Military schools and courses of instruction in the science and art of war,: in France, Prussia, Austria, Russia, Sweden, Switzerland, Sardinia, England, and the United States. Drawn from recent official reports and documents. Revised Edition
History
Military schools and courses of instruction in the science and art of war,: in France, Prussia, Austria, Russia, Sweden, Switzerland, Sardinia, England, and the United States. Drawn from recent official reports and documents. Revised Edition
Military education
Decomposition of the trinomial _x^{2} + px + q_ into factors of the
first degree.--Relations between the coefficients and the roots of the
equation _x^{2} + px + q = 0_.
Trinomial equations reducible to the second degree.
Of the maxima and minima which can be determined by equations of the
second degree.
Calculation of the _arithmetical_ values of radicals.
Fractional exponents.--Negative exponents.
_Of series._
Geometrical progressions.--Summation of the terms.
What we call a series.--Convergence and divergence.
A geometrical progression is convergent, when the ratio is smaller
than unity; diverging, when it is greater.
The terms of a series may decrease indefinitely and the series not be
converging.
A series, all the terms of which are positive, is converging, when the
ratio of one term to the preceding one tends towards a _limit_ smaller
than unity, in proportion as the index of the rank of that term
increases indefinitely.--The series is diverging when this _limit_ is
greater than unity. There is uncertainty when it is equal to unity.
In general, when the terms of a series decrease indefinitely, and are
alternately positive and negative, the series is converging.
* * *
Combinations, arrangements, and permutations of _m_ letters, when each
combination must not contain the same letter twice.
Development of the entire and positive powers of a binomial.--General
terms.
Development of _(a + b √-1)^{m}_.
Limit towards which _(1 + 1/m)^{m}_ tends, when _m_ increases
indefinitely.
Summation of piles of balls.
_Of logarithms and of their uses._
All numbers can be produced by forming all the powers of any positive
number, greater or less than _one_.
General properties of logarithms.
When numbers are in geometrical progression, their logarithms are in
arithmetical progression.
How to pass from one system of logarithms to another system.
Calculation of logarithms by means of the series which gives the
logarithm of _n + 1_, knowing that of _n_.--Calculation of Napierian
logarithms.--To deduce from them those of Briggs. Modulus.
Use of logarithms whose base is 10.--Characteristics.--Negative
characteristics. Logarithms entirely negative are not used in
calculation.
A number being given, how to find its logarithm in the tables of
Callet. A logarithm being given, how to find the number to which it
belongs.--Use of the proportional parts.--Their application to
appreciate the exactness for which we can answer.
Employment of the sliding rule.
Resolution of exponential equations by means of logarithms.
Compound interest. Annuities.
_Derived functions._
Development of an entire function F(_x + h_) of the binomial
(_x + h_).--Derivative of an entire function.--To return from the
derivative to the function.
Public-domain text, read in full here on John Shaqi.
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