We describe a novel randomized method, the method of color-coding for finding simple paths and cycles of a specified length k, and other small subgraphs, within a given graph G = (V, E). The randomized algorithms obtained using this method can be derandomized using families of perfect hash

network motif counting and discovery

In patients with rheumatic diseases, the well-documented benefits of breastfeeding must be carefully weighed against the risks of medication exposure to the infant. Given the absence of placebo controlled studies, estimation of drug safety is based on small studies of drug levels in breast milk and infant serum, case reports of adverse events in breastfed infants, and theoretical considerations.1 Medications are transferred to breast milk primarily via diffusion. Those with short half-lives, high protein binding, and/or high molecular weights are less likely to cross into breast milk.1 In general, breast milk drug levels of less than 10 % of the infant therapeutic dose or the maternal weight-adjusted dose are considered to be safe.2 Most medications have peak levels in breast milk 1-2 hours after maternal ingestion; avoiding nursing during this window may significantly reduce infant exposure.1 Table 1. Summary of safety data onthe use of anti-inflammatory and immunosuppressive medication in lactation

Color coding is a widely used visualization method for scalar data. To generate expressive and effective visual representations, it is extremely important to carefully de-sign the mapping from data to color. In this paper, we de-scribe a color coding approach that accounts for the dif-ferent tasks

The quantum color coding scheme proposed by Korff and Kempe [1] is easily extended so that the color coding quantum system is allowed to be entangled with an extra auxiliary quantum system. It is shown that in the extended scheme we need only ∼ 2 √ N quantum colors to order N objects in large N

main result of this work [6] is that codes that saturate these bounds can be constructed for every D, in the sense that they admit at least a transversal gate in PD (not belonging to PD−1). In particular, the result applies to color codes [7, 8, 9, 10], where the single-qubit gate RD:=

in terms of consistency, color choice, and coding and cueing with color: use color conservatively; limit the palette per screen; design for monochrome displays, and then add color; increase color with user experience; use colors selectively to manipulate attention; color material is generally

The entanglement properties of a class of topological stabilizer states, the so called twodimensional topological color codes or 2-colex, are calculated. The topological entropy is used to measure the entanglement of different bipartitions of the 2-colex. The dependency of the ground state

Abstract not found

Computer Organization (CS310) notes