Selecting Experimental Parameters for Modulated DSC
Overview In this Tech Tip, we will give a general overview of the parameters you need to select when running a modulated differential scanning calorimetry experiment, also known as MDSC.
Overview In this Tech Tip, we will give a general overview of the parameters you need to select when running a modulated differential scanning calorimetry experiment, also known as MDSC.
We performed a comparability study of a liquid protein reference formulation using a nano differential scanning calorimeter (Nano DSC) to reveal that this thermodynamic technology detects the smallest changes in biomolecular structure in response to subtle manipulations in the reference formulation.
To Characterize the Variation in Material Properties of Non-Woven PLGA Fibers
Successful additive manufacturing products depend upon your materials’ properties and behaviors. Rheology provides valuable information for safe, efficient, and reproducible polymer manufacturing.
This application note will review the microcalorimetric techniques that are most commonly used within pharmaceutical science: including stability and compatibility tests, determination of small amounts of amorphic content and characterizing polymorphism.
In this note, the thermal properties of nylon gears with increasing mass fractions of recycled material are evaluated.
In this note, the processing behavior of two lactose excipients is studied by measuring shear and flowability of milled and spray-dried lactose. Milled lactose was found to have higher cohesion, yield strength, confined and unconfined flow energies when compared to spray-dried lactose.
The purpose of this paper is to explain and illustrate a systematic thermal analysis approach (DSC, MDSC®, and TGA) for detecting drug-excipient incompatibility and then optionally exploring the rate of reaction (kinetics) and reaction mechanism (chemistry).
In this apps note, the properties of PLA are studied under various controlled humidity and temperature conditions.
his application note describes the importance of using thermal and rheological techniques to help fingerprinting the molecular architecture of the PET feedstocks.
This note will detail the use of dynamic mechanical analysis (DMA) and rheology to characterize the glass transition of a polymeric material.
In this work, the thermal degradation process of nylon 66 was studied using TGA-MS, TGA-FTIR and TGA-GC/MS in inert gas environments. These techniques together can provide a lot of insights of the thermal degradation process and its off-gas products.