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    High-Wattage Flavoring: Designing for Cloud Chasers

    Author: R&D Team, CUIGUAI Flavoring Published by: Guangdong Unique Flavor Co., Ltd. Last Updated: Jul 14, 2026 WhatsApp & Telegram: +86 189 2926 7983
    A powerful sub-ohm vape mod producing an enormous vapor cloud beside flavor concentrate bottles — hero image for CUIGUAI Flavoring's comprehensive technical guide on high-wattage e-liquid flavor formulation designed for cloud-chasing enthusiasts.

    Cloud Chaser Vape Flavor

    Introduction: The Cloud-Chasing Formulation Challenge

    Cloud chasing — the pursuit of maximum vapor production through high-wattage devices, sub-ohm coils, and maximum-VG e-liquid — represents the most technically extreme operating environment in the e-liquid industry. Sub-ohm devices operating at 80-200 watts generate coil temperatures of 250-320 degrees Celsius, produce enormous volumes of dense vapor per puff, and subject every flavor compound in the e-liquid to thermal stresses that are fundamentally different from those experienced in pod systems or standard vape devices. According to Vaping360's comprehensive guide on sub-ohm vaping, the cloud-chasing category is defined by devices operating below 0.5 ohms coil resistance, typically using dual, triple, or even quadruple coil configurations with exotic wire builds (fused Claptons, alien coils, mesh configurations) that maximize surface area and heat distribution. At these extreme operating parameters, standard e-liquid flavor formulas — developed and optimized for moderate power devices — can fail catastrophically: delivering harsh, chemical off-notes, losing their intended flavor profile within seconds of vaporization, or generating potentially harmful thermal decomposition products. For e-liquid flavor manufacturers, this creates a specialized and technically demanding design brief: flavor concentrates that must not only survive extreme thermal exposure but must actually perform optimally — delivering intense, authentic, sustained flavor character — in the brief but high-temperature vaporization window of a cloud-chase puff. This comprehensive technical guide, authored by the R&D team at CUIGUAI Flavoring (Guangdong Unique Flavor Co., Ltd.), provides the complete scientific framework for meeting that brief.

    1. The High-Wattage Thermal Environment: Physics of Extreme Vaporization

    1.1 Coil Temperature, Power Delivery, and the Vapor Production Equation

    Cloud production in vaping is fundamentally a thermodynamic function — the volume of vapor produced per puff is directly proportional to the mass of e-liquid vaporized, which is determined by the heat energy delivered to the coil and the latent heat of vaporization of the PG/VG mixture. At 150W operating power with a 0.15-ohm coil:
    • Peak coil temperature reaches 280-310 degrees C within 0.3-0.5 seconds of button activation
    • Approximately 0.3-0.6 mL of e-liquid is vaporized per 3-second puff at this power level — 5-10x more than a typical pod system puff
    • The aerosol particle size distribution is significantly different from low-power devices: larger droplets predominate, carrying higher concentrations of dissolved flavor compounds into the vapor phase
    • Air flow through the RDA/tank is substantially higher due to wide-bore drip tips and large airway openings — diluting the vapor with ambient air and moderating the vapor temperature reaching the throat
    This combination — extreme heat at the coil but cooler, diluted vapor at the throat — creates a paradoxical sensory environment: flavor compounds must survive maximum thermal exposure at the coil while still delivering their intended sensory profile in the diluted aerosol that reaches the consumer.

    1.2 The High-VG Matrix: Challenges and Opportunities

    Cloud-chasing e-liquids are formulated with maximum VG content — typically 70-100% VG in the base, with PG minimized to reduce throat hit and improve vapor density. As documented in our comprehensive analysis of flavor migration and retention in high-VG e-liquids, the high-VG matrix creates specific flavor delivery challenges:
    • VG's high viscosity (1412 mPa/s at 20 degrees C vs. 58 mPa/s for PG) impedes the diffusion of flavor compounds through the liquid phase, slowing their migration to the coil surface for vaporization
    • VG's lower solvent power for hydrophobic flavor molecules (compared to PG) means many flavor compounds have reduced aqueous solubility in high-VG bases, increasing the risk of flavor sedimentation and separation over shelf life
    • VG has inherent sweetness (approximately 60% of sucrose sweetness) that contributes a mild, smooth sweetness baseline to all high-VG e-liquids — formulators must account for this background sweetness when calibrating the sweetness of flavor concentrates
    • VG itself undergoes thermal decomposition at elevated temperatures (>300 degrees C), generating acrolein and other carbonyl compounds — making coil temperature management critical even in a flavorless base

    1.3 Direct-to-Lung Inhalation and Sensory Implications

    Cloud chasers use a Direct-to-Lung (DTL) inhalation technique — drawing vapor directly into the lungs without first holding it in the mouth (as in MTL pod vaping). This has profound implications for flavor perception:
    • The short oral contact time in DTL means that "mid-palate" and "mouth-coating" flavor compounds have minimal time to develop — the primary sensory impact is "on the inhale" and in the retronasal phase (aroma detected as vapor exits the throat during exhalation)
    • The large vapor volume delivers a proportionally greater absolute quantity of flavor compounds per puff, but in a more diluted vapor stream due to high airflow — net flavor concentration in the aerosol at the palate is often lower than the absolute compound concentration would suggest
    • The throat hit experienced in DTL vaping comes primarily from vapor volume and temperature rather than nicotine or PG — allowing cloud-chasing e-liquids to use very low nicotine concentrations (0-3 mg/mL freebase) without compromising the overall satisfaction of the vaping experience
    • The "exhale profile" — what the vaper smells as vapor exits — is disproportionately important in cloud chasing. Exhale aroma is driven by the most volatile, lowest-boiling-point compounds in the formula — opposite to the lactone-dominant approach needed for pod systems
    A three-column technical infographic comparing flavor compound vaporization performance at 8-15W (pod), 25-50W (medium), and 80-200W (sub-ohm cloud chaser) — showing ester vaporization, lactone delivery, cooling intensity, and thermal degradation risk — from CUIGUAI Flavoring's high-wattage flavor formulation guide.

    High Wattage Flavor Chart

    2. Thermal Stability Science: What Survives the Coil

    The central technical challenge of high-wattage flavor formulation is thermal stability — which flavor compounds survive the 250-320 degree C coil environment and which undergo harmful or off-note-generating degradation. This is not merely a quality question; it is also a safety-critical parameter, as the thermal degradation products of some flavor compounds pose potential inhalation hazards.

    2.1 The Thermal Stability Classification System

    As documented in our comprehensive technical resource on thermal degradation and cross-reactions of flavor compounds in vape formulas, the interaction between thermal degradation products can be more problematic than the primary degradation of any single compound. Cinnamaldehyde degradation products, for example, can react with PG decomposition intermediates to form compounds with enhanced airway irritancy — a cross-reaction that would not be predicted by analyzing each compound's standalone thermal behavior.

    2.2 The Acrolein Risk in High-VG Cloud-Chase Formulations

    Acrolein (prop-2-enal) is one of the most toxicologically significant compounds generated in vaping aerosols. According to research published in PubMed Central (PMC5123268) on e-cigarette aerosol carbonyl generation, acrolein levels in aerosols from high-power sub-ohm devices can be significantly higher than from low-power devices, due to:
    • VG thermal degradation: vegetable glycerin undergoes dehydration to acrolein at temperatures above 280 degrees C — peak coil temperatures in cloud-chase setups regularly exceed this threshold
    • PG thermal degradation: propylene glycol similarly generates acrolein at elevated temperatures, though at a lower rate than VG
    • Flavor compound interactions: certain flavor compounds (particularly glycerol-containing compounds and esters with glycerol moieties) can act as additional acrolein precursors under high-temperature conditions
    For cloud-chase formula design, this means that coil temperature management is a safety parameter, not merely a flavor optimization variable. Responsible manufacturers of cloud-chase concentrates should:
    • Specify maximum recommended wattage on product documentation (typically 80-150W for commercial sub-ohm concentrates)
    • Avoid any flavor compounds that may contribute to acrolein generation as thermal intermediates
    • Include coil temperature management recommendations (using temperature control TC mode where available) in B2B documentation packages

    2.3 Sucralose at High Wattage: The Coil-Killer Problem

    Sucralose — the standard sweetener in e-liquid — is particularly problematic at high wattage. At temperatures above 200 degrees C, sucralose undergoes thermal decomposition to produce chlorinated aromatic compounds and polymeric deposits that:
    • Rapidly clog the porous cotton wicking material, reducing e-liquid flow to the coil and creating dry-hit conditions
    • Build up as caramelized, carbonized deposits on coil wire, reducing the active coil surface area and degrading vapor quality progressively
    • Generate potentially harmful chlorinated organic compounds in the aerosol
    The practical consequence for cloud-chase formulation is strict: sucralose must be minimized or eliminated entirely from concentrates intended for high-wattage use. Target: <0.5% sucralose in finished e-liquid for cloud-chase applications; use ethyl maltol (0.2-0.4%) as a coil-safe sweetness potentiator combined with VG's inherent sweetness, rather than sucralose as a primary sweetener.

    3. The High-Wattage Flavor Architecture: Building from the Base Up

    Successful cloud-chase flavor formulation requires a purpose-built compound hierarchy that is essentially the inverse of pod-system formulation — leading with highly volatile top-note compounds that can deliver aroma impact in a large, diluted vapor stream, while using thermally stable lactones and ionones as the backbone rather than the base.

    3.1 The "Front-Loaded" Approach for Cloud Chase

    In cloud chasing, the vapor stream is so large and airflow so high that only high-volatility compounds have sufficient vapor pressure to reach the sensory threshold in the retronasal detection that dominates DTL perception. The "front-loaded" formulation approach means:
    • High-volatility esters (ethyl butyrate, isoamyl acetate) are used at REDUCED concentrations — they vaporize completely and abundantly at high wattage, and must be dosed LOWER than for pod systems to avoid overpowering chemical notes. Target: 30-50% reduction from standard concentration
    • Medium-volatility compounds (geraniol, linalool, terpene alcohols) are used at STANDARD concentrations — they vaporize moderately well and provide the mid-note complexity that prevents the profile from reading as "flat"
    • Low-volatility compounds (lactones, ionones, vanillin) must be used at ELEVATED concentrations — 40-80% higher than for pod or medium-power formulas — because significant fractions of these compounds remain in liquid phase on the coil even at 280 degrees C

    3.2 The Cloud-Chase PG/VG Dilemma for Flavor

    The standard cloud-chase e-liquid is Max VG (80-100% VG) — but VG's poor solvency for flavor compounds creates a specific formulation problem. Most flavor concentrates are formulated in PG solvent, which can cause compatibility issues when added to a Max VG base at high usage rates. Solutions:
    • Formulate cloud-chase concentrates in a 50:50 PG:VG carrier rather than pure PG — improving compatibility with high-VG finished bases while maintaining adequate solvency for flavor compounds
    • Pre-test all candidate concentrates in the target 80/20 and 100/0 VG:PG finished base for any haze, sedimentation, or phase separation before commercial release
    • Use water-soluble flavor forms where available (water-soluble isoamyl acetate, water-compatible linalool) to improve miscibility in high-VG bases
    • Limit total concentrate addition rate to 5-15% of finished liquid volume — higher addition rates (>15%) create miscibility problems in Max VG bases even with PG-solvent concentrates
    For a comprehensive technical exploration of how VG:PG ratios affect flavor compound solubility, delivery efficiency, and sensory performance, our detailed guide PG vs VG: Which One Carries Flavor Better? provides the complete physicochemical framework.
    A split-panel technical diagram showing a sub-ohm coil cross-section with thermal zones (250-300 degrees C) and the flavor compound stability pyramid for cloud-chase e-liquid — stable lactones/ionones at base, medium esters in middle, avoid short-chain esters and diacetyl at top — from CUIGUAI Flavoring's high-wattage formulation guide.

    Sub-Ohm Coil Flavor Pyramid

    4. Category-Specific Cloud-Chase Formulation Blueprints

    4.1 Max VG Tropical Fruit Cloud Chase

    Tropical fruit profiles are the most commercially successful category in the cloud-chase market — the large vapor volume amplifies fruit aroma delivery, and the DTL exhale creates a "flavor cloud" experience that particularly suits bright, aromatic tropical profiles. The key challenge is preventing fruit esters from creating harsh chemical top-notes at high wattage. Formulation approach — tropical cloud chase:
    • Passion fruit ester complex (ethyl butanoate + hexyl acetate + methyl caproate): reduce by 40% vs standard; even at reduced dose, the large vapor volume delivers ample aroma
    • Massoia lactone (10% dilution): INCREASE by 60-80% — this key coconut-tropical lactone has a boiling point of ~250 degrees C and requires elevated dose to break through at high wattage
    • Guava furanone (furyl methyl ketone): STANDARD dose — stable compound with good thermal resistance; provides tropical depth
    • Linalool: STANDARD dose — moderate volatility; provides floral tropical complexity in the mid-note
    • Avoid: raw limonene, myrcene, raw terpene blends — oxidize rapidly at 280 degrees C, generating off-notes within 3-4 puffs of new coil
    • Sweetener: ethyl maltol at 0.25-0.35%; NO sucralose

    4.2 Max VG Dessert Cloud Chase (Diacetyl-Free)

    Dessert profiles — particularly vanilla custard, strawberry cream, and cookie/cake — are highly popular in the cloud-chase community because the large vapor volume creates an immersive dessert aroma experience that smaller vapor volumes cannot match. The primary constraint is achieving the cream/butter character without diacetyl — strictly prohibited in any responsible cloud-chase formulation:
    • Gamma-decalactone: INCREASE 80-100% vs pod formula — peach-cream character; BP~250 degrees C requires significant over-dose for cloud-chase delivery
    • Delta-decalactone: INCREASE 60-80% — creamy depth note; BP~260 degrees C
    • Massoia lactone (10% dil): INCREASE 50-60% — coconut cream character; essential for "custard" profile body
    • Acetoin (FEMA 2008, diacetyl alternative): maximum 0.1% in finished liquid; slightly buttery without the inhalation hazard; more thermally stable than diacetyl
    • Ethyl vanillin: INCREASE 30-50% vs standard — BP~285 degrees C; strong vanilla character essential for dessert cloud profiles
    • Sucralose: ELIMINATE — substitute with ethyl maltol 0.2-0.3% + erythritol 0.5-1.0% (coil-friendly alternative sweetener system)

    4.3 Max VG Menthol-Ice Cloud Chase

    Menthol and cooling agent profiles in cloud-chase applications present a unique paradox: cooling agents are disproportionately effective at high vapor volume — the large mass of cool vapor already produces a significant cooling sensation, meaning cooling agent loading can be substantially reduced compared to pod system equivalents:
    • L-Menthol: 0.3-0.8% in finished liquid (significantly less than pod system; the large cold vapor volume amplifies cooling perception)
    • WS-23: 0.5-1.0% — supplementary cooling; avoid overdose (>2% in finished liquid produces throat irritation at DTL volumes)
    • Fruit base (optional): light citrus or berry accent at 5-10% of concentrate — provides flavor dimension while cooling dominates the profile
    • PG/VG consideration: menthol requires minimum 25% PG for proper dissolution at these concentrations — pure Max VG is not appropriate for high-menthol formulas; minimum 20/80 PG:VG

    4.4 Max VG Mixed Fruit Candy Cloud Chase

    The "candy" category — intensely sweet, brightly fruity, slightly artificial in an enjoyable way — is one of the most forgiving cloud-chase flavor categories because consumer expectations for chemical authenticity are lower than for naturalistic fruit or tobacco profiles. This allows the formulator more latitude in compound selection:
    • Primary candy ester blend (ethyl butyrate + ethyl 2-methylbutyrate + isoamyl acetate): combined at 3-5% of concentrate (higher ester loading acceptable for candy profiles; the "artificial candy" note is intentional)
    • Furaneol (DMHF): 2-4% of concentrate — provides the essential "candy sweetness" character that distinguishes candy vapes from fruit vapes; thermally stable
    • Citric acid (10% PG dilution): 3-5% of concentrate — the acid character of candy profiles; provides the "bite" that prevents excessive sweetness heaviness in the large vapor volume context
    • Malic acid (10% dilution): 2-3% of concentrate — secondary acid; "sour candy" dimension
    • Sucralose: maximum 0.5% in finished liquid (hard limit for coil protection); supplement with ethyl maltol for additional sweetness

    5. The High-VG Base Matrix: Optimizing for Cloud and Flavor Simultaneously

    5.1 The Sweet Spot for Cloud-Chase VG Content

    The industry standard for commercial cloud-chase e-liquid is 80/20 VG:PG — a ratio that maximizes vapor production while maintaining sufficient PG content for flavor compound solvency and wicking performance in modern sub-ohm hardware. Our formulation team designs all cloud-chase concentrates for optimal performance at 80/20 finished e-liquid, with compatibility confirmed at 70/30 for flavor-oriented users.

    5.2 Nicotine Selection for Cloud-Chase Applications

    Cloud chasers overwhelmingly prefer low nicotine concentrations — typically 0-3 mg/mL freebase nicotine in finished liquid. The reasons are both practical and pharmacological:
    • At 150W power output with 0.3-0.5 mL liquid vaporized per puff, the absolute nicotine delivery per puff is very high even at 3 mg/mL — making standard nicotine concentrations (6-12 mg/mL) intolerable for most users
    • Freebase nicotine (high pH) rather than nicotine salt is preferred — at high vapor volume, freebase's characteristic throat hit is well-distributed through the large vapor stream and does not produce harshness
    • Zero nicotine e-liquid is common and commercially significant in cloud chasing — competition cloud chasers often prefer 0 mg/mL for maximum lung capacity and performance
    For flavor formulation, low or zero nicotine means no nicotine bitterness to compensate for and no nicotine-flavor interactions affecting the taste profile. This simplifies formulation compared to nicotine salt pod systems but requires careful attention to sweetness balance without the nicotine-associated "warmth" that contributes to perceived satisfaction in high-nicotine formats.

    6. Quality Control: Testing Protocols for High-Wattage Flavor Performance

    6.1 Mandatory High-Wattage Testing Protocol

    A cloud-chase flavor concentrate cannot be evaluated based on low-power or room-temperature testing alone. Our mandatory high-wattage validation protocol for all sub-ohm concentrates includes:
    • Wattage-matched sensory evaluation: sensory panel evaluation at 80W, 120W, and 150W using standardized RDA build (0.15 ohm, Fused Clapton, cotton wicking); panel assesses flavor character, off-note presence, and coil fouling after 3 mL consumed
    • GC-MS aerosol analysis at high wattage: 20 puffs at 150W collected in Tedlar bag; headspace GC-MS analysis for thermal degradation markers (acrolein, formaldehyde, acetaldehyde, benzaldehyde, furfural); must show compliance with relevant HPHC guidance
    • Coil deposit evaluation: weigh standardized coil assembly before and after 5 mL of finished liquid at 120W; delta weight must be <8 mg/mL vaped for acceptable coil longevity
    • Thermal stability re-test after 4-week accelerated aging (40 degrees C): re-evaluate GC-MS flavor profile and sensory performance to confirm no thermal pre-degradation during storage has altered the formula's high-wattage performance

    6.2 Key Safety and Compliance Parameters for Cloud-Chase Concentrates

    • Diacetyl: <10 ppb in finished liquid (essentially zero by modern analytical standards) — absolute requirement
    • Acetyl propionyl (2,3-pentanedione): <10 ppb in finished liquid — same prohibition as diacetyl
    • Acrolein: measured in aerosol at maximum recommended wattage; target <3 ppb in aerosol (aligned with WHO IARC guidance)
    • Formaldehyde in aerosol: <100 ppb at maximum wattage (relevant regulatory threshold for occupational exposure reference)
    • Heavy metals from coil: while outside the flavor concentrate's control, documentation of flavor-coil material compatibility (no catalytic promotion of metal leaching) should be assessed in development

    6.3 Regulatory Documentation for Cloud-Chase Products

    Cloud-chase e-liquids require regulatory documentation that specifically addresses the high-temperature, high-vapor-volume exposure scenario — not merely standard ambient inhalation exposure modeling:
    • EU TPD compliance: notification in each member state; CoA specifying all flavor ingredients; confirmation of diacetyl-free status; aerosol analysis at maximum recommended wattage
    • US FDA PMTA support: GC-MS aerosol data at device-matched wattage settings; full ingredient disclosure; HPHC screening results
    • Maximum recommended wattage labeling: all CUIGUAI cloud-chase concentrates include specific maximum wattage guidance to prevent use in configurations that would generate excessive thermal degradation products

    7. The CUIGUAI High-Wattage Product Line: Sub-Ohm Certified Concentrates

    Recognizing the specialized nature of cloud-chase flavor formulation, CUIGUAI Flavoring has developed a dedicated "Sub-Ohm Certified" concentrate range — purpose-engineered for high-wattage performance from compound selection through quality control:
    • Compound selection based on thermal stability hierarchy: every formula uses only compounds with demonstrated acceptable thermal profiles at 280-300 degrees C coil temperatures, verified by our in-house GC-MS thermal degradation testing
    • Zero diacetyl, zero acetyl propionyl guarantee: analytically confirmed at <5 ppb in every production batch; Certificate of Analysis provided with every shipment
    • High-wattage sensory validation: all concentrates evaluated at 80W, 120W, and 150W by trained sensory panel before commercial release
    • Sucralose-free sweetener system: all Sub-Ohm Certified products use an ethyl maltol / erythritol sweetener system rather than sucralose — extending coil life by documented 35-50% in our standardized coil test
    • 80/20 VG:PG compatibility certified: validated in 80/20, 70/30, and 60/40 finished e-liquid bases; confirmed absence of haze, precipitation, or phase separation after 12 months accelerated stability
    Our Electronic Cigarette Flavor range includes Sub-Ohm Certified concentrates across all major flavor categories. For specific products particularly valued in cloud-chase applications, our Sweet flavor concentrate and Vanilla Cream Flavor represent our most commercially proven high-VG compatible formulations, extensively tested for coil life and thermal stability performance.

    8. Conclusion: Engineering for Extremes — The Cloud-Chase Formulator's Mandate

    High-wattage cloud-chase vaping represents the most technically demanding application in e-liquid flavor formulation. The extreme thermal environment (250-320 degrees C), the high-VG matrix challenges, the DTL inhalation dynamics, and the safety-critical requirement to avoid harmful thermal decomposition products all combine to create a formulation brief that cannot be met by adapting general-purpose concentrates. The cloud-chase formulator must simultaneously optimize for three competing requirements: maximum flavor delivery in a large, diluted vapor stream (requiring front-loaded volatile top notes), maximum thermal stability to prevent off-note generation and coil fouling (requiring low-volatility backbone compounds), and maximum safety assurance (requiring strict compound exclusions and aerosol-level analytical validation). At CUIGUAI Flavoring, our Sub-Ohm Certified product range embodies this three-way optimization — combining deep analytical chemistry capabilities, high-wattage sensory evaluation infrastructure, and a commitment to transparent, documented safety testing that supports both regulatory compliance and consumer confidence. The cloud-chasing community demands the best — and the best demands purpose-built flavor science.
    CUIGUAI Flavoring's Sub-Ohm Certified cloud-chase e-liquid concentrate lineup — Max VG Fruit Blend, Sub-Ohm Dessert, Cloud Chase Tropical — displayed with high-wattage device components on dark metal. Available for global B2B OEM supply with high-wattage validation data and diacetyl-free certification.

    Cloud Chase Flavor Products

    -- Technical Exchange & Free Sample Request --

    Build Your Sub-Ohm Cloud-Chase Flavor Line with CUIGUAI

    Whether you are developing a new high-VG cloud-chase e-liquid line, need Sub-Ohm Certified concentrates for Max VG formulation, or are seeking a reliable OEM flavor partner with documented high-wattage thermal validation — our R&D team is ready. We offer free Sub-Ohm Certified samples, GC-MS aerosol analysis reports, diacetyl-free certificates, and first-project technical consultations at no charge. Phone / WhatsApp: +86 189 2926 7983 Email: info@cuiguai.com Website: www.cuiguai.com WhatsApp Direct: wa.me/8618929267983 Free Sub-Ohm Certified samples available to qualified B2B buyers. Regulatory documentation provided. Consultations at no charge.  

    References & Authority Citations

    [1] PubMed Central (PMC). "E-Cigarette Aerosol Carbonyls from Different E-Liquid Compositions and Vaping Conditions." PMC ID: PMC5123268. 2016. Available at: pmc.ncbi.nlm.nih.gov/articles/PMC5123268/ [2] Vaping360. "How to Sub Ohm and Blow Big Clouds of Vapor." 2023. Available at: vaping360.com/learn/cloud-chasing-sub-ohm-vaping/ [3] Capital Clouds. "Top Premium E-Liquids for Cloud Chasing in 2026." April 29, 2026. Available at: capitalclouds.co.uk/blogs/news/top-premium-e-liquids-cloud-chasing-2026 [4] The Vape Shop. "Sub Ohm Vaping Explained 2024: Devices, Benefits & Tips." January 27, 2025. Available at: thevapeshop.co.uk/blog/sub-ohm-vaping-explained-2024/ [5] UK MHRA. "Guidance on E-cigarette Notifications and the Tobacco Products Directive (TPD)." Available at: gov.uk. [6] FEMA — Flavor and Extract Manufacturers Association. "GRAS Program and Flavor Ingredient Safety." Available at: femaflavor.org.
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