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Home > Biochemical Engineering > Saccharides (Find 2380 items)

4-Thiouridine

(13957-31-8)
4-Thiouridine is a photoreactive (crosslinking) uridine analogue that upon phosphorylation to 4-thioUTP may be incorporated into RNA structures. 4-Thiouridine may be used to study the specificity and kinetics of uridine-cytidine kinases.

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D-Galactopyranose pentaacetate

(25878-60-8)
Used for production of fucosylated carbohydrates by enzymic fucosylation synthesis of sugar nucleotides.

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1,5-Anhydroglucitol

(154-58-5)
1,5-Anhydro-D-sorbitol is used as a reference in analytical procedures that assess the metabolism of 1,5 anhydro-D-fructose, a food supplement with potential benefits as an antioxidant, antimicrobial, and antidiabetic agent.

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Gentiobiose

(554-91-6)
A disaccharide composed of two units of D-glucose

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Turanose

(547-25-1)
Tumarose is a sucrose analog that is not metabolized by higher plants, but is used as a carbon source by many bacteria, fungi, and other organic matter. It relies on sucrose transporters to be absorbed into plant cells and participate in intracellular sugar signaling.

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3′-CMP

(84-52-6)
A metabolite of Cytidine (C998300). A highly specific phosphatase that acts on ADP-ribose 1''-phosphate, a metabolite of tRNA splicing in Saccharomyces cerevisiae.

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Saccharides, also called sodium saccharin, is the oldest sweetener. Saccharides was discovered by American scientists in 1878 and was quickly accepted by the food industry and consumers. The sweetness of saccharin is 300 to 500 times that of sucrose. It is not metabolized and absorbed by the human body and is stable in the production of various foods.

Frequently Asked Questions

What are saccharides and how are they classified?

Saccharides, also known as carbohydrates, are organic compounds composed of carbon, hydrogen, and oxygen. They are classified based on the number of sugar units: monosaccharides (e.g., glucose, fructose), disaccharides (e.g., sucrose, lactose), oligosaccharides (3–10 units), and polysaccharides (e.g., starch, cellulose). Understanding saccharide classification is essential for applications in food, pharmaceuticals, and biotechnology.

What are the common industrial uses of saccharides?

Saccharides are widely used across multiple industries:1. In food and beverage production as sweeteners, thickeners, and stabilizers.2. In pharmaceuticals as excipients, drug delivery agents, or active ingredients.3. In cosmetics for moisturizing and skin-conditioning properties.4. In biotechnology as fermentation substrates for producing biofuels and enzymes.Their versatility makes them critical raw materials in many manufacturing processes.

How do I choose a reliable saccharide supplier for industrial use?

Selecting a reliable saccharide supplier involves evaluating several key factors:1. Compliance with international quality standards such as ISO, GMP, or FCC.2. Purity and consistency of the saccharide products offered.3. Certifications for food-grade, pharmaceutical-grade, or technical-grade materials as needed.4. Supply chain reliability, including packaging, logistics, and scalability.5. Technical support and documentation (e.g., COA, MSDS).Partnering with a certified and experienced supplier ensures product safety and process efficiency.

What is the difference between reducing and non-reducing saccharides?

Reducing saccharides have a free aldehyde or ketone group that can act as a reducing agent in chemical reactions—common examples include glucose and maltose. Non-reducing saccharides, like sucrose, lack a free reactive group because their anomeric carbons are involved in glycosidic bonds. This distinction affects their reactivity in analytical tests (e.g., Benedict’s test) and their behavior in food processing or pharmaceutical formulations.

Are natural and synthetic saccharides interchangeable in formulations?

Natural and synthetic saccharides may not always be interchangeable due to differences in purity, stereochemistry, regulatory status, and functional performance. For example, naturally derived lactose is commonly used in tablets as a filler, while synthetic alternatives might not meet pharmacopeial standards. Always verify compatibility with your application requirements, regulatory guidelines (e.g., USP, EP), and end-user safety before substitution.

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