Mogroside V (Monk Fruit Glycoside)
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Mogroside V (Monk Fruit Glycoside)

Sweeteners Flavoring Agents
88901-36-4
C₆₀H₁₀₂O₂₉
$26.68 ~ $40.02
Food
Free sample from 100g(NF)
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Product Info

What is Mogroside V (Monk Fruit Glycoside)?

Mogroside V, or Monk Fruit Glycoside, is a natural, high-intensity sweetener extracted from the monk fruit (Siraitia grosvenorii) used primarily as a sugar substitute in foods and beverages.

How is Mogroside V (Monk Fruit Glycoside) made?

Step No. Production Stage Key Action Control Point & Note
1 Raw Material Reception Select and inspect fresh or dried monk fruit (Luo Han Guo). Control Point: Fruit quality, maturity, and absence of mold/pests. Note: The initial quality and ripeness of the fruit directly determines the potential yield and purity of Mogroside V.
2 Extraction Crush the fruit and extract the glycosides using hot water infusion. Control Point: Water temperature (typically 50-80°C) and extraction duration. Note: This process is optimized to maximize mogroside release while minimizing the extraction of undesirable bitter compounds and sugars.
3 Filtration Pass the fruit slurry through a series of filters to remove solid materials like pulp, seeds, and peel. Control Point: Filter mesh size and flow rate. Note: A clear liquid extract is essential to prevent clogging and fouling of the purification columns in the next stage.
4 Purification (Adsorption) Pump the clarified extract through a macroporous adsorption resin column. Control Point: Resin type, contact time, and column temperature. Note: The resin selectively captures the large mogroside molecules while allowing smaller molecules like fructose, glucose, and minerals to pass through as waste. This is a critical purification step.
5 Desorption (Elution) Wash the resin column with a food-grade ethanol solution to release the bound mogrosides. Control Point: Ethanol concentration and flow rate. Note: This step creates a purified, mogroside-rich solution. The ethanol must be efficiently recovered later for reuse and to ensure a pure final product.
6 Concentration Remove the ethanol and excess water from the eluate using low-temperature vacuum evaporation. Control Point: Vacuum pressure and temperature. Note: Operating under vacuum allows water to boil at a lower temperature, which prevents thermal degradation of the heat-sensitive mogrosides and preserves their clean taste.
7 Drying Transform the concentrated mogroside syrup into a fine powder using spray drying. Control Point: Inlet air temperature, atomization pressure, and feed rate. Note: This process instantly removes residual moisture, creating a stable, free-flowing powder with consistent particle size and density.
8 Sieving & Blending Sieve the dried powder to ensure uniformity and blend different batches as required. Control Point: Sieve mesh size and blending duration. Note: This ensures the final product is homogenous and meets customer specifications for solubility and appearance. Blending provides excellent batch-to-batch consistency.
9 Final QC & Packaging Conduct final analysis (HPLC for Mogroside V purity, microbial tests) and pack the finished powder. Control Point: Purity assay (must meet grade specification), heavy metal limits, and microbial count. Note: Product is packed into airtight, multi-layer, food-grade packaging to protect it from moisture, light, and contamination, ensuring shelf-life stability.

Technical Specifications

CAS Number 88901-36-4
Chemical Formula C₆₀H₁₀₂O₂₉
Solubility Slight water solubility; slight in methanol/pyridine
Storage Conditions Store cool (2–8 °C), dry, sealed, protect from light
Shelf Life 36 Months

Applications & Usage

Common Applications:

Beverages
baked goods
condiments
dairy
confectionery
oral-care
pharmaceuticals

Mechanism of action:

Parameter Mogroside V (Monk Fruit Glycoside)
Functional Category High-Intensity Sweetener; Flavor Enhancer; Natural Sweetener
Key Ingredients Mogroside V (a triterpenoid glycoside from the fruit of Siraitia grosvenorii)
Mechanism of Action Binds with high affinity to the heterodimeric T1R2/T1R3 sweet taste receptors on the surface of taste bud cells. This interaction activates an intracellular G-protein signaling cascade (via gustducin), leading to cell depolarization and the neural transmission of a potent sweet taste signal without contributing metabolizable calories.
Application Effect in Product Provides intense, calorie-free sweetness (approx. 150-250x sweeter than sucrose), enabling significant sugar reduction. Exhibits a clean taste profile with minimal bitterness or aftertaste. Can be used to modulate and enhance other flavors in a formulation, particularly in beverages, dairy products, and nutritional supplements.


Comparison:

Product Name Category/Type Key Features Strengths (vs peers) Weaknesses (vs peers) Best Use Cases Why Choose
Mogroside V (Monk Fruit Glycoside) Natural High-Intensity Sweetener Extracted from monk fruit; 200-300x sweeter than sugar; zero-calorie; heat stable. Very clean, sugar-like taste with minimal bitterness or aftertaste; perceived as highly natural by consumers. Higher cost than stevia and artificial sweeteners; supply can be more limited. Beverages, dairy, nutritional supplements, and clean-label products where taste is paramount. For a premium, natural sweetener with a superior taste profile when cost is not the primary constraint.
Steviol Glycosides (Stevia) Natural High-Intensity Sweetener Extracted from the stevia leaf; 200-400x sweeter than sugar; zero-calorie; heat stable. Cost-effective for a natural sweetener; widely available and approved; multiple variants (Reb M) improve taste. Can have a noticeable bitter or licorice-like aftertaste, especially lower-purity forms (Reb A). Carbonated soft drinks, tabletop sweeteners, protein powders, cost-sensitive natural products. When a cost-effective, natural, zero-calorie solution is needed and aftertaste can be managed or masked.
Erythritol Natural Bulk Sweetener (Sugar Alcohol) ~70% as sweet as sugar; provides bulk and mouthfeel; near-zero calories; has a cooling effect. Provides texture and volume similar to sugar; best digestive tolerance among sugar alcohols. Less sweet than sugar, requiring larger quantities; pronounced cooling sensation can be undesirable; can recrystallize. Blended with high-intensity sweeteners, sugar-free baking, chocolates, chewing gum. To replace sugar's bulk and mouthfeel, not just its sweetness, often in synergy with Mogroside V or Stevia.
Allulose Natural Bulk Sweetener (Rare Sugar) ~70% as sweet as sugar; provides bulk; very low-calorie; browns and caramelizes like sugar. Uniquely mimics sugar's functional properties in baking and cooking (browning, freezing point depression). Significantly higher cost than other sweeteners; less available and fewer global regulatory approvals. Keto-friendly baked goods, ice cream, caramels, and sauces where sugar-like functionality is essential. For applications where replicating sugar's chemical behavior (e.g., browning) is more important than sweetness intensity alone.
Sucralose Artificial High-Intensity Sweetener Derived from sucrose; ~600x sweeter than sugar; zero-calorie; highly stable to heat and pH. Extremely high sweetness intensity; very low cost; exceptionally stable in processing and long-term storage. Not from a natural source, which is a major drawback for clean-label products; some consumers detect an aftertaste. Diet beverages, processed foods, baked goods, pharmaceuticals, and applications requiring high stability. For maximum cost-efficiency, sweetness potency, and stability in applications where a "natural" claim is not needed.

Technical Documents

Available Documentation

Spec Sheet, COA, MSDS available

Safety Data Sheet (SDS)

MSDS available

Certificate of Analysis (COA)

Quality assurance documentation

Technical Data Sheet

Detailed technical specifications