We study MAC protocols, which trade long, unpredictable delays in data transmissions for energy conservation, mobility, throughput and/or reliability.
There are several driving forces pushing for sensing device miniaturization–– namely, smaller system size, increased analytical throughput, conservation of analyte and support materials, increased ruggedization and quality control, and the option for disposable arrays.
The Relay MAC protocol proposed yields better throughput and energy conservation than a conventional binary search protocol.
These studies were undertaken in the context of an approach to cross-genus conservation measurement designed for high throughput use, involving a sliding window of 9 amino acid residues.
OPHID is a database on predicted interactions between human proteins combining PPIs obtained from specialist literature, high-throughput experiments, evolutionary conservation and other databases such as BIND, HPRD and MINT.
The performance of the proposed approach is witnessed by analyzing the parameters like packet delivery ratio, throughput, delay and energy conservation ratio.
In this paper, we formulate the routing problem as a MILP with the objective of maximizing the network throughput under fairness, flow conservation, half-duplex, and node-degree constraints.
Because direct and reliable high-throughput experimental data on conservation of gene expression are often unavailable, the assessment of these two computational models is very challenging and has not been reported yet.
We establish the throughput region basing on flow conservation and link activation time constraints.
Most of them use a period sleep/wake interval (see Figure 1) and provide effective energy conservation at the cost of delay and throughput.
