0 / | | ________ | 5 / 2 | x *\/ 5 - x dx | / 0
Integral(x^5*sqrt(5 - x^2), (x, 0, 0))
TrigSubstitutionRule(theta=_theta, func=sqrt(5)*sin(_theta), rewritten=125*sqrt(5)*sin(_theta)**5*cos(_theta)**2, substep=ConstantTimesRule(constant=125*sqrt(5), other=sin(_theta)**5*cos(_theta)**2, substep=RewriteRule(rewritten=(1 - cos(_theta)**2)**2*sin(_theta)*cos(_theta)**2, substep=AlternativeRule(alternatives=[URule(u_var=_u, u_func=cos(_theta), constant=1, substep=AddRule(substeps=[ConstantTimesRule(constant=-1, other=_u**6, substep=PowerRule(base=_u, exp=6, context=_u**6, symbol=_u), context=-_u**6, symbol=_u), ConstantTimesRule(constant=2, other=_u**4, substep=PowerRule(base=_u, exp=4, context=_u**4, symbol=_u), context=2*_u**4, symbol=_u), ConstantTimesRule(constant=-1, other=_u**2, substep=PowerRule(base=_u, exp=2, context=_u**2, symbol=_u), context=-_u**2, symbol=_u)], context=-_u**6 + 2*_u**4 - _u**2, symbol=_u), context=(1 - cos(_theta)**2)**2*sin(_theta)*cos(_theta)**2, symbol=_theta), RewriteRule(rewritten=sin(_theta)*cos(_theta)**6 - 2*sin(_theta)*cos(_theta)**4 + sin(_theta)*cos(_theta)**2, substep=AddRule(substeps=[URule(u_var=_u, u_func=cos(_theta), constant=-1, substep=ConstantTimesRule(constant=-1, other=_u**6, substep=PowerRule(base=_u, exp=6, context=_u**6, symbol=_u), context=_u**6, symbol=_u), context=sin(_theta)*cos(_theta)**6, symbol=_theta), ConstantTimesRule(constant=-2, other=sin(_theta)*cos(_theta)**4, substep=URule(u_var=_u, u_func=cos(_theta), constant=-1, substep=ConstantTimesRule(constant=-1, other=_u**4, substep=PowerRule(base=_u, exp=4, context=_u**4, symbol=_u), context=_u**4, symbol=_u), context=sin(_theta)*cos(_theta)**4, symbol=_theta), context=-2*sin(_theta)*cos(_theta)**4, symbol=_theta), URule(u_var=_u, u_func=cos(_theta), constant=-1, substep=ConstantTimesRule(constant=-1, other=_u**2, substep=PowerRule(base=_u, exp=2, context=_u**2, symbol=_u), context=_u**2, symbol=_u), context=sin(_theta)*cos(_theta)**2, symbol=_theta)], context=sin(_theta)*cos(_theta)**6 - 2*sin(_theta)*cos(_theta)**4 + sin(_theta)*cos(_theta)**2, symbol=_theta), context=(1 - cos(_theta)**2)**2*sin(_theta)*cos(_theta)**2, symbol=_theta), RewriteRule(rewritten=sin(_theta)*cos(_theta)**6 - 2*sin(_theta)*cos(_theta)**4 + sin(_theta)*cos(_theta)**2, substep=AddRule(substeps=[URule(u_var=_u, u_func=cos(_theta), constant=-1, substep=ConstantTimesRule(constant=-1, other=_u**6, substep=PowerRule(base=_u, exp=6, context=_u**6, symbol=_u), context=_u**6, symbol=_u), context=sin(_theta)*cos(_theta)**6, symbol=_theta), ConstantTimesRule(constant=-2, other=sin(_theta)*cos(_theta)**4, substep=URule(u_var=_u, u_func=cos(_theta), constant=-1, substep=ConstantTimesRule(constant=-1, other=_u**4, substep=PowerRule(base=_u, exp=4, context=_u**4, symbol=_u), context=_u**4, symbol=_u), context=sin(_theta)*cos(_theta)**4, symbol=_theta), context=-2*sin(_theta)*cos(_theta)**4, symbol=_theta), URule(u_var=_u, u_func=cos(_theta), constant=-1, substep=ConstantTimesRule(constant=-1, other=_u**2, substep=PowerRule(base=_u, exp=2, context=_u**2, symbol=_u), context=_u**2, symbol=_u), context=sin(_theta)*cos(_theta)**2, symbol=_theta)], context=sin(_theta)*cos(_theta)**6 - 2*sin(_theta)*cos(_theta)**4 + sin(_theta)*cos(_theta)**2, symbol=_theta), context=(1 - cos(_theta)**2)**2*sin(_theta)*cos(_theta)**2, symbol=_theta)], context=(1 - cos(_theta)**2)**2*sin(_theta)*cos(_theta)**2, symbol=_theta), context=sin(_theta)**5*cos(_theta)**2, symbol=_theta), context=125*sqrt(5)*sin(_theta)**5*cos(_theta)**2, symbol=_theta), restriction=(x < sqrt(5)) & (x > -sqrt(5)), context=x**5*sqrt(5 - x**2), symbol=x)
Ahora simplificar:
Añadimos la constante de integración:
Respuesta:
/ | | ________ // / 3/2 7/2 5/2\ \ | 5 / 2 || | / 2\ / 2\ / 2\ | | | x *\/ 5 - x dx = C + |< ___ | \25 - 5*x / \25 - 5*x / 2*\25 - 5*x / | / ___ ___\| | ||125*\/ 5 *|- -------------- - -------------- + ----------------| for And\x > -\/ 5 , x < \/ 5 /| / \\ \ 375 546875 15625 / /
Estos ejemplos se pueden aplicar para introducción de los límites de integración inferior y superior.