Overview of Tolizole
What is Tolizole? A Quick Overview
| Property | Description |
|---|---|
| Active Ingredient | Metronidazole (INN) |
| Form | Tablet, Capsule, Solution, Gel, Cream |
| Pharmacological Class | Antibiotic and Antiprotozoal Agent |
| Origin | Synthetic Nitroimidazole Derivative |
| General Purpose | Eliminate susceptible anaerobic bacteria and protozoa |
What Type of Medicine is Tolizole and What is it Made Of?
Tolizole is a trade name for a synthetic antimicrobial preparation whose active pharmaceutical ingredient is Metronidazole, a compound belonging to the distinct nitroimidazole derivative chemical class. It is characterized by its dual pharmacological classification, functioning as both an Antibiotic and an Antiprotozoal Agent. This dual capacity is a unique defining factor, enabling it to address infections caused by specific bacteria and certain parasites.
The medication is a single-ingredient product, relying solely on the potency of the Metronidazole molecule. Its status as an Rx (prescription-only) medicine indicates its use requires professional medical supervision. Tolizole is produced in diverse dosage forms—such as tablets, capsules, injectable solutions, and topical creams—to permit various routes of administration, ensuring flexible delivery to different body sites.
Why is Tolizole Considered an Essential Antimicrobial Drug?
Tolizole's primary function is the reliable elimination of specific pathogenic microorganisms by exerting a potent bactericidal (bacteria-killing) and protozoacidal (protozoa-killing) action. This action is clinically recognized for its efficacy against infections caused by oxygen-sensitive bacteria and protozoal pathogens.
The drug’s broad applicability has led to the inclusion of Metronidazole on the Model List of Essential Medicines. This designation indicates that the active ingredient is globally affirmed as one of the safest and most effective medicines to meet core health needs. The drug's benefit stems from its unique targeted action, which specifically disrupts the DNA of susceptible anaerobic bacteria and disease-causing protozoa after chemical activation within their cells. This selective DNA disruption is the core mechanism that achieves pathogen elimination.
Regulatory References

