The methodology presented here is universal and can be applied to any existing microarray technology, any source of sample material and any experimental design.
With advances in high-throughput microarray technologies and diverse data sources, it is now possible to investigate the cooperative interactions among TFs.
Microarray technologies are a valuable source for the identification of genes involved in development and pathogenesis in P. infestans[ 1, 15, 35].
Several comprehensive reviews cover different microarray platforms and approaches [ Sevenet and Cussenot, 2003; Hardiman, 2004; Stoughton, 2005; Ahmed, 2006a, b; Kawasaki, 2006]; readers are directed to these sources for a more in-depth overview of microarray technologies.
As microarray technologies, annotation, and techniques for analysis continue to be refined, a number of important sources of error and data misinterpretation have been identified in these early studies and are summarized in subsequent sections.
Motivation: A major challenge in utilizing microarray technologies to measure nucleic acid abundances is 'normalization', the goal of which is to separate biologically meaningful signal from other confounding sources of signal, often due to unavoidable technical factors.
Bubendorf, L. High-throughput microarray technologies: from genomics to clinics.
Herein, we review the most recent advancements in microarray technologies, with a special focus on peptide microarray, small molecule microarray, and protein microarray.
DNA microarray technologies can provide detailed raw data about chromosomal aberrations in tumor samples.
It includes developing and using transgenic mice, microarray technologies for expression profiling, and human population genetics.
