[ ]
Notes . AST: affective Stroop task; MT: mindfulness training; EM: expert meditators; NM: novice meditators; INM: incentive novice meditators; MAAS: Mindful Attention Awareness Scale; IBMT: integrative body-mind training; RT: relaxation training; MBSR: mindfulness-based stress reduction; BWVM: brain-wave vibration meditation; FAM: focused attention meditation; LKM: loving-kindness meditation; CPT: continuous performance test; EPT: emotion-processing task; OM: open monitoring meditation; CBCT: cognitively based compassion training; RME: reading the mind eyes test; MBAT: mindfulness-based art therapy; TMT: transcendental meditation technique; NDM: nondirective meditation; MW: mind wondering.
The studies that investigated structural brain modifications in expert meditators ( Table 2 ) focused on brain structural changes after meditation training and/or in expert meditators compared with control participants; they primarily assessed grey matter changes with whole-brain voxel-based morphometry or cortical thickness mapping of MRI data [ 24 , 48 – 54 ]. These studies principally found that, compared with control participants, expert meditators showed increased grey matter volume at the level of the posterior cingulate cortex, temporoparietal junction, angular gyrus, orbitofrontal cortex, hippocampus, and subiculum in the medial temporal lobe and the brainstem.
sMRI studies on expert meditators.
Paper | Contrast | Experience | Meditation | |
---|---|---|---|---|
Kang et al., 2013 [ ] | 92 | Meditators versus controls | 41.23 ± 27.57 months | BWV |
Wei et al., 2013 [ ] | 40 | Meditators versus controls | 14 ± 8 years | TCC |
Hölzel et al., 2011 [ ] | 16 | Pre- to post-MBSR training | 8 weeks | MBSR |
Kurth et al., 2014 [ ] | 100 | Meditators versus controls | 19.8 ± 11.4 years | — |
Kurth et al., 2014 [ ] | 100 | Correlation with meditation practice | 19.8 ± 11.4 years | — |
Leung et al., 2013 [ ] | 25 | Meditators versus controls | >5 years | LKM |
Luders et al., 2009 [ , ] | 44 | Meditators versus controls | 24.18 ± 12.36 years | — |
Luders et al., 2009 [ , ] | 44 | Meditators versus controls | 24.18 ± 12.36 years | — |
Luders et al., 2013 [ ] | 100 | Meditators versus controls | 19.8 ± 11.4 years | — |
Vestergaard-Poulsen et al., 2009 [ ] | 20 | Meditators versus controls | 16.5 ± 5.1 years | Tibetan Buddhism |
Notes . BWV: brain-wave vibration; TCC: Tai Chi Chuan; MBSR: mindfulness-based stress reduction; LKM: loving-kindness meditation.
Previous neuroimaging studies on the effects of meditation on brain structure and function adopted different meditation techniques and recruited participants with different meditation training. For example, some studies recruited Buddhist practitioners [ 44 ] and others recruited participants with experience in SOHAM meditation [ 47 ] or ACEM meditation [ 33 ]. Several studies reported that different meditation techniques require different cognitive processes and thus produce different neural effects [ 55 , 56 ]. But, despite differences in meditation techniques and underlying cognitive processes, it has been proposed that all meditation techniques share a central process that supports their common goal, that is, inducing relaxation, regulating attention, and developing an attitude of detachment from one's own thoughts [ 57 ]. Evidence from a recent meta-analysis of ten neuroimaging studies [ 57 ] seems to suggest that the caudate body, entorhinal cortex, and medial prefrontal cortex have a central role in supporting the general aspects of meditation effects.
The large amount of data collected over the past decade allows drawing some definite conclusions about the neural effects of meditation practice and allows discussing the positive effects of meditation practice from a biological point of view.
The main aim of the present study was to draw some definite conclusions about the neural network activated during meditation tasks and to explore functional (fMRI) and structural (sMRI) changes in expert meditators. To pursue this aim we adopted a meta-analytic approach based on activation likelihood estimation (ALE) analysis, which allows performing coordinate-based meta-analyses of neuroimaging data [ 58 ].
The database search on PubMed was performed using the following string: (((((((MRI) AND meditation) NOT Alzheimer's) NOT Parkinson's) NOT EEG) NOT MEG) NOT mild cognitive impairment). A total of 93 papers emerged. From this collection, we selected only papers that (1) included whole-brain analysis performed using magnetic resonance imaging (MRI), (2) provided coordinates of activation foci either in Montreal Neurological Institute (MNI) or in Talairach reference space, (3) studied young and healthy participants, (4) reported activation from group studies, (5) included meditators or required participants to perform a meditation task, and (6) used no pharmacological manipulation. We selected 57 papers: 42 reported fMRI studies and 15, sMRI studies. Out of the 42 fMRI studies, 5 were excluded because they did not provide coordinates of activation foci; out of the 15 papers on sMRI studies, 6 papers were excluded for the same reason and one paper was excluded because it did not include expert meditators.
In line with the aims of the present meta-analysis, individual experimental studies from selected papers were divided according to three main axes: papers reporting (a) functional magnetic resonance imaging studies (fMRI) during meditation training, (b) functional magnetic resonance imaging studies (fMRI) that studied neural modifications after meditation training, and (c) structural MRI studies (sMRI). Note that the fMRI studies on neural modifications after meditation (see Table 1 ) included those that adopted different paradigms. These studies also reported the results of comparisons between pre- and posttreatment or results of comparisons between expert meditators and naïve participants. A meta-analytic approach, which models the probability distributions centered at the coordinates of each activation focus, allows obtaining a general picture of functional neural modifications in meditators.
We included 37 individual fMRI experimental studies on functional activations during meditation tasks (642 participants), 63 fMRI experimental studies (see Table 1 for more details) on functional changes ascribable to meditation (1,652 participants including both meditators and controls), and 10 experimental sMRI studies ( Table 2 ) on structural changes ascribable to meditation (581 participants).
Activation likelihood estimation (ALE) analyzes the probability that a voxel will contain at least one of the activation foci; it is calculated at each voxel and results in a thresholded ALE map. In other words, ALE assesses the overlap between foci by modeling the probability distributions centered at the coordinates of each one [ 58 ].
Our first aim was to provide a general picture of areas activated during meditation tasks. Thus, we carried out an ALE analysis of fMRI studies on functional activations during meditation tasks. Then, we performed two ALE analyses to determine whether meditation produces consistent modifications in brain structure and function. In the first analysis we included sMRI studies, and in the second analysis we included fMRI studies on neural modifications after meditation training.
The ALE meta-analysis was performed using GingerALE 2.1.1 ( http://brainmap.org/ ) with MNI coordinates (Talairach coordinates were automatically converted into MNI coordinates by GingerALE.). Following Eickhoff et al.'s modified procedure [ 58 ], the ALE values of each voxel in the brain were computed and a test was performed to determine the null distribution of the ALE statistic of each voxel. The FWHM value was automatically computed because this parameter is empirically determined [ 58 ].
For the fMRI studies, the thresholded ALE map was computed using P values from the previous step and a false discovery rate (FDR) at the 0.05 level of significance (Tom Nichol's FDR algorithm). Moreover, a minimum cluster size of 200 mm 3 was chosen. A cluster analysis was performed on the thresholded map.
For the sMRI studies, the thresholded ALE map was computed using P values from the previous step and a cluster level correction at the 0.05 level of significance, with a minimum cluster size of 200 mm 3 . A cluster analysis was performed on the thresholded map.
The ALE results were registered on an MNI-normalized template ( http://brainmap.org/ ) using Mricro ( http://www.mccauslandcenter.sc.edu/mricro/index.html ).
ALE meta-analysis of fMRI studies carried out during meditation revealed a network of areas spanning from the occipital to the frontal lobes that was more highly activated during the meditation condition than the control condition. This network included the caudate nuclei and insula bilaterally, the precuneus, middle and superior temporal gyrus, and precentral gyrus in the left hemisphere, and the anterior cingulate cortex, superior frontal gyrus, parahippocampal gyrus, inferior parietal lobule (angular gyrus), and middle occipital gyrus in the right hemisphere. We also found that left posterior cerebellum, specifically the declive, was more highly activated during meditation than the control condition ( Figure 1 ).
Results of ALE analysis on fMRI studies of meditation. The ALE map shows brain areas activated during meditation, encompassing bilaterally the caudate nuclei and insula, precuneus, middle and superior temporal gyrus, and precentral gyrus in the left hemisphere (LH) and the anterior cingulate cortex, superior frontal gyrus, parahippocampal gyrus, inferior parietal lobule, and middle occipital gyrus in the right hemisphere (RH).
We found that meditation practice (see Table 1 ) was associated with increased functional activation in a wide network of areas including the bilateral middle frontal gyrus, precentral gyrus, anterior cingulate cortex, insula, and claustrum. In the left hemisphere we also found increased activation at the level of the inferior frontal gyrus, precuneus, caudate nucleus, and thalamus; and in the right hemisphere we found increased activation in the medial frontal gyrus, parahippocampal gyrus, middle occipital gyrus, inferior parietal lobule, and lentiform nucleus ( Figure 2 ).
Results of ALE analysis on functional modifications in meditators. The ALE map shows brain areas that are more highly activated in meditators than controls. This network includes bilaterally the middle frontal gyrus, precentral gyrus, anterior cingulate cortex, insula, and claustrum. In the left hemisphere (LH) we found activation of the inferior frontal gyrus, precuneus, caudate nucleus, and thalamus, and in the right hemisphere (RH) we found activation in the medial frontal gyrus, parahippocampal gyrus, middle occipital gyrus, inferior parietal lobule, and lentiform nucleus.
We found that meditation practice was associated with increased grey matter volume in the frontal lobe, at the level of the right anterior cingulate cortex and left middle and medial frontal gyrus. We also found increased grey matter volume in meditators at the level of the left precuneus and fusiform gyrus and the right thalamus ( Figure 3 ).
Results of the ALE analysis of structural modifications in meditators. The ALE map shows increased grey matter volume in meditators in the right hemisphere (RH) at the level of the anterior cingulate cortex and thalamus and in the left hemisphere (LH) at the level of the middle and medial frontal gyrus, precuneus, and fusiform gyrus.
The main aim of the present study was to identify the neural network activated during meditation and to explore structural and functional brain modifications in expert meditators. We also aimed to explore the relationship between meditation practice and the neural mechanisms that allow maintaining the positive effects of meditation training. For this purpose we adopted ALE analysis, a technique used widely in coordinate-based meta-analyses of neuroimaging data [ 58 ]. The results of this study shed light on the neural underpinnings of the positive effects of meditation practice and suggest the existence of a neural network responsible for these effects in meditators' everyday life.
The first question we tried to answer was which brain areas were activated during mediation. We used ALE analysis to identify the neural networks activated during meditation tasks and carried out the coordinate-based meta-analysis on experimental studies that required participants to meditate during the fMRI scan, regardless of their previous experience. We found that a set of brain areas spanning from the occipital to the frontal lobes was more highly activated during the meditation condition than during the control condition. This network included areas involved in processing self-relevant information, such as the precuneus [ 59 ], in processing self-regulation, focused problem-solving, and adaptive behavior, such as the anterior cingulate cortex [ 60 ], in interoception and in monitoring internal body states, such as the insula [ 61 ], in reorienting attention, such as the angular gyrus [ 62 ], and in processing the “experiential enactive self,” such as the premotor cortex and superior frontal gyrus [ 63 ]. It is not surprising that meditation induces higher activation in all of these areas, because the mental state during meditation is mainly characterized by full attention to internal and external experiences as they occur in the present moment [ 15 ].
As previously described, meditation practice has been found to promote well-being by fostering cognitive and emotional functioning [ 6 ]. Indeed, the positive effects achieved during the training sessions were generalized to everyday life, enhancing both cognitive (i.e., memory, attention, problem-solving, and executive functions) and emotional (i.e., prosocial behavior) functioning in expert meditators. Using the ALE method, we tried to address the question about the brain underpinnings of pervasive positive effects of meditation in expert meditators' daily lives. We carried out an ALE analysis that included studies which compared activations in expert meditators and control participants in a wide range of cognitive and emotional domains ( Table 1 ). Results of the ALE analysis showed that meditators, as compared with controls, showed greater activation in a wide network of areas encompassing bilaterally the frontal, parietal, and temporal regions. In addition to areas also activated during meditation (i.e., the middle occipital gyrus, inferior parietal lobule, precuneus, anterior cingulate cortex, precentral gyrus, insula, and caudate nuclei), this network of areas also included thebilateral middle frontal gyrus, inferior frontal gyrus, and thalamus in the left hemisphere and the medial frontal gyrus and lentiform nucleus in the right hemisphere. The network of areas we found more highly activated in expert meditators than in nonmeditators has recently been hypothesized to be part of the enactive experiential self network, which integrates efferent and reafferent processes concerning exteroception, proprioception, kinesthesia, and interoception [ 63 ]. Furthermore, it was previously thought that these areas were involved in self-referential processes [ 64 – 66 ], perspective taking [ 67 ], cognitive distancing [ 68 – 71 ], and sustained attention [ 72 ]. In fact, they were found to be more highly activated in Buddhist meditators [ 1 ]. Expert meditators also showed higher activations in the parahippocampal cortex, which has repeatedly been found to be involved in memory formation and retrieval [ 73 , 74 ] as well as in high-level perception, especially in perceiving complex and ambiguous visual stimuli [ 75 , 76 ]. The higher activation we found in expert meditators may account at least in part for enhanced attention, memory, and perceptual abilities reported in previous studies [ 15 ].
Results of the ALE analysis of sMRI studies showed increased grey matter volume in meditators compared to control groups in the right anterior cingulate cortex, left middle and medial frontal gyrus, left precuneus and fusiform gyrus, and right thalamus. It could be that the increased grey matter volume in the anterior cingulate cortex of meditators accounts for the improvement of specific abilities such as self-regulation, self-control, focused problem-solving, and adaptive behavioral responses under changing conditions [ 60 ], which are strictly associated with the functioning of the anterior cingulate cortex. Furthermore, the anterior cingulate cortex has recently been proposed to mediate the positive effects of meditation on prosocial behavior [ 63 ]. Nevertheless, it is difficult to state whether this difference as well as many other aspects of cognitive functioning is due to meditation practice or to previous individual predisposition. Studies comparing individuals before and after meditation training may help to clarify this point. Hölzel and colleagues [ 48 ] found increased grey matter concentration from pre- to post-MBSR training at the level of the temporoparietal junction, cerebellum, and posterior cingulate cortex. Furthermore, Kurth and colleagues [ 50 ] found a shifting in brain asymmetry at the level of the precuneus that was significantly correlated with number of years of practice. These results, taken together with results of the present ALE meta-analysis, which also found structural change in precuneus volume in meditators compared to controls, suggest that while structural differences at the level of the anterior cingulate cortex dispose to meditation, structural changes after meditation are strongly associated with changes in the posterior cingulate cortex and precuneus. The precuneus, which is located in the posteromedial portion of the parietal lobe, was recently found to be involved in a wide range of highly integrated tasks such as visuospatial imagery, episodic memory retrieval, and self-processing operations [ 59 ]. It shows widespread connectivity patterns with cortical and subcortical brain regions, such as the prefrontal cortex, anterior cingulate cortex, claustrum, caudate nucleus, and putamen [ 59 ]. The wide range of precuneus connections could account for its involvement in many high-level cognitive tasks. Specifically, involvement of the precuneus in self-referential processing could explain why it is so important in meditation practice. The precuneus was found to be involved in self-relevant information processing when self-relevant traits were compared with self-irrelevant traits [ 77 ]. It was also found to be involved during the performance of goal-directed actions when compared with passive stimulus viewing [ 78 ], the conscious resting state [ 79 , 80 ], and the enhanced consciousness state of yoga meditation [ 55 ]. All of this evidence converges to suggest that the precuneus has a pivotal role in sustaining the positive effects of meditation practice especially because of its involvement in gathering self-relevant information and in representing the self and the external world [ 59 ].
Regarding the differences among meditation techniques, as reported above, meditation practices can be grossly divided into two different approaches: focused attention meditation and open monitoring meditation. Anyway, most meditation approaches use both types of practices complementarily [ 3 , 4 ] and it has been proposed that all meditation techniques share a central process that supports their common goal, that is, inducing relaxation, regulating attention, and developing an attitude of detachment from one's own thoughts [ 57 ]. Our results strongly support the existence of a dedicate brain network that supports the general aspects of meditation effects. Actually, other than confirming the role of the caudate body, entorhinal cortex, and medial prefrontal cortex [ 57 ], the present study, using a large sample of experimental studies, sheds some light on other sets of brain areas which may be essential in supporting the general aspects of meditation effects.
Overall, results of the present ALE analysis suggest that meditation practice induces functional and structural brain modifications, especially in areas involved in self-referential processes, including self-awareness and self-regulation [ 63 ], as well as in areas involved in attention, executive functions, and memory formations [ 76 ]. Structural and functional modifications in this network may be the biological substrate of the pervasive effect of meditation practice in everyday life. These findings, taken together with previous ones, are leading to new applications of meditation practice in clinical populations and in disease prevention, especially in at-risk groups such as the elderly. In light of recent findings on the potential effect of meditation on age-related cognitive decline [ 22 , 23 ], it could be intriguing to understand whether neurobiological changes promoted by meditation practice contribute to forming the so-called “Cognitive Reserve” [ 81 ]. Possible applications to a wide range of mental disorders affecting self-regulation and self-awareness, such as mood disorders [ 82 , 83 ], anxiety disorders [ 84 ], and substance abuse [ 85 ], have also to be considered. In any case, further investigations comparing both psychological and neural effects of meditation practice are needed before any conclusions can be drawn.
The authors declare that there is no conflict of interests regarding the publication of this paper.
The many benefits of mindful body scan meditations.
Tanner Derror <[email protected]> , Michigan State University Extension - March 21, 2024
Mindful body scan meditations can help relieve pain, depression and anxiety, as well as improve the quality of your sleep. Learn how to practice your own body scan and access other mindfulness resources from MSU Extension.
Taking a few minutes to practice a brief mindful body scan meditation can be a great way to relieve stress, reduce pain, and help you get better sleep. So, what is a mindful body scan? This type of scan does not involve any sort of medical equipment, like an x-Ray scan does. In fact, you don’t need any equipment at all! All you need is a calm environment and a few moments of your time.
Following along to a guided meditation, like this brief five-minute body scan meditation , that walks you through the process is a great place to start.
A mindful body scan meditation involves the following steps:
Find a calm and relaxing environment. You may practice this body scan while standing; however, it may be more comfortable to be seated or lying down.
With these steps in mind, you can build your own body scan routine that works best for you.
Research suggests that mindfulness meditation practices, such as body scanning, can help improve depression, anxiety, pain symptoms, and overall quality of life for people living with chronic pain. Through modern brain scan imaging, neuroscientists have been able to demonstrate that mindfulness meditation practices can lead to lower self-reported pain, less emotional reactivity and even less social pain.
Mindfulness practices provide these benefits by activating our body’s parasympathetic nervous system in a unique way that calms different structures in the limbic system (including the anterior cingulate cortex, amygdala, and connections with the medial prefrontal cortex). The limbic system is responsible for processing pain and emotions such as fear, anxiety, anger, and depression. A review of evidence found that mindfulness meditation practices may also improve quality of sleep. The next time you are struggling with negative thoughts, difficult emotions, or getting a restful night of sleep, give mindfulness a try.
Michigan State University Extension is here to help. MSU Extension provides health programs covering a variety of topics, including managing stress, chronic pain, and improving sleep.
These programs include:
You can find out more about these programs (and many others) by visiting extension.msu.edu/healthprograms .
You can also learn more about other mindfulness practices by checking out these articles written by MSU Extension educators:
You can also visit our library of guided meditations from MSU Extension here: canr.msu.edu/mindfulnessforbetterliving/guided-meditations.
This article was published by Michigan State University Extension . For more information, visit https://extension.msu.edu . To have a digest of information delivered straight to your email inbox, visit https://extension.msu.edu/newsletters . To contact an expert in your area, visit https://extension.msu.edu/experts , or call 888-MSUE4MI (888-678-3464).
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Meditation , practiced for millennia in many cultures worldwide, offers many benefits for the mind and body. The term “meditation” encompasses a range of techniques that cultivate a state of focused attention and increased awareness to calm the mind and enhance physical and mental well-being.
Each meditation technique offers a unique approach to supporting well-being. Some practices involve focusing on a particular sensation, such as breathing, a sound, or repeating a mantra. Others emphasize awareness of the present moment without judgment. There is no right or wrong way to meditate—meditation practices are as diverse as the millions of people who meditate.
This article discusses the most popular meditation types, how long they take to work, and how often to meditate to gain the most benefits.
Angelina Ishmukhametova / Getty Images
Meditation is a valuable self-care practice offering numerous physical and mental health benefits. Research shows that a regular meditation practice:
Meditation encompasses many practices, many of which have roots in spiritual practices. People meditate for various reasons, including stress reduction, improved focus, enhanced self-awareness, and spiritual growth. Understanding the different types of meditation can help you find the practice that best suits your needs.
Mindfulness meditation involves focusing on the present moment and observing and accepting your thoughts, feelings, and sensations without judgment.
This type of meditation can include meditating while sitting, as well as when undertaking everyday activities, like walking or eating. Mindfulness meditation can take some time to adjust to, but even a few minutes a day of mindfulness meditation can reduce stress and improve your mental well-being.
Progressive muscle relaxation (PMR) is a two-step technique that helps relieve stress and build awareness of body sensations. It involves progressively tensing and relaxing specific muscle groups throughout the body and noticing how the tension and release feel in each muscle group. PMR can increase body awareness, helping train your body and mind to release physical tension for deep relaxation.
Breath awareness meditation, or mindful breathing, focuses your attention on your breath. Observing your breath's natural rhythm and focusing on each inhalation and exhalation allows your mind and body to relax, cultivating inner peace. Research shows that breath awareness meditation can help improve focus, attention, and memory.
It can also reduce impulsive emotional behaviors, which may benefit people with impulse-related disorders, such as substance use disorder or binge eating disorder.
Mantra-based meditation involves repeating a mantra—a specific word, phrase, or sound—silently or aloud. As you repeat the mantra, your attention moves away from distracting thoughts and towards the present moment. Mantra-based meditation can help promote relaxation, improve focus, and deepen self-awareness and spiritual growth.
Guided meditation involves following a guide’s live or recorded instructions that lead you through specific meditation exercises.
The guide may encourage you to visualize specific imagery or scenery or walk you through various mantras or breathing exercises throughout the meditation. Guided meditation allows you to focus on relaxing and may be helpful for beginners or those who prefer structured meditation.
Transcendental Meditation (TM) involves silently repeating a mantra assigned to you by a certified instructor for 15 to 20 minutes at a time, twice a day. TM aims to transcend ordinary thought and achieve a state of pure relaxation, helping reduce anxiety and lower blood pressure.
Focused meditation involves directing your attention to a specific object, a visualization, sound, or physical sensation to keep your attention on the present moment. This practice trains your mind to improve focus and concentration while developing the ability to redirect your attention when it wanders.
Movement meditation incorporates physical movement into meditative practice. Examples include tai chi, Qigong, and walking meditation. These practices cultivate mindfulness by focusing on bodily sensations associated with movement. Movement meditation provides physical activity alongside mental focus, which may be ideal for those who struggle to sit still for long periods.
Visualization meditation involves imagining a peaceful scene or a specific personal goal or achievement. This technique uses the power of the mind to promote relaxation, enhance well-being, and help achieve personal goals or desired states of mind.
Spiritual meditation draws upon various religious or spiritual traditions. Practices may involve prayer, chanting, focusing on a deity, or contemplating spiritual texts. Spiritual meditation aims to deepen your connection to a higher power or cultivate inner peace and spiritual growth.
Mindfulness-Based Stress Reduction (MBSR) combines mindfulness meditation and yoga. It is an eight-week course developed by Jon Kabat-Zinn as a structured practice that aims to reduce stress, improve emotional regulation, and enhance overall well-being.
It is a popular meditation technique and complementary therapy for treating anxiety, depression, high blood pressure, chronic pain, and substance use disorders.
Loving-kindness meditation, also known as Metta meditation, cultivates feelings of compassion and goodwill toward yourself and others. Repeating phrases of kindness and well-being directed toward yourself, loved ones, and strangers fosters positive emotions and promotes a sense of connectedness and improved well-being.
Starting a meditation practice may seem a little intimidating initially, but it's a simple way to practice self-care and focus on the present moment. Like any new skill, meditation takes practice. Be patient with yourself and celebrate even small moments of calm. Here are a few tips to get started:
The time it takes to notice the benefits of meditation varies from person to person. Some people may immediately feel calmer and more relaxed after a single session, while others may need a few weeks of consistent practice to notice changes.
Research shows that even short meditation sessions can produce immediate benefits, such as stress reduction and improved focus. However, lasting changes in areas like anxiety relief, emotional regulation, and improved sleep may take several weeks of consistent practice.
Try not to feel discouraged if you don't experience rapid changes. With patience and consistency, you'll gradually cultivate the skills and benefits meditation offers.
Aim for a daily meditation practice, even for a few minutes, to maximize your meditation experience. Consistency builds the skills and discipline required to cultivate a practice that fosters inner peace and supports your well-being.
Incorporating meditation into your daily schedule may take trial and error until you find what works. Experiment with meditation sessions at different times of the day to find a schedule that integrates seamlessly into your routine. Morning meditation may be optimal for some people, while others prefer an evening session to help unwind before bed.
Ultimately, the ideal meditation frequency is the one you can stick with consistently.
Meditation, like any skill, requires consistent practice to maintain its benefits. When you stop meditating, the advantages you gain from your practice may gradually diminish over time.
While you won't lose the ability to meditate if you take a break, there may be some noticeable changes. For example, you may notice a gradual return of stress and anxiety symptoms or find your focus wandering more than it did when you were meditating regularly.
You can always return to your meditation practice. The skills you develop through meditation can make it easier to restart and quickly regain the benefits. Consistency is vital to maintaining the positive impacts of meditation, but there is always time to resume and reestablish the practice in your daily schedule.
Meditation is similar to physical exercise—the more you practice, the more you'll notice improved skills. But even people seasoned in meditating can find their practice challenged by a wandering mind or difficulty achieving a sense of calm. Here are some tips to elevate your meditation experience:
Meditation offers many benefits for your mind and body, including stress reduction, emotional regulation, and improved focus. There are many types to explore, from mindfulness or loving-kindness meditation to guided or walking meditations.
Begin with short sessions (five to 10 minutes) and aim for daily practice. Remember to be patient and gentle with yourself when you begin your meditation practice. Aim for presence, not perfection, and stay consistent to gain meditation's benefits.
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Greif TR, Kaufman DAS. Immediate effects of meditation in college students: a pilot study examining the role of baseline attention performance and trait mindfulness . J Am Coll Health . 2021;69(1):38-46. doi:10.1080/07448481.2019.1650052
Cearns M, Clark SR. The effects of dose, practice habits, and objects of focus on digital meditation effectiveness and adherence: Longitudinal study of 280,000 digital meditation sessions across 103 countries . J Med Internet Res . 2023;25:e43358. doi:10.2196/43358
Riordan KM, Simonsson O, Frye C, et al. How often should I meditate? A randomized trial examining the role of meditation frequency when total amount of meditation is held constant . J Couns Psychol . 2024;71(2):104-114. doi:10.1037/cou0000725
Carpena MX, Tavares PS, Menezes CB. The effect of a six-week focused meditation training on depression and anxiety symptoms in Brazilian university students with 6 and 12 months of follow-up . J Affect Disord . 2019;246:401-407. doi:10.1016/j.jad.2018.12.126
Geisinger Health System. How to meditate: 8 tips for beginners .
By Lindsay Curtis Curtis is a writer with over 20 years of experience focused on mental health, sexual health, cancer care, and spinal health.
Oxiline scale x pro review: your at-home version of a dexa scan.
It's easy to have a love-hate relationship with scales. Throughout my life, I've tried to put emphasis on how I feel in my body rather than how I look. This means paying less attention to my body weight and putting more emphasis on how much weight I can lift in the gym.
But as I've started to lean into data tracking to expand my longevity, I've realized that my contentious relationship with a scale needed to end—which led me to the Oxiline Scale X Pro .
The smart scale doesn't just track your weight. It also delivers a real-time breakdown of your bone mass, muscle rate, water weight, and body fat at every weigh-in. This makes using the scale feel less like being in high school gym class and more like completing an at-home DEXA scan .
After testing the smart scale , I've been surprised by how my relationship with a weekly weigh-in has shifted. I'm excited to see how different metrics shift based on changes in my routine—and I've found there's plenty of reason to be impressed with this smart bioimpedance (i.e., body composition) scale.
Oxiline is a medical device company that creates blood pressure monitors, oximeters, glucometers, TENS units, and smart scales.
The Scale X Pro is the brand's only scale, and it's FDA cleared like most of Oxiline's other products. This means the Food and Drug Administration found the scale's health benefits outweigh the risks (and puts the product on the pathway for FDA approval).
I've dealt with my fair share of scales throughout my lifetime, including scales that connect to a smartphone to help track your weight over time.
But the Oxline Scale X Pro was my very first smart scale and the first time I'd seen a scale provide a much deeper look into my body breakdown.
Here's what the smart scale tracks :
The Oxiline's sheer amount of data is almost overwhelming—and it's hard to imagine the 11-by-11-inch device can calculate that much information. But it all comes down to the ECHO™ Bio-Electrical Impedance Sensor .
Each scale has 12 auto-calibrating sensors that emit a high-frequency sound pulse through your body. It then uses a combination of user data (height, weight, and age) to calculate additional metrics.
Only eight of the device's 16 data points are shared directly on the scale's LED screen, such as bone mass, water weight, muscle weight, and BMI.
I found setting up the connection between the scale and iPhone via Bluetooth to be a super-simple process. The app provides easy step-by-step directions with visuals to walk you through the setup.
Other reviewers complained about issues connecting to the scale, but my iPhone notoriously has spotty Bluetooth and didn't struggle to connect .
Instead, the app was a useful tool for allowing me to track progress over time with a log of all my old data. It also gave me the option to set up daily reminders to weigh myself until it could become a more regular (and less daunting) habit.
Plus, it was cool to see how the Oxiline ecosystem of products could work together to track a range of data points in the app, allowing users to build an even more expansive understanding of their current health status.
During my first reading with the scale, I was almost overwhelmed by the amount of data coming my way—but it was a great reminder that BMI and weight alone are not always the best indicators of health.
Holistic physician Noemi Adame, M.D., previously explained the complication of just using weight to track your health by using the example of resistance training.
When you first start working out, your muscle mass often increases while your body fat decreases. Your body weight might stay the same and cause you to feel discouraged—even though important changes are happening below the surface.
The Oxline Scale X Pro provides insights into both of these metrics to help you gain a more holistic view of how your body is changed (and it even tracks some of Adame's other recommended metrics like basal metabolic rate and skeletal muscle mass).
Unfortunately, I've never done a DEXA scan, so I can't tell you how closely these numbers compare to the scale's data collection . However, I did play around with the scale to test out the precision and whether the ECHO sensors were actually legit.
Testing the sensors
The first test I played around with was not fully stepping on the scale. Instead, I just pressed one leg onto the scale until it hit the body weight of an average person (but kept the rest of my body off the scale).
I wanted to have a better understanding of whether sensors were actually going through my body—or just calculating data about my body based on the sex, height, and age data that I shared when making my profile.
While the weight populated on my phone screen, other metrics remained empty. The scale wasn't getting the essential feedback that it needed from the sensors to determine my body fat or muscle weight.
Testing the precision
My second test focused on precision. I wanted to see if the scale would give me the same exact weigh-in numbers from different rooms. I first placed my scale in the bathroom and took my numbers; I then moved the scale to my bedroom.
In the past, I've had scales change their reading within minutes (despite no actual changes like stripping off my clothes or eating and drinking).
I was surprised to see the Oxiline scale gave me the exact same data when I tested it minutes apart on different hard floors.
While I can't determine the scale's accuracy until I complete a DEXA scan, this felt like a useful way to at least understand the precision of my measurements.
Comparing data points
I also decided to compare the heart rate tracked by the Oxiline scale and my Whoop. I wanted to get an understanding of how similar (or different) these readers would be.
My Whoop is typically worn on my hand, while the scale calculates heart rates through your feet. Since chest readers are known to be the most accurate, I expected to see some discrepancies between these numbers.
I found the scale was about 20 BPM higher; however, I was slightly stressed about quickly reviewing my heart rate on the app and livestreaming from my Whoop tracker at the same time—which may have exaggerated the difference.
What are the pros & cons of the oxiline scale.
The Oxiline Scale has nearly 9,000 reviews on the brand's site with a 4.9 out of 5-star rating. The most common complaints about the scale focus on issues with Bluetooth connectivity, inconsistency with heart rate readings, and some inconsistency between accuracy and true DEXA scan readings.
However, my reviews are overwhelmingly positive with other testers sharing:
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Full body scans miss the mark when it comes to improving u.s. disease prevention.
Lisa Doggett
Consumers are paying cash for preventive health testing with full body scans, which typically use MRI technology. Mindful Media/Getty Images/E+ hide caption
The websites are tantalizing: “You can catch conditions before they become crises,” reads one. Another promises to make cancer “easier to beat” and claims it can detect “over 500 other conditions in up to 13 organs.” Full-body scans are attracting celebrity promoters , tech mogul investors and long waiting lists of people hoping to identify life-threatening conditions, usually more treatable in early stages.
Now offered by private companies in over a dozen U.S. cities, the scans commonly rely on magnetic resonance imaging (MRI), supported by artificial intelligence, to assess major organs for hidden disease. The scans, which are not covered by health insurance, take about an hour. They are then reviewed by radiologists before results and suggested next steps are shared with the customer.
Although I’m a believer in the power of prevention, I’m not taking the bait.
I’ve spent much of my 22-year career as a family doctor counseling patients on the benefits of screening for cancer and other chronic diseases, ordering appropriate tests and vaccines, and evangelizing about a healthy lifestyle. But this new race to sign up for full-body scans is troubling, given the scant evidence of benefit and the high price tags (as much as $2,500).
Instead of focusing on the dubious potential of these new scans, our nation should recommit to reaching everyone with established prevention strategies known to save lives.
Decades of research prove that regular screenings reduce illness and death. Age, risk and sex-based recommendations include testing for colon, breast, cervical and lung cancer; blood pressure checks for hypertension; and bone density tests for osteoporosis. Children need regular well-visits. Vaccines are available for everyone to prevent infections.
Thanks to the Affordable Care Act, most health plans now cover preventive services without cost-sharing by patients (i.e., copays and meeting deductibles).
Yet, according to Healthy People 2030 — a federal initiative to increase rates of preventive health care — only 5.3% of adults ages 35 and older in the United States received all recommended high-priority clinical preventive services in 2020, the last year for which numbers are available. That’s down from 8.5% in 2015.
Though most of us get some of the recommended services, nearly 95% of us are missing out on crucial opportunities to improve our health.
To check if you and your family are up to date on preventive services, see the MyHealthfinder tool.
Meanwhile, public demand is fueling the growth of Prenuvo and Ezra, the two main companies offering full-body MRIs. In February, Ezra announced that it had raised $21 million, with a plan “to be present” in 20 cities and 50 imaging centers by the end of this year. In October 2022, Prenuvo said that it had raised $70 million to fund expansion and technology enhancements.
Media coverage over the last year by major publications also reflects the public’s fascination with full-body scans.
If we could re-direct this enthusiasm to evidence-based — albeit less glamorous — methods to detect and prevent disease, we could avoid a lot of sickness and death.
Mammograms — low-dose X-rays of the breasts — for example, are recommended for average-risk women starting at age 40 to identify breast cancer before it spreads. According to the American Cancer Society , the five-year relative survival rate, which compares women with cancer to those in the overall population, is a remarkable 99% for early-stage breast cancer. But nearly a quarter of women ages 50-74 are not up-to-date with their mammograms. Numbers are similar for cervical cancer screening .
For colorectal cancer, one of the most common cancers in the U.S., just under 60% of adults ages 45 to 75 years had received appropriate screening in 2021.
The deficits aren’t limited to cancer. Less than half of people ages 2 and up get regular dental care . A quarter of pregnant people don’t receive early and adequate prenatal care .
A report released last year by the National Association of Community Health Centers estimated that over 100 million Americans don’t have reliable access to primary care, the usual source for most preventive care.
I’ve seen the consequences: a delayed breast cancer diagnosis in a middle-aged single mom, heart failure in an older man after years of unrecognized hypertension, uncontrolled diabetes in many others, raising the risk of damage to the heart, kidneys, nerves and eyes.
With all the benefits of preventive screening, one might argue, why not embrace full-body MRIs?
No preventive test is perfect. False positives are inevitable, creating anxiety and prompting additional investigation. We find — and even treat — early cancers that never would have spread, high blood pressure that never would have caused heart problems or a stroke.
Medical specialty societies, organizations such as the American Cancer Society, and the U.S. Preventive Services Task Force — an independent group of experts — regularly review the latest studies and update recommendations to guide selection of screening tests that balance risks with saving lives.
But with unregulated full-body scans, the guardrails are gone.
The very comprehensiveness of these tests is problematic. According to Dr. Richard Bruno, regent-at-large with the American College of Preventive Medicine, full body screenings in those without symptoms may lead to “incidentalomas” — benign findings in otherwise healthy people. Left undiscovered, many of these findings would never go on to cause problems, but “may warrant further testing and unnecessary procedures such as biopsies that can be costly and harmful,” Bruno said.
In fact, no major medical organization recommends full body scans in healthy individuals.
The U.S. needs to shift its lopsided and short-sighted health care spending to focus more on disease prevention. According to Rear Admiral Paul Reed of the U.S. Public Health Service, we spend about 17% of our gross domestic product on health care. Almost all of it goes to “after-the-fact disease management.”
“We have an ever-worsening burden of chronic disease in this country that is coming with an extraordinary cost,” Reed said.
The U.S. spent $4.5 trillion on health care in 2022 — far more than any other nation. Yet only about 3% was directed toward disease prevention.
COVID was a major blow to preventive care efforts, leading to a decline in screenings and vaccines that has been slow to rebound.
A large study led by researchers from the American Cancer Society, for example, showed that the number of women who reported having cervical cancer screening decreased by 4.4 million in 2021 compared with 2019. Breast cancer screenings were down by 1.1 million.
Cost concerns, fear of “finding something,” and geographic and time constraints also contribute to low rates of preventive services. Being uninsured or not having transportation or a primary care provider limit access. Vaccine hesitancy and refusal are at higher rates than before the pandemic.
Lack of awareness is an additional barrier. In my practice, I regularly see patients who don’t know that they are due for colon cancer screening or hepatitis B vaccination.
Clinicians, too, may be confused about the guidelines, which change periodically. Breast cancer screening has created enormous controversy over the years, with reputable organizations disagreeing about when to initiate and how often to repeat mammograms. Pneumococcal vaccine recommendations are so complicated that I routinely have to consult the Centers for Disease Control and Prevention’s website.
The solutions have to start with better communication between doctors and health care systems. Electronic records have the potential to notify busy clinicians when preventive interventions are overdue, but not all systems are equally effective.
Overall, we need a shift in focus from disease treatment to upstream avoidance, including well-funded educational campaigns to highlight the importance of prevention. Targeted outreach to communities known to have low rates of screening or challenges accessing services can improve rates of life-saving tests.
Reed contends that lessons from the pandemic may provide an opportunity to improve acceptance of preventive care. “I believe we — the public health and medical community — ought to leverage the heightened awareness of personal health, right now, and more deliberately engage the public on the importance of [clinical preventive services],” he said.
Full-body scans offer a tempting but unsubstantiated path to good health. If costs and rates of false positives can be reduced, the scans someday may find a place on a list of preventive care recommendations.
For now, however, tried-and-true strategies, from cancer screenings to vaccines, are the most effective way to safeguard our long-term well-being.
“The old adage that an ounce of prevention is worth a pound of cure,” Reed said, “is probably grossly underestimated.”
This story comes the nonprofit news outlet Public Health Watch.
Lisa Doggett is a family and lifestyle medicine physician at UT Health Austin’s Multiple Sclerosis and Neuroimmunology Center and senior medical director of Sagility. She is the author of a new memoir, Up the Down Escalator: Medicine, Motherhood, and Multiple Sclerosis .
The views expressed in her columns do not necessarily reflect the official policies or positions of Public Health Watch, UT Health, or Sagility. Doggett can be reached through her website .
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Body scan only had small effect on mindfulness when compared with passive control (Hedge's g = .268, 95% CI = [0.032, 0.504], p < .05). The attrition rate of long-term interventions was low. The quality of these studies was low. There was high heterogeneity across studies. A sole body scan meditation is not effective enough to improve health ...
Body scan meditation has been found effective in improving self-acceptance, increasing kind behaviors toward oneself, ... Further research could address these issues by having participants engage in more than one session and collecting additional data, including a follow-up assessment. Secondly, all the participants were dog guardians, so care ...
Mindfulness may also refer to a particular meditation - whether it is an open-monitoring meditation, breathing mediation, or body scan ( Van Dam et al., 2017 ). Mindfulness has been conceptualized as a mental faculty relating to attention, awareness, memory, or discernment ( Davidson and Kaszniak, 2015 ).
Nervous system response to body scan meditation. Generally, research studies of mindfulness include the entire program (Grossman et al., 2004). There have been a few studies that attempted to specifically examine the effects of body scan meditation. The purpose of these studies was to clarify the benefits of specific practices within the MBSR ...
These results indicate that the use of a body scan mindfulness meditation in CBTI may have an additional positive effect on sleep, above and beyond traditional CBTI techniques. ... Research on mechanisms and mediators of adult CBTI has provided support for most of the theoretical factors of insomnia (Schwartz and Carney 2012). ...
Objectives The main aim of this paper was to investigate the processes by which body scan meditation (BSM) increases happiness. We hypothesized that BMS would lead to a transition from the narrative self to the minimal self, but also and more importantly to a transition from the minimal self to a state of more unified consciousness characterized by both self-loss and oneness. Methods ...
Emotional eaters in the body scan meditation group experienced a significantly greater decrease in negative affect and food cravings post-intervention compared to those in the control group. ... Recent research has shown that the body scan meditation can improve emotion regulation (Ng et al., 2021; Price & Hooven, 2018) and decrease negative ...
Finish your body scan by moving all the way down to your feet and toes, bringing awareness to those areas of the body and how they feel. End the process gently. Slowly bring your attention back to ...
More generally, in the field of mindfulness and mindfulness meditation, Body Scan Meditation (BSM) is a body-centered practice transversal to several popular mindfulness-based interventions aimed at reducing individuals' stress, and relieving their suffering. ... Our research produced relevant results showing the beneficial effects of single ...
One of the most accessible meditation practices is a body scan meditation, during which you bring attention to your body, noticing different sensations, as you mentally scan down, from head to toe. ... Research shows that mindfulness meditation — and body scan meditation in particular — has many mental and physical benefits including ...
The body scan can be performed while lying down, sitting, or in other postures. The steps below are a guided meditation designed to be done while sitting. You can listen to audio of this three-minute guided meditation, produced by UCLA's Mindful Awareness Research Center (MARC), in the player; if it doesn't play, you can find it here or ...
Body scan meditation is a technique to help you increase awareness of your body and really truly assess how you're feeling. Basically, it's a way for you to become more connected with yourself. To help us look inward, we're joined by functional medicine specialist, Melissa Young. Dr.
Reduced anxiety and stress. Better emotional regulation. Increased self-awareness. Because body scan meditation improves awareness, it helps people learn to better recognize and respond to their own internal signals. The body scan meditation is a very useful and effective meditation that can help you return to and maintain a relaxed state when ...
Lead author Gunes Sevinc, a research fellow in Lazar's laboratory says, "By directly comparing the body-scan meditations, ... between brain regions associated with present-moment awareness and bodily attention increased during both types of body-scan meditation. But each program also showed unique patterns of brain activity, in line with ...
Try these steps to practice body scan meditation: Step 1. Take several deep breaths. Breathe from your belly and not your chest, and continue to do so until your breathing rhythm slows down. To ...
Research has shown that regular practice of body scan meditation can lead to increased gray matter density in areas of the brain associated with emotion regulation and self-awareness. These changes in brain structure may contribute to the positive effects of body scan meditation on stress reduction and mental health.
7. Improves focus. Body scan meditation, like other types of mindfulness, gently forces you to focus and pay attention. Mindful practices, including body scan meditation, help improve your attention, concentration, and focusing skills with the potential to keep your brain sharp as you age ( Zanesco, 2018 ).
1. Pair your meditation with a sound bath. To take your meditation up a notch, Schieffelin recommends incorporating a sound bath. "I find that combining the guidance of a body scan with the healing sounds of crystal alchemy bowls really helps people to relax into a deeper experience of meditation and healing," she tells mbg. 2.
Step 2: Close the eyes. Step 3: Deepen the breath and bring awareness to the body. Step 4: When ready, breathe in and bring awareness to either the head or toes. If sensations are already ...
Advanced meditation lends itself to modern, empirical scientific study for several reasons, one of which is the robust research foundation provided by decades of studies from the prior waves.
1. Introduction. Mind and body practices such as yoga, meditation, progressive relaxation, or guided imagery use mental and physical abilities to improve health and well-being. Over the past decade these practices have received increasing attention in different fields of study in which the physiological mechanisms underlying the beneficial ...
Research suggests that mindfulness meditation practices, such as body scanning, can help improve depression, anxiety, pain symptoms, and overall quality of life for people living with chronic pain. Through modern brain scan imaging, neuroscientists have been able to demonstrate that mindfulness meditation practices can lead to lower self ...
Body scan meditation is a form of mindfulness meditation that involves observing sensations in different parts of our bodies, usually from head to toe. The practice is often used to promote relaxation and present-moment awareness, helping improve mental health and overall well-being.. Body scanning originates from Buddhism and is deeply rooted in the practice of Vipassana, which means "to ...
Body scan is more than a relaxation technique; it serves as a bridge between the mental and physical realms. Regular practice can foster heightened awareness, alleviate stress. and potentially ...
Reduces stress and anxiety: Meditation is a powerful tool for managing stress and anxiety.Studies show meditation can lower cortisol levels, the stress hormone, promoting a calm and relaxed state. Enhances emotional regulation: Research shows that meditation cultivates emotional awareness, promotes compassion for self and others, and enhances emotional stability and resilience.
The Oxiline's sheer amount of data is almost overwhelming—and it's hard to imagine the 11-by-11-inch device can calculate that much information. But it all comes down to the ECHO™ Bio-Electrical Impedance Sensor. Each scale has 12 auto-calibrating sensors that emit a high-frequency sound pulse through your body.
Decades of research prove that regular screenings reduce illness and death. Age, risk and sex-based recommendations include testing for colon, breast, cervical and lung cancer; blood pressure ...