24 Bernoulli and Euler PolynomialsProperties

§24.13 Integrals

Contents
  1. §24.13(i) Bernoulli Polynomials
  2. §24.13(ii) Euler Polynomials
  3. §24.13(iii) Compendia

§24.13(i) Bernoulli Polynomials

24.13.1 ∫Bn⁡(t)⁢dt =Bn+1⁡(t)n+1+const.,
24.13.2 ∫xx+1Bn⁡(t)⁢dt =xn,
n=1,2,…,
24.13.3 ∫xx+(1/2)Bn⁡(t)⁢dt =En⁡(2⁢x)2n+1,
24.13.4 ∫01/2Bn⁡(t)⁢dt =1−2n+12n⁢Bn+1n+1,
24.13.5 ∫1/43/4Bn⁡(t)⁢dt =En22⁢n+1.

For m,n=1,2,…,

24.13.6 ∫01Bn⁡(t)⁢Bm⁡(t)⁢dt=(−1)n−1⁢m!⁢n!(m+n)!⁢Bm+n.

For integrals of the form ∫0xBn⁡(t)⁢Bm⁡(t)⁢dt and ∫0xBn⁡(t)⁢Bm⁡(t)⁢Bk⁡(t)⁢dt see Agoh and Dilcher (2011).

§24.13(ii) Euler Polynomials

24.13.7 ∫En⁡(t)⁢dt=En+1⁡(t)n+1+const.,
24.13.8 ∫01En⁡(t)⁢dt=−2⁢En+1⁡(0)n+1=4⁢(2n+2−1)(n+1)⁢(n+2)⁢Bn+2,
24.13.9 ∫01/2E2⁢n⁡(t)⁢dt=−E2⁢n+1⁡(0)2⁢n+1=2⁢(22⁢n+2−1)⁢B2⁢n+2(2⁢n+1)⁢(2⁢n+2),
24.13.10 ∫01/2E2⁢n−1⁡(t)⁢dt=E2⁢nn⁢22⁢n+1,
n=1,2,….

For m,n=1,2,…,

24.13.11 ∫01En⁡(t)⁢Em⁡(t)⁢dt=(−1)n⁢4⁢(2m+n+2−1)⁢m!⁢n!(m+n+2)!⁢Bm+n+2.

§24.13(iii) Compendia

For Laplace and inverse Laplace transforms see Prudnikov et al. (1992a, §§3.28.1–3.28.2) and Prudnikov et al. (1992b, §§3.26.1–3.26.2). For other integrals see Prudnikov et al. (1990, pp. 55–57).