Consider adopting a system of holidays in which time off is granted with an eye to minimum inconvenience to the operation of the plant.

Consider a shear field with a height of H and a cross-sectional area of A opposed by a manometer with a height of H ( referred to the same base as H ) and a cross-sectional area of A.

Consider the assembly of a car: assume that certain steps in the assembly line are to install the engine, install the hood, and install the wheels ( in that order, with arbitrary interstitial steps ); only one of these steps can be done at a time.

* Consider a set with three elements, A, B, and C. The following operation:

Consider a speech signal reduced to packets, and forced to share a link with bursty data traffic ( traffic with some large data packets ).

Consider a complete orthonormal system ( basis ),, for a Hilbert space H, with respect to the norm from an inner product.

Consider the real line with its ordinary topology.

( Consider 1 / 0, which is defined with the value of infinity, vs. 0 / 0, which is undefined.

Consider a physical system that acts as a linear filter, such as a system of springs and masses, or an analog electronic circuit that includes capacitors and / or inductors ( along with other linear components such as resistors and amplifiers ).

Fundamental group: Consider the category of pointed topological spaces, i. e. topological spaces with distinguished points.

Consider a collection of particles performing a random walk in one dimension with length scale and time scale.

< li > Consider the group ( Z < sub > 6 </ sub >, +), the integers from 0 to 5 with addition modulo 6.

* The Infinite Moment ( 1961 ) ( US edition of Consider Her Ways, with two stories dropped, two others added )

Consider the following example ( in Kwakw ' ala, sentences begin with what corresponds to an English verb ):

Consider a test apparatus consisting of a closed and well insulated cylinder equipped with a piston.

Consider two noninteracting systems and, with respective Hilbert spaces and.

Consider as above systems and each with a Hilbert space,.

Consider two ISPs, A and B, which each have a presence in New York, connected by a fast link with latency 5 ms ; and which each have a presence in London connected by a 5 ms link.

Consider the following: if the typical user is searching with term " A ", would they also want resources tagged with term " B "?

Again we start with a C < sup >∞</ sup > manifold, M, and a point, x, in M. Consider the ideal, I, in C < sup >∞</ sup >( M ) consisting of all functions, ƒ, such that ƒ ( x ) = 0.

Consider a linear differential equation with constant coefficients

Consider the time series of an independent variable and a dependent variable, with observations sampled at discrete times.

Consider a ROM with m inputs ( the address lines ) and n outputs ( the data lines ).

Consider the following quote: " How can the fact that, in the case of the brains in a vat, the language is connected by the program with sensory inputs which do not intrinsically or extrinsically represent trees ( or anything external ) possibly bring it about that the whole system of representations, the language in use, does refer to or represent trees or any thing external?

Consider the unitary form defined above for the DFT of length N, where

Consider the number N ( r ) of balls of radius at most r required to cover X completely.

Consider a state of the system, described by the single particle states ..., n < sub > N </ sub >.

Consider a jar containing N lottery tickets numbered from 1 through N. If you pick a ticket randomly then you get positive integer n, with probability 1 / N if n ≤ N and with probability zero if n > N. This can be written

Consider an unsorted database with N entries.

If S is compact but not closed, then it has an accumulation point a not in S. Consider a collection consisting of an open neighborhood N ( x ) for each x ∈ S, chosen small enough to not intersect some neighborhood V < sub > x </ sub > of a.

Consider a quantum ensemble of size N with occupancy numbers n < sub > 1 </ sub >, n < sub > 2 </ sub >,..., n < sub > k </ sub > corresponding to the orthonormal states, respectively, where n < sub > 1 </ sub >+...+ n < sub > k </ sub >

Consider a rigid regular, crystalline, i. e. not amorphous, lattice composed of N particles.

Consider a system of N qubits that is coupled to a bath symmetrically.

Consider a graph G with vertices V, each numbered 1 through N. Further consider a function shortestPath ( i, j, k ) that returns the shortest possible path from i to j using vertices only from the set

Consider the set of all nilpotent elements of R, which will be called the nilradical of R ( and will be denoted by N ( R )).

Consider N systems in adiabatic isolation from the rest of the universe, i. e. no heat exchange is possible outside of these N systems, all of which have a constant volume and composition, and which can only exchange heat with one another.

Consider a sphere B < sub > 2 </ sub > of radius 2 centered at N. The inversion with respect to B < sub > 2 </ sub > transforms B into its stereographic projection P.

Consider a linear polymer to be a freely-jointed chain with N subunits, each of length, that occupy zero volume, so that no part of the chain excludes another from any location.

# Quadratic residue code: Consider the set N of quadratic non-residues ( mod 23 ).

Consider the translates t + N of this subset.

Consider the special case N = 1.

Consider an integer N and a non-negative monotone decreasing function f defined on the unbounded interval < nowiki >