L-Arabinose
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L-Arabinose

Sweeteners Nutritional Enhancers
5328-37-0
C₅H₁₀O₅
$7.99 ~ $11.98
Food
Free sample from 100g(NF)
One unit of:25kg/bag
25kg/bag
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Product Info

What is L-Arabinose?

L-Arabinose is a rare, low-calorie monosaccharide that functions as a strong inhibitor of the sucrase enzyme, making it a popular dietary supplement ingredient used to reduce the glycemic impact of sucrose consumption.

How is L-Arabinose made?

Step No. Production Stage Key Action Control Point & Note
1 Raw Material Preparation Select and crush hemicellulose-rich materials such as corncobs, sugarcane bagasse, or sugar beet pulp. Control Point: Raw material must be clean and free from foreign matter. Particle size after crushing is critical for efficient hydrolysis.
2 Acid Hydrolysis Treat the prepared biomass with dilute acid (e.g., sulfuric acid) under high temperature and pressure to break down arabinoxylan polymers. Control Point: Precise control of acid concentration, temperature, and reaction time is crucial to maximize L-Arabinose yield and prevent its degradation into byproducts like furfural.
3 Neutralization & Filtration Neutralize the acidic hydrolysate solution with a base (e.g., calcium carbonate) and filter to remove solid residues like lignin and precipitated salts. Control Point: The target pH must be accurately achieved to precipitate impurities without degrading the sugars. Filtration efficiency ensures a cleaner solution for downstream processing.
4 Decolorization & Purification Pass the filtered sugar solution through activated carbon columns to remove color, followed by ion-exchange resins to remove mineral salts. Control Point: Flow rate and contact time with the activated carbon and resins are monitored. Resin beds must be regenerated periodically to maintain purification capacity.
5 Chromatographic Separation Employ simulated moving bed (SMB) chromatography to separate L-Arabinose from other sugars (e.g., D-Xylose, glucose) present in the solution. Control Point: This is the most critical separation step. Column temperature, eluent concentration, and flow rate directly determine the purity of the final product.
6 Concentration Concentrate the purified L-Arabinose fraction by evaporating water under vacuum to form a supersaturated syrup. Control Point: Vacuum evaporation allows for water removal at a low temperature, which prevents sugar caramelization. The target Brix (sugar concentration) is the key parameter.
7 Crystallization Cool the concentrated syrup under controlled agitation to induce the formation of L-Arabinose crystals. Control Point: The cooling profile and agitation speed are strictly controlled to influence crystal size distribution and purity. Seeding with pure L-arabinose crystals is often used.
8 Centrifugation & Washing Separate the solid crystals from the remaining liquid (mother liquor) in a centrifuge, followed by a wash with a small amount of pure water. Control Point: Centrifuge speed and wash water volume are optimized to effectively remove surface impurities without significant loss of the product through dissolution.
9 Drying Dry the wet crystals in a fluid bed dryer using temperature-controlled, filtered air. Control Point: The final moisture content is a critical quality specification. Drying temperature must be carefully managed to prevent discoloration or melting.
10 Sieving & Packaging Sieve the dried L-Arabinose to ensure a uniform particle size, conduct final quality control tests, and package into sealed, food-grade containers. Control Point: Final QC includes testing for purity (assay), heavy metals, and microbiological contaminants. Packaging is performed in a controlled cleanroom environment to prevent contamination.

Technical Specifications

CAS Number 5328-37-0
Chemical Formula C₅H₁₀O₅
Solubility Soluble in water
Storage Conditions Store sealed, cool and dry
Shelf Life 24 Months

Applications & Usage

Common Applications:

Low-GI foods
blood sugar control
supplements
bakery

Mechanism of action:

Parameter L-Arabinose
Functional Category Sucrase Inhibitor; Prebiotic; Glycemic Response Reducer
Key Ingredients L-Arabinose (a natural pentose monosaccharide)
Mechanism of Action Acts as a non-competitive inhibitor of the intestinal sucrase-isomaltase enzyme complex, preventing the hydrolysis of sucrose into absorbable glucose and fructose. The unhydrolyzed sucrose and L-Arabinose pass to the large intestine where they are fermented by gut microbiota.
Application Effect in Product Reduces the effective glycemic index of sucrose in foods and beverages. Mitigates postprandial blood glucose and insulin spikes. Supports gut health by acting as a prebiotic. Can be used in sugar-reduction formulations to manage metabolic impact without fully replacing sucrose.


Comparison:

Product Name Category/Type Key Features Strengths (vs peers) Weaknesses (vs peers) Best Use Cases Why Choose
L-Arabinose Rare Sugar (Pentose) Inhibits sucrase enzyme; reduces absorption of sucrose; mild sweetness (~50% of sucrose); prebiotic effects. Unique mechanism as a sucrose blocker, rather than a replacement; synergistic effect when used with sugar. Low sweetness level; not a standalone sweetener; higher cost and less availability; can cause digestive issues in high doses. Adding to sucrose-containing foods/drinks to lower their glycemic impact; functional health supplements. To specifically mitigate the effects of table sugar (sucrose) in a formula, not to replace it entirely.
Allulose Rare Sugar (Monosaccharide) ~70% as sweet as sucrose; negligible calories (~0.4 kcal/g); does not raise blood sugar; browns like sugar. Excellent for baking due to Maillard reaction (browning); very clean, sugar-like taste profile; keto-friendly. Less sweet than sucrose; can be expensive; potential for mild digestive upset at very high intake levels. Keto-friendly baking, ice cream, beverages, sauces where browning and sugar-like texture are desired. For the best sugar-like performance in cooking and baking, especially for browning and caramelization.
Erythritol Sugar Alcohol (Polyol) ~70% as sweet as sucrose; zero calories; zero glycemic index; produces a cooling sensation in the mouth. Excellent digestive tolerance compared to other polyols; zero-calorie; non-cariogenic; widely available and affordable. Pronounced cooling aftertaste can be undesirable; tends to recrystallize in solutions; less sweet than sugar. Bulk sweetener in beverages, keto baking, confections; often blended with high-intensity sweeteners to mask aftertaste. For a cost-effective, zero-calorie bulk sweetener with minimal digestive side effects.
Xylitol Sugar Alcohol (Polyol) Sweetness equal to sucrose (1:1); low glycemic index; ~2.4 kcal/g; proven to fight tooth decay. 1:1 sweetness replacement for sugar simplifies recipes; actively beneficial for dental health. Has more calories than other substitutes; can cause significant digestive distress; highly toxic to dogs. Sugar-free chewing gum, mints, toothpaste, and as a 1:1 sugar substitute in baking (in pet-free homes). For its identical sweetness to sugar and proven dental benefits, especially in oral care products.
D-Tagatose Rare Sugar (Monosaccharide) ~92% as sweet as sucrose; low calorie (~1.5 kcal/g); very low glycemic index; prebiotic. Taste and sweetness are very close to sucrose; promotes beneficial gut bacteria; browns well. Can cause flatulence and bloating until tolerance is built; less common and more expensive. General-purpose sweetener in foods and beverages; functional foods for gut health; diabetic-friendly products. For a sweetener that closely mimics sugar's taste and sweetness profile while also offering prebiotic benefits.

Technical Documents

Available Documentation

COA, TDS available

Safety Data Sheet (SDS)

MSDS available

Certificate of Analysis (COA)

Quality assurance documentation

Technical Data Sheet

Detailed technical specifications