The Science Behind The Technologies

The technologies in HOCATT have been studied. Here’s what the research shows.

Far-infrared, transdermal ozone, carbonic acid, hyperthermia, PEMF, microcurrent, photon light, concentrated oxygen, essential oils, and UV. Each one has been the subject of peer-reviewed research. Below are the documented physiological responses each technology has been shown to produce in the body.

2,182
documented physiological responses
95
biological pathways
10
technologies in a single session

By technologyExplore the science by modality

Each technology has its own published research base. Click any to see the physiological responses it’s been shown to produce.

Transdermal Ozone

Ozone (O₃) absorbed through the skin during a steam session.

1282 documented responses →

Carbonic Acid

CO₂-rich steam that interacts with skin to engage the Bohr effect.

119 documented responses →

Hyperthermia / Steam

Whole-body heat that raises core temperature ~2°C.

134 documented responses →

Pulsed Electromagnetic Fields

Low-intensity pulsed fields engaging cellular calcium channels.

127 documented responses →

Microcurrent

Sub-sensory electrical stimulation at therapeutic μA dosing.

88 documented responses →

Far Infrared (FIR)

Far-infrared wavelengths absorbed by tissue.

30 documented responses →

Photon Light / Chromotherapy

Visible-spectrum light delivered during the session.

50 documented responses →

Concentrated Oxygen Breathing

Supplemental oxygen via a breathing tube during the session.

66 documented responses →

Essential Oils / Aromatherapy

Volatile aromatic compounds delivered via vapor.

61 documented responses →

UV (byproduct of ozone)

Low-dose UV produced as part of the ozone generation cycle.

1 documented responses →

All responsesEvery physiological response, in plain English

Each one links to a detail page with the published research behind it and what it means for an average person.

Transdermal ozone interacts with skin lipids to generate signaling molecules that boost local perfusion and oxygen delivery to tissues. The result is more oxygen reaching cells, where mitochondria use
Enhanced cellular respiration and energy production
well-supportedtransdermal-ozone
ozone exposure generates lipid oxidation products and hydrogen peroxide in tissue
Triggers adaptive cellular stress responses and healing mechanisms
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Transdermal ozone exposure introduces a brief, controlled oxidative signal that activates the Nrf2 pathway — the master regulator that switches on the body's own antioxidant enzyme production, includi
Protects cells from oxidative damage and inflammation
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Transdermal ozone introduces controlled, low-dose oxidative signaling through the skin, which peer-reviewed research links to upregulated immune activity and enhanced white blood cell signaling pathwa
Strengthens immune defense against pathogens and disease
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ozone exposure increases interferon and interleukin-2 secretion in immune cells
Enhances antiviral immunity and immune cell communication
well-supportedtransdermal-ozone
far-infrared and steam exposure supports increased ATP output in mitochondria
Increases cellular energy for healing and optimal function
well-supportedtransdermal-ozone
Transdermal ozone delivery introduces a brief, controlled oxidative signal that prompts the body to ramp up its own antioxidant defenses — the documented response is increased endogenous antioxidant a
Supports detoxification and reduces cellular damage
well-supportedtransdermal-ozone
Transdermal ozone introduces a powerful oxidizing molecule that disrupts the cell walls, lipid envelopes, and metabolic machinery of bacteria, viruses, fungi, and parasites — a broad-spectrum antimicr
Your body is constantly managing microbial load — bacteria, fungi, and other unwanted organisms that can drain energy, slow recovery, and stress your immune system. Ozone's oxidizing action interferes
well-supportedtransdermal-ozone
Transdermal ozone introduces a controlled, mild oxidative signal that downregulates NF-κB — the master switch governing inflammatory gene expression — while simultaneously activating Nrf2, the body's
Decreases chronic inflammation and associated pain
well-supportedtransdermal-ozone
Transdermal ozone interacts with skin lipids to generate signaling molecules that drive vasodilation and increase local perfusion, supporting more efficient oxygen and nutrient delivery to tissues dur
Better nutrient and oxygen delivery throughout body
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Transdermal ozone exposure has been shown in peer-reviewed research to accelerate cutaneous tissue repair, with measurable reductions in wound size and increased collagen density within days of applic
Accelerates recovery from injuries and promotes tissue repair
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far-infrared and ozone exposure associated with increased tumor necrosis factor production
Supports immune response against abnormal and cancerous cells
well-supportedtransdermal-ozone
ozone and CO₂ shift oxygen release from red blood cells to tissues via the Bohr effect
Optimizes cellular oxygenation and aerobic metabolism
well-supportedcarbonic-acid
ozone exposure shifts the oxygen dissociation curve, helping tissues absorb more oxygen
Facilitates oxygen release from hemoglobin to tissues
well-supportedcarbonic-acid
far-infrared selectively activates warmth receptors while quieting cold receptors
This receptor response is why far-infrared warmth feels deeply comfortable rather than harsh or surface-level. Your nervous system reads it as a natural, soothing heat signal — the kind that helps mus
well-supportedcarbonic-acid
far-infrared raises core body temperature by approximately 2°C
Induces therapeutic fever response and immune activation
well-supportedhyperthermia
far-infrared and steam raise heart rate and stroke volume, mimicking cardiovascular effort
Provides cardiovascular conditioning similar to exercise
well-supportedhyperthermia
far-infrared and steam cause blood vessels to widen and vascular resistance to drop
When blood vessels relax and open up, your heart doesn't have to work as hard to push blood through your body. Most people notice this as a sense of physical ease, warmth spreading through the limbs,
well-supportedhyperthermia
elevated core temperature triggers deeper, faster breathing and increased air exchange
When your body heats up, it naturally breathes deeper and faster to manage that heat — a response that moves more air through your lungs per minute. More air exchange means better clearance of carbon
well-supportedhyperthermia
heat exposure activates heat shock proteins, supporting cellular stress response
Protects cells from stress and supports cellular repair
well-supportedhyperthermia
far-infrared and steam activate the sympathetic nervous system
Your sympathetic nervous system is your body's built-in mobilization switch — it sharpens alertness, increases circulation, and primes your cells for adaptive work. A controlled activation, like the k
well-supportedhyperthermia
Far infrared exposure has been shown in peer-reviewed research to upregulate endothelial nitric oxide synthase (eNOS) expression, the enzyme vascular endothelial cells use to produce nitric oxide — a
Supports cardiovascular health and vascular function
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far-infrared and steam exposure improve blood flow and microcirculation
When circulation improves, your blood moves more efficiently through the small vessels that feed your muscles, skin, and organs. That means more oxygen and nutrients reaching the tissues that need the
well-supportedfar-infrared
far-infrared and ozone exposure linked to enhanced mitochondrial energy output
Mitochondria are your cells' power generators — when they function better, you tend to feel it as more sustained energy, faster recovery, and less of that heavy, sluggish feeling after exertion. Suppo
well-supportedfar-infrared
far-infrared and ozone exposure supports epithelial cell migration in skin tissue
Epithelial cells are the building blocks of your skin's surface layer — when they move and multiply efficiently, wounds close faster and skin renews itself more effectively. This kind of cellular acti
well-supportedfar-infrared
ozone exposure lowers a key oxidative stress marker in the body
Oxidative stress is the slow cellular wear-and-tear behind fatigue, inflammation, and accelerated aging. When a measurable marker of that stress goes down, it's a signal your body's defenses are gaini
well-supportedfar-infrared
far-infrared and steam exposure associated with lower cortisol levels
Cortisol is your body's primary stress hormone — and chronically elevated levels are linked to poor sleep, weight gain, low energy, and burnout. When cortisol comes down, most people notice they feel
well-supportedfar-infrared
ozone and far-infrared mobilize vascular repair cells in the bloodstream
Endothelial progenitor cells are your body's own repair crew for blood vessel walls. When more of them circulate, your vascular system has greater capacity to maintain itself — which matters for circu
well-supportedfar-infrared
transient cell membrane depolarization triggers internal signaling activity
Your cells communicate through electrical signals — when membranes briefly shift their charge, it can kick off a cascade of internal activity linked to repair and renewal. Think of it like a reset but
well-supportedpemf
pulsed electromagnetic fields open voltage-gated calcium channels in cells
Calcium is one of your body's most important signaling molecules — it tells cells when to repair, contract, and communicate. When calcium channels open more readily, the downstream effects can include
well-supportedpemf
pulsed electromagnetic fields increase intracellular calcium uptake in cells
Activates numerous enzymatic and signaling pathways
well-supportedpemf
far-infrared and steam activate calmodulin, triggering key cellular enzyme cascades
Calmodulin is a master regulator inside your cells — when it gets activated, it sets off a chain reaction that helps your body manage energy production, inflammation response, and how your genes expre
well-supportedpemf
nitric oxide production increases through cNOS activation
Nitric oxide is your body's natural signal to relax and widen blood vessels — better circulation, lower pressure on vessel walls, and more oxygen reaching your muscles and organs. Most people notice t
well-supportedpemf
ozone and far-infrared stimulate cGMP production, supporting blood vessel relaxation
Mediates smooth muscle relaxation and vasodilation
well-supportedpemf
PEMF energy activates A2A and A3 adenosine receptors on cell membranes — the same signaling switches the body uses to dial down inflammatory cytokines and protect cartilage and bone tissue from breakd
Triggers anti-inflammatory and tissue protective effects
well-supportedpemf
ozone exposure upregulates heme oxygenase-1 and superoxide dismutase-3 — two key antioxidant enzymes
Enhances antioxidant protection and cellular defense
well-supportedpemf
PEMF promotes bone regeneration in fracture-healing studies
Bone and tissue repair are active biological processes that depend on the right cellular signals. When electromagnetic fields support that signaling, the body's natural rebuilding response may work mo
well-supportedpemf
far-infrared and ozone exposure accelerate tissue repair and collagen remodeling
Collagen is the structural protein your body uses to rebuild skin, connective tissue, and muscle after injury or stress. When collagen remodeling speeds up, wounds close faster, scars soften sooner, a
well-supportedpemf
far-infrared and ozone exposure supports extracellular matrix protein production
The extracellular matrix is the structural scaffolding beneath your skin and inside your joints, tendons, and connective tissue. When its synthesis improves, your body is better equipped to maintain f
well-supportedpemf
far-infrared and steam exposure increases fibroblast activity and protein synthesis
Fibroblasts are the cells your body relies on to rebuild connective tissue — skin, tendons, and fascia. When their activity goes up, so does your body's natural capacity to repair and maintain these s
well-supportedpemf
far-infrared and ozone exposure stimulate new blood vessel formation in tissue
New blood vessel growth means your body can deliver more oxygen and nutrients to areas that need repair — muscles, skin, and connective tissue. This is one of the core ways the body rebuilds itself af
well-supportedpemf
far-infrared and ozone exposure shifts cellular energy production toward aerobic pathways
Optimizes cellular metabolism for growth and repair
well-supportedpemf
mitochondrial fission supports quality control in cellular energy systems
Maintains healthy mitochondrial population for optimal energy
well-supportedpemf
microcurrent stimulation increases ATP production by up to 500% in cell studies
ATP is your cells' primary fuel source — the energy currency that powers everything from muscle repair to immune function. When cellular energy production rises, your body has more resources to do wha
well-supportedmicrocurrent
far-infrared and steam exposure may support restoration of normal cell membrane voltage
Normalizes cellular electrical charge and function
well-supportedmicrocurrent
far-infrared and PEMF increase calcium influx and activate cellular signaling pathways
Calcium is one of your body's key 'go' signals — it tells cells to kick off repair, energy production, and communication. When these signaling pathways are more active, your body's natural maintenance
well-supportedmicrocurrent
far-infrared and ozone activate cellular signaling pathways linked to metabolism
These signaling pathways act like internal switches that tell your cells how to produce energy, manage inflammation, and regulate how genes express themselves. When they're running efficiently, you ma
well-supportedmicrocurrent
far-infrared and steam exposure linked to improved mitochondrial efficiency
Mitochondria are your cells' power generators — when they run more efficiently, you tend to feel it as more sustained energy, faster recovery, and less of that heavy, sluggish fatigue. Supporting mito
well-supportedmicrocurrent
far-infrared and steam exposure increases amino acid transport by 30–40%
Amino acids are the raw materials your body uses to build and repair muscle, skin, hair, and virtually every tissue. When transport rates rise, more of what you eat actually gets where it needs to go
well-supportedmicrocurrent
far-infrared and steam stimulate fibroblast activity and collagen production in skin
Collagen is the structural protein that keeps skin firm, smooth, and resilient — and fibroblasts are the cells that make it. When fibroblast activity increases, your body produces more of its own coll
well-supportedmicrocurrent
far-infrared and steam exposure linked to ~40% increase in cellular transport activity
Cellular transport is how your body moves nutrients into cells and clears out metabolic waste. When this process runs more efficiently, you may notice better energy, faster recovery after exertion, an
well-supportedmicrocurrent
far-infrared and steam activate satellite cells linked to muscle tissue repair
Satellite cells are your muscles' built-in repair crew — they wake up after stress or exertion to rebuild tissue. When these cells get activated, your body is better positioned to recover from hard wo
well-supportedmicrocurrent
far-infrared and steam exposure increase nitric oxide production in blood vessel walls
Nitric oxide is your body's natural signal to relax and widen blood vessels. When production goes up, circulation improves — which most people feel as better warmth, less tension, and more efficient d
well-supportedmicrocurrent
far-infrared and ozone exposure accelerate new blood vessel formation in tissue repair
Speeds recovery from injuries through new vessel formation
well-supportedmicrocurrent
far-infrared and steam alter neural signaling to reduce perceived pain
Reduces pain perception through nervous system effects
well-supportedmicrocurrent
far-infrared and steam exposure supports neuromuscular signaling and coordination
Improves nerve-muscle communication and coordination
well-supportedmicrocurrent
oxygen-enriched breathing raises arterial oxygen saturation in the bloodstream
Elevates blood oxygen levels for enhanced tissue delivery
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far-infrared and steam exposure support increased cellular energy (ATP) output
ATP is the fuel your cells run on — every heartbeat, thought, and muscle contraction depends on it. When cellular metabolism gets a boost, most people notice it as more sustained energy, faster recove
well-supportedoxygen-breathing
carbogen breathing reduces anatomical dead space and improves gas exchange efficiency
Dead space in your airways is air that never reaches your lungs where gas exchange actually happens. When that dead space is flushed out, more of each breath delivers usable oxygen — which most people
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continuous removal of exhaled CO2 from upper airways supports cleaner gas exchange
Every breath you take is more effective when stale CO2 is cleared away before your next inhale. This kind of airway flushing means your lungs spend less effort re-processing exhaled air and more time
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MethodologyHow this site is built

Each finding on this site corresponds to a documented physiological response in the peer-reviewed published literature. The supporting studies are pulled from PubMed, Crossref, OpenAlex, EuropePMC, and other indexed databases. Each candidate is reviewed before being added. New findings are added as additional studies clear verification.

This site describes published research about the underlying wellness technologies — far-infrared, transdermal ozone, PEMF, and others. It is not a marketing claim about any specific device. For information about HOCATT specifically, visit hocatt.com.