Never ending analytical integrate computation

I am computing a Feynman Diagram, to apply the Renormalization Group to an active field theory. Doing it, I need to integrate with Mathematica a complicated expression, and I would need an analytical result, rather than a numerical one. Using Integrate the code has been stuck on “running” for a day and it does not give a result nor an error of any kind.
Does it mean that there is not an exact solution or does it mean something else?
The code with the function I need to integrate is the following (together with the Integrate command):

Integrand = (64 a w Cos[θ]^2 (f^3 κ^2 (w + κ +
2 w κ) λx0^5 +
4 w^3 (1 + w) Λ^6 λx0^5 +
2 w^2 (1 + w) Λ^6 λx0^4 (λx0 -
h λx0) +
f^3 κ^2 λx0^5 (-ht (1 + w) - κ -
w κ + h (1 + κ) + w μy +
w κ μy) +
f^3 κ^2 λx0^5 (-1 + μy) (-ht (2 + w) -
3 κ - 2 w κ + h (2 + 3 κ) + w μy +
2 w κ μy) Cos[θ]^2 +
f^2 κ Λ^2 λx0^5 (2 (-1 +
ht) w^3 - 2 κ (-2 + h + μy) +
w^2 (-15 + 9 ht - 18 κ + h (4 + 6 κ) +
2 μy + 12 κ μy) +
w (-4 + 4 ht +
5 κ (-2 + h + μy))) Cos[θ]^2 +
f^2 κ Λ^2 λx0^4 (2 κ ( λx0 - h λx0) (-2 + h + μy) -
w^2 λx0 (h + 3 μy - 4 h μy -
2 κ (-1 + μy) (-3 + 2 h + μy) +
ht (-4 + 3 h + μy)) +
w λx0 (6 κ + h^2 (2 + κ) -
2 ht (-3 + μy) - 2 μy -
6 κ μy + κ μy^2 +
h (-4 - 4 ht - 6 κ + 4 μy +
4 κ μy))) Cos[θ]^2 -
f^2 (-1 + h) κ Λ^2 λx0^5 (6 κ +
h^2 κ - 6 w κ - 3 w^2 κ +
h w (2 + ht - 3 κ (-1 + μy) - 3 μy) +
w μy - 6 κ μy + 9 w κ μy +
6 w^2 κ μy + κ μy^2 -
3 w κ μy^2 - 3 w^2 κ μy^2 +
ht w (-3 + 2 μy) +
2 h κ (-3 + 2 μy)) Cos[θ]^4 +
f (-1 + h) w Λ^4 λx0^5 (2 (-1 +
ht) w^3 - 8 κ (-1 + μy) +
w (-12 + 10 ht - 27 κ + h (2 + 20 κ) +
7 κ μy) +
w^2 (-18 + 15 ht - 20 κ + h (3 + 8 κ) +
12 κ μy)) Cos[θ]^4 +
f (-1 + h)^2 w Λ^4 λx0^5 (-2 ht w -
2 h (6 κ +
w (-1 + 2 κ)) + κ (-6 (-3 + μy) +
2 w^2 (-1 + μy) + w (3 + μy))) Cos[θ]^4 -
2 (-1 + h)^4 w^2 (4 +
w) Λ^6 λx0^5 Cos[θ]^6 +
2 (-1 + h)^3 w^2 (6 + 11 w +
2 w^2) Λ^6 λx0^5 Cos[θ]^6 -
f (-1 + h)^3 w κ Λ^4 λx0^5 (-12 + 4 h + w (-1 + μy) + 8 μy) Cos[θ]^6 + 2 w^2 Λ^6 (λx0 - h λx0)^5 Cos[θ]^8 - f^2 κ^2 λx0^4 (λx0 - h λx0) (-1 + μy)^2 Cos[θ]^6 (f κ (-1 + μy) - (-1 + h)^2 Λ^2 Cos[θ]^2) - w Λ^4 λx0^5 (-f (1 + w) (-ht w (2 + w) + h (2 w + w^2 - 4 κ) + κ (3 + 2 w (-1 + μy) + μy)) + 2 (-1 + h)^2 w (4 + 3 w) Λ^2 Cos[θ]^2) + 2 w Λ^4 λx0^5 (f (w + w^3 - κ + 2 w κ + w^2 (3 + 4 κ)) + (-1 + h) w (1 + 9 w + 6 w^2) Λ^2 Cos[θ]^2) - f κ λx0^5 (1 - μy) Cos[θ]^6 (f^2 κ (1 - μy) (h + w - ht (1 + w) + κ + w κ - κ μy - w κ μy) +f (-1 + h)^2 Λ^2 (κ + w (-1 + ht + κ (-1 + μy)) - κ μy) Cos[θ]^2 + (-1 + h)^4 w Λ^4 Cos[θ]^4) + f κ λx0^5 (1 - μy) Cos[θ]^4 (f^2 κ (h - ht + 3 h κ + κ (-3 + w (-1 + μy))) (1 -μy) + 2 f (-1 + h)^2 κ Λ^2 (-2 + h + w + μy - w μy) Cos[θ]^2 + 3 (-1 + h)^4 w Λ^4 Cos[θ]^4) + Λ^2 λx0^5 (f^2 κ (-ht w (3 + 4 w + w^2) + κ - 2 w κ - 3 w^2 κ + h (-κ + w^2 (1 + κ) + w (2 + κ)) + w μy + 3 w^2 μy + w^3 μy + w κ μy + 2 w^2 κ μy) + f (-1 + h) w Λ^2 (-ht w (4 + 3 w) + h (3 w^2 + w (4 - 8 κ) - 12 κ) + κ (12 + 4 w^2 (-1 + μy) + w (3 + 5 μy))) Cos[θ]^2 - 6 (-1 + h)^3 w^2 (2 +w) Λ^4 Cos[θ]^4) + Λ^2 λx0^5 (f^2 κ (w + w^3 - κ + 3 w κ + w^2 (5 + 7 κ)) + f w Λ^2 ((-4 + h + 3 ht) w^3 + κ (7 - 4 h - 3 μy) + w (-8 + 4 ht - 17 κ + 4 h (1 + 4 κ) + κ μy) + w^2 (-18 + 9 ht - 22 κ + h (9 + 16 κ) + 6 κ μy)) Cos[θ]^2 + 2 (-1 + h)^2 w^2 (4 + 15 w + 6 w^2) Λ^4 Cos[θ]^4) - (1/λtx0)λx0^5 Cos[θ]^2 (-f^3 κ^2 λtx0 (-h + ht - 3 w + 2 ht w - 3 κ - 5 w κ + w μy + 3 κ μy + 5 w κ μy) + f^2 κ Λ^2 (w^3 (λtx0 - ht λtx0) (-1 + μy) - w^2 λtx0 (15 + h (-9 + μy) - 7 μy + 5 κ (-1 + μy) (-3 + 2 h + μy) + 2 ht (-7 + 4 h + 3 μy)) + κ λtx0 (6 + h^2 - 6 μy + μy^2 + h (-6 + 4 μy)) - w λtx0 (6 + 12 κ + h^2 (-1 + 2 κ) + 3 ht (-3 + μy) - μy - 12 κ μy + 2 κ μy^2 + 2 h (-1 + 3 ht - 6 κ - μy + 4 κ μy))) Cos[θ]^2 - f (-1 + h)^2 w Λ^4 λtx0 (6 w^2 (-1 + ht + κ (-1 + μy)) + 2 κ (1 + 2 h - 3 μy) + w (-8 + 8 ht + κ (-19 + 8 h + 11 μy))) Cos[θ]^4 - 2 (-1 + h)^4 w^2 (4 + 3 w) Λ^6 λtx0 Cos[θ]^6) + λx0^4 Cos[θ]^4 (f^3 κ^2 λx0 (-1 + μy) (-2 h - 3 w + ht (2 + 3 w) - 3 κ - 4 w κ + 3 κ μy + 4 w κ μy) + f^2 κ Λ^2 (λx0 - h λx0) (w^2 (5 - 5 ht - 4 κ (-1 + μy)) (-1 + μy) + 2 κ (-1 + μy) (-2 + h + μy) + w (-3 κ (-1 + μy) (-2 + h + μy) - 2 ht (-3 + h + 2 μy) + 2 (-2 + μy + h μy))) Cos[θ]^2 + f (-1 + h)^3 w Λ^4 λx0 (2 (-1 +
h) κ +
w (-2 + 2 ht +
5 κ (-1 + μy))) Cos[θ]^4 +
2 (-1 + h)^5 w^2 Λ^6 λx0 Cos[θ]^6)) Sin[θ]^2)/(h π λx0^5 (1 + h + 2 w + (-1 + h) Cos[2 θ])^3 ((1 + h) w Λ^2 + f κ (1 + μy) + ((-1 + h) w Λ^2 + f κ (-1 + μy)) Cos[2 θ])^3);
Integrate[Integrand, {θ, 0, π},
Assumptions → {w > 0, h > 0, h != 1, μy != 1, μy > 0, ht > 0, Λ > 0, κ > 0}]

If you are potentially waiting three days for this to complete then you may not want to interrupt that to verify and correct these

If you scrape-n-paste your expression from your screen into a notebook then, with a bit of hunting, it shows that

You have Cos[θ] ] that should probably be Cos[θ] OR maybe that hints that when you were scrape-n-pasting your expression to make you post that some part of your expression was lost. That would be much worse.

You have [Mu]y that should probably be \[Mu]y OR again perhaps some part of your expression was lost.

Carefully checking and fixing those should help anyone who wants to scrape-n-paste this off their screen into their notebook to try to help you.

Crossposted here. As pointed out in the crosspost Integrand does not evaluate, it has unbalanced parenthesis.

Thank you a lot for letting me notice the mistakes in copying my code in the question, now at least the Integrand should be ok!

Because your code is so long and there has been cut-and-paste issues, as a check

Variables[Integrand]

results in

variables.png

Are these the variables that you expect?
[1]: https://community.wolfram.com//c/portal/getImageAttachment?filename=variables.png&userId=1695422