Примеры использования Every edge на Английском языке и их переводы на Русский язык
{-}
-
Colloquial
-
Official
We can use every edge.
Every edge of the four sides makes up 34,000 yojanas.
For every edge(v, w) in the graph, there is a subset Xi that contains both v and w.
Branch ties all of these implementations together,creating a linking platform that works in every edge case.
For a connected graph G remove every edge with probability p; this models a network subject to random edge failures.
The closely related totally cyclic orientations are orientations in which every edge belongs to at least one simple cycle.
For each face point,add an edge for every edge of the face, connecting the face point to each edge point for the face.
The graphs with exactly n- 1{\displaystyle n-1} bridges are exactly the trees,and the graphs in which every edge is a bridge are exactly the forests.
They are the graphs in which, for every edge uv, the neighborhoods of u and v(including u and v themselves) are nested: one neighborhood must be a subset of the other.
Let n be very large and consider a random graph G on n vertices,where every edge in G exists with probability p n1/g-1.
If F is a forest of height d with the property that every edge of G connects an ancestor and a descendant in the tree, then a centered coloring of G using d colors may be obtained by coloring each vertex by its distance from the root of its tree in F. Finally, one can define this in terms of a pebble game, or more precisely as a cops and robber game.
If M Z is the group of integers under addition and k is a positive integer with the property that-k< φ(e)<k for every edge e, then the M-flow φ is also called a k-flow.
Further, every edge in G is contained in one of these cliques, because an edge corresponds to a nonempty intersection and an intersection is nonempty if it contains at least one element of U. Therefore, the edges of G can be covered by k cliques, one per element of U. In the other direction, if a graph G can be covered by k cliques, then each vertex of G may be represented by the set of cliques that contain that vertex.
Equivalently, the tree nodes containing vertex v form a connected subtree of T. For every edge(v, w) in the graph, there is a subset Xi that contains both v and w.
We wish to show(for small enough values of n) that it is possible to color the edges of the graph in two colors(say red and blue) so thatthere is no complete subgraph on r vertices which is monochromatic every edge colored the same color.
The thrackle conjecture is known to be true for thrackles drawn in such a way that every edge is an x-monotone curve, crossed at most once by every vertical line.
Additionally, if C(G) is a cycle basis for any graph, then it must cover some edges exactly once, for otherwise its sum would be zero(impossible for a basis), and so C(G)can be augmented by one more cycle consisting of these singly-covered edges while preserving the property that every edge is covered at most twice.
In 1971, Halin introduced the Halin graphs as a class of minimally 3-vertex-connected graphs: for every edge in the graph, the removal of that edge reduces the connectivity of the graph.
Then, P{\displaystyle P}cannot be embedded in the tournament formed from the vertices of a regular 2 n- 3{\displaystyle 2n-3}-gon by directing every edge clockwise around the polygon.
In the graph shown below, the tree with edges 1-3, 2-3, and 3-4 is a Trémaux tree when it is rootedat vertex 1 or vertex 2: every edge of the graph belongs to the tree except for the edge 1-2, which(for these choices of root) connects an ancestor-descendant pair.
An unrooted binary tree T may be transformed into a full rooted binary tree(that is, a rooted tree in which each non-leaf node has exactly two children) by choosing a rootedge e of T, placing a new root node in the middle of e, and directing every edge of the resulting subdivided tree away from the root node.
A book drawing of a finite graph G onto a book B is a drawing of G on B such that every vertex of G is drawn as a point on the spine of B, and every edge of G is drawn as a curve that lies within a single page of B. The k-page book crossing number of G is the minimum number of crossings in a k-page book drawing.
All edges of an EMST are edges of a relative neighborhood graph, which in turn are edges of a Gabriel graph, which are edges in a Delaunay triangulation of the points,as can be proven via the equivalent contrapositive statement: every edge not in a Delaunay triangulation is also not in any EMST.
A bipartite graph G is well-covered if andonly if it has a perfect matching M with the property that, for every edge uv in M, the induced subgraph of the neighbors of u and v forms a complete bipartite graph.
It is also one of 56 possible isohedral tilings by quadrilaterals, andone of only eight tilings of the plane in which every edge lies on a line of symmetry of the tiling.
Although many points get shifted in this process,each new mesh is combinatorially a subdivision of the old mesh meaning that for every edge and vertex of the old mesh, you can identify a corresponding edge and vertex in the new one, plus several more edges and vertices.
One may use the third property to extend σ to an orientation-reversing function on the edges of G. The transpose graph of G is the graph formed by reversing every edge of G, and σ defines a graph isomorphism from G to its transpose.
More strongly, every st-planar directed graph(a planar directed acyclic graph with a single source and a single sink, both on the outer face)has an arc diagram in which every edge forms a monotonic curve, with these curves all consistently oriented from one end of the vertex line towards the other.
Expressed more formally, this reasoning implies that if a graph has m edges in total, andif at most β edges may belong to a maximum matching, then every edge coloring of the graph must use at least m/β different colors.