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{{short description|швајцарски математичар}}

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'''Јакоб Бернули''' ({{јез-нем|Jakob Bernoulli}}; [[Базел]], [[27. децембар]] [[1654]] — [[Базел]], [[16. август]] [[1705]]), познат и као '''Жак Бернули''', је [[Швајцарска|швајцарски]] [[математичар]] и [[наука|научник]] и старији брат [[Јохан Бернули|Јохана Бернулија]].
'''Јакоб Бернули''' ({{јез-нем|Jakob Bernoulli}};<ref>Mangold, Max (1990). ''Duden — Das Aussprachewörterbuch''. 3. Auflage. Mannheim/Wien/Zürich, Dudenverlag.</ref> [[Базел]], [[27. децембар]] [[1654]] — [[Базел]], [[16. август]] [[1705]]), познат и као '''Жак Бернули''', је [[Швајцарска|швајцарски]] [[математичар]] и [[наука|научник]] и старији брат [[Јохан Бернули|Јохана Бернулија]].


Јакоб Бернули је срео [[Роберт Бојл|Роберта Бојла]] и [[Роберт Хук|Роберта Хука]] на путу у Енглеску [[1676]]. године, након ког је посветио живот науци и математици. Био је професор математике на Универзитету у Базелу од [[1687]]. године.<ref>{{cite web |title=Jacob Bernolli |url=http://alas.matf.bg.ac.rs/~mm03026/jakob%20bernuliYU.html |website=Alas.mat |accessdate=19. 1. 2019}}</ref>
Јакоб Бернули је срео [[Роберт Бојл|Роберта Бојла]] и [[Роберт Хук|Роберта Хука]] на путу у Енглеску [[1676]]. године, након ког је посветио живот науци и математици. Био је професор математике на Универзитету у Базелу од [[1687]]. године.<ref>{{cite web |title=Jacob Bernolli |url=http://alas.matf.bg.ac.rs/~mm03026/jakob%20bernuliYU.html |website=Alas.mat |accessdate=19. 1. 2019}}</ref> Његов докторат ''-{Ars Conjectandi}-'' је био преломна тачка у развоју [[теорија вероватноће|теорије вероватноће]]. Објављен је осам година након његове смрти [[1713]]. године.
{{рут}}
Он је био an early proponent of Leibnizian calculus and sided with [[Готфрид Вилхелм Лајбниц|Готфридом Лајбницом]] during the [[Leibniz–Newton calculus controversy]]. He is known for his numerous contributions to [[calculus]], and along with his brother [[Johann Bernoulli|Johann]], was one of the founders of the [[calculus of variations]]. He also discovered the fundamental mathematical constant {{mvar|[[e (mathematical constant)|e]]}}. However, his most important contribution was in the field of [[probability]], where he derived the first version of the [[law of large numbers]] in his work ''[[Ars Conjectandi]]''.<ref name="MacTutor">[http://www-gap.dcs.st-and.ac.uk/~history/Biographies/Bernoulli_Jacob.html Jacob (Jacques) Bernoulli], [http://www-gap.dcs.st-and.ac.uk/~history/ The MacTutor History of Mathematics archive], School of Mathematics and Statistics, [[University of St Andrews]], UK.</ref>


==Biography==
Био је у вези са [[Готфрид Вилхелм Лајбниц|Готфридом Лајбницом]].
Jacob Bernoulli was born in [[Basel]], [[Switzerland]]. Following his father's wish, he studied [[theology]] and entered the ministry. But contrary to the desires of his parents,<ref name =HLS>{{cite web |url=http://www.hls-dhs-dss.ch/textes/d/D23988.php |title=Bernoulli, Jacob |last=Nagel |first=Fritz |date=11 June 2004 |publisher=Historisches Lexikon der Schweiz |access-date=20 May 2016}}</ref> he also studied [[mathematics]] and [[astronomy]]. He traveled throughout [[Europe]] from 1676 to 1682, learning about the latest discoveries in mathematics and the sciences under leading figures of the time. This included the work of [[Johannes Hudde]], [[Robert Boyle]], and [[Robert Hooke]]. During this time he also produced an incorrect theory of [[comet]]s.
[[File:Acta Eruditorum - X astronomia, 1682 – BEIC 13349171.jpg|thumb|Image from ''[[Acta Eruditorum]]'' (1682) wherein was published the critique of Bernoulli's ''Conamen novi systematis cometarum'']]


Bernoulli returned to Switzerland, and began teaching mechanics at the [[University of Basel]] from 1683. His doctoral dissertation ''Solutionem tergemini problematis'' was submitted in 1684.<ref>{{cite book |last1=Kruit |first1=Pieter C. van der |title=Jan Hendrik Oort: Master of the Galactic System |date=2019 |publisher=Springer |isbn=978-3-030-17801-7 |page=639 |url=https://books.google.com/books?id=XwSjDwAAQBAJ&pg=PA639 |language=en}}</ref> It appeared in print in 1687.<ref>{{cite book |last1=Bernoulli |first1=Jakob |title=Die Werke von Jakob Bernoulli: Bd. 2: Elementarmathematik |date=2006 |publisher=Springer Science & Business Media |isbn=978-3-7643-1891-8 |page=92 |url=https://books.google.com/books?id=CYvAH41605QC&pg=PA92 |language=it}}</ref>
Његов докторат ''-{Ars Conjectandi}-'' је био преломна тачка у развоју [[теорија вероватноће|теорије вероватноће]]. Објављен је осам година након његове смрти [[1713]]. године.


In 1684 Bernoulli married Judith Stupanus; they had two children. During this decade, he also began a fertile research career. His travels allowed him to establish correspondence with many leading mathematicians and scientists of his era, which he maintained throughout his life. During this time, he studied the new discoveries in mathematics, including [[Christiaan Huygens]]'s ''De ratiociniis in aleae ludo'', [[Descartes]]' ''[[La Géométrie]]'' and [[Frans van Schooten]]'s supplements of it. He also studied [[Isaac Barrow]] and [[John Wallis]], leading to his interest in infinitesimal geometry. Apart from these, it was between 1684 and 1689 that many of the results that were to make up ''[[Ars Conjectandi]]'' were discovered.
== Референце ==

{{reflist}}
He was appointed professor of mathematics at the [[University of Basel]] in 1687, remaining in this position for the rest of his life. By that time, he had begun tutoring his brother [[Johann Bernoulli]] on mathematical topics. The two brothers began to study the calculus as presented by Leibniz in his 1684 paper on the differential calculus in "[[Nova Methodus pro Maximis et Minimis]]" published in ''[[Acta Eruditorum]]''. They also studied the publications of [[Ehrenfried Walther von Tschirnhaus|von Tschirnhaus]]. It must be understood that Leibniz's publications on the calculus were very obscure to mathematicians of that time and the Bernoullis were among the first to try to understand and apply Leibniz's theories.

Jacob collaborated with his brother on various applications of calculus. However the atmosphere of collaboration between the two brothers turned into rivalry as Johann's own mathematical genius began to mature, with both of them attacking each other in print, and posing difficult mathematical challenges to test each other's skills.<ref>{{cite web |url=http://www.jehps.net/Novembre2006/Peifferanglais3.pdf |title=Jacob Bernoulli |last= Pfeiffer |first=Jeanne |date=November 2006 |publisher=Journal Électronique d'Histoire des Probabilités et de la Statistique |access-date=20 May 2016}}</ref> By 1697, the relationship had completely broken down.

The lunar crater [[Bernoulli (crater)|Bernoulli]] is also named after him jointly with his brother Johann.

==Important works==
Jacob Bernoulli's first important contributions were a pamphlet on the parallels of logic and algebra published in 1685, work on probability in 1685 and geometry in 1687. His geometry result gave a construction to divide any triangle into four equal parts with two perpendicular lines.

By 1689 he had published important work on [[infinite series]] and published his law of large numbers in probability theory. Jacob Bernoulli published five treatises on infinite series between 1682 and 1704. The first two of these contained many results, such as the fundamental result that <math>\sum{\frac{1}{n}}</math> diverges, which Bernoulli believed were new but they had actually been proved by [[Pietro Mengoli]] 40 years earlier. Bernoulli could not find a closed form for <math>\sum{\frac{1}{n^2}}</math>, but he did show that it converged to a finite limit less than 2. [[Euler]] was the first to find [[Basel problem|the limit of this series]] in 1737. Bernoulli also studied [[Jacob Bernoulli#Discovery of the mathematical constant e|the exponential series]] which came out of examining compound interest.

In May 1690 in a paper published in ''Acta Eruditorum'', Jacob Bernoulli showed that the problem of determining the [[Tautochrone curve|isochrone]] is equivalent to solving a first-order nonlinear differential equation. The isochrone, or curve of constant descent, is the curve along which a particle will descend under gravity from any point to the bottom in exactly the same time, no matter what the starting point. It had been studied by Huygens in 1687 and Leibniz in 1689. After finding the differential equation, Bernoulli then solved it by what we now call [[separation of variables]]. Jacob Bernoulli's paper of 1690 is important for the history of calculus, since the term [[integral]] appears for the first time with its integration meaning. In 1696 Bernoulli solved the equation, now called the [[Bernoulli differential equation]],

:<math> y' = p(x)y + q(x)y^n. </math>

Jacob Bernoulli also discovered a general method to determine [[evolutes]] of a curve as the envelope of its circles of curvature. He also investigated caustic curves and in particular he studied these associated curves of the [[parabola]], the [[logarithmic spiral]] and [[epicycloids]] around 1692. The [[lemniscate of Bernoulli]] was first conceived by Jacob Bernoulli in 1694. In 1695 he investigated the drawbridge problem which seeks the curve required so that a weight sliding along the cable always keeps the drawbridge balanced.

==Discovery of the mathematical constant e==
In 1683 Bernoulli discovered the constant [[E (mathematical constant)|e]] by studying a question about [[compound interest]] which required him to find the value of the following expression (which is in fact {{math|''e''}}):<ref>Jacob Bernoulli (1690) "Quæstiones nonnullæ de usuris, cum solutione problematis de sorte alearum, propositi in Ephem. Gall. A. 1685" (Some questions about interest, with a solution of a problem about games of chance, proposed in the ''Journal des Savants'' (''Ephemerides Eruditorum Gallicanæ''), in the year (anno) 1685.**), ''Acta eruditorum'', pp. 219–23. [https://books.google.com/books?id=s4pw4GyHTRcC&pg=PA222#v=onepage&q&f=false On p. 222], Bernoulli poses the question: ''"Alterius naturæ hoc Problema est: Quæritur, si creditor aliquis pecuniæ summam fænori exponat, ea lege, ut singulis momentis pars proportionalis usuræ annuæ sorti annumeretur; quantum ipsi finito anno debeatur?"'' (This is a problem of another kind: The question is, if some lender were to invest [a] sum of money [at] interest, let it accumulate, so that [at] every moment [it] were to receive [a] proportional part of [its] annual interest; how much would he be owed [at the] end of [the] year?) Bernoulli constructs a power series to calculate the answer, and then writes: ''" … quæ nostra serie [mathematical expression for a geometric series] &c. major est. … si ''a''=''b'', debebitur plu quam 2½''a'' & minus quam 3''a''."'' ( … which our series [a geometric series] is larger [than]. … if ''a''=''b'', [the lender] will be owed more than 2½''a'' and less than 3''a''.) If ''a''=''b'', the geometric series reduces to the series for ''a'' × ''e'', so 2.5 < ''e'' < 3. (** The reference is to a problem which Jacob Bernoulli posed and which appears in the ''Journal des Sçavans'' of 1685 at the bottom of [http://gallica.bnf.fr/ark:/12148/bpt6k56536t/f307.image.langEN page 314.])</ref><ref>{{Cite web|url = http://www-history.mcs.st-and.ac.uk/HistTopics/e.html|title = The number e |authors=J J O'Connor and E F Robertson |publisher = St Andrews University|access-date = 2 November 2016}}</ref>

:<math>\lim_{n\to\infty} \left( 1 + \frac{1}{n} \right)^n</math>

One example is an account that starts with $1.00 and pays 100 percent interest per year. If the interest is credited once, at the end of the year, the value is $2.00; but if the interest is computed and added twice in the year, the $1 is multiplied by 1.5 twice, yielding $1.00×1.5²&nbsp;=&nbsp;$2.25. Compounding quarterly yields $1.00×1.25<sup>4</sup>&nbsp;=&nbsp;$2.4414..., and compounding monthly yields $1.00×(1.0833...)<sup>12</sup>&nbsp;=&nbsp;$2.613035....

Bernoulli noticed that this sequence approaches a limit (the [[Compound interest#Force of interest|force of interest]]) for more and smaller compounding intervals. Compounding weekly yields $2.692597..., while compounding daily yields $2.714567..., just two cents more. Using {{math|''n''}} as the number of compounding intervals, with interest of 100% / {{math|''n''}} in each interval, the limit for large {{math|''n''}} is the number that [[Leonhard Euler|Euler]] later named {{math|''e''}}; with ''continuous'' compounding, the account value will reach $2.7182818.... More generally, an account that starts at $1, and yields (1+{{math|R}}) dollars at [[Interest#Compound interest|Compound interest]], will yield {{math|''e''}}<sup>{{math|R}}</sup> dollars with continuous compounding.

==Tombstone==
[[Image:Basel - Grabstein Bernoulli.jpg|thumb|Jacob Bernoulli's tombstone in [[Basel Münster]]]]
Bernoulli wanted a [[logarithmic spiral]] and the motto ''[[Eadem mutata resurgo]]'' ('Although changed, I rise again the same') engraved on his tombstone. He wrote that the [[Self-similarity|self-similar]] spiral "may be used as a symbol, either of fortitude and constancy in adversity, or of the human body, which after all its changes, even after death, will be restored to its exact and perfect self." Bernoulli died in 1705, but an [[Archimedean spiral]] was engraved rather than a logarithmic one.<ref>{{cite book|last=Livio|first=Mario|author-link=Mario Livio|title=The Golden Ratio: The Story of Phi, the World's Most Astonishing Number|url=https://books.google.com/books?id=bUARfgWRH14C|orig-year=2002|edition=First trade paperback|year=2003|publisher=[[Random House|Broadway Books]]|location=New York City|isbn=0-7679-0816-3|pages=116–17}}</ref>

== Радови ==
* {{cite book|language=la|publisher=apud Henr. Wetstenium|title=Conamen novi systematis cometarum|location=Amstelaedami|year=1682|url=https://gutenberg.beic.it/webclient/DeliveryManager?pid=17384&custom_att_2=simple_viewer&search_terms=DTL4&pds_handle=}} (title roughly translates as "A new hypothesis for the system of comets".)
* {{cite book|language=la|publisher=apud Henricum Wetstenium|title=De gravitate aetheris|location=Amstelaedami|year=1683|url=https://gutenberg.beic.it/webclient/DeliveryManager?pid=1216514&custom_att_2=simple_viewer&search_terms=DTL5&pds_handle=}}
*''Ars conjectandi, opus posthumum'', Basileae, impensis Thurnisiorum Fratrum, 1713.
* {{Cite book|title=Opera|volume=1|publisher=heritiers Cramer & frères Philibert|location=Genève|year=1744|language=la|url=https://gutenberg.beic.it/webclient/DeliveryManager?pid=12199963}}
** {{Cite book|title=Opera|volume=2|publisher=heritiers Cramer & frères Philibert|location=Genève|year=1744|language=la|url=https://gutenberg.beic.it/webclient/DeliveryManager?pid=12202240}}

<gallery>
Bernoulli - De gravitate aetheris, 1683 - 1216514.jpg|''De gravitate aetheris'', 1683
Bernoulli, Jakob – Opera, vol 1, 1744 – BEIC 12199963.jpg|''Opera'', vol 1, 1744
</gallery>


== Види још ==
== Види још ==
* [[Бернулијева лемниската]]
* [[Бернулијева лемниската]]

== Напомене ==
{{notelist}}

== Референце ==
{{reflist}}

== Литература ==
{{refbegin}}
*{{DSB
|first=J.E.
|last=Hoffman
|title=Bernoulli, Jakob (Jacques) I
|volume=2
|pages=46–51
}}
*{{cite book |first=I. |last=Schneider |chapter=Jakob Bernoulli ''Ars conjectandi'' (1713) |chapter-url=https://books.google.com/books?id=UdGBy8iLpocC&pg=PA88 |editor1-first=Ivor |editor1-last=Grattan-Guinness |editor1-link=Ivor Grattan-Guinness |title=Landmark Writings in Western Mathematics 1640–1940 |url=https://books.google.com/books?id=UdGBy8iLpocC |year=2005 |publisher=Elsevier |isbn=978-0-08-045744-4 |pages=88–104 }}

{{refend}}


== Спољашње везе ==
== Спољашње везе ==
{{портал|Биографија}}
{{Commonscat|Jakob Bernoulli}}
{{Commonscat|Jakob Bernoulli}}
* {{MathGenealogy|id=54440}}
* {{MathGenealogy|id=54440}}
* {{MathGenealogy|id=54440|title=Jacob Bernoulli}}
* {{MacTutor Biography|id=Bernoulli_Jacob|title=Jacob Bernoulli}}
* {{cite web |first=Jacobi |last=Bernoulli |title=Tractatus de Seriebus Infinitis |url=http://www.kubkou.se/pdf/mh/jacobB.pdf }}
* {{ScienceWorldBiography | urlname=BernoulliJakob | title=Bernoulli, Jakob (1654–1705)}}
* Gottfried Leibniz and Jakob Bernoulli [http://cerebro.xu.edu/math/Sources/JakobBernoulli/jakob%20and%20leibniz.pdf Correspondence Regarding the Art of Conjecturing"]

{{портал бар|Биографија}}
{{Authority control}}


{{DEFAULTSORT:Бернули, Јакоб}}
{{DEFAULTSORT:Бернули, Јакоб}}

Верзија на датум 24. децембар 2021. у 06:27

Јакоб Бернули
Јакоб Бернули
Лични подаци
Датум рођења(1654-12-27)27. децембар 1654.
Место рођењаБазел, Швајцарска
Датум смрти16. август 1705.(1705-08-16) (50 год.)
Место смртиБазел, Швајцарска
ОбразовањеУниверзитет у Базелу
Научни рад
Пољематематика

Јакоб Бернули (нем. Jakob Bernoulli;[1] Базел, 27. децембар 1654Базел, 16. август 1705), познат и као Жак Бернули, је швајцарски математичар и научник и старији брат Јохана Бернулија.

Јакоб Бернули је срео Роберта Бојла и Роберта Хука на путу у Енглеску 1676. године, након ког је посветио живот науци и математици. Био је професор математике на Универзитету у Базелу од 1687. године.[2] Његов докторат Ars Conjectandi је био преломна тачка у развоју теорије вероватноће. Објављен је осам година након његове смрти 1713. године.

Он је био an early proponent of Leibnizian calculus and sided with Готфридом Лајбницом during the Leibniz–Newton calculus controversy. He is known for his numerous contributions to calculus, and along with his brother Johann, was one of the founders of the calculus of variations. He also discovered the fundamental mathematical constant e. However, his most important contribution was in the field of probability, where he derived the first version of the law of large numbers in his work Ars Conjectandi.[3]

Biography

Jacob Bernoulli was born in Basel, Switzerland. Following his father's wish, he studied theology and entered the ministry. But contrary to the desires of his parents,[4] he also studied mathematics and astronomy. He traveled throughout Europe from 1676 to 1682, learning about the latest discoveries in mathematics and the sciences under leading figures of the time. This included the work of Johannes Hudde, Robert Boyle, and Robert Hooke. During this time he also produced an incorrect theory of comets.

Image from Acta Eruditorum (1682) wherein was published the critique of Bernoulli's Conamen novi systematis cometarum

Bernoulli returned to Switzerland, and began teaching mechanics at the University of Basel from 1683. His doctoral dissertation Solutionem tergemini problematis was submitted in 1684.[5] It appeared in print in 1687.[6]

In 1684 Bernoulli married Judith Stupanus; they had two children. During this decade, he also began a fertile research career. His travels allowed him to establish correspondence with many leading mathematicians and scientists of his era, which he maintained throughout his life. During this time, he studied the new discoveries in mathematics, including Christiaan Huygens's De ratiociniis in aleae ludo, Descartes' La Géométrie and Frans van Schooten's supplements of it. He also studied Isaac Barrow and John Wallis, leading to his interest in infinitesimal geometry. Apart from these, it was between 1684 and 1689 that many of the results that were to make up Ars Conjectandi were discovered.

He was appointed professor of mathematics at the University of Basel in 1687, remaining in this position for the rest of his life. By that time, he had begun tutoring his brother Johann Bernoulli on mathematical topics. The two brothers began to study the calculus as presented by Leibniz in his 1684 paper on the differential calculus in "Nova Methodus pro Maximis et Minimis" published in Acta Eruditorum. They also studied the publications of von Tschirnhaus. It must be understood that Leibniz's publications on the calculus were very obscure to mathematicians of that time and the Bernoullis were among the first to try to understand and apply Leibniz's theories.

Jacob collaborated with his brother on various applications of calculus. However the atmosphere of collaboration between the two brothers turned into rivalry as Johann's own mathematical genius began to mature, with both of them attacking each other in print, and posing difficult mathematical challenges to test each other's skills.[7] By 1697, the relationship had completely broken down.

The lunar crater Bernoulli is also named after him jointly with his brother Johann.

Important works

Jacob Bernoulli's first important contributions were a pamphlet on the parallels of logic and algebra published in 1685, work on probability in 1685 and geometry in 1687. His geometry result gave a construction to divide any triangle into four equal parts with two perpendicular lines.

By 1689 he had published important work on infinite series and published his law of large numbers in probability theory. Jacob Bernoulli published five treatises on infinite series between 1682 and 1704. The first two of these contained many results, such as the fundamental result that diverges, which Bernoulli believed were new but they had actually been proved by Pietro Mengoli 40 years earlier. Bernoulli could not find a closed form for , but he did show that it converged to a finite limit less than 2. Euler was the first to find the limit of this series in 1737. Bernoulli also studied the exponential series which came out of examining compound interest.

In May 1690 in a paper published in Acta Eruditorum, Jacob Bernoulli showed that the problem of determining the isochrone is equivalent to solving a first-order nonlinear differential equation. The isochrone, or curve of constant descent, is the curve along which a particle will descend under gravity from any point to the bottom in exactly the same time, no matter what the starting point. It had been studied by Huygens in 1687 and Leibniz in 1689. After finding the differential equation, Bernoulli then solved it by what we now call separation of variables. Jacob Bernoulli's paper of 1690 is important for the history of calculus, since the term integral appears for the first time with its integration meaning. In 1696 Bernoulli solved the equation, now called the Bernoulli differential equation,

Jacob Bernoulli also discovered a general method to determine evolutes of a curve as the envelope of its circles of curvature. He also investigated caustic curves and in particular he studied these associated curves of the parabola, the logarithmic spiral and epicycloids around 1692. The lemniscate of Bernoulli was first conceived by Jacob Bernoulli in 1694. In 1695 he investigated the drawbridge problem which seeks the curve required so that a weight sliding along the cable always keeps the drawbridge balanced.

Discovery of the mathematical constant e

In 1683 Bernoulli discovered the constant e by studying a question about compound interest which required him to find the value of the following expression (which is in fact e):[8][9]

One example is an account that starts with $1.00 and pays 100 percent interest per year. If the interest is credited once, at the end of the year, the value is $2.00; but if the interest is computed and added twice in the year, the $1 is multiplied by 1.5 twice, yielding $1.00×1.5² = $2.25. Compounding quarterly yields $1.00×1.254 = $2.4414..., and compounding monthly yields $1.00×(1.0833...)12 = $2.613035....

Bernoulli noticed that this sequence approaches a limit (the force of interest) for more and smaller compounding intervals. Compounding weekly yields $2.692597..., while compounding daily yields $2.714567..., just two cents more. Using n as the number of compounding intervals, with interest of 100% / n in each interval, the limit for large n is the number that Euler later named e; with continuous compounding, the account value will reach $2.7182818.... More generally, an account that starts at $1, and yields (1+R) dollars at Compound interest, will yield eR dollars with continuous compounding.

Tombstone

Jacob Bernoulli's tombstone in Basel Münster

Bernoulli wanted a logarithmic spiral and the motto Eadem mutata resurgo ('Although changed, I rise again the same') engraved on his tombstone. He wrote that the self-similar spiral "may be used as a symbol, either of fortitude and constancy in adversity, or of the human body, which after all its changes, even after death, will be restored to its exact and perfect self." Bernoulli died in 1705, but an Archimedean spiral was engraved rather than a logarithmic one.[10]

Радови

  • Conamen novi systematis cometarum (на језику: латински). Amstelaedami: apud Henr. Wetstenium. 1682.  (title roughly translates as "A new hypothesis for the system of comets".)
  • De gravitate aetheris (на језику: латински). Amstelaedami: apud Henricum Wetstenium. 1683. 
  • Ars conjectandi, opus posthumum, Basileae, impensis Thurnisiorum Fratrum, 1713.
  • Opera (на језику: латински). 1. Genève: heritiers Cramer & frères Philibert. 1744. 
    • Opera (на језику: латински). 2. Genève: heritiers Cramer & frères Philibert. 1744. 

Види још

Напомене

Референце

  1. ^ Mangold, Max (1990). Duden — Das Aussprachewörterbuch. 3. Auflage. Mannheim/Wien/Zürich, Dudenverlag.
  2. ^ „Jacob Bernolli”. Alas.mat. Приступљено 19. 1. 2019. 
  3. ^ Jacob (Jacques) Bernoulli, The MacTutor History of Mathematics archive, School of Mathematics and Statistics, University of St Andrews, UK.
  4. ^ Nagel, Fritz (11. 6. 2004). „Bernoulli, Jacob”. Historisches Lexikon der Schweiz. Приступљено 20. 5. 2016. 
  5. ^ Kruit, Pieter C. van der (2019). Jan Hendrik Oort: Master of the Galactic System (на језику: енглески). Springer. стр. 639. ISBN 978-3-030-17801-7. 
  6. ^ Bernoulli, Jakob (2006). Die Werke von Jakob Bernoulli: Bd. 2: Elementarmathematik (на језику: италијански). Springer Science & Business Media. стр. 92. ISBN 978-3-7643-1891-8. 
  7. ^ Pfeiffer, Jeanne (новембар 2006). „Jacob Bernoulli” (PDF). Journal Électronique d'Histoire des Probabilités et de la Statistique. Приступљено 20. 5. 2016. 
  8. ^ Jacob Bernoulli (1690) "Quæstiones nonnullæ de usuris, cum solutione problematis de sorte alearum, propositi in Ephem. Gall. A. 1685" (Some questions about interest, with a solution of a problem about games of chance, proposed in the Journal des Savants (Ephemerides Eruditorum Gallicanæ), in the year (anno) 1685.**), Acta eruditorum, pp. 219–23. On p. 222, Bernoulli poses the question: "Alterius naturæ hoc Problema est: Quæritur, si creditor aliquis pecuniæ summam fænori exponat, ea lege, ut singulis momentis pars proportionalis usuræ annuæ sorti annumeretur; quantum ipsi finito anno debeatur?" (This is a problem of another kind: The question is, if some lender were to invest [a] sum of money [at] interest, let it accumulate, so that [at] every moment [it] were to receive [a] proportional part of [its] annual interest; how much would he be owed [at the] end of [the] year?) Bernoulli constructs a power series to calculate the answer, and then writes: " … quæ nostra serie [mathematical expression for a geometric series] &c. major est. … si a=b, debebitur plu quam 2½a & minus quam 3a." ( … which our series [a geometric series] is larger [than]. … if a=b, [the lender] will be owed more than 2½a and less than 3a.) If a=b, the geometric series reduces to the series for a × e, so 2.5 < e < 3. (** The reference is to a problem which Jacob Bernoulli posed and which appears in the Journal des Sçavans of 1685 at the bottom of page 314.)
  9. ^ J J O'Connor and E F Robertson. „The number e”. St Andrews University. Приступљено 2. 11. 2016. 
  10. ^ Livio, Mario (2003) [2002]. The Golden Ratio: The Story of Phi, the World's Most Astonishing Number (First trade paperback изд.). New York City: Broadway Books. стр. 116—17. ISBN 0-7679-0816-3. 

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