Vibroacoustic Therapy Beds vs. Vibration Plates: Why They Work Differently Than You Think

Both use vibration. The overlap is real, but so are the differences.

I get this question a lot: "If I already have a vibration plate, do I need a vibroacoustic bed? Aren't they basically the same thing?"

Short answer: they share more common ground than most people realize, but they also diverge in ways that matter.

Both deliver mechanical vibration to the body. Both have legitimate research behind them. At a cellular level, vibration is vibration, and some of the same mechanisms are at work in both modalities. But the systems they emphasize, the way they deliver that vibration, and what it actually feels like to use each one are meaningfully different. Most of what you'll read online glosses over the nuance, either lumping everything under "whole body vibration" or treating them as completely unrelated. The reality is somewhere in between.

This post doesn't do that. I'll break down where the two modalities genuinely overlap, where they diverge, what each one can't do, and how the Zenthesia Sound Therapy Bed 2 fits into the picture.

How Vibration Plates Work: The Tonic Vibration Reflex

A whole body vibration plate uses one or more motors to produce mechanical oscillation, typically between 15 and 60 Hz. The amplitude (how far the platform physically displaces) can be quite high, often measured in millimeters. This is what gives plates their distinctive, aggressive shake.

That high amplitude is the point. It's what triggers the tonic vibration reflex (TVR), the primary mechanism behind how plates work. When high-amplitude vibration physically stretches your muscle tissue, muscle spindles fire, sending signals through spinal reflex arcs that cause involuntary contraction. You don't decide to contract. Your nervous system does it for you. Research from Martin and Park (1997) found that TVR response peaks between 30 and 50 Hz and tapers off above 150 Hz as frequencies exceed the mechanical resonance of biological tissues.

The downstream effects of TVR are what make plates effective: increased blood circulation (muscles contracting and relaxing acts as a pump), enhanced lymphatic drainage, improved muscle tone and activation, and bone density stimulation through repetitive mechanical loading. A 2024 review in Frontiers in Neurology found that WBV protocols using frequencies of 20 Hz and above showed benefits for motor function, immune response, and neuromuscular performance. Other research has demonstrated benefits for weight management, cognitive function, chronic low back pain, and balance in older adults.

Types of Vibration Plates

Not all vibration plates move the same way, and the movement pattern matters. There are three main types:

Linear (vertical) plates move straight up and down. This is the most direct form of mechanical loading. The vertical displacement simulates ground reaction force, delivering 30 to 50 micro-hits of gravity per second. This makes linear plates particularly effective for bone density stimulation, because the compressive force is aligned with how bones naturally bear weight. They're also the most comfortable and accessible for beginners and seniors. The tradeoff: amplitude is limited (usually under 2mm), and research shows effectiveness drops above 40 Hz because the body can't keep up with the platform speed at such small displacement, essentially hovering rather than being driven through the full range of motion.

Pivotal (oscillating) plates tilt side to side like a seesaw, alternating the left and right sides around a central pivot. This mimics the natural rotation of the hips during walking gait, which makes the movement feel more intuitive and engages a broader range of muscles than linear vibration. A 2024 review by Simon et al. in the Journal of Clinical Medicine found that rotational WBV engages more muscle groups and produces greater neuromuscular activity than vertical WBV, with recruitment of more motor units and increased isometric muscle activation. Pivotal plates also allow higher amplitude (up to 10mm) and transmit 71 to 189% less vibration to the head compared to linear plates. Because of their lower risk profile, they're often recommended for patients with chronic pain.

Tri-planar (3D) plates move in all three axes simultaneously: up and down, side to side, and front to back. This is the most intense proprioceptive challenge. The multidirectional instability forces your body to recruit the widest range of stabilizing muscles, improving balance, coordination, and spatial awareness. Tri-planar plates are favored by professional sports teams, rehab clinics, and advanced fitness users for their ability to maximize neuromuscular activation. The tradeoff is intensity: the vertical component can be harder on joints, and these plates are generally not recommended for beginners.

Each movement type has genuine advantages. Planar movement, especially tri-planar, creates something vibroacoustic beds simply cannot: a proprioceptive challenge. When the ground beneath you is shifting in three dimensions, your body has to sense that instability and fire stabilizing muscles to correct it. That's functional neuromuscular training, and it's a meaningful benefit for athletes, aging populations, and anyone in rehabilitation.

That said, the frequency control on all three types is limited. Whether linear, pivotal, or tri-planar, you're still getting motor-driven vibration at a single fixed frequency (or a narrow range), entering through one contact surface (your feet), while your body is in an active, weight-bearing position.

How Vibroacoustic Beds Work: Different Emphasis, Different Pathways

A vibroacoustic bed uses audio-driven transducers instead of a motor. This means the vibration isn't locked to a single frequency. It can deliver specific therapeutic frequencies, layer multiple frequencies simultaneously, or reproduce full-spectrum music as a tactile, full-body experience. The amplitude is lower than a vibration plate, but the precision and variability are in a completely different category.

That lower amplitude is actually important. TVR requires enough mechanical displacement to physically stretch muscle fibers. Transducers don't deliver that kind of force. The two modalities do share several core mechanisms at a cellular level, which I'll cover in their own section below. But vibroacoustic therapy also emphasizes pathways that plates don't reach. A comprehensive 2021 review by Bartel and Mosabbir in Healthcare mapped the mechanisms of sound vibration on human health across hemodynamic, neurological, and musculoskeletal categories, and their key finding is that the mechanisms vibration activates depend heavily on amplitude, frequency, delivery method, and body position.

Here's what the VAT research actually points to:

Full-body mechanoreceptor activation. Both modalities activate mechanoreceptors (covered in the overlap section below), but the delivery is fundamentally different. On a plate, vibration enters through the feet and attenuates as it travels up through the skeleton. On a vibroacoustic bed, vibration is delivered across the entire body simultaneously in a supine position, activating a massive network of sensory receptors from head to feet at once. This simultaneous, full-body somatosensory input is what makes the experience so physically immersive, and it's a scale of receptor activation that standing vibration simply can't replicate.

Parasympathetic nervous system activation. Multiple studies have measured increased heart rate variability (HRV) during and after vibroacoustic sessions, indicating a shift toward parasympathetic dominance. This is the "rest and digest" branch of your autonomic nervous system. The supine position, rhythmic stimulation, and full-body contact appear to activate the vagus nerve and downregulate the sympathetic stress response. A 2024 study published in MDPI Sensors found that vibroacoustic stimulation increased parasympathetic nervous system activity and reduced physiological and cognitive stress markers.

Brainwave entrainment. Low-frequency vibration can entrain cortical oscillations, meaning your brainwaves begin to synchronize with the frequency of the incoming vibration. A 2016 study in Brain Topography (Sandler et al.) found increased EEG theta power during vibroacoustic stimulation, associated with deep meditative states and positive emotional experience. A 2024 study (Fooks and Niebuhr) found EEG changes consistent with increased concentration and relaxation. The leading theoretical framework for why this matters comes from neurologist Rodolfo Llinas, whose work on thalamocortical dysrhythmia (TCD) shows that the brain's thalamus and cortex communicate through rhythmic oscillatory loops, with gamma activity (around 40 Hz) playing a critical role in cortical function. When these loops become dysrhythmic, the disruption is linked to conditions including Parkinson's disease, major depression, neurogenic pain, and tinnitus. Bartel and Mosabbir connect this to findings that 40 Hz vibrotactile stimulation drove fast-spiking interneurons in Alzheimer's mice, reducing amyloid plaques and inflammation. This is why 40 Hz keeps appearing in VAT research protocols: it may be targeting the brain's own regulatory rhythm. The mechanisms are still being fully mapped, but the convergence of evidence around thalamocortical regulation gives the entrainment effect a stronger theoretical foundation than "vibration makes your brain relax."

Vibratory analgesia. Vibration has been shown to reduce pain perception through multiple mechanisms. The most commonly cited is gate control, where vibrotactile input carried by large-diameter nerve fibers competes with and suppresses pain signaling at the spinal cord level. But research cited by Bartel and Mosabbir points to a more specific mechanism: adenosine release. Salter and Henry found that vibration at 80 Hz depressed nociceptive neurons in the dorsal horn, and critically, the analgesic effect persisted for up to four hours after stimulation ended. Testing revealed that adenosine, not just mechanical gating, was mediating the pain reduction. This may explain why VAT studies frequently report lasting benefits in chronic pain populations, not just relief during the session itself.

GABA upregulation. One of the more concrete neurochemical findings in vibration research involves gamma-aminobutyric acid (GABA), the brain's primary inhibitory neurotransmitter. GABA plays a crucial role in reducing neural excitability and is directly involved in the regulation of fear and anxiety. Animal studies by Safarov and Kerimov found that low-frequency vibration at 20 Hz increased GABA levels in the brain stem, cerebral hemispheres, and cerebellum, along with increased activity of the enzyme that produces it. Notably, the effect was more pronounced with 30-minute sessions than with prolonged exposure, suggesting a dose-response curve where moderate duration matters. While this research is still in animal models, it offers a plausible neurochemical mechanism for why people consistently report deep calm during and after vibroacoustic sessions: the vibration may be directly boosting the brain's own calming chemistry.

Hemodynamic effects. Vibration stimulates endothelial cells to produce nitric oxide (NO), which regulates blood flow and vascular tone. Bartel and Mosabbir documented that this NO release occurs across a remarkably wide range of frequencies and delivery methods: from whole body periodic acceleration at 2 Hz, to direct skin vibration at 47 and 50 Hz, to sonic vibration applied to the chest at 100 Hz, to surface vibration at 150 to 250 Hz. The mechanism appears to be frequency-independent in a broad sense, firing wherever vibration creates pulsatile stress on endothelial cell walls. One study found that 50 Hz vibration applied directly to the forearm increased NO production by 374% in healthy subjects and 236% in diabetic subjects, with significant increases in skin blood flow in both groups.

Where the Two Modalities Genuinely Overlap

Before getting into what each modality can't do, it's worth giving the shared ground its own spotlight. Bartel and Mosabbir address this directly in their 2021 review, arguing that WBV and VAT are not fundamentally different at the mechanism level. The differences are in delivery method, amplitude, body position, and emphasis. But several core mechanisms are the same regardless of whether the vibration comes from a motor under your feet or a transducer under your back.

Nitric oxide and circulation. This is the most clearly documented overlap. Vibration creates pulsatile stress on endothelial cells, triggering nitric oxide production through the eNOS pathway. This happens across a remarkably wide range of frequencies and delivery methods. Whether you're standing on a plate at 30 Hz or lying on a bed receiving 40 Hz through transducers, your endothelial cells are responding to the same mechanical stimulus and producing the same vasodilator. Both modalities enhance blood flow. The amplitude, contact surface, and body position differ, but the cellular mechanism is identical.

Mechanoreceptor activation. Your skin and deep tissues contain Pacinian corpuscles (sensitive up to 1,000 Hz), Meissner's corpuscles, and Ruffini endings. These receptors translate physical vibration into neural signals regardless of whether the vibration source is mechanical or audio-driven. A plate activates mechanoreceptors primarily through the feet. A bed activates them across the entire body surface. The downstream processing differs (a plate triggers more proprioceptive and motor signaling, a bed triggers more somatosensory and interoceptive signaling), but the receptor-level response to vibration is the same biology.

Vibratory analgesia. Both modalities can reduce pain perception. The Salter and Henry research on adenosine-mediated pain suppression used vibration at 80 to 250 Hz applied directly to skin, a frequency range that spans both WBV and VAT territory. Gate control theory, where large-diameter nerve fiber input competes with and suppresses nociceptive signaling at the spinal cord level, also applies to vibration from either source. The difference is that a bed delivers vibration across more body surface area in a parasympathetic context, which may explain why VAT studies tend to report longer-lasting effects in chronic pain populations.

Cellular mechanotransduction. At the most fundamental level, Piezo1 and Piezo2 mechanosensitive ion channels in tissues throughout the body respond to mechanical vibration regardless of its source. These channels trigger cascades of signaling molecules that affect cellular and metabolic physiology. Both modalities tap into this same basic biological response to vibration. What differs is the amplitude, the frequency range, the body position, and consequently which downstream pathways get emphasized.

Anti-inflammatory signaling. WBV research has shown reduced expression of toll-like receptors (TLR2 and TLR4) and decreased inflammatory markers after vibration exposure. VAT research shows similar patterns of reduced physiological stress markers. The mechanism likely traces back to the shared nitric oxide pathway and mechanotransduction signaling. Both modalities appear to nudge the body's inflammatory response in a favorable direction, though through different amplitudes and contact surfaces.

Lymphatic support. Both modalities promote lymphatic drainage, though through different primary drivers. Plates drive it through the muscle pump effect: the TVR-induced cycle of contraction and relaxation physically pumps lymphatic fluid. Beds drive it through direct tissue stimulation and enhanced circulation via the NO pathway. Different mechanisms, same downstream benefit.

What a Vibroacoustic Bed Can't Do

It's worth being direct about where vibroacoustic beds fall short compared to vibration plates, because the differences are real.

No proprioceptive challenge. Proprioceptive training requires instability. Your body has to sense that it's being displaced and fire stabilizing muscles to correct its position. On a vibroacoustic bed, you're lying down, fully supported. There's no balance challenge, no postural correction demand, and no stabilizing muscle recruitment in the way that even a basic vibration plate provides, let alone a tri-planar one. If improving balance, coordination, and spatial awareness are your goals, a vibroacoustic bed is not the tool for that job.

Limited bone density stimulation. Bone remodeling responds to compressive mechanical loading, specifically forces aligned with how bones naturally bear weight. Standing on a vibration plate while gravity pulls you down creates exactly that kind of loading. Lying on a bed doesn't. The vibration still reaches bone tissue, but without the weight-bearing component, the osteogenic stimulus is significantly reduced.

No ground reaction force training. Every time your foot hits the ground while walking or running, the ground pushes back. Training your body to tolerate and respond to that impact is part of what makes vibration plates useful for functional fitness and fall prevention. A tri-planar plate delivers 30 to 50 micro-hits of simulated ground reaction force per second. A vibroacoustic bed delivers zero.

No dynamic exercise pairing. One of the most effective uses of vibration plates is performing exercises on them: squats, lunges, planks, push-ups. Combining traditional resistance movements with WBV compounds the benefits of both. You can't do any of that on a bed. A vibroacoustic bed delivers passive vibration. You may feel subtle muscle engagement from mechanoreceptor stimulation, but you're not doing functional work against resistance.

Where Vibroacoustic Beds Excel

The flip side is equally important. There are categories of therapeutic benefit where vibroacoustic beds have clear advantages, and where vibration plates either can't reach or aren't optimized. Some of these represent genuinely different pathways. Others are a matter of degree.

Interoception and somatic awareness. Proprioception (which plates train well) is your awareness of where your body is in space. Interoception is your awareness of what's happening inside your body: your heartbeat, your breath, your gut, your internal tension. A 2023 study from Emory University found that vibroacoustically-augmented breath-focused mindfulness improved interoceptive awareness (specifically "body trusting") in trauma-exposed individuals with dissociative symptoms. The broader VAT literature regularly reports subjective experiences of heightened body awareness, though formal interoception measurement in VAT-only studies is still limited. The supine, relaxed position combined with coherent vibration through the full body creates conditions favorable for deepened body awareness, something that's difficult to access while standing and bracing against instability.

Frequency specificity and variable delivery. A vibration plate delivers one motor-driven frequency through your skeleton from a single contact point. A vibroacoustic bed can deliver specific frequencies, layer multiple frequencies simultaneously, or play full-spectrum music as tactile vibration across your entire body surface. VAT research protocols use specific frequencies for specific conditions: 40 Hz is predominant in pain and neurological research, while other frequencies target different therapeutic outcomes. Some researchers theorize this relates to tissue resonance, though that mechanism is still more theoretical than proven. What is established is that the ability to select, vary, and sequence frequencies gives vibroacoustic beds a degree of therapeutic precision that a fixed-frequency plate cannot match.

Emotional processing and trauma support. The combination of parasympathetic activation, full-body vibration immersion, and a safe, supported supine position creates conditions that clinicians working with trauma populations find valuable. The same Emory study found neurological changes consistent with improved interoceptive processing and emotional regulation in trauma-exposed participants. VAT is beginning to appear in mental health settings and psychotherapy-assisted protocols. For people working through trauma, grief, chronic stress, or emotional dysregulation, the parasympathetic context of a vibroacoustic session matters. A vibration plate activates your sympathetic nervous system: your body is fighting instability, muscles bracing, attention directed outward. A vibroacoustic bed promotes the opposite. The research here is still early, but the clinical rationale is sound.

Sleep and insomnia support. Early research suggests vibroacoustic therapy can improve sleep. A 2020 study (Zabrecky et al.) found that vibroacoustic stimulation improved sleep metrics in insomnia patients, and the Naghdi et al. (2015) fibromyalgia study reported sleep quality improvements as a secondary outcome. Anecdotally, many people fall asleep during sessions, which makes sense given the measured parasympathetic shift and brainwave downregulation. For people dealing with insomnia, hypervigilance, or difficulty transitioning into rest, the supine, parasympathetic-activating nature of a vibroacoustic session addresses the problem more directly than standing on a vibrating platform.

Accessibility for immobile and fragile populations. This is a practical advantage with enormous implications. People who physically cannot stand on a vibration plate (wheelchair users, post-surgical patients, elderly individuals with fall risk, palliative care patients, those with severe cerebral palsy, or individuals in neonatal care) can receive full vibroacoustic therapy with zero physical effort or ability required. VAT is entirely passive. You lie down. The vibration does the work. This makes it one of the only vibration modalities accessible to the populations who often need it most.

Simultaneous multimodal therapy. A vibroacoustic bed can be combined with guided meditation, breathwork, psychotherapy, ketamine-assisted or psychedelic-assisted therapy, light-based neurostimulation (like the roXiva RX1), and music therapy in a single session. You can layer modalities because the person is lying down, relaxed, and receptive. Try doing guided breathwork or a therapy session while standing on a tri-planar vibration plate. The platform is a fitness tool. The bed is a therapeutic environment.

Direct cranial and cortical engagement. A vibroacoustic bed delivers vibration directly to the cranium through the bed surface, stimulating somatosensory pathways in ways that standing vibration does not. A 2025 EEG study (Fooks et al., MDPI) found that vibroacoustic stimulation produced measurable changes in two cognitive state markers (concentration and relaxation), compared to one for guided meditation and zero for the control group. On a plate, vibration reaches the brain indirectly, transmitted up through the skeleton from your feet. Research actually shows that linear plates transmit 71 to 189% more vibration to the head than pivotal plates, but this is considered a negative side effect, not a therapeutic feature, because the vibration is uncontrolled mechanical shake, not controlled frequency delivery.

Why Body Position Changes Everything

This is one of the most underappreciated differences between the two modalities.

On a vibration plate, you're standing upright. Gravity is compressing your spine, your muscles are braced and weight-bearing, and the vibration travels vertically from a single contact point. This is great for musculoskeletal conditioning. Your body is in an active, engaged state.

On a vibroacoustic bed, you're lying down in a fully supported, supine position. Your spine is decompressed, your muscles can actually relax, and the vibration is delivered across your entire body simultaneously through multiple transducers. Mechanoreceptors throughout your body are being stimulated, circulation is enhanced, but your nervous system is simultaneously downregulating. You're getting tissue stimulation and deep relaxation at the same time. That's something a vibration plate simply can't offer.

The supine position also means vibration reaches your full torso, chest cavity, and cranium much more directly than through skeletal transmission from the feet. This broader contact area is likely why VAT studies consistently show parasympathetic activation (suggesting vagal involvement) and measurable EEG changes. You're not just stimulating extremities. The vibration is reaching your core.

There's one more dimension to the supine position worth noting. Multiple studies cited in the Bartel and Mosabbir review found that vibration in the 0 to 200 Hz range increased expression of aggrecan, collagen, and other structural proteins in intervertebral disc tissue, producing anabolic effects that counteract disc degeneration. Since disc degeneration is a major contributor to chronic back pain, and since a vibroacoustic bed delivers vibration directly through the spine while the spine is decompressed, the delivery method may be uniquely suited to reach these structures. This is early-stage research, and we're not making clinical claims about disc regeneration. But the combination of frequency range, direct spinal contact, and decompressed posture is a convergence worth watching as the science develops.

Side-by-Side Comparison

Where the Zenthesia Sound Therapy Bed 2 Fits

So if vibroacoustic therapy works through these mechanisms, the natural question is: what makes one bed better than another? Most beds on the market run 50 to 200 watts with transducers topping out around 80 to 200 Hz. That's enough to feel bass, but it limits the therapeutic range and the fidelity of the tactile experience.

The Zenthesia Sound Therapy Bed 2 was designed to close that gap. Here's what sets it apart:

600 watts of clean power. Powered by a professional Crown XLS DriveCore 2 amplifier, the same series trusted by touring audio professionals. This is pro audio gear from Harman International (the company behind JBL and AKG) with published specifications: THD below 0.5% and SNR exceeding 103dB. Most competitors run 50 to 200 watts through consumer-grade or unspecified amplifiers.

10 Hz to 1000 Hz tactile frequency response. Our high-fidelity tactile transducers deliver the widest published frequency response of any vibroacoustic bed we're aware of. This covers the primary therapeutic frequency range used in VAT research (30 to 120 Hz), extends down to 10 Hz for deep somatic work, and reaches up to 1000 Hz where you can feel individual instruments, vocals, and harmonic detail. Most competitors top out between 80 and 200 Hz.

Reactive suspension technology. While every other vibroacoustic bed we've evaluated uses mechanical suspension transducers (which rely on physical springs that can introduce resonance peaks and uneven response), our high-fidelity tactile transducers use reactive suspension for more linear, controlled movement across the frequency spectrum. The result is cleaner, more accurate vibration reproduction with polyphonic clarity. You feel distinct instruments and frequencies, not just a blur of bass.

4 x 150W RMS transducers. Each of our four transducers handles 150 watts of continuous power. Combined with 600 watts of amplification, this gives the Zenthesia bed significantly more vibrational headroom than any competitor. You can run deep, powerful therapeutic sessions or subtle, nuanced frequency work without distortion at either end.

Fully customizable PureBand Digital Crossover. Most competitors either lock you into a fixed low-pass filter (often around 200 Hz) or offer a narrow adjustment range. The Crown amplifier's PureBand crossover lets you dial in exactly what frequencies reach your transducers, giving practitioners and enthusiasts full control over the tactile experience.

Open platform. Connect any audio source via Bluetooth or 3.5mm aux. No proprietary apps, no subscription fees, no locked content libraries. Your music, your frequencies, your sessions.

Handcrafted in Austin, TX. Every bed is built by hand with artisan attention to detail. Direct founder support means when you call, you talk to me.

Why Power and Frequency Range Matter

If vibroacoustic therapy works primarily in the 30 to 120 Hz range, why does a wider frequency response matter?

Because therapeutic frequency delivery is only part of the equation. When you play music through a vibroacoustic bed, the richness of the tactile experience depends on how much of the audio spectrum you can feel. A bed that cuts off at 80 or 200 Hz turns music into a low rumble. A bed that extends to 1000 Hz lets you feel the body of a cello, the attack of a piano, the texture of a human voice. This matters for practitioners using music-based protocols, for meditation and breathwork sessions, and for anyone who wants the full immersive experience.

The same goes for power. Underpowered systems have to run at or near their maximum output to produce meaningful vibration, which introduces distortion and limits dynamic range. With 600 watts driving transducers rated for 150W each, the Zenthesia bed operates with significant headroom. Clean power at any volume. Subtle when you need subtle. Deep and powerful when the session calls for it.

The Research at a Glance

For those who want to go deeper, here are some of the key studies for both modalities:

A note on research maturity: WBV plate research has a much larger body of literature, with dozens of meta-analyses and hundreds of controlled trials across multiple populations. VAT research is growing but still relatively early-stage. Many VAT studies have small sample sizes and limited controls, and a 2022 scoping review (Kantor et al., BMJ Open) noted that the research remains too sparse for definitive identification of specific VAT pain management characteristics. The results are promising and clinically consistent, but anyone telling you VAT is as thoroughly validated as WBV plate therapy isn't being straight with you. We think honesty about the state of the evidence matters more than overclaiming.

The Bottom Line

Both tools deliver vibration, and as covered above, they share real cellular mechanisms. That foundation is worth acknowledging.

Where they diverge is in emphasis. Plates optimize for musculoskeletal conditioning through involuntary contraction, mechanical loading, and proprioceptive challenge. Beds optimize for nervous system regulation through mechanoreceptor stimulation, parasympathetic activation, and brainwave entrainment. One asks your body to fight. The other asks your body to receive.

I have a Power Plate Move in my home and use it regularly. I also lie on the Zenthesia Sound Therapy Bed 2 almost every day. The experiences aren't even in the same category. The Power Plate is active work that lights up my legs and gets my blood moving. The bed is deep, full-body immersion that resets my nervous system. I would not give up either one.

If you want both, get both. They complement each other because they do completely different things. And if you have questions about which path makes sense for you, I'm a phone call away.