# Patent

## Title
System for removing a tubular

## Abstract

A tubular lift safety system can include a wellbore tubular removal system for removing tubulars from wellbores, which can have an upper section movable relative to a lower section. The upper section and the lower section can both have gripping members for gripping and releasing the tubulars while the upper section is moved relative to the lower section; thereby removing the tubulars from the wellbore. The upper section can have cutting devices for forming lifting holes and a saw for cutting the tubulars. A fluid source can control extension and retraction of the upper section relative to the lower section, operation of the gripping members, and operation of the saw. A remote control can monitor pressure from the fluid source.

## Background
CROSS REFERENCE TO RELATED APPLICATIONS
The current application claims priority to and the benefit of U.S. Provisional Patent Application Ser. No. 61/603,208 filed on Feb. 24, 2012, entitled “SYSTEM FOR REMOVING A TUBULAR.” This Reference is hereby incorporated in its entirety.


FIELD
The present embodiments generally relate to a system for removing a tubular from a wellbore.
BACKGROUND
A need exists for a tubular lift safety system for removing a tubular that requires fewer personnel to remove the tubular from the wellbore.
A need exists for a tubular lift safety system for removing a tubular that can be remotely operated.
The present embodiments meet these needs.



BRIEF DESCRIPTION OF THE DRAWINGS
The detailed description will be better understood in conjunction with the accompanying drawings as follows:
FIG. 1 depicts a perspective view of an embodiment of a tubular lift safety system.
FIG. 2 depicts a detail view of a remote control of the tubular lift safety system.
FIG. 3A depicts a perspective view of an embodiment of the wellbore tubular removal system in a retracted position.
FIG. 3B depicts a cut perspective view of an embodiment of the wellbore tubular removal system in the retracted position.
FIG. 4 depicts a cut front view of an embodiment of the wellbore tubular removal system in an extended position.
FIG. 5A depicts a front view of an embodiment of the wellbore tubular removal system in the retracted position and engaged with a tubular.
FIG. 5B depicts a front view of an embodiment of the wellbore tubular removal system in the extended position and engaged with the tubular.



The present embodiments are detailed below with reference to the listed Figures.
DETAILED DESCRIPTION OF THE EMBODIMENTS
Before explaining the present system in detail, it is to be understood that the system is not limited to the particular embodiments and that it can be practiced or carried out in various ways.
The present embodiments relate to a tubular lift safety system for removing tubular from a wellbore, such as an oil well, gas well, water well, or the like. In one or more embodiments, the tubulars can have cement adhered thereto.
For example, the tubular can be well casing, well tubing, coiled tubing, or combinations thereof.
The tubular lift safety system can include a wellbore tubular removal system, which can be configured to lift at least one million pounds per lift.
The wellbore tubular removal system can include a lower section. The lower section can have a lower base plate with a lower base plate hole.
The lower base plate can be made of steel plate. The lower base plate can have a length ranging from about 48 inches to about 96 inches, a width ranging from about 48 inches to about 96 inches, and a thickness ranging from about 4 inches to about 8 inches.
The lower base plate hole can be centered in the lower base plate, and can have a diameter ranging from about 8 inches to about 30 inches.
The lower section can include a plurality of sliding rods, which can be connected with the lower base plate. For example, the sliding rods can be connected with the base plate via rod base flanges.
The sliding rods can be made of steel. The sliding rods can have a length ranging from about 4 feet to about 20 feet and a diameter ranging from about 4 inches to about 12 inches.
The lower section can include a lower gripping member, which can be mounted to the lower base plate. For example, the lower gripping member can be mounted to the lower base plate via bolts.
The lower gripping member can be configured to grip a tubular when the tubular is extended through the lower base plate hole.
The wellbore tubular removal system can include an upper section. The upper section can include an upper base plate with an upper base plate hole.
The upper base plate can be made of steel plate. The upper base plate can have a length ranging from about 48 inches to about 96 inches, a width ranging from about 48 inches to about 96 inches, and a thickness ranging from about 4 inches to about 8 inches.
The upper base plate hole can be centered in the upper base plate, and can have a diameter ranging from about 8 inches to about 30 inches.
The upper section can include a saw mounting plate with a saw mounting plate hole.
The saw mounting plate can be made of steel plate. The saw mounting plate can have a length ranging from about 48 inches to about 96 inches, a width ranging from about 48 inches to about 96 inches, and a thickness ranging from about 4 inches to about 8 inches.
The saw mounting plate hole can be centered in the saw mounting plate, and can have a diameter ranging from about 8 inches to about 30 inches.
The upper section can include an upper gripping member, which can be connected with the upper base plate.
The upper gripping member can be configured to grip the tubular when the tubular is extended through the upper base plate hole. The tubular can be disposed at least partially above the wellbore and at least partially in the wellbore.
The upper section can include a plurality of cylinder barrels, which can be connected with the upper base plate at a first end and with the saw mounting plate at a second end. For example, the cylinder barrels can be connected with the upper base plate and the saw mounting plate via bolting.
The cylinder barrels can be made of steel. The cylinder barrels can have a length ranging from about 4 feet to about 20 feet and a diameter ranging from about 6 inches to about 16 inches. The cylinder barrels can be hollow and have an internal diameter ranging from about 4 inches to about 12 inches.
Each cylinder barrel can be movably engaged about one of the sliding rods, such that the sliding rods can be disposed within hollow portions of the cylinder barrels.
The upper section can include a plurality of pistons. Each piston can be engaged with one of the sliding rods, such as at an end of the sliding rods.
Each cylinder barrel can be movably engaged about one of the pistons, such that the pistons can be disposed within the hollow portions of the cylinder barrels. The pistons can be made of steel.
The upper section can include a plurality of piston caps. Each piston cap can be connected to an end of one of the cylinder barrels, and can be disposed between one of the pistons and the saw mounting plate. The piston caps can be made of steel.
In operation, the cylinder barrels can be configured to be moved relative to the pistons and the sliding rods for extending and retracting the upper section from the lower section. For example, a force can be applied or increased to the pistons and the piston caps by flowing a hydraulic fluid or air into the hollow portions of the cylinder barrels to extend the upper section relative to the lower section, and the force on the pistons and the piston caps can be removed or decreased by flowing the hydraulic fluid or air out of the hollow portions of the cylinder barrels to retract the upper section relative to the lower section.
The upper section can include one or more cutting devices, which can be connected to the saw mounting plate, such as via bolting. Each cutting device can be disposed between the saw mounting plate and the upper base plate. Each cutting device can have a cutting member, which can be configured to form at least one lifting hole into the tubular.
The upper section can include a saw, which can be mounted to the saw mounting plate opposite the one or more cutting devices, such as via bolting.
In operation, the wellbore tubular removal system can be configured to be concentrically positioned over the wellbore in a retracted position to align the upper base plate hole, the lower base plate hole, and the saw mounting plate hole with the tubular.
The wellbore tubular removal system can be configured to lift the tubular out of the wellbore by sequentially gripping the tubular using the upper gripping member and the lower gripping member, and extending and retracting the upper section relative to the lower section to raise the tubular to a predetermined distance from the wellbore through the upper base plate hole, the lower base plate hole, and the saw mounting plate hole.
The wellbore tubular removal system can be configured to install a lifting member in the at least one lifting hole on the tubular. For example, the lifting member can be manually installed into the lifting hole.
The wellbore tubular removal system can be configured to saw the tubular into a cut tubular using the saw.
The wellbore tubular removal system can be configured to allow the cut tubular to be lifted via a hoist.
The tubular lift safety system can include a fluid source, which can be in fluid communication with the cylinder barrels for extending and retracting the upper section relative to the lower section, the upper gripping member and the lower gripping member for gripping and releasing the tubular, and the saw for cutting the tubular. The fluid source can be a tank, and can provide hydraulic fluid or air.
The tubular lift safety system can include a power supply, such as a generator, in communication with the fluid source for providing power thereto.
The tubular lift safety system can include one or more pumps connected with the power supply and in fluid communication with the fluid source for pumping hydraulic fluid or air therefrom.
The tubular lift safety system can include a remote control in communication with the fluid source and the one or more pumps for controlling the fluid source and the one or more pumps; thereby providing for remote control of the extension and retraction of the upper section relative to the lower section, the gripping and releasing of the tubular, and the cutting of the tubular.
The remote control can include a weight indicator for displaying a weight being lifted by the upper section.
The remote control can include an upper gauge for displaying a pressure on the upper gripping member. For example, the upper gauge can be configured to measure the pressure of the hydraulic fluid or air flowing from the fluid source to the upper gripping member, and to display the measured pressure.
The remote control can include a lower gauge for displaying a pressure on the lower gripping member. For example, the lower gauge can be configured to measure the pressure of the hydraulic fluid or air flowing from the fluid source to the lower gripping member, and to display the measured pressure.
The remote control can include one or more cylinder gauges for displaying a pressure on the cylinder barrels. For example, the cylinder gauges can be configured to measure the pressure of the hydraulic fluid or air flowing from the fluid source to the cylinder barrels, and to display the measured pressure.
The remote control can include a dead man switch configured to energize the upper gripping member when the lower gripping member fails or when the hoist releases; thereby providing a failsafe.
The tubular lift safety system can include first valves, such as shuttle valves, for engaging and releasing the upper gripping member. The first valves can control flow of hydraulic fluid or air to and from the upper gripping member.
The tubular lift safety system can include second valves, such as shuttle valves, for engaging and releasing the lower gripping member. The second valves can control flow of hydraulic fluid or air to and from the lower gripping member.
The tubular lift safety system can include retract and extend valves for controlling movement of the upper section relative to the lower section. The retract and extend valves can control flow of hydraulic fluid or air to and from the cylinder barrels.
The tubular lift safety system can include pressure monitors for monitoring pressure on the saw. For example, the pressure monitors can be configured to measure the pressure of the hydraulic fluid or air flowing from the fluid source to the saw, and to display the measured pressure. In operation, the pressure monitors can be configured to turn off the saw when the pressure exceeds a preset limit.
The tubular lift safety system can include a kill switch configured to terminate flow of hydraulic fluid or air to the saw and a saw motor thereof.
The tubular lift safety system can include a power switch for controlling power to the cutting member.
Turning now to the Figures, FIG. 1 depicts an embodiment of the tubular lift safety system 7, which can include the wellbore tubular removal system 9.
The tubular lift safety system 7 can include a fluid source 100 in fluid communication with the cylinder barrels 26a, 26b, 26c, and 26d for extending and retracting the upper section 8 relative to the lower section 6. For example, the fluid source 100 can be a hydraulic fluid source or a pneumatic fluid source.
The fluid source 100 can be in fluid communication with the upper gripping member 16 and the lower gripping member 37 for gripping and releasing tubulars, such as the tubular 18.
The fluid source 100 can be in fluid communication with the saw 36 for cutting the tubular 18. The saw 36 can have a saw motor 125 and a blade 39. The saw motor 125 can be hydraulic or pneumatic.
The saw 36 can be mounted on tracks 41a and 41b. In operation, the fluid source 100 can flow hydraulic fluid or air into saw hydraulic or pneumatic cylinders 43a and 43b to move the saw 36 along the tracks 41a and 41b; thereby engaging the blade 39 with the tubular 18 for cutting the tubular 18.
The tubular lift safety system 7 can include a power supply 102, such as a generator, in communication with the fluid source 100.
The tubular lift safety system 7 can include one or more pumps 104a and 104b connected with the power supply 102 and in fluid communication with the fluid source 100 for pumping hydraulic fluid or air therefrom.
The tubular lift safety system 7 can include a remote control 106 in communication with the fluid source 100 and the pumps 104a-104b for remotely controlling the tubular lift safety system 7.
The tubular lift safety system 7 can include a first valve 116 for hydraulically or pneumatically engaging and releasing the upper gripping member 16, a second valve 118 for hydraulically or pneumatically engaging and releasing the lower gripping member 37, a retract and extend valve 120 for controlling movement of the upper section 8 relative to the lower section 6, and a saw valve 121 for controlling the saw 36.
FIG. 2 depicts a detail of the remote control 106, which can be disposed remote from the wellbore tubular removal system; thereby allowing for safe operation of the wellbore tubular removal system from a distance.
The remote control 106 can include a weight indicator 108 for displaying a weight being lifted by the wellbore tubular removal system.
The remote control 106 can include an upper gauge 110 for displaying a hydraulic or pneumatic pressure on the upper gripping member.
The remote control 106 can include a lower gauge 112 for displaying a hydraulic or pneumatic pressure on the lower gripping member.
The remote control 106 can include a cylinder gauge 114 for displaying a hydraulic or pneumatic pressure on the cylinder barrels.
The remote control 106 can include a pressure monitor 122 for monitoring hydraulic or pneumatic pressure on the saw. The pressure monitor 122 can be configured to turn the saw off when the pressure exceeds a preset limit.
The remote control 106 can include a dead man switch 87 configured to energize the upper gripping member, the lower gripping member, or both, such as when the lower gripping member or the upper gripping member fails or when the hoist releases. For example, the dead man switch 87 can be manually engaged by an operator.
The remote control 106 can include a kill switch 124 configured to terminate flow of the hydraulic fluid or air to the saw and the saw motor.
The remote control 106 can include a power switch 126 for controlling power flowing to the cutting member.
The remote control 106 can include a processor 85 in communication with a data storage 86.
The data storage 86 can include computer instructions to control the first valve for engaging and releasing the upper gripping member 200.
The data storage 86 can include computer instructions to control the second valve for engaging and releasing the lower gripping member 202.
The data storage 86 can include computer instructions to control the retract and extend valve for controlling movement of the upper section relative to the lower section 204.
The data storage 86 can include computer instructions to measure a distance that the tubular is from the wellbore 206.
FIG. 3A depicts a perspective view of an embodiment of the wellbore tubular removal system 9 in a retracted position, and FIG. 3B depicts a cut perspective view of the wellbore tubular removal system 9 in the retracted position.
The lower section of the wellbore tubular removal system 9 can include a lower base plate 10. A lower base plate hole 11 can be disposed through the lower base plate 10.
The lower section of the wellbore tubular removal system 9 can include a plurality of sliding rods, including sliding rods 24a, 24b, and 24d, connected with the lower base plate 10. For example, the sliding rods 24a, 24b, and 24d can be connected with the lower base plate 10 via rod base flanges 44a and 44d. 
The lower section of the wellbore tubular removal system 9 can include the lower gripping member 37, which can be mounted to the lower base plate 10.
The lower gripping member 37 can be configured to grip tubulars, such as the tubular 18 when the tubular 18 is extending through the lower base plate hole 11.
The upper section of the wellbore tubular removal system 9 can include an upper base plate 12. An upper base plate hole 13 can be disposed through the upper base plate 12.
The upper section of the wellbore tubular removal system 9 can include a saw mounting plate 14. A saw mounting plate hole 15 can be disposed through the saw mounting plate 14.
The upper section of the wellbore tubular removal system 9 can include the upper gripping member 16 connected with the upper base plate 12. The upper gripping member 16 can be configured to grip the tubular 18 when the tubular 18 is extending through the upper base plate hole 13.
In one or more embodiments, the upper gripping member 16 and the lower gripping member 37 can each include a slip set, such as slip sets 38a and 38b, and a plurality of slip set cylinders, such as slip set cylinders 40c, 40d, 40g, and 40h. Each slip set cylinder 40c, 40d, 40g, and 40h can be disposed around one of the slip sets 38a and 38b, and can be supported by slip bowls, such as slip bowls 42a and 42b. 
The upper section of the wellbore tubular removal system 9 can include the plurality of cylinder barrels 26a-26d connected with the upper base plate 12 at a first end, such as first ends 28a and 28d, and connected with the saw mounting plate 14 at a second end, such as second ends 30a and 30d. 
Each cylinder barrel 26a-26d can be movably engaged with one of the sliding rods. For example, the sliding rod 24a can be movably engaged within the cylinder barrel 26a and the sliding rod 24d can be movably engaged within the cylinder barrel 26d. 
The upper section of the wellbore tubular removal system 9 can include a plurality of pistons, such as pistons 27a and 27d. Each piston can be engaged with one of the sliding rods. For example, the piston 27a can be engaged with the sliding rod 24a and the piston 27d can be engaged with the sliding rod 24d. 
Each cylinder barrel 26a-26d can be movably engaged with one of the pistons. For example, the piston 27a can be engaged within the cylinder barrel 26a and the piston 27d can be engaged within the cylinder barrel 26d. 
The upper section of the wellbore tubular removal system 9 can include a plurality of piston caps, such as piston caps 29a and 29d. 
Each piston cap can be connected to an end of one of the cylinder barrels 26a-26d between one of the pistons and the saw mounting plate 14. For example, the piston cap 29a can be connected to an end of the cylinder barrel 26a between the piston 27a and the saw mounting plate 14, and piston cap 29d can be connected to an end of the cylinder barrel 26d between the piston 27d and the saw mounting plate 14.
The cylinder barrels 26a-26d can be configured to be moved relative to the pistons and the sliding rods for extending and retracting the upper section from the lower section.
The upper section of the wellbore tubular removal system 9 can include one or more cutting devices 32 connected to the saw mounting plate 14. The one or more cutting devices 32 can be disposed between the saw mounting plate 14 and the upper base plate 12.
The one or more cutting devices 32 can include an abrasive water jet, a laser, a variable speed tungsten carbide saw, or combinations thereof.
The upper section of the wellbore tubular removal system 9 can include the saw 36 mounted to the saw mounting plate 14 opposite the one or more cutting devices 32. In one or more embodiments, the saw 36 can be a band saw, a blade saw, or a hydraulic rotating cutter.
FIG. 4 depicts a cut front view of an embodiment of the wellbore tubular removal system 9 in an extended position.
The upper section 8 can be extended from the lower section 6 by flowing hydraulic fluid or air from the fluid source into the cylinder barrels, such as the cylinder barrels 26a and 26d. 
The hydraulic fluid or air can apply hydraulic or pneumatic pressure to the pistons, such as the pistons 27a and 27d, as well as to the piston caps, such as the piston caps 29a and 29d; thereby extending the cylinder barrels 26a and 26d from the sliding rods 24a and 24d. 
The upper section 8 can be retracted from the lower section 6 by flowing the hydraulic fluid or air from the cylinder barrels 26a and 26d into the fluid source.
As such, the hydraulic or pneumatic pressure applied by the hydraulic fluid or air to the pistons 27a and 27d and the piston caps 29a and 29d can be reduced; thereby retracting the cylinder barrels 26a and 26d towards the sliding rods 24a and 24d and allowing the wellbore tubular removal system 9 to move the tubular 18.
FIG. 5A depicts a front view of an embodiment of the wellbore tubular removal system 9 in the retracted position and engaged with the tubular 18, and FIG. 5B depicts a front view of the wellbore tubular removal system 9 in the extended position and engaged with the tubular 18.
The wellbore tubular removal system 9 can be configured to remove the tubular 18 from a wellbore 20. In one or more embodiments, the wellbore tubular removal system 9 can be configured to lift at least one million pounds per lift.
The tubular 18 can be well casing, well tubing, coiled tubing, or combinations thereof.
In operation, the wellbore tubular removal system 9 can be concentrically positioned over the wellbore 20 in the retracted position to align the upper base plate hole of the upper base plate 12, the lower base plate hole of the lower base plate 10, and the saw mounting plate hole of the saw mounting plate 14 with the tubular 18.
The wellbore tubular removal system 9 can lift the tubular 18 out of the wellbore 20 by sequentially gripping the tubular 18 using the upper gripping member 16 and the lower gripping member 37, and extending and retracting the upper section relative to the lower section to raise the tubular 18 to a predetermined distance from the wellbore 20 through the upper base plate hole, the lower base plate hole, and the saw mounting plate hole.
The tubular 18 can be disposed at least partially above the wellbore 20 and at least partially within the wellbore 20. The lower gripping member 37 can grip the tubular 18 when the tubular 18 is extending through the lower base plate hole, and the upper gripping member 16 can grip the tubular 18 when the tubular 18 is extending through the upper base plate hole.
In one or more embodiments, the wellbore tubular removal system 9 can include a first cutting device 32a connected to the saw mounting plate 14 and a second cutting device 32b connected to the saw mounting plate 14 opposite the first cutting device 32a. The first cutting device 32a and the second cutting device 32b can each be pin drills.
The first cutting device 32a can include a first cutting member 33a and the second cutting device 32b can include a second cutting member 33b. 
The cutting members 33a and 33b can include variable sized drill bits having varied diameters and varied drill cutting surfaces for varying a diameter and a type of drill cutting surface according to a diameter and a weight of the tubular 18 being cut.
The variable sized drill bits can include diamond edged drill cutting surfaces, tungsten carbide edged drill cutting surfaces, sand covered drill cutting surfaces, ceramic drill cutting surfaces, or combinations thereof.
In operation, the tubular 18 can be gripped by the upper gripping member 16 and the upper section can be extended from the lower section until the tubular 18 is at a first distance 60a from the wellbore 20.
The tubular 18 can then be gripped by the lower gripping member 37, the upper gripping member 16 can release the tubular 18, and the upper section can be retracted towards the lower section.
The upper gripping member 16 can then grip the tubular 18, the lower gripping member 37 can release the tubular 18, and the upper section can be extended from the lower section until the tubular 18 is at a second distance 60b from the wellbore 20.
When the tubular 18 has been lifted from the wellbore 20 to the second distance 60b, the cutting members 33a and 33b can form one or more lifting holes 35a and 35b into the tubular 18.
A lifting member 66 can be installed in the one or more of the lifting holes 35a and 35b. The lifting member 66 can be a pin, a shackle, a pad eye, a locking dog, a grab bar, or combinations thereof.
The tubular 18 can then be gripped by the lower gripping member 37, the upper gripping member 16 can release the tubular 18, and the upper section can be retracted towards the lower section.
The upper gripping member 16 can then grip the tubular 18, the lower gripping member 37 can release the tubular 18, and the upper section can be extended from the lower section until the tubular 18 is at a third distance 60c from the wellbore 20.
When the tubular 18 has been lifted from the wellbore 20 to the third distance 60c, the saw 36 can be used to saw the tubular 18 to form a cut tubular 80. The cut tubular 80 can be lifted via a hoist 82.
In one or more embodiments, the lower base plate 10 can engage a device 61 of the wellbore 20. The device 61 can be a blowout preventer, a casing bowl, the ground, a wellhead, a rotary table, support beams, a portion of a rig floor, a portion of a drilling platform, a portion of a production platform, or a portion of a work over platform.
While these embodiments have been described with emphasis on the embodiments, it should be understood that within the scope of the appended claims, the embodiments might be practiced other than as specifically described herein.

## Claims

1. A tubular lift safety system comprising:
a. a wellbore tubular removal system for removing tubulars from wellbores, wherein the wellbore tubular removal system comprises:
(i) a lower section comprising:
1. a lower base plate with a lower base plate hole;
2. a plurality of sliding rods connected with the lower base plate; and
3. a lower gripping member mounted to the lower baseplate, wherein the lower gripping member is configured to grip a tubular when the tubular is extending through the lower base plate hole; and

(ii) an upper section comprising:
1. an upper base plate with an upper base plate hole;
2. a saw mounting plate with a saw mounting plate hole;
3. an upper gripping member connected with the upper base plate, wherein the upper gripping member is configured to grip the tubular when the tubular is extending through the upper base plate hole, and wherein the tubular is disposed at least partially above a wellbore and at least partially in the wellbore;
4. a plurality of cylinder barrels connected with the upper base plate at a first end and with the saw mounting plate at a second end, wherein each cylinder barrel is movably engaged with one of the sliding rods;
5. a plurality of pistons, wherein each piston is engaged with one of the sliding rods, and wherein each cylinder barrel is movably engaged with one of the pistons;
6. a plurality of piston caps, wherein each piston cap is connected to an end of one of the cylinder barrels between one of the pistons and the saw mounting plate, and wherein the cylinder barrels are configured to be moved relative to the pistons and the sliding rods for extending and retracting the upper section from the lower section;
7. one or more cutting devices connected to the saw mounting plate, wherein the each cutting device is disposed between the saw mounting plate and the upper base plate, and wherein the each cutting device comprises a cutting member configured to form at least one lifting hole into the tubular; and
8. a saw mounted to the saw mounting plate opposite the one or more cutting devices, wherein the wellbore tubular removal system is configured to:
a. be concentrically positioned over the wellbore in a retracted position to align the upper base plate hole, the lower base plate hole, and the saw mounting plate hole with the tubular;
b. lift the tubular out of the wellbore by sequentially gripping the tubular using the upper gripping member and the lower gripping member, and extending and retracting the upper section relative to the lower section to raise the tubular to a predetermined distance from the wellbore through the upper base plate hole, the lower base plate hole, and the saw mounting plate hole;
c. install a lifting member in the at least one lifting hole on the tubular;
d. saw the tubular into a cut tubular using the saw; and
e. allow the cut tubular to be lifted via a hoist;



b. a fluid source in fluid communication with:
(i) the cylinder barrels for extending and retracting the upper section relative to the lower section;
(ii) the upper gripping member and the lower gripping member for gripping and releasing the tubular; and
(iii) the saw for cutting the tubular;

c. a power supply in communication with the fluid source;
d. one or more pumps connected with the power supply and the fluid source for pumping hydraulic fluid or air; and
e. a remote control in communication with the fluid source and the one or more pumps, wherein the remote control comprises:
(i) a weight indicator for displaying a weight being lifted by the upper section;
(ii) upper gauges for displaying a pressure on the upper gripping member;
(iii) lower gauges for displaying a pressure on the lower gripping member;
(iv) one or more cylinder gauges for displaying a pressure on the cylinder barrels;
(v) a dead man switch configured to energize the upper gripping member, the lower gripping member, or combinations thereof when the lower gripping member or the upper gripping member fails or when the hoist releases;
(vi) first valves for engaging and releasing the upper gripping member;
(vii) second valves for engaging and releasing the lower gripping member;
(viii) retract and extend valves for controlling movement of the upper section relative to the lower section;
(ix) pressure monitors for monitoring pressure on the saw, wherein the pressure monitors are configured to turn off the saw when the pressure exceeds a preset limit;
(x) a kill switch configured to terminate flow of hydraulic fluid or air to the saw and a saw motor thereof; and
(xi) a power switch for controlling power to the cutting member.

2. The tubular lift safety system of claim 1, wherein the upper gripping member and the lower gripping member each comprise:
a. a slip set; and
b. a plurality of slip set cylinders disposed around the slip set and supported by a slip bowl.

3. The tubular lift safety system of claim 1, wherein the plurality of sliding rods connect with the lower base plate via rod base flanges.

4. The tubular lift safety system of claim 1, wherein the one or more cutting devices further comprises a first pin drill connected to the saw mounting plate and a second pin drill connected to the saw mounting plate opposite the first pin drill, and wherein each cutting member comprises a first cutting member on the first pin drill and a second cutting member on the second pin drill.

5. The tubular lift safety system of claim 1, wherein each cutting member comprises variable sized drill bits having varied diameters and varied drill cutting surfaces for varying a diameter and a type of drill cutting surface according to a diameter and a weight of the tubular.

6. The tubular lift safety system of claim 5, wherein the variable sized drill bits comprise: diamond edged drill cutting surfaces, tungsten carbide edged drill cutting surfaces, sand covered drill cutting surfaces, ceramic drill cutting surfaces, or combinations thereof.

7. The tubular lift safety system of claim 1, wherein the one or more cutting devices comprise: an abrasive water jet, a laser, a variable speed tungsten carbide saw, or combinations thereof.

8. The tubular lift safety system of claim 1, wherein the saw is selected from a member of the group consisting of: a band saw, a blade saw, or a hydraulic rotating cutter.

9. The tubular lift safety system of claim 1, wherein the lifting member is selected from a member of the group consisting of: a pin, a shackle, a pad eye, a locking dog, or a grab bar.

10. The tubular lift safety system of claim 1, wherein the lower base plate engages a blowout preventer, a casing bowl, the ground, a wellhead, a rotary table, support beams, a portion of a rig floor, a portion of a drilling platform, a portion of a production platform, or a portion of a work over platform.

11. The tubular lift safety system of claim 1, wherein the tubular is well casing, well tubing, a tubular with cement adhered thereto, coiled tubing, or combinations thereof.

12. The tubular lift safety system of claim 1, wherein the saw comprises a blade and a saw motor for operating the blade, and wherein the saw is mounted on tracks on the saw mounting plate comprising saw hydraulic or pneumatic cylinders for moving the saw on the tracks.

13. The tubular lift safety system of claim 12, wherein the fluid sources is configured to flow hydraulic fluid or air into saw hydraulic or pneumatic cylinders to move the saw along the tracks for engaging the blade with the tubular for cutting the tubular.