## Quotient Sentence Examples

- This corrected pull is then divided by the weight of the vehicles hauled, in which must be included the weight of the dynamometer car, and the
**quotient**gives the resistance per ton of load hauled at a certain uniform speed on a straight and level road. - The potential difference of the ends of the low resistance is at the same time measured on the potentiometer, and the
**quotient**of this potential difference by the known value of the low resistance gives the true value of the current passing through the ammeter. - Experiment, however, showed that while the
**quotient**on the left hand of this equation was fairly constant for a great number of substances, yet its value was not gR but 7 R; this means that the critical density is, as a general rule, 3.7 times the theoretical density. - Hence_li y ` A 1n where A li and A li, are minors of the complete determinant (a11a22...ann)ï¿½ an1 ant ï¿½ï¿½ï¿½an,n-1 or, in words, y i is the
**quotient**of the determinant obtained by erasing the i th column by that obtained by erasing the n th column, multiplied by (-r)i+n. - Cayley, however, has shown that, whatever be the degrees of the three equations, it is possible to represent the resultant as the
**quotient**of two determinants (Salmon, l.c. p. 89). - The use of negative coefficients leads to a difference between arithmetical division and algebraical division (by a multinomial), in that the latter may give rise to a
**quotient**containing subtractive terms. The most important case is division by a binomial, as illustrated by the following examples: - 2.10+1) 6.100+5.10+ 1(3.10+I 2.10+I) 6.100+I.10 - I (3.10 - I 6.100+3.10 6.100+3.10 2.10+ I - 2.10 - I 2.10 +I - 2.10 - I In (1) the division is both arithmetical and algebraical, while in (2) it is algebraical, the**quotient**for arithmetical division being 2.10+9. - Thus, to divide i by i +x algebraically, we may write it in the form I+o.x+o.x 2 +o.x 3 +o.x 4, and we then obtain I I +0.x+0.x2+0.x3 '+0.x4 = I' x+x2 - x 3 + x4 I+x I+x' where the successive terms of the
**quotient**are obtained by a process which is purely formal. - If we divide the sum of x 2 and a 2 by the sum of x and a, we get a
**quotient**x - a and remainder 2a 2, or a**quotient**a - x and remainder 2x 2, according to the order in which we work. - When, for instance, we find that the
**quotient**, when 6+5x+7x2+13x1+5x4 is divided by 2+35+5 2, is made up of three terms+3, - 2x, and +5x 2, we are really obtaining successively the values of co, c 1, and c 2 which satisfy the identity 6+ 5x+ 7x 2 + 13x 3 + 5x4 = (co+c i x+c 2 x 2) (2+3x+5 2); and we could equally obtain the result by expanding the right-hand side of this identity and equating coefficients in the first three terms, the coefficients in the remaining terms being then compared to see that there is no remainder. - Nevertheless, it has been found in practice, when syrups with low
**quotient**of purity and high**quotient**of impurity are being treated, injecting the feed at a number of different points in the pan does reduce the time required to boil the pan, though of no practical advantage with syrups of high**quotient**of purity and free from the viscosity which impedes circulation and therefore quick boiling. - The weight per acre, the saccharine contents of the juice, and the
**quotient**of purity compared favourably with the best results obtained in Germany or France, and with those achieved by the Suffolk farmers, who between 1868 and 1872 supplied Mr Duncan's beetroot sugar factory at Lavenham; for the weight of their roots rarely reached 15 tons per acre, and the percentage of sugar in the juice appears to have varied between 10 and 12. - &c., where p+pq is the quantity whoseTi power or root is required, p the first term of that quantity, and q the
**quotient**of the rest divided by p, m the power, which may be a positive or negative integer or a fraction, and a, b, c, &c., the several terms in order, In a second letter, dated the 24th of October 1676, to Oldenburg, Newton gave the train of reasoning by which he devised the theorem. - - The solid angle subtended by any surface at a point is measured by the
**quotient**of its apparent surface by the square of its distance from that point. - The capacity is then obtained as the
**quotient**of the whole charge by this potential. - I) to any other adiabatic 0", the
**quotient**H/o of the heat absorbed by the temperature at which it is absorbed is the same for the same two adiabatics whatever the temperature of the isothermal path. - This
**quotient**is called the change of entropy, and may be denoted by (4,"-0'). - It follows from these equations that the logarithm of the product of any number of quantities is equal to the sum of the logarithms of the quantities, that the logarithm of the
**quotient**of two quantities is equal to the logarithm of the numerator diminished by the logarithm of the denominator, that the logarithm of the rth power of a quantity is equal to r times the logarithm of the quantity, and that the logarithm of the rth root of a quantity is equal to (r/r)th of the logarithm of the quantity. - To Find The Year Of The Cycle, We Have Therefore The Following Rule: Add Nine To The Date, Divide The Sum By Twenty Eight; The
**Quotient**Is The Number Of Cycles Elapsed, And The Remainder Is The Year Of The Cycle. - Hence, to find the Golden Number N, for any year x, we have N= (- 19 ' 1) which gives the following rule: Add i to the date, divide the sum by 19; the
**quotient**is the number of cycles elapsed, and the remainder is the Golden Number. - The Above Expression Must Therefore Be Diminished By The Number Of Units In 4, Or By () W (This Notation Being Used To Denote The
**Quotient**, In A Whole Number, That Arises From Dividing X By 4). - Divide The Hebrew Year By 19; Then The
**Quotient**Is The Number Of The Last Completed Cycle, And The Remainder Is The Year Of The Current Cycle. - To Find If A Year Is Intercalary Or Common, Divide It By 30; The
**Quotient**Will Be The Number Of Completed Cycles And The Remainder Will Be The Year Of The Current Cycle; If This Last Be One Of The Numbers 2, 5, 7, 10, 13, 16, 18, 21, 24, 26, 29, The Year Is Intercalary And Consists Of 355 Days; If It Be Any Other Number, The Year Is Ordinary. - - Divide the year of the Hegira by 30; the
**quotient**is the number of cycles, and the remainder is the year of the current cycle. - From the purely geometrical point of view, a quaternion may be regarded as the
**quotient**of two directed lines in space - or, what comes to the same thing, as the factor, or operator, which changes one directed line into another. - Any quaternion may now be expressed in numerous simple forms. Thus we may regard it as the sum of a number and a line, a+a, or as the product, fly, or the
**quotient**, be-', of two directed lines, &c., while, in many cases, we may represent it, so far as it is required, by a single letter such as q, r, &c. - Clifford considers an octonion p+wq as the
**quotient**of two motors p+wv, p'+wo'. - Thus, in place of his general tri-quaternion we might deal with products of an odd number of point-plane-scalars (of form, uq+wr) which are themselves point-plane-scalars; and products of an even number which are octonions; the
**quotient**of two point-plane-scalars would be an octonion, of two octonions an octonion, of an octonion by a point-plane-scalar or the inverse a point-plane-scalar. - The
**quotient**thus obtained decreases as the conditions are more favourable, and, on the whole, it seems to form a good index to the merit of the respective countries from the standpoint of vital forces. - In the case of a terminating simple continued fraction the number of partial
may be odd or even as we please by writing the I last partial**quotients****quotient**, a n as a n - I +1. - + 1/n+ 271+ ., where, after the n th partial
**quotient**, the cycle of partialb 1, b2, ..., b n recur in the same order, is the type of a recurring simple continued fraction.**quotients** - When we can solve this equation we have an expression for the n th convergent to the fraction, generally in the form of the
**quotient**of two series, each of n terms. As an example, take the fraction (known as Brouncker's fraction, after Lord Brouncker) I I 2325 2 72 2 + 2 + 2 + 2 + ... - Lambert for expressing as a continued fraction of the preceding type the
**quotient**of two convergent power series.