In this paper we demonstrate the photodynamic properties of three chlorins, derived from chlorophyll a, and the usefulness of liposomal carriers to design pharmaceutical formulations.
This chapter gives an account of the application of reverse engineering in diverse fields of biological sciences such as bioinformatics, biosystems, human regulatory networks, medical device design, software design, pharmaceutical product design, and therapeutic protein production.
CSD data are widely used in establishing standard molecular dimensions, determining conformational preferences, and in the study of intermolecular interactions, all of which are crucial in structural chemistry, rational drug design, pharmaceutical materials design, and drug delivery.
This study has generated information concerning the free and adjuvant bound toxoids behavior under a range of conditions (temperature, solutes) that can be used to design pharmaceutical formulations of enhanced physical stability.
With the potential to revolutionize industries such as materials design, pharmaceutical discovery and security encryption, the race is on.
Great efforts have been made over several years to design pharmaceutical agents targeting different intracellular signaling molecules of importance in cancer development and malignity.
The routine application of the modelling methodology in the environmental risk assessment for newly designed pharmaceuticals would enable prediction of their important physical/chemical properties and forecasting their long-range transport and fate.
X-ray crystal structures can also account for unusual electronic or elastic properties of a material, shed light on chemical interactions and processes, or serve as the basis for designing pharmaceuticals against diseases.
Emission control (e.g., optimization of treatment options in wastewater management) and drug development (i.e., designing pharmaceuticals that are optimized for both efficacy and degradability) depend largely on scientific research and technological capabilities.
