AbstractAt the probe approximation, we construct a holographic p-wave conductor/superconductor model in the five-dimensional Lifshitz black hole with the Weyl correction via both numerical and analytical methods, and study the effects of the Lifshitz parameter z as well as the Weyl parameter $$\gamma $$
γ
on the superconductor model. As we take into account one of the two corrections separately, the increasing z ($$\gamma $$
γ
) inhibits(enhances) the superconductor phase transition. When the two corrections are considered comprehensively, they display the obviously competitive effects on both the critical temperature and the vector condensate. In particular, the promoting effects of the Weyl parameter $$\gamma $$
γ
on the critical temperature are obviously suppressed by the increasing Lifshitz parameter. Meanwhile, in the case of $$z<2.35$$
z
<
2.35
($$z>2.35$$
z
>
2.35
), the condensate at lower temperature decreases(increases) with the increasing Weyl parameter $$\gamma $$
γ
. What is more, the difference among the condensate with the fixed Weyl parameter($$\gamma =-\frac{6}{100},0,\frac{4}{100}$$
γ
=
-
6
100
,
0
,
4
100
) decreases(increases) with the increasing Lifshitz parameter z in the region $$z<2.35$$
z
<
2.35
($$z>2.35$$
z
>
2.35
). Furthermore, the increasing z obviously suppresses the real part of conductivity for all value of the Weyl parameter $$\gamma $$
γ
. In addition, the analytical results agree well with the ones from the numerical method.
Manipulating the critical temperature for the superfluid phase transition in trapped atomic Fermi gases
