Construction beam robot
A construction beam robot, such as for steel erection, comprises a pair of thrust producing fans located at either end of a beam to be installed. The fans' thrust and direction of thrust is controlled and/or coordinated by a computer with custom control software. By altering the direction and amount of thrust, the orientation of the beam is controlled. Workers on site who possess a controller are able to rotate or fix the orientation of a beam from a distance and do so wirelessly.
1. A construction robot for positioning a beam using a crane comprising:
a first fan unit comprising:
a first fan;
a first cable attachment mechanism; and
a first beam latch mechanism;
a second fan unit comprising:
a second fan;
a second cable attachment mechanism; and
a second beam latch mechanism; and
a controller operationally connected to the first fan and the second fan, wherein:
the first cable attachment mechanism is configured to serve as an attachment point for a first portion of a crane cable;
the second cable attachment mechanism is configured to serve as an attachment point for a second portion of the crane cable;
the first beam latch mechanism is configured to grasp a first portion of the beam adjacent a first end of the beam;
the second beam latch mechanism is configured to grasp a second portion of the beam adjacent a second end of the beam that is spaced apart from the first end of the beam; and
the controller is configured to operate the first fan and the second fan to adjust an orientation of the beam while the crane is lifting the beam via the crane cable.
2. The construction robot of claim 1 , further comprising a rigid member, wherein:
the first fan unit is disposed adjacent a first end of the rigid member; and
the second fan unit is disposed adjacent a second end of the rigid member.
3. The construction robot of claim 1 , wherein
the first fan unit is configured to provide a first attachment point to the beam for the crane cable; and
the second fan unit is configured to provide a second attachment point to the beam for the crane cable.
4. The construction robot of claim 1 , wherein the first beam latch mechanism and the second beam latch mechanism are adjustable to enable the construction robot to grasp beams of varying sizes.
5. The construction robot of claim 1 , wherein the first beam latch mechanism is electro-mechanic.
6. The construction robot of claim 1 , further comprising one or more laser trackers configured to track the orientation of the beam.
7. A construction robot comprising:
a first fan having a first thrust and comprising a first beam latch mechanism configured to grasp a first portion of a beam adjacent a first end of the beam;
a second fan having a second thrust and having a second beam latch mechanism configured to grasp a second portion of the beam adjacent a second end of the beam;
a crane from which to suspend the beam, the crane comprising at least one crane cable that includes a first crane cable end and a second crane cable end; and
a controller operationally connected to the fans, wherein:
the first fan provides a first attachment point for the first crane cable end;
the second fan provides a second attachment point for the second crane cable end;
the controller is configured to operate the first fan and the second fan to adjust an orientation of the beam while the crane is lifting the beam via the at least one crane cable; and
the construction robot is configured to:
grasp the first end of the beam using the first beam latch mechanism;
grasp the second end of the beam using the second beam latch mechanism;
use the crane to lift the beam from an initial position to a final beam position; and
operate the first fan and the second fan to maintain the beam in a desired orientation as the crane lifts the beam from the initial position to the final beam position.
8. A construction robot as described in claim 7 , wherein the controller is able to control the first and second thrusts.
9. A construction robot as described in claim 8 , further comprising a crane controller operationally connected to the crane.
10. A construction beam positioning system comprising:
a crane;
a crane cable;
a first fan unit comprising:
a first fan;
a first cable attachment mechanism attached to the crane cable; and
a first beam latch mechanism;
a second fan unit comprising:
a second fan;
a second cable attachment mechanism attached to the crane cable; and
a second beam latch mechanism; and
a controller configured to control operation of the first fan and the second fan, wherein the construction beam positioning system is configured to lift a beam from an initial position to a final beam position by:
grasping a first end of the beam using the first beam latch mechanism;
grasping a second end of the beam using the second beam latch mechanism;
using the crane to lift the beam from the initial position to the final beam position via the crane cable; and
while the crane is lifting the beam from the initial position to the final beam position via the crane cable, using the controller to cause the first fan and the second fan to produce thrust to maintain the beam in a desired orientation.
11. The construction robot of claim 10 , further comprising one or more laser trackers configured to track the orientation of the beam.
12. The construction robot of claim 10 , wherein the controller is further configured to:
receive orientation data from the one or more laser trackers; and
operate the first fan and the second fan based on the orientation data to maintain the beam in the desired orientation.