Hybrid perforation tool and methods

1. A method of using a hybrid tool to perforate a formation, the method comprising the steps of:

deploying a hybrid tool into a wellbore positioned in the formation, wherein the hybrid tool comprises a swivel laser head and a shaped charge;

activating a laser beam from the swivel laser head of the hybrid tool;

drilling a tunnel with the laser beam such that the tunnel extends from the wellbore to a first point, wherein the laser beam operates at a drilling power between 2 kW and 6 kW;

reducing a power of the laser beam at the first point to a heating power, wherein the heating power is less than the power to melt the formation;

operating the laser beam at the heating power to increase the temperature at the first point such that a first spherical heat zone expands from the first point;

increasing the power of the laser to the drilling power;

drilling a second span of tunnel extending from the first point to a second point;

reducing the power of the laser beam to the heating power;

operating the laser beam at the heating power to increase the temperature at the second point such that a second spherical heat zone expands from the second point, wherein a volume of the second spherical heat zone is less than a volume of the first spherical heat zone, wherein the tunnel, first spherical heat zone, and second spherical heat zone form a thermal gradient;

ceasing operating of the laser beam; and

detonating the shaped charged aligned with a targeted perforation path with detonating cord,

wherein the thermal gradient compensates for a stress orientation of a reservoir stress in the formation to produce a perforation that aligns with the targeted perforation path.

2. The method of claim 1 , further comprising the steps of:

increasing the power of the laser to the drilling power;

drilling a third span of tunnel extending from the second point to a third point;

reducing the power of the laser beam to the heating power; and

operating the laser beam at the heating power to increase the temperature at the third point such that a third spherical heat zone expands from the third point, wherein a volume of the third spherical heat zone is less than the volume of the second spherical heat zone,

such that the thermal gradient further comprises the third spherical heat zone.

3. The method of claim 1 , wherein the swivel laser head is below the shaped charge.

4. The method of claim 1 , wherein the swivel laser head is above the shaped charge.

5. The method of claim 1 , wherein the stress orientation is toward the surface.

6. The method of claim 1 , wherein the stress orientation is away from the surface.

7. The method of claim 1 , wherein the stress orientation is perpendicular to the hybrid tool.

8. The method of claim 1 , wherein the stress orientation is parallel to the hybrid tool.

9. The method of claim 1 , further comprising the step of determining the stress orientation from log data of the formation.

10. The method of claim 1 , further comprising the step of determining the targeted perforation path from log data of the formation.

11. A hybrid tool for perforating a formation, the hybrid tool comprising:

a swivel laser head configured to emit a laser beam, wherein the swivel laser head comprises:

a fiber optics cable configured to transmit the laser beam from a surface to the swivel laser head;

a rotational wheel configured to pivot the swivel laser head;

retraction wheels configured to stabilize the fiber optics cable as the rotation wheel pivots the swivel laser head;

an optics assembly configured to shape and manipulate the laser beam from the fiber optics cable; and

a sensor configured to transmit data to the surface;

a shaped charge configured to detonate into the formation; and

a body to hold the swivel laser head and shaped charge.