Owing to its high metastatic potential and resistance to traditional drugs, efficient chemotherapy has become one of the great challenges in clinical treatment [2].
However, most intriguingly, T. longibrachiatum not only causes disease; at the same time, it seems to be a source for potential antifungal drugs efficient against Candida and Aspergillus species (Vicente et al. 2001).
Implementing a new treatment protocol requires effective introduction and training of prospective users, adequate supplies of the new drugs, efficient ongoing procurement, and regular monitoring to ensure availability and proper use.
Furthermore, the proper size and surface properties of the nanocarriers play an important role in drug-efficient encapsulation and release, in cellular uptake, and in its pharmacokinetics and biodistribution.
Progress in these specialties has included the development of thriving clinical-trial cultures, public-private partnerships, pathogenetic- and structure-led drug design, efficient drug development pipelines, and biomarker-defined treatment protocols enabling personalization of medicine.
We expect that polymeric ODN delivery after LbL assembly will result in improved therapy due to augmented nuclease stability, high drug loading, efficient delivery, and low cytotoxicity.
As all treatment methods with cytotoxic drugs were efficient and had approximately the same efficiency (percentage of eyes with improved VA), all data were pulled together.
The development of new effective drugs, new efficient batteries and clean, inexpensive energy sources.
Bioinformatics and traditional medicine can be used in discovery and design of novel candidate drugs to efficient cancer chemotherapy.
A number of studies are available describing the application of drugs as efficient corrosion inhibitors [9, 10, 11, 12, 13, 14, 15, 16, 17].
