• Are U Satisfied is the third studio album by New Zealand-born Australian musician Jon Stevens, released in October 1993. It was preceded by the lead single...
    5 KB (459 words) - 23:08, 18 August 2024
  • Thumbnail for Jon Stevens
    signed with Columbia Records and released his third solo studio album, Are U Satisfied, which peaked at number 27 on the ARIA Charts. In 1994, Stevens recorded...
    18 KB (1,619 words) - 13:10, 3 June 2024
  • is certainly satisfied when μ is a locally finite measure). Assume that u is integrable with respect to μ in the sense that ∫ [ a , t ) | u ( s ) | μ (...
    18 KB (3,396 words) - 09:37, 11 July 2024
  • Thumbnail for Virgil Donati
    (1995, RCA) Elementary (1989) Human Hardware (2017) Jon Stevens - Are U Satisfied (1993, Columbia Records) Derek Sherinian - Planet X (1999, Magna Carta)...
    14 KB (1,379 words) - 15:40, 16 September 2024
  • "Are You Satisfied?" is a song written by Homer Escamilla and Sheb Wooley and performed by Rusty Draper featuring the Jack Halloran Singers. It reached...
    4 KB (317 words) - 06:51, 3 July 2023
  • Indeed, note that the boundary conditions are satisfied classically, and | u ′ ( x ) | = 1 {\displaystyle |u'(x)|=1} is well-defined in the interior except...
    16 KB (2,597 words) - 09:51, 30 July 2024
  • was the first single taken from Stevens' third solo studio album, Are U Satisfied (1993). The single was released in September 1993 and is Stevens' first...
    2 KB (90 words) - 10:57, 3 March 2024
  • Thumbnail for Laplace's equation
    that u and v be differentiable and that the Cauchy–Riemann equations be satisfied: u x = v y , v x = − u y . {\displaystyle u_{x}=v_{y},\quad v_{x}=-u_{y}...
    33 KB (5,070 words) - 16:02, 14 November 2024
  • principal part (i.e. the terms containing the second derivatives of u {\displaystyle u} ) satisfy the condition B 2 − A C = 0. {\displaystyle B^{2}-AC=0.} Usually...
    7 KB (1,144 words) - 15:01, 1 October 2024
  • {\displaystyle u''-R(x)u'+S(x)u=0\!} since v ′ = − ( u ′ / u ) ′ = − ( u ″ / u ) + ( u ′ / u ) 2 = − ( u ″ / u ) + v 2 {\displaystyle v'=-(u'/u)'=-(u''/u)+(u'/u)^{2}=-(u''/u)+v^{2}\...
    8 KB (1,388 words) - 03:49, 7 August 2024