At Ceyone Life Sciences, we conduct forced degradation studies to evaluate the stability, robustness, and degradation pathways of pharmaceutical products under extreme stress conditions. These studies provide critical insights into a molecule’s intrinsic stability, enabling the design of stable formulations, improved shelf life, and comprehensive regulatory documentation.
Why Choose Ceyone?
Identification of potential degradation pathways under thermal, oxidative, photolytic, and hydrolytic conditions
Data supporting impurity profiling, method validation, and stability-indicating methods
Assessment of product stability throughout its lifecycle
Ensures compliance with ICH and global regulatory requirements
Popular questions
Can Ceyone identify degradation products?
Yes. Analytical evaluation of stressed samples can help identify, quantify, and characterize degradation products generated during forced degradation studies.
Can forced degradation support analytical method development?
Yes. Forced degradation studies can help demonstrate that an analytical method can distinguish the active substance from its degradation products and therefore support development of stability-indicating methods.
Can the results support regulatory requirements?
Yes. Properly designed and documented forced degradation studies can provide data supporting pharmaceutical development, stability assessment, analytical method development, and applicable regulatory requirements.
What are forced degradation studies?
Forced degradation studies intentionally expose a pharmaceutical substance or product to stress conditions to understand its degradation pathways and identify potential degradation products.
Why are forced degradation studies important?
They help establish the stability characteristics of a pharmaceutical product, identify degradation pathways, and support the development of stability-indicating analytical methods.
What stress conditions can be evaluated?
Depending on the compound and study requirements, forced degradation can evaluate conditions such as acidic and basic hydrolysis, oxidation, thermal stress, humidity, and photolytic stress.