home.social

#aerobicexercise — Public Fediverse posts

Live and recent posts from across the Fediverse tagged #aerobicexercise, aggregated by home.social.

fetched live
  1. DATE: August 10, 2026 at 10:00AM
    SOURCE: PSYPOST.ORG

    ** Research quality varies widely from fantastic to small exploratory studies. Please check research methods when conclusions are very important to you. **
    -------------------------------------------------

    TITLE: Scientists discover a previously unknown cognitive benefit of aerobic exercise

    URL: psypost.org/scientists-discove

    Engaging in a brief session of moderate aerobic exercise tends to protect the brain’s automatic ability to adjust physical movements. A recent study published in Physiology Behavior suggests that twenty minutes of stationary cycling prevents a natural decline in unconscious motor learning that typically occurs after a period of rest. These findings provide evidence that working up a sweat might prime the nervous system for physical rehabilitation and skill acquisition.

    When a person uses a computer mouse with high sensitivity for the first time, their hand movements initially overshoot the desired target on the screen. The brain expects the cursor to land in a specific spot based on the physical hand movement. When the visual feedback does not match the expectation, the brain registers a sensory prediction error. To fix this mismatch, the nervous system constantly updates its internal map to ensure future movements are accurate.

    This ongoing recalibration process is known as sensorimotor adaptation. Motor learning relies on a combination of conscious and unconscious systems. The explicit process involves intentional cognitive strategies, such as consciously aiming to the left to correct for a persistent error to the right. The implicit process operates entirely under the surface, automatically tweaking motor commands without the person realizing it.

    Past studies suggest that a single session of aerobic exercise improves general motor learning. A research team led by Zivar Beyraghi at the Université de Sherbrooke sought to isolate the unconscious component. Because large or sudden errors tend to trigger conscious aiming strategies, previous findings could not separate intentional strategy use from automatic neural updating. It remained an open question whether getting the heart rate up specifically primed the brain’s implicit adaptation systems.

    The researchers recruited 26 healthy young adults for the experiment. The sample included 15 females, and the participants had an average age of about 25 years. The experiment used a within-participant design, meaning every individual completed both the active condition and the resting condition on separate days to serve as their own point of comparison.

    During the testing sessions, participants sat at a specialized robotic apparatus that tracked their arm movements. They could not see their actual hand. Instead, they watched a white cursor on a screen that usually mirrored their hand’s position. The task required them to reach outward from a central starting point toward a specific target.

    To evaluate implicit adaptation, the researchers subtly manipulated the visual feedback. On random trials, the computer rotated the cursor’s path 30 degrees clockwise or counter-clockwise from the actual hand movement. The researchers specifically instructed the participants to ignore these disturbances and simply aim straight for the target on every trial. They told the participants that any conscious strategy would be useless.

    The scientists measured a phenomenon called the post-rotation bias to quantify automatic learning. When a person experiences a rotated visual cursor on one trial, their hand involuntarily drifts in the opposite direction on the very next attempt. This happens even if they know the next trial will behave normally. This subtle, involuntary shift provides an isolated measure of implicit adaptation.

    Participants completed 180 reaching trials before and after a designated break period. On the exercise day, the break consisted of a 20-minute session of moderate-intensity stationary cycling, preceded by a warm-up and followed by a cool-down. The researchers adjusted the resistance on the bike to keep each person’s heart rate strictly between 65 and 75 percent of their individual maximum capacity. On the resting day, participants spent the break time resting and watching a documentary.

    The data provided evidence that physical exertion influenced the speed and vigor of the participants’ movements. The researchers calculated total response time by adding the time it took to react to the target and the time it took to finish the physical reach. Before the cycling intervention, total response time averaged 555 milliseconds. After exercising, this metric dropped to 532 milliseconds, representing a faster overall performance by a relative margin of about 4 percent.

    Following the resting condition, response times hovered steadily around 540 to 534 milliseconds. The post-rotation bias measurements suggested a distinct protective effect on automatic learning. Before the rest period, the participants exhibited an average involuntary hand shift of 2.93 degrees. Following the documentary break, this adaptation bias shrank to 2.20 degrees.

    This decrease indicates that the brain’s automatic responsiveness to sensory errors naturally faded after resting or performing the repetitive task. The moderate cycling session appeared to block this natural decay. Before the exercise, the adaptation bias averaged 2.45 degrees. After the workout, the bias held nearly steady at 2.40 degrees.

    By maintaining the magnitude of this unconscious learning metric, the physical activity shielded the brain’s internal updating process. It prevented the attenuation observed during the resting day. Interpreting these findings requires noting that aerobic exercise did not elevate the baseline capacity for implicit learning beyond the initial starting point. The data instead points to a preservation effect, where the physical activity maintained the existing adaptation levels.

    The exact reason for the decline in the resting condition is not fully established. It might relate to neural fatigue, a fading of attention, or a saturation of the brain’s learning circuits from repeating the same reaching task multiple times. Another aspect of the experimental design warrants attention regarding the study’s timeline. Due to scheduling constraints, the time gap between the two experimental sessions was noticeably longer for one group of participants than the other.

    Statistical analyses indicated that this discrepancy did not change the overall pattern of the outcomes. Even so, uneven spacing between testing days introduces an uncontrolled variable into the experiment. Future investigations are necessary to map the precise biological pathways linking a racing heart to preserved motor learning.

    Researchers aim to measure how exercise alters neurotransmitter levels, such as norepinephrine, or changes blood flow in the cerebellum. Understanding these cellular mechanisms will help scientists determine exactly how physical exertion keeps the nervous system primed for adapting to the physical world.

    The study, “The effect of an acute bout of exercise on implicit sensorimotor adaptation,” was authored by Zivar Beyraghi, Ludovic Arsenault-Lévesque, Jordan Desrosiers, Jean-François Lepage, and Pierre-Michel Bernier.

    URL: psypost.org/scientists-discove

    -------------------------------------------------

    Private, vetted email list for mental health professionals: clinicians-exchange.org

    Unofficial Psychology Today Xitter to toot feed at Psych Today Unofficial Bot @PTUnofficialBot

    -------------------------------------------------

    #psychology #counseling #socialwork #psychotherapy @psychotherapist @psychotherapists @psychology @socialpsych @socialwork @psychiatry #mentalhealth #psychiatry #healthcare #depression #psychotherapist #aerobicexercise #implicitlearning #sensorimotoradaptation #motorlearning #cognitivebenefits #neuroscience #exercisepsychology #rehabilitation #brainhealth # cycling benefits

  2. DATE: August 10, 2026 at 10:00AM
    SOURCE: PSYPOST.ORG

    ** Research quality varies widely from fantastic to small exploratory studies. Please check research methods when conclusions are very important to you. **
    -------------------------------------------------

    TITLE: Scientists discover a previously unknown cognitive benefit of aerobic exercise

    URL: psypost.org/scientists-discove

    Engaging in a brief session of moderate aerobic exercise tends to protect the brain’s automatic ability to adjust physical movements. A recent study published in Physiology Behavior suggests that twenty minutes of stationary cycling prevents a natural decline in unconscious motor learning that typically occurs after a period of rest. These findings provide evidence that working up a sweat might prime the nervous system for physical rehabilitation and skill acquisition.

    When a person uses a computer mouse with high sensitivity for the first time, their hand movements initially overshoot the desired target on the screen. The brain expects the cursor to land in a specific spot based on the physical hand movement. When the visual feedback does not match the expectation, the brain registers a sensory prediction error. To fix this mismatch, the nervous system constantly updates its internal map to ensure future movements are accurate.

    This ongoing recalibration process is known as sensorimotor adaptation. Motor learning relies on a combination of conscious and unconscious systems. The explicit process involves intentional cognitive strategies, such as consciously aiming to the left to correct for a persistent error to the right. The implicit process operates entirely under the surface, automatically tweaking motor commands without the person realizing it.

    Past studies suggest that a single session of aerobic exercise improves general motor learning. A research team led by Zivar Beyraghi at the Université de Sherbrooke sought to isolate the unconscious component. Because large or sudden errors tend to trigger conscious aiming strategies, previous findings could not separate intentional strategy use from automatic neural updating. It remained an open question whether getting the heart rate up specifically primed the brain’s implicit adaptation systems.

    The researchers recruited 26 healthy young adults for the experiment. The sample included 15 females, and the participants had an average age of about 25 years. The experiment used a within-participant design, meaning every individual completed both the active condition and the resting condition on separate days to serve as their own point of comparison.

    During the testing sessions, participants sat at a specialized robotic apparatus that tracked their arm movements. They could not see their actual hand. Instead, they watched a white cursor on a screen that usually mirrored their hand’s position. The task required them to reach outward from a central starting point toward a specific target.

    To evaluate implicit adaptation, the researchers subtly manipulated the visual feedback. On random trials, the computer rotated the cursor’s path 30 degrees clockwise or counter-clockwise from the actual hand movement. The researchers specifically instructed the participants to ignore these disturbances and simply aim straight for the target on every trial. They told the participants that any conscious strategy would be useless.

    The scientists measured a phenomenon called the post-rotation bias to quantify automatic learning. When a person experiences a rotated visual cursor on one trial, their hand involuntarily drifts in the opposite direction on the very next attempt. This happens even if they know the next trial will behave normally. This subtle, involuntary shift provides an isolated measure of implicit adaptation.

    Participants completed 180 reaching trials before and after a designated break period. On the exercise day, the break consisted of a 20-minute session of moderate-intensity stationary cycling, preceded by a warm-up and followed by a cool-down. The researchers adjusted the resistance on the bike to keep each person’s heart rate strictly between 65 and 75 percent of their individual maximum capacity. On the resting day, participants spent the break time resting and watching a documentary.

    The data provided evidence that physical exertion influenced the speed and vigor of the participants’ movements. The researchers calculated total response time by adding the time it took to react to the target and the time it took to finish the physical reach. Before the cycling intervention, total response time averaged 555 milliseconds. After exercising, this metric dropped to 532 milliseconds, representing a faster overall performance by a relative margin of about 4 percent.

    Following the resting condition, response times hovered steadily around 540 to 534 milliseconds. The post-rotation bias measurements suggested a distinct protective effect on automatic learning. Before the rest period, the participants exhibited an average involuntary hand shift of 2.93 degrees. Following the documentary break, this adaptation bias shrank to 2.20 degrees.

    This decrease indicates that the brain’s automatic responsiveness to sensory errors naturally faded after resting or performing the repetitive task. The moderate cycling session appeared to block this natural decay. Before the exercise, the adaptation bias averaged 2.45 degrees. After the workout, the bias held nearly steady at 2.40 degrees.

    By maintaining the magnitude of this unconscious learning metric, the physical activity shielded the brain’s internal updating process. It prevented the attenuation observed during the resting day. Interpreting these findings requires noting that aerobic exercise did not elevate the baseline capacity for implicit learning beyond the initial starting point. The data instead points to a preservation effect, where the physical activity maintained the existing adaptation levels.

    The exact reason for the decline in the resting condition is not fully established. It might relate to neural fatigue, a fading of attention, or a saturation of the brain’s learning circuits from repeating the same reaching task multiple times. Another aspect of the experimental design warrants attention regarding the study’s timeline. Due to scheduling constraints, the time gap between the two experimental sessions was noticeably longer for one group of participants than the other.

    Statistical analyses indicated that this discrepancy did not change the overall pattern of the outcomes. Even so, uneven spacing between testing days introduces an uncontrolled variable into the experiment. Future investigations are necessary to map the precise biological pathways linking a racing heart to preserved motor learning.

    Researchers aim to measure how exercise alters neurotransmitter levels, such as norepinephrine, or changes blood flow in the cerebellum. Understanding these cellular mechanisms will help scientists determine exactly how physical exertion keeps the nervous system primed for adapting to the physical world.

    The study, “The effect of an acute bout of exercise on implicit sensorimotor adaptation,” was authored by Zivar Beyraghi, Ludovic Arsenault-Lévesque, Jordan Desrosiers, Jean-François Lepage, and Pierre-Michel Bernier.

    URL: psypost.org/scientists-discove

    -------------------------------------------------

    Private, vetted email list for mental health professionals: clinicians-exchange.org

    Unofficial Psychology Today Xitter to toot feed at Psych Today Unofficial Bot @PTUnofficialBot

    -------------------------------------------------

    #psychology #counseling #socialwork #psychotherapy @psychotherapist @psychotherapists @psychology @socialpsych @socialwork @psychiatry #mentalhealth #psychiatry #healthcare #depression #psychotherapist #aerobicexercise #implicitlearning #sensorimotoradaptation #motorlearning #cognitivebenefits #neuroscience #exercisepsychology #rehabilitation #brainhealth # cycling benefits

  3. DATE: July 17, 2026 at 06:00PM
    SOURCE: PSYPOST.ORG

    ** Research quality varies widely from fantastic to small exploratory studies. Please check research methods when conclusions are very important to you. **
    -------------------------------------------------

    TITLE: How different types of exercise impact mood and brain chemistry

    URL: psypost.org/how-different-type

    Aerobic routines and mind-body practices like yoga both relieve anxiety and lift momentary moods, but getting the heart pumping is necessary to trigger the release of certain biological molecules. These results, published in the journal Psychoneuroendocrinology, show that while diverse workout routines offer psychological benefits, the underlying internal processes vary by activity.

    Physical activity sets off a cascade of physiological responses throughout the human body. Among these reactions is the release of exerkines, which are signaling molecules secreted into the bloodstream by tissues during exertion. Researchers study these molecules to understand exactly how working out improves mental health and cognitive function.

    Two major categories of exerkines are endocannabinoids and a protein called brain-derived neurotrophic factor, often abbreviated as BDNF. Endocannabinoids, primarily molecules known as AEA and 2-AG, bind to the same nervous system receptors as the active compounds in cannabis. These naturally produced chemicals help regulate pain, mood, and stress responses.

    The BDNF protein supports the survival of existing neurons and encourages the growth of new connections in the brain. Mental health professionals frequently seek to harness these biological mechanisms to assist with treatments. Therapists use interventions like exposure therapy to help patients overcome severe anxiety, a process that requires the brain to form new, safe memories. Scientists are investigating whether a quick bout of exercise immediately after a therapy session can flood the brain with exerkines and cement those memories.

    These internal chemicals are often credited for the euphoric feeling commonly known as a runner’s high. In people with psychiatric conditions such as post-traumatic stress disorder and major depressive disorder, the baseline levels of these molecules are frequently altered. These individuals also tend to show smaller biological responses to behavioral interventions, suggesting that altered chemical signaling plays a role in psychological distress. Restoring this balance through movement offers a promising pathway for psychiatric care.

    Past research has established that sweating through a moderate aerobic workout can reliably elevate levels of circulating exerkines. Less is known about whether alternative, lower-impact activities provide similar physiological boosts. Some clinical populations face physical or motivational barriers that prevent them from engaging in traditional cardiovascular workouts. This makes accessible options like yoga highly appealing for psychiatric treatment plans.

    A team of investigators sought to address this gap by directly comparing the psychological and biological impacts of specific exercise modalities. John Leri, a researcher at the Dell Medical School at The University of Texas at Austin, led the project alongside colleagues from both the Texas institution and The University of Alabama. They wanted to measure state affect, which refers to a person’s immediate emotional experience, alongside changing levels of circulating exerkines.

    The study involved 88 young adult participants who were randomly assigned to one of two experimental groups. One group participated in aerobic exercises, while the other group took part in mind-body routines. Participants in the aerobic group completed two separate 30-minute sessions on a stationary bicycle, returning to the laboratory after a one-week delay.

    During one cycling session, subjects pedaled with moderate resistance to maintain their heart rates at roughly 70 to 75 percent of their maximum capacity. For their other session, participants pedaled slowly without resistance, keeping their heart rates below half of their maximum.

    The mind-body group followed a parallel schedule, completing two distinct half-hour routines guided by pre-recorded videos. One session featured a low-intensity, posture-based yoga practice that included mindfulness cues, breath awareness, and a final relaxation period. The alternative routine consisted entirely of basic stretching exercises without any meditation instructions.

    Before and immediately after the exercises, the research team asked subjects to rate their momentary anxiety levels and their positive and negative emotional states. Medical staff also measured the participants’ blood pressure and drew blood through venipuncture. Lab technicians later analyzed these blood samples to detect exact concentrations of AEA, 2-AG, and BDNF.

    Collecting the blood at distinct intervals allowed the team to capture the immediate biological aftermath of the activity. Venipuncture took place in a designated phlebotomy room within the laboratory, minimizing any external stress that might skew the results. The samples were then processed in a centrifuge and frozen at extremely low temperatures before being shipped to a specialized laboratory in Germany for rigorous analysis. This biological tracking provides a deeper look into the body than psychological surveys alone.

    The protocol also featured a specialized cognitive challenge to test learning and memory. Before hitting the exercise bike or the yoga mat, participants viewed images on a computer screen and learned to associate specific visual contexts with the likelihood of receiving a mild physical shock.

    After finishing their workout and providing a second blood sample, participants completed a follow-up assessment. They had to recognize the previous contexts without the explicit labels and recall which images were novel or familiar. Researchers included this phase to see if the chemical changes brought on by physical activity would enhance memory consolidation.

    When analyzing the blood samples, Leri and his team found that only the moderate-intensity cycling session distinctly altered endocannabinoid levels. The concentration of AEA in the bloodstream rose after the continuous, heart-pumping workout. Neither low-intensity cycling, yoga, nor stretching produced measurable changes in AEA.

    The scientists did not observe changes in the other endocannabinoid, 2-AG, across any of the experimental conditions. Even the moderate aerobic session failed to increase this specific molecule. Levels of the BDNF protein were similarly unaffected by all four routines, contradicting previous studies that noted immediate BDNF spikes following moderately strenuous workouts.

    While the biological signals varied, the psychological rewards were much more universal. All four activities effectively decreased feelings of negative emotion and state anxiety across the board. Simply moving the body for a half hour, regardless of the format or intensity, helped participants shed tension.

    Positive emotions displayed a slightly different pattern. The moderate cycling, the yoga flow, and the stretching routine all increased participants’ positive emotional states. In contrast, the low-intensity cycling group did not yield statistically significant improvements in positive affect.

    The data also revealed a link between the shifting exerkine molecules and mood. Among the participants who experienced the largest increases in circulating AEA, researchers recorded parallel boosts in positive emotional states. Neither the endocannabinoids nor the BDNF levels showed any relationship to how well participants performed on the memory test.

    The research team had anticipated that individuals with the highest exerkine levels would demonstrate superior memory retention during the contextual threat assessment. However, the data revealed no relationship between the internal biological markers and cognitive performance. The researchers suspect that the short time window between the initial learning and the follow-up test might have hindered their ability to detect actual memory consolidation effects. True consolidation processes often take place over days rather than hours.

    The authors noted a few underlying factors that might explain some of the unexpected biological outcomes. The lack of a BDNF response during the moderate aerobic sessions could relate to the specific duration of the workout. The protocol required 20 minutes of continuous moderate exertion, which might be too brief to launch the metabolic triggers required to release the protein.

    Additionally, the designated yoga routine was intentionally designed to be gentle and accessible for people of all fitness levels. Traditional yoga encompasses a vast spectrum of practices, and vigorous sequences might produce entirely different physiological demands. The current findings specifically reflect a low-impact session rather than an exhausting, sweat-inducing flow.

    Leri and his colleagues suggest that future studies should test more strenuous yoga routines to see if they can match the cardiovascular strain of moderate cycling. Expanding the pool of research subjects to include older adults and individuals with specific psychiatric conditions would also help scientists tailor exercise recommendations. Different populations may require distinct movement prescriptions to maximize the mental health benefits of physical activity.

    The study, “Contributions of yoga and aerobic exercise to acute changes in state affect, circulating BDNF and eCB concentrations, and memory,” was authored by John Leri, Kevin M. Crombie, Luna Malloy, Lily Wang, Paige Broski, and Josh M. Cisler.

    URL: psypost.org/how-different-type

    -------------------------------------------------

    Private, vetted email list for mental health professionals: clinicians-exchange.org

    Unofficial Psychology Today Xitter to toot feed at Psych Today Unofficial Bot @PTUnofficialBot

    -------------------------------------------------

    #psychology #counseling #socialwork #psychotherapy @psychotherapist @psychotherapists @psychology @socialpsych @socialwork @psychiatry #mentalhealth #psychiatry #healthcare #depression #psychotherapist #exerciseandmood #BDNF #endocannabinoids #AEA #2AG #aerobicexercise #yoga #exerkines #memoryandemotion #psychoneuroendocrinology

  4. DATE: July 17, 2026 at 06:00PM
    SOURCE: PSYPOST.ORG

    ** Research quality varies widely from fantastic to small exploratory studies. Please check research methods when conclusions are very important to you. **
    -------------------------------------------------

    TITLE: How different types of exercise impact mood and brain chemistry

    URL: psypost.org/how-different-type

    Aerobic routines and mind-body practices like yoga both relieve anxiety and lift momentary moods, but getting the heart pumping is necessary to trigger the release of certain biological molecules. These results, published in the journal Psychoneuroendocrinology, show that while diverse workout routines offer psychological benefits, the underlying internal processes vary by activity.

    Physical activity sets off a cascade of physiological responses throughout the human body. Among these reactions is the release of exerkines, which are signaling molecules secreted into the bloodstream by tissues during exertion. Researchers study these molecules to understand exactly how working out improves mental health and cognitive function.

    Two major categories of exerkines are endocannabinoids and a protein called brain-derived neurotrophic factor, often abbreviated as BDNF. Endocannabinoids, primarily molecules known as AEA and 2-AG, bind to the same nervous system receptors as the active compounds in cannabis. These naturally produced chemicals help regulate pain, mood, and stress responses.

    The BDNF protein supports the survival of existing neurons and encourages the growth of new connections in the brain. Mental health professionals frequently seek to harness these biological mechanisms to assist with treatments. Therapists use interventions like exposure therapy to help patients overcome severe anxiety, a process that requires the brain to form new, safe memories. Scientists are investigating whether a quick bout of exercise immediately after a therapy session can flood the brain with exerkines and cement those memories.

    These internal chemicals are often credited for the euphoric feeling commonly known as a runner’s high. In people with psychiatric conditions such as post-traumatic stress disorder and major depressive disorder, the baseline levels of these molecules are frequently altered. These individuals also tend to show smaller biological responses to behavioral interventions, suggesting that altered chemical signaling plays a role in psychological distress. Restoring this balance through movement offers a promising pathway for psychiatric care.

    Past research has established that sweating through a moderate aerobic workout can reliably elevate levels of circulating exerkines. Less is known about whether alternative, lower-impact activities provide similar physiological boosts. Some clinical populations face physical or motivational barriers that prevent them from engaging in traditional cardiovascular workouts. This makes accessible options like yoga highly appealing for psychiatric treatment plans.

    A team of investigators sought to address this gap by directly comparing the psychological and biological impacts of specific exercise modalities. John Leri, a researcher at the Dell Medical School at The University of Texas at Austin, led the project alongside colleagues from both the Texas institution and The University of Alabama. They wanted to measure state affect, which refers to a person’s immediate emotional experience, alongside changing levels of circulating exerkines.

    The study involved 88 young adult participants who were randomly assigned to one of two experimental groups. One group participated in aerobic exercises, while the other group took part in mind-body routines. Participants in the aerobic group completed two separate 30-minute sessions on a stationary bicycle, returning to the laboratory after a one-week delay.

    During one cycling session, subjects pedaled with moderate resistance to maintain their heart rates at roughly 70 to 75 percent of their maximum capacity. For their other session, participants pedaled slowly without resistance, keeping their heart rates below half of their maximum.

    The mind-body group followed a parallel schedule, completing two distinct half-hour routines guided by pre-recorded videos. One session featured a low-intensity, posture-based yoga practice that included mindfulness cues, breath awareness, and a final relaxation period. The alternative routine consisted entirely of basic stretching exercises without any meditation instructions.

    Before and immediately after the exercises, the research team asked subjects to rate their momentary anxiety levels and their positive and negative emotional states. Medical staff also measured the participants’ blood pressure and drew blood through venipuncture. Lab technicians later analyzed these blood samples to detect exact concentrations of AEA, 2-AG, and BDNF.

    Collecting the blood at distinct intervals allowed the team to capture the immediate biological aftermath of the activity. Venipuncture took place in a designated phlebotomy room within the laboratory, minimizing any external stress that might skew the results. The samples were then processed in a centrifuge and frozen at extremely low temperatures before being shipped to a specialized laboratory in Germany for rigorous analysis. This biological tracking provides a deeper look into the body than psychological surveys alone.

    The protocol also featured a specialized cognitive challenge to test learning and memory. Before hitting the exercise bike or the yoga mat, participants viewed images on a computer screen and learned to associate specific visual contexts with the likelihood of receiving a mild physical shock.

    After finishing their workout and providing a second blood sample, participants completed a follow-up assessment. They had to recognize the previous contexts without the explicit labels and recall which images were novel or familiar. Researchers included this phase to see if the chemical changes brought on by physical activity would enhance memory consolidation.

    When analyzing the blood samples, Leri and his team found that only the moderate-intensity cycling session distinctly altered endocannabinoid levels. The concentration of AEA in the bloodstream rose after the continuous, heart-pumping workout. Neither low-intensity cycling, yoga, nor stretching produced measurable changes in AEA.

    The scientists did not observe changes in the other endocannabinoid, 2-AG, across any of the experimental conditions. Even the moderate aerobic session failed to increase this specific molecule. Levels of the BDNF protein were similarly unaffected by all four routines, contradicting previous studies that noted immediate BDNF spikes following moderately strenuous workouts.

    While the biological signals varied, the psychological rewards were much more universal. All four activities effectively decreased feelings of negative emotion and state anxiety across the board. Simply moving the body for a half hour, regardless of the format or intensity, helped participants shed tension.

    Positive emotions displayed a slightly different pattern. The moderate cycling, the yoga flow, and the stretching routine all increased participants’ positive emotional states. In contrast, the low-intensity cycling group did not yield statistically significant improvements in positive affect.

    The data also revealed a link between the shifting exerkine molecules and mood. Among the participants who experienced the largest increases in circulating AEA, researchers recorded parallel boosts in positive emotional states. Neither the endocannabinoids nor the BDNF levels showed any relationship to how well participants performed on the memory test.

    The research team had anticipated that individuals with the highest exerkine levels would demonstrate superior memory retention during the contextual threat assessment. However, the data revealed no relationship between the internal biological markers and cognitive performance. The researchers suspect that the short time window between the initial learning and the follow-up test might have hindered their ability to detect actual memory consolidation effects. True consolidation processes often take place over days rather than hours.

    The authors noted a few underlying factors that might explain some of the unexpected biological outcomes. The lack of a BDNF response during the moderate aerobic sessions could relate to the specific duration of the workout. The protocol required 20 minutes of continuous moderate exertion, which might be too brief to launch the metabolic triggers required to release the protein.

    Additionally, the designated yoga routine was intentionally designed to be gentle and accessible for people of all fitness levels. Traditional yoga encompasses a vast spectrum of practices, and vigorous sequences might produce entirely different physiological demands. The current findings specifically reflect a low-impact session rather than an exhausting, sweat-inducing flow.

    Leri and his colleagues suggest that future studies should test more strenuous yoga routines to see if they can match the cardiovascular strain of moderate cycling. Expanding the pool of research subjects to include older adults and individuals with specific psychiatric conditions would also help scientists tailor exercise recommendations. Different populations may require distinct movement prescriptions to maximize the mental health benefits of physical activity.

    The study, “Contributions of yoga and aerobic exercise to acute changes in state affect, circulating BDNF and eCB concentrations, and memory,” was authored by John Leri, Kevin M. Crombie, Luna Malloy, Lily Wang, Paige Broski, and Josh M. Cisler.

    URL: psypost.org/how-different-type

    -------------------------------------------------

    Private, vetted email list for mental health professionals: clinicians-exchange.org

    Unofficial Psychology Today Xitter to toot feed at Psych Today Unofficial Bot @PTUnofficialBot

    -------------------------------------------------

    #psychology #counseling #socialwork #psychotherapy @psychotherapist @psychotherapists @psychology @socialpsych @socialwork @psychiatry #mentalhealth #psychiatry #healthcare #depression #psychotherapist #exerciseandmood #BDNF #endocannabinoids #AEA #2AG #aerobicexercise #yoga #exerkines #memoryandemotion #psychoneuroendocrinology

  5. An upside of being #fat and being prescribed #AerobicExercise is that my favorite physical activity is #gardening and the way I usually work in the garden combined with the fact that I’m carrying so much weight all the time means gardening is an aerobic activity for me!

    #FatLiberation

  6. An upside of being #fat and being prescribed #AerobicExercise is that my favorite physical activity is #gardening and the way I usually work in the garden combined with the fact that I’m carrying so much weight all the time means gardening is an aerobic activity for me!

    #FatLiberation