High rates of food production have been achieved through these systems in which the scale of operations requires the high throughput generation of animals for processing.
In order to address the need for high throughput genotyping of animals and cost effectiveness of the process, a SNPlex assay was then designed.
Given the characteristics of this VNT, it can be used at a relative high throughput for testing of animals for export, surveillance, screening and research purposes, but can also be used as a confirmation test for commercially available enzyme-linked immunosorbent assays (ELISA's) and for (relative) quantification of antibodies.
As such it can be used as a confirmation test for commercially available enzyme-linked immunosorbent assays (ELISA's) and for (relative) quantification of antibodies, but also at a relative high throughput for testing of animals for export, surveillance, screening and research purposes.
The assay has been deployed in high-throughput SNP genotyping of animals, such as cattle (50 K BeadChip) [ 18] and swine (60 K BeadChip) [ 19].
Overall, we have designed, created and validated a considerably cost- and space-efficient electrophysiology system that greatly improves throughput while minimizing the number of animals used in experiments.
A two-tailed Fisher's exact test was used to 1) compare the allele frequency estimates generated using high throughput sequencing and Sequenom® MassARRAY genotyping technologies for the SNPs in common across both platforms, and 2) compare the allele frequencies generated using high throughput sequencing in the pools of animals divergent for genetic merit for calving interval.
One of the most challenging tasks in toxicology is the identification of a potential toxicity via high-throughput screening, avoiding the use of animals, at an early stage in the development programme of a product such as a pharmaceutical or in the context of REACH [1].
These models each reflect different aspects of the pathology of MS and are the current accepted gold standards for modelling the disease, but these models are very low-throughput, and so expensive in terms of animals, time and money.
The availability of high-throughput whole genome sequencing for substantial numbers of animals has opened new avenues in examining genetic diversity and led to reliable and detailed investigation of large chromosome segments, including stretches of homozygous genomic regions [ 15].
A combination of high-throughput methods, greater sequencing depth, and a larger number of animals may be required to more clearly discern subtle differences in the rumen microbiome associated with efficient and inefficient animals.
