Overview of Aglutin
Aglutin is a potent, prescription-only pharmaceutical product. The following table summarizes its core properties:
| Property | Description |
|---|---|
| Active ingredient | Amphotericin B |
| Form | Lyophilized powder for solution (Colloidal dispersion) |
| Pharmacological class | Antifungal Polyene Antibiotic |
| Common use | Systemic and invasive fungal infections |
| Origin | Natural product (Derived from Streptomyces nodosus) |
What Type of Medicine is Aglutin?
Aglutin is formally classified as an Antifungal Polyene Antibiotic used to combat severe, invasive fungal infections. The medication's sole active ingredient is Amphotericin B (INN), which belongs to the polyene macrolide class of drugs. This classification means Aglutin is employed as a powerful systemic agent for managing deep-seated fungal diseases that require robust, intravenous intervention. Clinical guidance emphasizes the utility of Amphotericin B in the treatment of systemic fungal infections in immunocompromised patients. This therapeutic application is widely supported by pharmacological studies, underscoring the medication's primary role as an essential agent against pervasive fungal disease.
Composition, Origin, and Form
Aglutin is supplied as a lyophilized product—a sterile, freeze-dried powder—that must be reconstituted into a colloidal dispersion before administration via intravenous infusion. The active component, Amphotericin B, is a natural product derived from the fermentation broth of the soil bacterium Streptomyces nodosus. Because this molecule is inherently amphoteric and possesses low water solubility, its composition requires the inclusion of a solubilizing agent, such as sodium desoxycholate, to safely and effectively distribute the drug throughout the bloodstream. It is a single product focused entirely on the action of its active ingredient.
How Aglutin Differs From Other Antifungals
Aglutin distinguishes itself by acting as a fungicidal agent, meaning it directly targets and eliminates fungal cells, rather than only slowing their growth. This action is achieved through a unique chemical process where the Amphotericin B molecule specifically seeks out and binds to ergosterol, a sterol component unique to the fungal cell membrane. This mechanism of membrane disruption is highly characteristic of the polyene class and grants the medication a broad spectrum of activity, setting it apart from other classes of antifungals, such as the azoles or echinocandins, which interfere with different stages of fungal cell synthesis. The drug's broad-spectrum nature makes it a crucial resource in cases where the specific fungal pathogen is unknown or specialized coverage is required.
Regulatory References

