Math 2.0

Probability theory and stochastic processes Proof

Proof of the de Moivre–Laplace theorem from the central limit theorem

Builds on Central limit theoremBernoulli processBernoulli distributionBinomial distributionIndependence of random variablesBinomial coefficientConvergence in distributionCumulative distribution functionNormal distributionInfinite product measure

Proof

We write a binomial variable as a sum of independent Bernoulli variables and apply the central limit theorem.

  1. Let B1,B2,…B_1, B_2, \dots be a Bernoulli process with parameter pp: i.i.d. variables with P(Bi=1)=pP(B_i = 1) = p and P(Bi=0)=qP(B_i = 0) = q. Such a sequence exists on an infinite product of copies of {0,1}\set{0, 1}.
  2. Let Tn=B1+⋯+BnT_n = B_1 + \dots + B_n. Claim: Tn∼Bin⁡(n,p)T_n \sim \operatorname{Bin}(n, p). Fix k∈{0,…,n}k \in \set{0, \dots, n}.
  3. The event {Tn=k}\set{T_n = k} is the disjoint union, over the sets J⊆{1,…,n}J \subseteq \set{1, \dots, n} with kk elements, of the events EJ={Bj=1 for j∈J, Bj=0 for j∉J}E_J = \set{B_j = 1 \text{ for } j \in J, \ B_j = 0 \text{ for } j \notin J}.
  4. By independence, P(EJ)=pkqn−kP(E_J) = p^k q^{n-k}. There are (nk)\binom{n}{k} such sets JJ, by the definition of the binomial coefficient.
  5. So P(Tn=k)=(nk)pkqn−kP(T_n = k) = \binom{n}{k} p^k q^{n-k}, which is the binomial distribution. This proves the claim.
  6. A Bernoulli variable B1B_1 has mean pp, since E[B1]=1⋅p+0⋅qE[B_1] = 1 \cdot p + 0 \cdot q. As B12=B1B_1^2 = B_1, its variance is E[B12]−p2=p−p2=pqE[B_1^2] - p^2 = p - p^2 = pq. Since 0<p<10 < p < 1, 0<pq<∞0 < pq < \infty.
  7. Let Zn=(Sn−np)/npqZ_n = (S_n - np)/\sqrt{npq} and Zn′=(Tn−np)/npqZ'_n = (T_n - np)/\sqrt{npq}. Since SnS_n and TnT_n have the same law, ZnZ_n and Zn′Z'_n have the same law. So P(Zn∈A)=P(Zn′∈A)P(Z_n \in A) = P(Z'_n \in A) for each Borel set AA.
  8. By the central limit theorem with μ=p\mu = p and σ2=pq\sigma^2 = pq, P(Zn′≤x)→Φ(x)P(Z'_n \le x) \to \Phi(x) for each x∈ℝx \in \R. Here Φ\Phi is the cumulative distribution function of the standard normal distribution.
  9. By step 7, Fn(x)=P(Zn≤x)→Φ(x)F_n(x) = P(Z_n \le x) \to \Phi(x) for each xx. Since Φ\Phi is continuous, this is convergence in distribution to 𝒩(0,1)\mathcal{N}(0, 1).
  10. Now fix reals a<ba < b. Then P(a≤Zn≤b)=Fn(b)−P(Zn<a)P(a \le Z_n \le b) = F_n(b) - P(Z_n < a).
  11. For δ>0\delta > 0, {Zn≤a−δ}⊆{Zn<a}⊆{Zn≤a}\set{Z_n \le a - \delta} \subseteq \set{Z_n < a} \subseteq \set{Z_n \le a}. So Fn(a−δ)≤P(Zn<a)≤Fn(a)F_n(a - \delta) \le P(Z_n < a) \le F_n(a).
  12. By step 9, Φ(a−δ)≤lim inf⁡nP(Zn<a)≤lim sup⁡nP(Zn<a)≤Φ(a)\Phi(a - \delta) \le \liminf_n P(Z_n < a) \le \limsup_n P(Z_n < a) \le \Phi(a).
  13. The density of 𝒩(0,1)\mathcal{N}(0, 1) is bounded by 1/2π1/\sqrt{2\pi}, so Φ(a)−Φ(a−δ)≤δ/2π\Phi(a) - \Phi(a - \delta) \le \delta/\sqrt{2\pi}. Let δ→0\delta \to 0 in step 12 to get P(Zn<a)→Φ(a)P(Z_n < a) \to \Phi(a).
  14. By steps 9, 10 and 13, P(a≤Zn≤b)→Φ(b)−Φ(a)=∫ab12πe−x2/2 dxP(a \le Z_n \le b) \to \Phi(b) - \Phi(a) = \int_a^b \frac{1}{\sqrt{2\pi}} e^{-x^2/2} \, dx.

Idea

A binomial count is a sum of nn independent Bernoulli trials with mean pp and variance pqpq. The central limit theorem gives the normal limit of the standardized count. Since the normal distribution function is continuous, the limit does not change if the end points are included or not.

Reading path

To understand this page from the ground up, read these 442 pages in order. The foundations come first. The path takes the proofs Proof that Darboux and Riemann integrals agree, Proof of integration by parts, Proof of the Cauchy–Hadamard theorem, Proof of the derivative of cosine by term-by-term differentiation, Proof of the Weierstrass M-test, Proof of the limit of a sum of sequences, Proof of Rolle's theorem, Proof of the approximation property of the supremum, Proof that every sequence has a monotone subsequence, by peaks, Proof of the formula for the derivative of a polynomial, Proof of the commutativity of addition by induction, Proof of term-by-term differentiation, Proof of the continuity of probability measures, Proof of the epsilon-delta form of continuity, Proof of the power rule by induction, Proof that absolutely convergent series converge, Proof of the sum of a finite geometric series, Proof that convergent sequences are Cauchy, Proof that a complex number times its conjugate is the square of its modulus, Proof that there is a natural number n with 1/n below any positive epsilon, Proof of the chain rule with an auxiliary difference quotient, Proof of the integral of the exponential function, Proof of the probability of the complement, Proof of the Cauchy criterion for series, Proof of the Cauchy criterion for sequences by the Bolzano–Weierstrass theorem, Proof of the reverse triangle inequality, Proof that the exponential series has infinite radius of convergence, Proof of the equality of complex numbers, Proof that continuous functions on a closed bounded interval are uniformly continuous, Proof that the reals form an ordered field, with the Cauchy sequence construction, Proof of the root test, Proof of the double negation law by a truth table, Proof that power series converge uniformly on smaller intervals inside the radius of convergence, Proof of the extreme value theorem by the Bolzano–Weierstrass theorem, Proof that subsequences of a convergent sequence converge to the same limit, Proof of the uniqueness of limits, Proof that Lipschitz functions are uniformly continuous, Proof that the integral of a continuous function is an antiderivative, Proof of strong induction from ordinary induction, Proof that power series are differentiable inside the radius of convergence, Proof of the limit of a product of sequences, Proof that uniform convergence of derivatives allows term-by-term differentiation, Proof that the absolute value is multiplicative, Proof of the squeeze theorem for sequences, Proof of the existence of square roots of nonnegative reals, Proof of Pascal's rule from the recursive definition, Proof that i squared is minus one, Proof of the expectation of a product of independent random variables by simple functions, Proof of the linearity of differentiation, Proof of the angle addition formulas by differentiation, Proof of the mean value theorem for integrals, Proof of the monotonicity of probability, Proof of Riemann's criterion for integrability, Proof of the sequential characterization of limits, Proof of the Cauchy mean value theorem from Rolle's theorem, Proof of the central limit theorem by characteristic functions, Proof that Cauchy sequences are bounded, Proof of the triangle inequality for real numbers, Proof of the epsilon-N definition of the limit of a sequence, Proof of the first fundamental theorem of calculus, Proof that the modulus is multiplicative, Proof of the comparison test, Proof of the existence of the infimum by negation, Proof of Fermat's theorem on stationary points, Proof that limits preserve non-strict inequalities, Proof of the linearity of the integral, Proof of the formula for the characteristic function of the normal distribution, Proof of the factorial formula for binomial coefficients by induction, Proof of integration by substitution, Proof of the product of exponentials by the Cauchy product, Proof of the second fundamental theorem of calculus, Proof that the complex numbers form a field, Proof of the intermediate value theorem by the supremum, Proof of the binomial theorem by induction, Proof that exponentials dominate powers in sequences, by the ratio of consecutive terms, Proof of Taylor's theorem with the Lagrange remainder by the Cauchy mean value theorem, Proof that differentiable functions are continuous, Proof that one-sided limits of a monotone function exist, Proof of the epsilon-delta form of the limit of a function, Proof of the derivative of sine by term-by-term differentiation, Proof of the well-ordering principle from strong induction, Proof of the Bolzano–Weierstrass theorem by a monotone subsequence, Proof of the Archimedean property in an Archimedean ordered field, Proof that a composition of continuous functions is continuous, Proof of the exponential of a sum by the Cauchy product, Proof of the additivity of the integral over intervals, Proof that a decreasing sequence bounded below converges, Proof of the term test, Proof that the exponential function is its own derivative, by term-by-term differentiation, Proof that the reals are Archimedean from the completeness axiom, Proof of the ratio test, Proof of the power series of the exponential function, Proof that convergent sequences are bounded, Proof of the product rule, Proof of the monotone convergence theorem for sequences, Proof that continuity is equivalent to sequential continuity, Proof of the formula for the moment-generating function of the normal distribution, Proof that a function with zero derivative on an open interval is constant, Proof of the monotonicity of the integral, Proof of the comparison test for improper integrals, Proof of the boundedness theorem by Bolzano–Weierstrass, Proof of the ratio formula for the radius of convergence, Proof of Euler's formula by power series, Proof of the fundamental theorem of calculus, Proof that a series of nonnegative terms converges iff its partial sums are bounded, Proof of the product formula for the characteristic function of a sum of independent random variables, Proof of the mean value theorem from Rolle's theorem, Proof that the Cauchy product of absolutely convergent series converges absolutely to the product, Proof that sums and products of continuous functions are continuous, Proof that independence means the joint law is the product of the marginals, Proof that continuous functions are Riemann integrable, Proof of the constant multiple rule.

  1. Almost everywhere concept
  2. Binomial coefficient definition
  3. Cartesian product concept
  4. Complex numbers object
  5. Complex numbers as pairs of reals concept
  6. Construction of the reals from Cauchy sequences concept
  7. Definition by recursion concept
  8. Dynkin system concept
  9. Element definition
  10. Extended real number line object
  11. Factorial definition
  12. Group concept
  13. Imaginary unit object
  14. Infinite product measure concept
  15. Integers object
  16. Integrable function concept
  17. Integral of a non-negative function concept
  18. Lebesgue integral concept
  19. Limit point of a set definition
  20. Lipschitz continuity definition
  21. Local maximum definition
  22. Mathematical induction concept
  23. Measurable function concept
  24. Measurable space concept
  25. Measure concept
  26. Measure space concept
  27. Natural numbers object
  28. Ordered field definition
  29. Partition of an interval definition
  30. Peano axioms concept
  31. Pi-system concept
  32. Probability measure concept
  33. Product sigma-algebra concept
  34. Proposition concept
  35. Random experiment concept
  36. Rational numbers object
  37. Real numbers object
  38. Sequence definition
  39. Set bounded above definition
  40. Sigma-algebra concept
  41. Sigma-finite measure concept
  42. Simple function concept
  43. Proof of Pascal's rule from the recursive definition proof
  44. Complex exponential definition
  45. Power series in the complex plane definition
  46. Real and imaginary parts definition
  47. Proof that i squared is minus one proof
  48. Set definition
  49. Ring definition
  50. Ring of integers statement
  51. Limit of a function definition
  52. Monotone convergence theorem statement
  53. Local minimum definition
  54. Product sigma-algebra definition
  55. Dynkin's π-λ theorem statement
  56. Archimedean ordered field definition
  57. Successor function definition
  58. Mesh of a partition definition
  59. Refinement of a partition definition
  60. Riemann sum definition
  61. Product measure definition
  62. Conjunction definition
  63. Disjunction definition
  64. Implication definition
  65. Negation definition
  66. Predicate definition
  67. Bernoulli trial concept
  68. The reals form a field statement
  69. Real sequence definition
  70. Subsequence definition
  71. Infimum definition
  72. Supremum definition
  73. Pascal's rule statement
  74. Complex conjugate definition
  75. Ordered pair definition
  76. Commutative ring definition
  77. Unit of a ring definition
  78. i squared is minus one statement
  79. Continuity at a point definition
  80. Derivative definition
  81. Limit at infinity definition
  82. One-sided limit definition
  83. Union definition
  84. Addition of natural numbers definition
  85. Riemann integrable function definition
  86. Sample space definition
  87. Biconditional definition
  88. Proof of the Archimedean property in an Archimedean ordered field proof
  89. Truth table concept
  90. Modus ponens concept
  91. The rationals form a field statement
  92. The successor function is injective statement
  93. Zero is not a successor statement
  94. Existential quantifier definition
  95. Universal quantifier definition
  96. Integral of a non-negative function definition
  97. Bounded sequence definition
  98. Cauchy sequence definition
  99. Geometric sequence definition
  100. Limit of a sequence definition
  101. Monotone sequence definition
  102. Sequence tending to infinity definition
  103. Series definition
  104. Completeness axiom statement
  105. Cartesian product definition
  106. Field definition
  107. Proof of the factorial formula for binomial coefficients by induction proof
  108. Proof of the equality of complex numbers proof
  109. Continuous function definition
  110. Antiderivative definition
  111. Differentiable function definition
  112. One-sided derivative definition
  113. Riemann integral definition
  114. Archimedean property statement
  115. Subset definition
  116. Proof of the commutativity of addition by induction proof
  117. Mathematical proof concept
  118. Order on the natural numbers definition
  119. Propositional logic concept
  120. Uniqueness quantifier definition
  121. The rationals form an ordered field statement
  122. Limit inferior definition
  123. Limit superior definition
  124. Proof of the sum of a finite geometric series proof
  125. Upper and lower Darboux sums definition
  126. Convergent sequence definition
  127. Pointwise convergence definition
  128. Sequential continuity definition
  129. The sequence r^n tends to infinity for r > 1 example
  130. Cauchy product definition
  131. Partial sum definition
  132. Power series definition
  133. Equality of complex numbers statement
  134. Factorial formula for binomial coefficients statement
  135. Binary relation definition
  136. Proof that a composition of continuous functions is continuous proof
  137. Derivative function definition
  138. Universal set definition
  139. Definite integral definition
  140. Improper integral definition
  141. Power set definition
  142. Order on the reals definition
  143. Fatou's lemma statement
  144. Commutativity of addition statement
  145. Tautology definition
  146. Proof of strong induction from ordinary induction proof
  147. Upper and lower Darboux integrals definition
  148. Uniform convergence definition
  149. Sum of a finite geometric series statement
  150. Radius of convergence definition
  151. Convergent series definition
  152. Sine and cosine definition
  153. Proof of the binomial theorem by induction proof
  154. Antisymmetric relation definition
  155. Reflexive relation definition
  156. Transitive relation definition
  157. Higher derivative definition
  158. Proof that the complex numbers form a field proof
  159. Complement definition
  160. Function definition
  161. Interval definition
  162. Dominated convergence theorem statement
  163. Logical equivalence definition
  164. Uniform convergence on a set definition
  165. Strong induction statement
  166. Sum of a series definition
  167. Series of functions definition
  168. Absolute convergence definition
  169. Binomial theorem statement
  170. Preorder definition
  171. Taylor polynomial definition
  172. Continuously differentiable function definition
  173. Injective function definition
  174. Proof of the epsilon-delta form of continuity proof
  175. Sigma-algebra definition
  176. Proof of the epsilon-delta form of the limit of a function proof
  177. Indicator function definition
  178. Preimage of a set definition
  179. The complex numbers form a field statement
  180. Proof of the well-ordering principle from strong induction proof
  181. Proof of the double negation law by a truth table proof
  182. Partial order definition
  183. Smooth function definition
  184. Countable set definition
  185. Monotone function definition
  186. Epsilon-delta definition of continuity statement
  187. Epsilon-delta definition of a limit statement
  188. Event definition
  189. Dynkin system definition
  190. Double negation law statement
  191. Well-ordering principle statement
  192. Borel sigma-algebra definition
  193. Total order definition
  194. Composition of continuous functions is continuous statement
  195. Uniform continuity definition
  196. Probability axioms concept
  197. Taylor series definition
  198. Proof by contradiction concept
  199. Proof that every sequence has a monotone subsequence, by peaks proof
  200. Uniform continuity on a set definition
  201. Maclaurin series definition
  202. Probability measure definition
  203. Proof that Lipschitz functions are uniformly continuous proof
  204. Proof that the reals form an ordered field, with the Cauchy sequence construction proof
  205. Every sequence has a monotone subsequence statement
  206. Dirac measure definition
  207. Probability distribution definition
  208. Probability space definition
  209. Lipschitz functions are uniformly continuous statement
  210. The reals form an ordered field statement
  211. Absolute value definition
  212. Conditional probability definition
  213. Random variable definition
  214. Proof of the approximation property of the supremum proof
  215. Proof of the existence of square roots of nonnegative reals proof
  216. Proof of the existence of the infimum by negation proof
  217. Cumulative distribution function definition
  218. Law of a random variable definition
  219. Discrete random variable definition
  220. Proof of the triangle inequality for real numbers proof
  221. Proof that the absolute value is multiplicative proof
  222. Stochastic process concept
  223. Independence of two events definition
  224. Random variable with a density definition
  225. Proof of the epsilon-N definition of the limit of a sequence proof
  226. Existence of square roots of nonnegative reals statement
  227. Approximation property of the supremum statement
  228. Existence of the infimum statement
  229. Convergence in distribution definition
  230. Identically distributed random variables definition
  231. Joint probability distribution definition
  232. Triangle inequality statement
  233. Absolute value is multiplicative statement
  234. Probability mass function definition
  235. Expected value definition
  236. Probability density function definition
  237. Independence of two random variables definition
  238. Mutual independence of events definition
  239. Square root definition
  240. Epsilon-N definition of the limit of a sequence statement
  241. Proof that one-sided limits of a monotone function exist proof
  242. Proof of the intermediate value theorem by the supremum proof
  243. Proof that the reals are Archimedean from the completeness axiom proof
  244. Marginal distribution definition
  245. Proof of the reverse triangle inequality proof
  246. Variance definition
  247. Law of the unconscious statistician statement
  248. Proof that differentiable functions are continuous proof
  249. Modulus of a complex number definition
  250. Proof that limits preserve non-strict inequalities proof
  251. Proof of the squeeze theorem for sequences proof
  252. Linearity of expectation statement
  253. Proof of the uniqueness of limits proof
  254. Density of the normal distribution definition
  255. Proof of the limit of a sum of sequences proof
  256. Independent sigma-algebras definition
  257. Intermediate value theorem statement
  258. Proof of the linearity of the integral proof
  259. Binomial distribution definition
  260. Bernoulli distribution definition
  261. Proof that convergent sequences are bounded proof
  262. Proof that convergent sequences are Cauchy proof
  263. The reals are Archimedean statement
  264. Proof that Cauchy sequences are bounded proof
  265. Proof of the term test proof
  266. The sequence 1/n tends to zero example
  267. Proof that subsequences of a convergent sequence converge to the same limit proof
  268. Proof of the monotone convergence theorem for sequences proof
  269. Reverse triangle inequality statement
  270. Proof that a complex number times its conjugate is the square of its modulus proof
  271. Moment definition
  272. Differentiable functions are continuous statement
  273. Normal distribution definition
  274. Proof of the probability of the complement proof
  275. Independence of random variables definition
  276. Proof that independence means the joint law is the product of the marginals proof
  277. Linearity of the integral statement
  278. Proof of the monotonicity of the integral proof
  279. Limits preserve non-strict inequalities statement
  280. Uniqueness of limits statement
  281. Limit of a sum of sequences statement
  282. Floor function definition
  283. Proof that there is a natural number n with 1/n below any positive epsilon proof
  284. Squeeze theorem statement
  285. Proof of the ratio formula for the radius of convergence proof
  286. Convergent sequences are bounded statement
  287. Proof that Darboux and Riemann integrals agree proof
  288. Convergent sequences are Cauchy statement
  289. Subsequences of a convergent sequence converge to the same limit statement
  290. Cauchy sequences are bounded statement
  291. Monotone convergence theorem for sequences statement
  292. A complex number times its conjugate statement
  293. Independent and identically distributed random variables definition
  294. Independence means the joint law is the product of the marginals statement
  295. Moment-generating function definition
  296. Probability of the complement statement
  297. Proof of the limit of a product of sequences proof
  298. Monotonicity of the integral statement
  299. Darboux and Riemann integrals agree statement
  300. One-sided limits of a monotone function exist statement
  301. There is a natural number n with 1/n below any positive epsilon statement
  302. Term test statement
  303. Proof that a series of nonnegative terms converges iff its partial sums are bounded proof
  304. The sequence r^n tends to zero for |r| < 1 example
  305. Proof that a decreasing sequence bounded below converges proof
  306. Proof that the modulus is multiplicative proof
  307. Proof of the monotonicity of probability proof
  308. Bernoulli process definition
  309. Proof of the sequential characterization of limits proof
  310. Proof that continuity is equivalent to sequential continuity proof
  311. Limit of a product of sequences statement
  312. Geometric series example
  313. Decreasing sequence bounded below converges statement
  314. Proof of Riemann's criterion for integrability proof
  315. A series of nonnegative terms converges iff its partial sums are bounded statement
  316. Modulus is multiplicative statement
  317. Monotonicity of probability statement
  318. Proof of Euler's formula by power series proof
  319. Continuity is equivalent to sequential continuity statement
  320. Riemann's criterion for integrability statement
  321. Proof of the expectation of a product of independent random variables by simple functions proof
  322. Sequential characterization of limits statement
  323. Proof that the Cauchy product of absolutely convergent series converges absolutely to the product proof
  324. Proof of the root test proof
  325. Proof of the ratio test proof
  326. Proof of the Cauchy–Hadamard theorem proof
  327. Proof of the comparison test proof
  328. Proof that exponentials dominate powers in sequences, by the ratio of consecutive terms proof
  329. Proof of the Bolzano–Weierstrass theorem by a monotone subsequence proof
  330. Euler's formula statement
  331. Proof of the continuity of probability measures proof
  332. Expectation of a product of independent random variables statement
  333. Proof of the chain rule with an auxiliary difference quotient proof
  334. Proof of the product rule proof
  335. Proof of the linearity of differentiation proof
  336. Proof that sums and products of continuous functions are continuous proof
  337. Comparison test statement
  338. Cauchy product of absolutely convergent series statement
  339. Proof of the additivity of the integral over intervals proof
  340. Bolzano–Weierstrass theorem statement
  341. Exponentials dominate powers in sequences statement
  342. Continuity of probability measures statement
  343. Characteristic function definition
  344. Chain rule statement
  345. Product of continuous functions is continuous statement
  346. Product rule statement
  347. Additivity of the integral over intervals statement
  348. Proof of the product of exponentials by the Cauchy product proof
  349. Linearity of differentiation statement
  350. Proof that continuous functions on a closed bounded interval are uniformly continuous proof
  351. Ratio test statement
  352. Root test statement
  353. Proof of the boundedness theorem by Bolzano–Weierstrass proof
  354. Proof of the Cauchy criterion for sequences by the Bolzano–Weierstrass theorem proof
  355. The characteristic function determines the distribution statement
  356. Product of exponentials statement
  357. Continuous functions on a closed bounded interval are uniformly continuous statement
  358. Proof of the power rule by induction proof
  359. Proof of the constant multiple rule proof
  360. Boundedness theorem statement
  361. Proof of the first fundamental theorem of calculus proof
  362. Proof of the comparison test for improper integrals proof
  363. Cauchy–Hadamard theorem statement
  364. Ratio formula for the radius of convergence statement
  365. Cauchy criterion for sequences statement
  366. Lévy's continuity theorem statement
  367. Power rule statement
  368. Constant multiple rule statement
  369. Comparison test for improper integrals statement
  370. Proof of the product formula for the characteristic function of a sum of independent random variables proof
  371. Proof of the extreme value theorem by the Bolzano–Weierstrass theorem proof
  372. Uniformly Cauchy sequence of functions definition
  373. Proof of the Cauchy criterion for series proof
  374. Characteristic function of a sum of independent random variables statement
  375. Extreme value theorem statement
  376. Proof of the formula for the derivative of a polynomial proof
  377. Proof of Fermat's theorem on stationary points proof
  378. Cauchy criterion for series statement
  379. Derivative of a polynomial statement
  380. Proof that continuous functions are Riemann integrable proof
  381. Proof that absolutely convergent series converge proof
  382. Fermat's theorem on stationary points statement
  383. Continuous functions are Riemann integrable statement
  384. Absolutely convergent series converge statement
  385. Proof of Rolle's theorem proof
  386. Rolle's theorem statement
  387. Proof of the mean value theorem for integrals proof
  388. Proof of the Weierstrass M-test proof
  389. Proof of the Cauchy mean value theorem from Rolle's theorem proof
  390. Proof of the mean value theorem from Rolle's theorem proof
  391. Mean value theorem for integrals statement
  392. Weierstrass M-test statement
  393. Mean value theorem statement
  394. First fundamental theorem of calculus statement
  395. Proof that power series converge uniformly on smaller intervals inside the radius of convergence proof
  396. Cauchy mean value theorem statement
  397. Proof that a function with zero derivative on an open interval is constant proof
  398. Proof that the integral of a continuous function is an antiderivative proof
  399. Proof that uniform convergence of derivatives allows term-by-term differentiation proof
  400. Power series converge uniformly on smaller discs inside the radius of convergence statement
  401. Proof of the second fundamental theorem of calculus proof
  402. A function with zero derivative is constant statement
  403. The integral of a continuous function is an antiderivative statement
  404. Proof of Taylor's theorem with the Lagrange remainder by the Cauchy mean value theorem proof
  405. Uniform convergence of derivatives allows term-by-term differentiation statement
  406. Second fundamental theorem of calculus statement
  407. Proof that the exponential series has infinite radius of convergence proof
  408. Taylor's theorem with the Lagrange remainder statement
  409. Proof of the fundamental theorem of calculus proof
  410. Proof of integration by parts proof
  411. Proof of integration by substitution proof
  412. Proof of term-by-term differentiation proof
  413. The exponential series has infinite radius of convergence statement
  414. Integration by substitution statement
  415. Fundamental theorem of calculus statement
  416. Integration by parts statement
  417. Term-by-term differentiation statement
  418. Exponential function definition
  419. Proof of the exponential of a sum by the Cauchy product proof
  420. Proof that power series are differentiable inside the radius of convergence proof
  421. Exponential of a sum statement
  422. Power series are differentiable inside the radius of convergence statement
  423. Proof of the formula for the moment-generating function of the normal distribution proof
  424. Proof that the exponential function is its own derivative, by term-by-term differentiation proof
  425. Proof of the derivative of cosine by term-by-term differentiation proof
  426. Proof of the derivative of sine by term-by-term differentiation proof
  427. The exponential function is its own derivative statement
  428. Moment-generating function of the normal distribution statement
  429. Derivative of cosine statement
  430. Derivative of sine statement
  431. Proof of the integral of the exponential function proof
  432. Proof of the power series of the exponential function proof
  433. Proof of the angle addition formulas by differentiation proof
  434. Integral of the exponential function statement
  435. Power series of the exponential function statement
  436. Angle addition formulas statement
  437. Integral of exp(-x) over the half line example
  438. Proof of the formula for the characteristic function of the normal distribution proof
  439. Characteristic function of the normal distribution statement
  440. Proof of the central limit theorem by characteristic functions proof
  441. Central limit theorem statement
  442. Proof of the de Moivre–Laplace theorem from the central limit theorem proof

Where this leads

1 page builds on this one.

Further reading

  1. Web https://en.wikipedia.org/wiki/De_Moivre–Laplace_theorem, Theorem
About this page
TagCT2QK2KGHG
URIm2://CT2QK2KGHG
Kindproof
WritingW0 stub
MSC60F05
ProvesDe Moivre–Laplace theorem
UsesCentral limit theorem, Bernoulli process, Bernoulli distribution, Binomial distribution, Independence of random variables, Binomial coefficient, Convergence in distribution, Cumulative distribution function, Normal distribution, Infinite product measure
Changed4 November 2026

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