Overview of Oxol
| Quick Facts | Description |
|---|---|
| Active Ingredient | Oxaliplatin |
| Form | Solution for Intravenous (IV) Infusion |
| Pharmacological Class | Antineoplastic Agent, Platinum Analog |
| General Purpose | To inhibit the proliferation of malignant cells |
| Origin | Synthetic Chemical Compound |
What Type of Medicine is Oxol?
Oxol is the trade name for the active drug Oxaliplatin, a powerful, synthetic chemical compound classified as an antineoplastic agent. This classification identifies it as a prescription-only chemotherapy medication used to combat the proliferation of malignant cells throughout the body. Oxaliplatin is a platinum-based drug. This confirms that the medication’s foundational structure relies on a platinum atom to exert its cellular effects.
The medication is specifically categorized as a third-generation platinum analog, distinguishing it from earlier compounds like cisplatin. This chemical structure features a unique diaminocyclohexane (DACH) ligand, a design modification that dictates how the drug interacts with malignant cells. This structural uniqueness is clinically recognized for providing efficacy in certain therapeutic contexts.
Composition, Form, and General Purpose
The medication’s composition centers solely on the active pharmaceutical ingredient, Oxaliplatin. Oxol is supplied and prepared as an aqueous solution for intravenous infusion, often manufactured by Sanofi-Aventis, highlighting its status as a recognized brand within hospital settings.
The general therapeutic purpose of Oxaliplatin is to act as a cytotoxic agent, inhibiting the division and growth of abnormal, rapidly dividing cells. The drug is indicated for the treatment of cancer, leveraging its inherent cytotoxic properties. This highlights the drug's role as a potent tool intended to reduce the overall mass of malignant cells, often used in cases requiring systemic intervention.
How Oxaliplatin Disrupts Cancer Cell Replication
Oxaliplatin fundamentally works by disrupting the genetic material of the cancer cell. The drug creates bonds, known as cross-links, within the strands of the cell’s DNA. This physical deformation effectively blocks the cell’s ability to divide or replicate, a process that is critical for managing the progression of malignant tissue. This core mechanism results in the desirable effect of cytotoxicity.
Regulatory References

