# Magnitudes Sentence Examples

- The
**magnitudes**, on the other hand, which we meet with in geometry, are essentially continuous. - The divisibility of
**magnitudes**; imaginary, where it cannot, e.g. - An interesting member of this constellation is a-Capricorni, a pair of stars of 3rd and 4th
**magnitudes**, each of which has a companion of the 9th magnitude. - This is the open place on which a power that commands in the name of this meaning can exert its influence; and if under this command the inner condition of the elements, the
**magnitudes**of their relation and their opposition to each other, become altered, the necessity of the mechanical cause of the world must unfold this new state into a miraculous appearance, not through suspension but through strict maintenance of its general laws " (op. cit. - The measure of the loss of symmetry associated with the introduction of alkyl groups depends upon the relative
**magnitudes**of the substituent group and the rest of the molecule; and the larger the molecule, the less would be the morphotropic effect of any particular substituent. - These show the
**magnitudes**of the layers of different salinity and temperature beneath the surface, and when a number of sections are compared the differences from season to season and from year to year can be seen. - 1111 The Number Of Such Terms Is The Number Of Partitions Of W Into 0 0 Parts, The Part
**Magnitudes**, In The Two Portions, Being Limited Not To Exceed P And Q Respectively. - One of the fragments may again be broken, and again two bipolar magnets will be produced; and the operation may be repeated, at least in imagination, till we arrive at molecular
**magnitudes**and can go no farther. - While mensuration is concerned with the representation of geometrical
**magnitudes**by numbers, graphics is concerned with the representation of numerical quantities by geometrical figures, and particularly by lengths. - Although this transition from the discontinuous to continuous is not truly scientific, yet it materially augmented the development of algebra, and Hankel affirms that if we define algebra as the application of arithmetical operations to both rational and irrational numbers or
**magnitudes**, then the Brahmans are the real inventors of algebra. - To get an idea of the
**magnitudes**of the quantities involved, let us take the case of an aperture of 1 in., about that of the pupil of the eye. - His streets were to be of three
**magnitudes-**90 ft., 60 ft. - If p is the density corresponding to pressure p, we find that,}, formula (Ii) assumes the form P = 3PC2, where C is a velocity such that the gas would have its actual translational energy if each molecule moved with the same velocity C. By substituting experimentally determined pairs of values of p and p we can calculate C for different gases, and so obtain a knowledge of the
**magnitudes**of the molecular velocities. - His only extant work is a short treatise (with a commentary by Pappus) On the
**Magnitudes**and Distances of the Sun and Moon. - The direct measurement of certain
**magnitudes**(usually lengths) in terms of a unit, and the application of a formula for determining the area or volume from these data. - It is also convenient to regard as coming under mensuration the consideration of certain derived
**magnitudes**, such as the moment of a plane figure with regard to a straight line in its plane, the calculation of w]iich involves formulae which are closely related to formulae for determining areas and volumes. - This use of formulae for dealing with numbers, which express
**magnitudes**in terms of units, constitutes the broad difference between mensuration and ordinary geometry, which knows nothing of units. - As a result of the importance both of the formulae obtained by elementary methods and of those which have involved the previous use of analysis, there is a tendency to dissociate the former, like the latter, from the methods by which they have been obtained, and to regard mensuration as consisting of those mathematical formulae which are concerned with the measurement of geometrical
**magnitudes**(including lengths), or, in a slightly wider sense, as being the art of applying these formulae to specific cases. - These last two steps may introduce
**magnitudes**which have to be subtracted, and which therefore have to be treated as negative quantities in the arithmetical. - Let E and F be two
**magnitudes**so related that whenever F has any value (within certain limits) E has a definite corresponding value. - Let u and x be the numerical expressions of the
**magnitudes**of E and F. - The corresponding solid figure, in its most general form, is such as would be constructed to represent the relation of a magnitude E to two
**magnitudes**F and G of which it is a function; it would stand on a plane base, and be comprised within a cylindrical boundary whose cross-section might be of any shape. - The volume of a frustum of a cone, for instance, can be expressed in terms of certain
**magnitudes**by a certain formula; but not only will there be some error in the measurement of these**magnitudes**, but there is not any material figure which is an exact cone. - In the case of a trapezette, for instance, the data are the
**magnitudes**of certain ordinates; the problem of interpolation is to determine the values of intermediate ordinates, while that of mensuration is to determine the area of the figure of which these are the ordinates. - Ursae majoris is a beautiful binary star, its components having
**magnitudes**4 and 5; this star was one of the first to be recognized as a binary - i.e. - The first important work undertaken with it was a revision of the
**magnitudes**given in the Bonn Durchmusterung. - The
**magnitudes**of nearly 8000 southern stars were determined, including 1428 stars of the 6th magnitude and brighter. - Corum, a double star, of
**magnitudes**3 and 6; this star was named Cor Caroli, or The Heart of Charles II., by Edmund Halley, on the suggestion of Sir Charles Scarborough (1616-1694), the court physician; a cluster of stars of the firth magnitude and fainter, extremely rich in variables, of the goo stars examined no less than 132 being regularly variable. - The Galileo-Newton theory of motion is that, relative to a suitably chosen base, and with suitable assignments of mass, all accelerations of particles are made up of mutual (so-called) actions between pairs of particles, whereby the two particles forming a pair have accelerations in opposite directions in the line joining them, of
**magnitudes**inversely proportional to their masses. - This ratio is adopted so that a difference of five
**magnitudes**may correspond to a light-ratio of i: loo. - Heis the numbers and
**magnitudes**of stars between the north pole and a circle 35° south of the equator are: - From the value of the light-ratio we can construct a table showing the number of stars of each magnitude which would together give as much light as a first magnitude star, viz.: - Comparing these figures with the numbers of stars of each magnitude we notice that the total light emitted by all the stars of a given magnitude is fairly constant. - In its period of 406 days it fluctuates between the thirteenth and the fourth
**magnitudes**; thus at maximum it emits 4000 times as much light as at minimum. - On the 15th of March it was of the fourth magnitude; during the next three months it oscillated many times between
**magnitudes**4 and 6, and by the end of the year it had faded to the seventh magnitude. - Thus a rise of at least eight
**magnitudes**in two days must have occurred. - About one-third of the stars are between
**magnitudes**11 and 13, and the remaining two-thirds are between**magnitudes**15.5 and 16.5. - Stars of
**magnitudes**intermediate between these two groups are almost entirely absent. - The
**magnitudes**of the stars are distributed in the same way in each drift. - For the higher
**magnitudes**C. Kapteyn has. - If the stars were all of the same intrinsic brightness it is evident that the comparison of the number of stars of successive
**magnitudes**would show directly where the decreased density of distribution began. - If three forces acting on a particle be in equilibrium, and any triangle be constructed whose sides are respectively parallel to the forces, the
**magnitudes**of the forces will be to ope another as the corresponding sides of the triangle. - The two diagrams being supposed constructed, it is seen that each of the given systems of forces can be replaced by two components acting in the sides of the funicular which meet at the corresponding vertex, and that the
**magnitudes**of these components will be given by the corresponding triangle of forces in the force-diagram; thus the force 1 in the figure is equivalent to two forces represented by 01 and 12. - The centre (~ 4) of a system of parallel forces of given
**magnitudes**, acting at given points, is easily determined graphically. - The directions and
**magnitudes**of the reactions at A and C are then easily ascertained. - When parallel forces of given
**magnitudes**act at given points, the resultant acts through a definite point, or centre of parallel forces, which is independent of the special direction of the forces. - If we imagine a rigid body to be acted on at given points by forces of given
**magnitudes**in directions (not all parallel) which are fixed in space, then as the body is turned about the resultant wrench will assume different configurations in the body, and will in certain positions reduce to a single force. - The theory of dimensions often enables us to forecast, to some extent, the manner in which the
**magnitudes**involved in any particular problem will enter into the result. - Because the resistances to displacement are the effect of a strained state of the pieces, which strained state is the effect of the load, and when the load is applied the strained state and the resistances produced by it increase until the resistances acquire just those
**magnitudes**which are sufficient to balance the load, after which they increase no further. - At the joint between the pieces to which the two loads reprfsented by the contiguous sides of the polygon of loads (such as L1, L2, &c.) are applied; then will all those lines meet in one point (0), and their lengths, measured from that point to the angles of Ike polygon, will represent the
**magnitudes**of the resistances to which they are respectively parallel. - To find their absolute directioru and
**magnitudes**, a vertical line is to be drawn in the first figure, o: - It consists of two elements, the velocity ratio, which is the ratio of any two
**magnitudes**bearing to each other the proportions of the respective velocities of the two points at a given instant, and the directional relation, which is the relation borne to each other by the respective directions of the motions of the two points at the same given instant. - The relation between the advance and the rotation, which compose the motion of a screw working in contact with a fixed screw or helical guide, has already been demonstrated in 32; and the same relation exists between the
**magnitudes**of the rotation of a screw about a fixed axis and the advance of a shifting nut in which it rotates. - Then Ob is the velocity of the point b in magnitude and direction, and cb is the tangential velocity of B relatively to C. Moreover, whatever be the actual
**magnitudes**of the velocities, the instantaneous velocity ratio of the points C and B is given by the ratio Oc/Ob. - Angles to Ct; then the vector sum of these three
**magnitudes**is Ab, and this vectol represents the acceleration of the point B. - Variable Effort and Resistance.Jf an effort has different
**magnitudes**during different portions of the motion of its point of application through a given distance, let each different magnitude of the effort P be multiplied by the length Lts of the corresponding portion of the path of the point of application; the sum ~. - * Method of computing the position and
**magnitudes**of balance weights which must be added to a given system of arbitrarily chosen rotating masses in order to make the common axis of rotation a permanent axis.The method here briefly explained, is taken from a paper by W. - The relative importance of two harmonic disturbances depends upon their initial
**magnitudes**, and upon the rate at which they grow. - The
**magnitudes**of the maximum shearing stresses are indicated by the algebraic differences of the thicknesses of the lines of principal stress. - The additions of velocity which the two bodies receive respectively, relative to such a base, are in opposite directions, and if the bodies are alike their
**magnitudes**are equal. - If the bodies though of the same substance are of different sizes, the
**magnitudes**of the additions of velocity are found to be inversely proportional to the volumes of the bodies. - But if the bodies are of different substances, say one of iron and the other of gold, the ratio of these
**magnitudes**is found to depend upon something else besides bulk. - When, as in the case of contact, a mutual relation is perceived between the motions of two particles, the changes of velocity are in opposite directions, and the ratio of their
**magnitudes**determines the ratio of the masses of the particles; the motion being reckoned relative to any base which is unaffected by the change.