isolation such as auditory function, emotion, language and meaning.

That said, we can see how musics effect on the brain extends beyond mere pleasure. The amygdala, a region of the brain renowned for its involvement in emotion, generates and regulates emotional responses to music, from the heartwarming nostalgia of a familiar melody to the exhilarating excitement of a crescendoing symphony or the spine-tingling fear of an eerie, haunting tune.

Research has also demonstrated that, when stimulated by music, these regions can encourage us to have autobiographical memories that elicit positive self-reflection that makes us feel better as we saw in the video of former ballerina Martha Gonzlez Saldaa.

Our own research points to the hippocampus, crucial for memory formation, as the part of the brain that stores music-related memories and associations. Simultaneously, the prefrontal cortex, responsible for higher cognitive functions, closely collaborates with the hippocampus to retrieve these musical memories and assess their autobiographical significance. During music listening, this interplay between the brains memory and emotion centres creates a powerful and unique experience, elevating music to a distinctive and pleasurable stimulus.

Visual art, like paintings and sculptures, lacks musics temporal and multisensory engagement, diminishing its ability to form strong, lasting emotional-memory connections. Art may evoke emotions and memories but often remains rooted in the moment. Music perhaps uniquely forms enduring, emotionally charged memories that can be summoned with the replaying of a particular song years later.

Music therapy can change peoples lives in profound ways. We have had the privilege of hearing many personal stories and reflections from our study participants, and even our researchers. In some cases, such as the memories of a fathers attempted suicide elicited by Shania Twains Youre Still The One, these are profound and deeply personal accounts. They show us the power of music to help regulate emotions, even when the memories it triggers are negative and painful.

In the face of severe physical and emotional challenges, another participant in our study explained how they had felt an unexpected boost to their wellbeing from listening to a favourite track from their past despite the apparently negative content of the songs title and lyrics:

Exercise has been crucial for me post-stroke. In the midst of my rehab workout, feeling low and in pain, an old favourite, What Have I Done To Deserve This? by the Pet Shop Boys, gave me an instant boost. It not only lifted my spirits but sent my heart racing with excitement I could feel the tingles of motivation coursing through my veins.

Music can serve as a cathartic outlet, a source of empowerment, allowing individuals to process and cope with their emotions while supplying solace and release. One participant described how a little-known tune from 1983 serves as a deliberate mood inducer a tool to boost their wellbeing:

Whenever Im down or in need of a pick me up, I play Dolce Vita by Ryan Paris. It is like a magic button for generating positive emotions within myself - it always lifts me up in a matter of moments.

As each person has their own tastes and emotional connections with certain types of music, a personalised approach is essential when designing music therapy interventions, to ensure they resonate with individuals deeply. Even personal accounts from our researchers, such as this from Sam Fenwick, have proved fruitful in generating hypotheses for experimental work:

If I had to pick a single song that really strikes a chord, it would be Alpenglow by Nightwish. This song gives me shivers. I cant help but sing along and every time I do, it brings tears to my eyes. When life is good, it triggers feelings of inner strength and reminds me of natures beauty. When I feel low, it instils a sense of longing and loneliness, like I am trying to conquer my problems all alone when I could really use some support.

Stimulated by such observations, our latest investigation compares the effects of sad and happy music on people and their brains, in order to better understand the nature of these different emotional experiences. We have found that sombre melodies can have particular therapeutic effects, offering listeners a special platform for emotional release and meaningful introspection.

Drawing inspiration from studies on emotionally intense cinematic experiences, we recently published a study highlighting the effects of complex musical compositions, particularly Vivaldis Four Seasons, on dopamine responses and emotional states. This was designed to help us understand how happy and sad music affects people in different ways.

One major challenge was how to measure our participants dopamine levels non-invasively. Traditional functional brain imaging has been a common tool to track dopamine in response to music for example, positron emission tomography (PET) imaging. However, this involves the injection of a radiotracer into the bloodstream, which attaches to dopamine receptors in the brain. Such a process also has limitations in terms of cost and availability.

In the field of psychology and dopamine research, one alternative, non-invasive approach involves studying how often people blink, and how the rate of blinking varies when different music is played.

Blinking is controlled by the basal ganglia, a brain region that regulates dopamine. Dopamine dysregulation in conditions such as Parkinsons disease can affect the regular blink rate. Studies have found that individuals with Parkinsons often exhibit reduced blink rates or increased variability in blink rates, compared with healthy individuals. These findings suggest that blink rate can serve as an indirect proxy indicator of dopamine release or impairment.

While blink rate may not provide the same level of precision as direct neurochemical measurements, it offers a practical and accessible proxy measure that can complement traditional imaging techniques. This alternative approach has shown promise in enhancing our understanding of dopamines role in various cognitive and behavioural processes.

Our study revealed that the sombre Winter movement elicited a particularly strong dopamine response, challenging our preconceived notions and shedding light on the interplay between music and emotions. Arguably you could have predicted a heightened response to the familiar and uplifting Spring concerto, but this was not the case.

Our approach extended beyond dopamine measurement to gain a comprehensive understanding of the effects of sad and happy music. We also used EEG network analysis to study how different regions of the brain communicate and synchronise their activity while listening to different music. For instance, regions associated with the appreciation of music, the triggering of positive emotions and the retrieval of rich personal memories may talk to each other. It is like watching a symphony of brain activity unfold, as individuals subjectively experienced a diverse range of musical stimuli.

In parallel, self-reports of subjective experiences gave us insights into the personal impact of each piece of music, including the timeframe of thoughts (past, present, or future), their focus (self or others), their form (images or words), and their emotional content. Categorising these thoughts and emotions, and analysing their correlation with brain data, can provide valuable information for future therapeutic interventions.

Our preliminary data reveals that happy music sparks present and future-oriented thoughts, positive emotions, and an outward focus on others. These thoughts were associated with heightened frontal brain activity and reduced posterior brain activity. In contrast, sad tunes caused self-focused reflection on past events, aligning with increased neural activity in brain areas tied to introspection and memory retrieval.

So why does sad music have the power to impact psychological wellbeing? The immersive experience of sombre melodies provides a platform for emotional release and processing. By evoking deep emotions, sad music allows listeners to find solace, introspect, and effectively navigate their emotional states.

This understanding forms the basis for developing future targeted music therapy interventions that cater to people facing difficulties with emotional regulation, rumination and even depression. In other words, even sad music can be a tool for personal growth and reflection.

While not a panacea, music listening offers substantial therapeutic effects, potentially leading to increased adoption of music therapy sessions alongside traditional talk therapy. Integrating technology into music therapy, notably through emerging app-based services, is poised to transform how people access personalised, on-demand therapeutic music interventions, providing a convenient and effective avenue for self-improvement and wellbeing.

And looking even further ahead, artificial intelligence (AI) integration holds the potential to revolutionise music therapy. AI can dynamically adapt therapy interventions based on a persons evolving emotional responses. Imagine a therapy session that uses AI to select and adjust music in real-time, precisely tailored to the patients emotional needs, creating a highly personalised and effective therapeutic experience. These innovations are poised to reshape the field of music therapy, unlocking its full therapeutic potential.

In addition, an emerging technology called neurofeedback has shown promise. Neurofeedback involves observing a persons EEG in real-time and teaching them how to regulate and improve their neural patterns. Combining this technology with music therapy could enable people to map the musical characteristics that are most beneficial for them, and thus understand how best to help themselves.

In each music therapy session, learning occurs while participants get feedback regarding the status of their brain activity. Optimal brain activity associated with wellbeing and also specific musical qualities such as a pieces rhythm, tempo or melody is learned over time. This innovative approach is being developed in our lab and elsewhere.

As with any form of therapy, recognising the limitations and individual differences is paramount. However, there are compelling reasons to believe music therapy can lead to new breakthroughs. Recent strides in research methodologies, driven partly by our labs contributions, have significantly deepened our understanding of how music can facilitate healing.

We are beginning to identify two core elements: emotional regulation, and the powerful link to personal autobiographical memories. Our ongoing research is concentrated on unravelling the intricate interactions between these essential elements and the specific brain regions responsible for the observed effects.

Of course, the impact of music therapy extends beyond these new developments in the neurosciences. The sheer pleasure of listening to music, the emotional connection it fosters, and the comfort it provides are qualities that go beyond what can be solely measured by scientific methods. Music deeply influences our basic emotions and experiences, transcending scientific measurement. It speaks to the core of our human experience, offering impacts that cannot easily be defined or documented.

Or, as one of our study participants so perfectly put it:

Music is like that reliable friend who never lets me down. When Im low, it lifts me up with its sweet melody. In chaos, it calms with a soothing rhythm. Its not just in my head; its a soul-stirring [magic]. Music has no boundaries one day it will effortlessly pick me up from the bottom, and the next it can enhance every single moment of the activity Im engaged in.

Leigh Riby is Professor of Cognitive-Neuroscience , Department of Psychology, Northumbria University, Newcastle.

This article was first published on The Conversation.

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New neuroscience research provides fascinating insights into the mystery of moral cognition – PsyPost

In a new study, neuroscientists have delved deep into the human brains approach to moral judgment. Their findings reveal that our moral decisions activate various, distinct areas of the brain, challenging the notion that morality is processed in a single moral hotspot. The study, published in Nature Human Behaviour, also uncovered intriguing variations in moral perception based on political ideology.

The motivation behind this study lies in one of moral sciences most heated debates: whether our moral reasoning is a monolithic process or a diverse one. At the heart of this debate is the Moral Foundations Theory, which argues for the latter. According to this theory, our moral compass is not guided by a single north star but by multiple, contextually variable moral intuitions.

These foundations include care, fairness, loyalty, authority, sanctity, and more recently identified, liberty. Essentially, this theory suggests that our moral judgments stem from different mental processes, evolved to tackle specific social challenges. The researchers sought to investigate whether our moral judgments about different areas like care, fairness, or loyalty are processed in separate neural systems or whether they converge within a unified framework.

Complex and context-dependent moral judgment is a unique human capacity and at the core of most social interactions among humans, either directly person to person, or mediated. As such, it is an important and fascinating topic to study for a cognitive psychologist, neuroscientist, and communication scientist, said study author Ren Weber, a professor at the University of California Santa Barbara and director of UCSBs Media Neuroscience Lab.

To explore this, the researchers conducted an experiment involving 64 participants, mainly young adults from the University of California, Santa Barbara community. Participants underwent a functional Magnetic Resonance Imaging (fMRI) scan, a technology that visualizes brain activity by detecting changes associated with blood flow.

During the scans, participants engaged in a task involving Moral Foundations Vignettes short descriptions of actions violating specific moral foundations. The vignettes also included non-moral social norm transgressions, such as eating cereal with water instead of milk, which served as a control. Participants rated these actions based on their perceived moral wrongness. This setup allowed the researchers to observe which parts of the brain were activated during different moral judgments.

As expected, the moral violations (physical care, emotional care, fairness, liberty, authority, loyalty, and sanctity) were judged as more morally wrong than social norm transgressions. Judging moral transgressions also took longer on average than judging social norm transgressions, suggesting a deeper cognitive process involved in evaluating moral actions.

The researchers found that different brain areas were activated for moral violations compared to social norm transgressions. A distributed network involving areas like the dorsomedial prefrontal cortex, posterior cingulate cortex, temporoparietal junction, and primary visual cortex showed common activation across all moral foundations. This suggests that these areas of the brain are pivotal in discerning moral judgments from non-moral social norm transgressions.

When examining how specific moral foundations were processed in the brain, the researchers discovered that each of these moral categories elicited unique patterns of brain activity. This finding is particularly significant as it aligns with the Moral Foundations Theory, which posits that different moral considerations are rooted in separate cognitive processes.

A significant achievement of the study was the development of a decoding model capable of predicting which specific moral foundation or social norm an individual was judging, based on the activity patterns across their brain. This level of prediction would not be feasible if all moral categories were processed uniformly at the neurological level.

Our findings indicated that there are very specific neural signatures of different moral dimensions or foundations, Weber told PsyPost. These signatures can even be used to decode moral judgment, that is, to predict individuals moral judgement from their brain activation pattern. The accuracy with which this can be done was surprising to us. We are currently testing moral decoding across different datasets and problems and try to replicate our findings in our Nature Human Behavior article.

The researchers also found that liberals and conservatives exhibited distinct patterns of brain activation when making moral judgments. This suggests that an individuals political orientation is not just a reflection of their social and moral beliefs, but it also influences the fundamental neural processes underlying these beliefs.

Liberals showed more pronounced neural responses to moral transgressions related to care/harm and fairness/cheating. These foundations typically protect the rights and freedoms of individuals. The heightened sensitivity of liberals to these moral dimensions was reflected in the specific activation patterns in their brains.

On the other hand, conservatives displayed greater neural engagement when processing moral issues related to loyalty/betrayal, authority/subversion, and sanctity/degradation. These categories generally operate at the group level, emphasizing group cohesion, respect for authority, and purity. The brain scans of conservatives showed that they are neurologically more attuned to these aspects of moral reasoning.

For example, in judging individualizing versus binding moral foundations, the lingual gyrus, visual cortex, anterior prefrontal cortex, and superior temporal cortex showed significant differences in activity between liberals and conservatives. These areas are associated with various cognitive functions, including semantic processing and intention attribution, suggesting that ideological differences might affect fundamental cognitive processing during moral judgments.

Together, the findings challenge the idea of a singular moral hotspot in the brain. Instead, it suggests that our moral judgments are the result of a more distributed neural process.

Morality or moral judgment is not just one thing or arises from just one concern (e.g. from harming or caring for other individuals), Weber told PsyPost. At its core, moralitys function is to facilitate (group) cohesion and cooperation among humans. Because there are many cooperative problems to solve, moral judgement is diverse, and different individuals develop different moral sensibilities.

In many ways, I think our findings clarify that monism and pluralism are not necessarily mutually exclusive approaches, added first author Frederic Hopp, who led the study as a doctoral student in the Media Neuroscience Lab. We show that moral judgments of a wide range of different types of morally relevant behaviors are instantiated in shared brain regions.

Despite these significant findings, the study has its limitations. For one, the sample size and demographic (mostly young, university-affiliated adults) might not represent the full spectrum of moral cognition across different ages, cultures, and backgrounds. Also, while fMRI is a powerful tool, it has its constraints in pinpointing the exact neural mechanisms at play.

Future research might focus on broadening the demographic diversity of participants or employing even more advanced neuroimaging techniques. Furthermore, exploring how moral decision-making develops over time and in different cultural contexts could add another layer of understanding to this complex facet of human cognition.

There are dozens of additional questions to be addressed, Weber said. The question of why and how moral judgment works has been an important topic for scholars from diverse backgrounds for millennia, and it will keep scholars busy for a long time. For us, our next goals are testing different theories of moral judgment against each other and to replicate our findings in our Nature Human Behavior article in more diverse populations.

The study, Moral foundations elicit shared and dissociable cortical activation modulated by political ideology, was authored by Frederic R. Hopp, Ori Amir, Jacob T. Fisher, Scott Grafton, Walter Sinnott-Armstrong, and Ren Weber.

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New neuroscience research provides fascinating insights into the mystery of moral cognition - PsyPost

Protein Discovery Sheds Light on Circadian Rhythms – Neuroscience News

Summary: Researchers identify a crucial protein, Tenm3, in mices visual system that stabilizes circadian rhythms by modulating the brains response to light. This discovery has significant implications for treating sleep disorders and jet lag.

Circadian rhythms play a vital role in regulating sleep, alertness, and other cyclic behaviors, and disruptions can lead to health problems.

By understanding Tenm3s role, researchers aim to develop interventions for sleep disorders and jet lag, ultimately benefiting human health.

Key Facts:

Source: Johns Hopkins Medicine

Scientists at the Johns Hopkins University School of Medicine and the National Institutes of Health have identified a protein in the visual system of mice that appears to be key for stabilizing the bodys circadian rhythms by buffering the brains response to light.

The finding, published Dec. 5 inPLoS Biology, advances efforts to better treat sleep disorders and jet lag, the study authors say.

If circadian rhythms adjusted to every rapid change in illumination, say an eclipse or a very dark and rainy day, they would not be very effective in regulating such periodic behaviors as sleep and hunger.

The protein we identified helps wire the brain during neural development to allow for stable responses to circadian rhythm challenges from day to day, says Alex Kolodkin, Ph.D., professor in the Johns Hopkins Department of Neuroscience and deputy director for the Institute for Basic Biomedical Sciences.

Kolodkin co-led the study with Samer Hattar, Ph.D., chief of the Section on Light and Circadian Rhythms at the National Institute of Mental Health.

Scientists have long known that most living things have a circadian clock, a set of biological rhythms that operate on about a 24-hour cycle and that affect alertness, sleepiness, appetite and body temperature, among other cyclic behaviors.

Upsetting this system through shift work or long-distance travel over multiple time and light zones in humans, for example can have severe consequences.

Previous studies link persistent upsets in circadian rhythm to increased risk of cancer, depression and a host of other medical problems.

Circadian systems are essentially trained by exposure to light. Although researchers have made significant headway over the last few decades in outlining the mechanisms responsible for circadian rhythms, it has remained unclear how the brain becomes wired for them.

To learn more, Kolodkin and Hattar, along with study first authors John Hunyara and Kat Daly and their colleagues, searched a database for biological molecules present during development in the mouse brains control center for circadian rhythms the suprachiasmatic nucleus (SCN).

Located deep within both the mouse and human brain in the hypothalamus, the SCN sits near areas that control vision and makes connections with brain cells that lead to the retina, the light-sensing part of the eye.

The research team quickly zeroed in on a cell surface protein called teneurin-3 (Tenm3), part of a larger family of proteins that play key roles in the visual system circuit assembly and more generally in other central nervous system circuits.

When the researchers genetically altered mice to prevent Tenm3 production, the animals developed fewer connections between the retina and the SCN, compared with animals with intact Tenm3.

However, the mice lacking Tenm3 developed far more connectivity between cells in the core and shell of the SCN, where Tenm3 tends to localize.

To see how Tenm3 might stabilize circadian rhythms or subject them to disruption by even a tiny bit of light, the scientists designed a set of experiments.

First, they trained mice lacking Tenm3 on a 12-hour light/dark cycle, then shifted the dark period ahead by six hours. Mice with intact Tenm3 took about four days to readjust their circadian rhythms to the shift, as measured by activity patterns diagnostic of normal sleep cycles. The animals without Tenm3, however, adjusted far more rapidly, in about half the time.

When the researchers performed a similar experiment with light twice as dim as in the earlier test, it took the Tenm3-intact mice about eight days to adjust their circadian cycles, but only about four days for the mice without Tenm3.

Even just a 15-minute pulse of dim light triggered the Tenm3-lacking mice but not the mice with normal Tenm3 protein to produce a brain chemical that serves as a proxy for light exposure, suggesting a heightened sensitivity to light cues necessary for setting or resetting the circadian clock.

These findings suggest to the authors that Tenm3 helps wire the brain to maintain stable circadian rhythms even when light exposure is variable. By learning more about this system and Tenm3s role, says Hattar, researchers may eventually be able to diagnose and treat glitches that lead to insomnia and other sleep disorders in people, or possibly develop treatments for jet lag.

There are very clear implications for human health, he says.

Other Johns Hopkins researchers who contributed to this study include Katherine Torres.

Funding: This study was funded by grants from the NIH (R01EY032095) and the Intramural Research Program at the NIMH (ZIAMH002964).

Author: Vanessa Wasta Source: Johns Hopkins Medicine Contact: Vanessa Wasta Johns Hopkins Medicine Image: The image is credited to Neuroscience News

Original Research: Open access. Teneurin-3 regulates the generation of non-image-forming visual circuitry and responsiveness to light in the suprachiasmatic nucleus by Alex Kolodkin et al. PLOS Biology

Abstract

Teneurin-3 regulates the generation of non-image-forming visual circuitry and responsiveness to light in the suprachiasmatic nucleus

Visual system function depends upon the elaboration of precise connections between retinal ganglion cell (RGC) axons and their central targets in the brain.

Though some progress has been made in defining the molecules that regulate RGC connectivity required for the assembly and function of image-forming circuitry, surprisingly little is known about factors required for intrinsically photosensitive RGCs (ipRGCs) to target a principal component of the non-image-forming circuitry: the suprachiasmatic nucleus (SCN).

Furthermore, the molecules required for forming circuits critical for circadian behaviors within the SCN are not known. We observe here that the adhesion molecule teneurin-3 (Tenm3) is highly expressed in vasoactive intestinal peptide (VIP) neurons located in the core region of the SCN.

Since Tenm3 is required for other aspects of mammalian visual system development, we investigate roles for Tenm3 in regulating ipRGC-SCN connectivity and function.

Our results show that Tenm3 negatively regulates association between VIP and arginine vasopressin (AVP) neurons within the SCN and is essential for M1 ipRGC axon innervation to the SCN. Specifically, inTenm3-/-mice, we find a reduction in ventro-medial innervation to the SCN.

Despite this reduction,Tenm3-/-mice have higher sensitivity to light and faster re-entrainment to phase advances, probably due to the increased association between VIP and AVP neurons.

These data show that Tenm3 plays key roles in elaborating non-image-forming visual system circuitry and that it influences murine responses to phase-advancing light stimuli.

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After Battling Leukemia And Homelessness, Dallas Salas Has Earned A Neuroscience Degree At Age 18 – AfroTech

Throughout Dallas Salas life, he has been faced with opposition, including health scares and homelessness. However, despite the trials and tribulations, the 18-year-old has crossed off a major accomplishment.

At age five, Salas was diagnosed with leukemia, according to ABC News.

It was truly a wrenching and heartbreaking experience. I remember staying up at nights and just crying and just screaming, Salas told Good Morning America.

Along with Salas diagnosis, the outlet details that several of his family members were also dealing with health issues, which led him to want to learn about the science and medical fields.

Now, in the midst of challenges, ABC News reported that Salas graduated from Arizona State University with a bachelors degree in neuroscience at age 18.

If youre going through a lot of chaotic experiences, life is only 10% what happens to you and 90% of what you make of it, said Salas.

The teen credits his mother, Constance, and Kristen Rund, his success coach, for motivating him to push through with securing his degree. Constance shared that since a young age, she knew that her son was gifted.

All the time, he outsmarted me each and every time and Im like, wait a minute, hes not like the others,' she said. So I raised him the same way that I raised them, however, with a stronger, more rigorous curriculum for parenting because his brain could take it.

She continued, I would give him assignments and he would bring them back really fast.

Along with pursuing neuroscience, Constance noted that Dallas has always been passionate about the children that end up on the border in the camps. In the future, she envisions him helping to fight discrimination along with saving lives.

Regarding Dallas leukemia, he told the outlet that the cancer has gone into remission. The health update follows his bone marrow biopsy coming back clear of the disease.

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After Battling Leukemia And Homelessness, Dallas Salas Has Earned A Neuroscience Degree At Age 18 - AfroTech