The demand for high throughput has driven to architectures that use multiple hops in the presence of infrastructure.
As the demand for higher throughput satellites increases, multibeam architectures with smaller beam spots are becoming common place.
To meet the demand for higher throughput, improved coverage and enhanced reliability, future wireless cellular networks face significant technical challenges.
In high-performance motion systems, e.g. wafer-stages and pick-and-place machines, there is an increasing demand for higher throughput and accuracy.
Ever-increasing demand for higher throughput and lower delay in wireless ad hoc networks led to an extensive research into newer techniques, algorithms, and technologies.
Considering that a bacterial cell generally contains femtograms of DNA and the minimum demand for high throughput sequencing is micrograms, whole genome amplification is an essential step for single-cell genomics.
Parallel and heterogeneous computing with the use of discrete device accelerators like GPUs, FPGAs, and even ASICs, are some of the recent system level attempts that have addressed an increasing demand for computational throughput [1, 2].
Genome-wide mutant strain collections have increased demand for high throughput cellular phenotyping (HTCP).
Genetics' demand for increased throughput is driving automatization of behavior analysis far beyond experimental workhorses like circadian monitors and the operant conditioning box.
Therefore, to detect these RNAs, the demand for high-throughput technologies such as RNA-seq will increase.
