Abstract: Embodiments are described for a stabilization system configured, in some embodiments, for stabilizing image capture from an aerial vehicle (e.g., a UAV). According to some embodiments, the stabilization systems employs both active and passive stabilization means. A passive stabilization assembly includes a counter-balanced suspension system that includes an elongated arm that extends into and is coupled to the body of a vehicle. The counter-balanced suspension system passively stabilizes a mounted device such as an image capture device to counter motion of the UAV while in use. In some embodiment the counter-balanced suspension system passively stabilizes a mounted image capture assembly that includes active stabilization means (e.g., a motorized gimbal and/or electronic image stabilization). In some embodiments, the active and passive stabilization means operate together to effectively stabilize a mounted image capture device to counter a wide range of motion characteristics.

Abstract: Embodiments are described for a stabilization system configured, in some embodiments, for stabilizing image capture from an aerial vehicle (e.g., a UAV). According to some embodiments, the stabilization systems employs both active and passive stabilization means. A passive stabilization assembly includes a counter-balanced suspension system that includes an elongated arm that extends into and is coupled to the body of a vehicle. The counter-balanced suspension system passively stabilizes a mounted device such as an image capture device to counter motion of the UAV while in use. In some embodiment the counter-balanced suspension system passively stabilizes a mounted image capture assembly that includes active stabilization means (e.g., a motorized gimbal and/or electronic image stabilization). In some embodiments, the active and passive stabilization means operate together to effectively stabilize a mounted image capture device to counter a wide range of motion characteristics.

Abstract: Embodiments are described for a stabilization system configured, in some embodiments, for stabilizing image capture from an aerial vehicle (e.g., a UAV). According to some embodiments, the stabilization systems employs both active and passive stabilization means. A passive stabilization assembly includes a counter-balanced suspension system that includes an elongated arm that extends into and is coupled to the body of a vehicle. The counter-balanced suspension system passively stabilizes a mounted device such as an image capture device to counter motion of the UAV while in use. In some embodiment the counter-balanced suspension system passively stabilizes a mounted image capture assembly that includes active stabilization means (e.g., a motorized gimbal and/or electronic image stabilization). In some embodiments, the active and passive stabilization means operate together to effectively stabilize a mounted image capture device to counter a wide range of motion characteristics.

Abstract: Embodiments are described for a stabilization system configured, in some embodiments, for stabilizing image capture from an aerial vehicle (e.g., a UAV). According to some embodiments, the stabilization systems employs both active and passive stabilization means. A passive stabilization assembly includes a counter-balanced suspension system that includes an elongated arm that extends into and is coupled to the body of a vehicle. The counter-balanced suspension system passively stabilizes a mounted device such as an image capture device to counter motion of the UAV while in use. In some embodiment the counter-balanced suspension system passively stabilizes a mounted image capture assembly that includes active stabilization means (e.g., a motorized gimbal and/or electronic image stabilization). In some embodiments, the active and passive stabilization means operate together to effectively stabilize a mounted image capture device to counter a wide range of motion characteristics.

Abstract: Embodiments are described for a stabilization system configured, in some embodiments, for stabilizing image capture from an aerial vehicle (e.g., a UAV). According to some embodiments, the stabilization systems employs both active and passive stabilization means. A passive stabilization assembly includes a counter-balanced suspension system that includes an elongated arm that extends into and is coupled to the body of a vehicle. The counter-balanced suspension system passively stabilizes a mounted device such as an image capture device to counter motion of the UAV while in use. In some embodiment the counter-balanced suspension system passively stabilizes a mounted image capture assembly that includes active stabilization means (e.g., a motorized gimbal and/or electronic image stabilization). In some embodiments, the active and passive stabilization means operate together to effectively stabilize a mounted image capture device to counter a wide range of motion characteristics.

Abstract: Embodiments are described for a stabilization system configured, in some embodiments, for stabilizing image capture from an aerial vehicle (e.g., a UAV). According to some embodiments, the stabilization systems employs both active and passive stabilization means. A passive stabilization assembly includes a counter-balanced suspension system that includes an elongated arm that extends into and is coupled to the body of a vehicle. The counter-balanced suspension system passively stabilizes a mounted device such as an image capture device to counter motion of the UAV while in use. In some embodiment the counter-balanced suspension system passively stabilizes a mounted image capture assembly that includes active stabilization means (e.g., a motorized gimbal and/or electronic image stabilization). In some embodiments, the active and passive stabilization means operate together to effectively stabilize a mounted image capture device to counter a wide range of motion characteristics.

Abstract: Embodiments are described for a stabilization system configured, in some embodiments, for stabilizing image capture from an aerial vehicle (e.g., a UAV). According to some embodiments, the stabilization systems employs both active and passive stabilization means. A passive stabilization assembly includes a counter-balanced suspension system that includes an elongated arm that extends into and is coupled to the body of a vehicle. The counter-balanced suspension system passively stabilizes a mounted device such as an image capture device to counter motion of the UAV while in use. In some embodiment the counter-balanced suspension system passively stabilizes a mounted image capture assembly that includes active stabilization means (e.g., a motorized gimbal and/or electronic image stabilization). In some embodiments, the active and passive stabilization means operate together to effectively stabilize a mounted image capture device to counter a wide range of motion characteristics.

Abstract: Embodiments are described for a stabilization system configured, in some embodiments, for stabilizing image capture from an aerial vehicle (e.g., a UAV). According to some embodiments, the stabilization systems employs both active and passive stabilization means. A passive stabilization assembly includes a counter-balanced suspension system that includes an elongated arm that extends into and is coupled to the body of a vehicle. The counter-balanced suspension system passively stabilizes a mounted device such as an image capture device to counter motion of the UAV while in use. In some embodiment the counter-balanced suspension system passively stabilizes a mounted image capture assembly that includes active stabilization means (e.g., a motorized gimbal and/or electronic image stabilization). In some embodiments, the active and passive stabilization means operate together to effectively stabilize a mounted image capture device to counter a wide range of motion characteristics.

Abstract: An ultrasonic sensor assembly is placed against an inside surface of a panel for sensing objects on an opposite side of the panel and includes an ultrasonic sensor, a preload structure, a coupling element, and a damping material. The preload structure applies a preload on the ultrasonic sensor toward the inside surface of the panel. The coupling element interfaces between the ultrasonic sensor and the inside surface of the panel. The damping material is placed against the inside surface but not where the coupling element interfaces between the ultrasonic sensor and the inside surface. The coupling element may include a matrix material that is reinforced with a filler.

Abstract: An airbag assembly includes an attachment bracket, an inflatable airbag and a deployment device. The attachment bracket is attached to an outboard bolster section of a seat assembly. The attachment bracket defines an attachment section that extends along an inboard surface of the outboard bolster section and a deflection surface extending from the attachment section with the inflatable airbag. The deployment section is attached to an inboard side of the attachment section. The deflection surface is dimensioned and shaped such that upon deployment of the inflatable airbag the inflatable airbag is guided to move by the deflection surface in a forward deployment direction relative to the outboard bolster section.

Abstract: An airbag assembly includes an attachment bracket, an inflatable airbag and a deployment device. The attachment bracket is attached to an outboard bolster section of a seat assembly. The attachment bracket defines an attachment section that extends along an inboard surface of the outboard bolster section and a deflection surface extending from the attachment section with the inflatable airbag. The deployment section is attached to an inboard side of the attachment section. The deflection surface is dimensioned and shaped such that upon deployment of the inflatable airbag the inflatable airbag is guided to move by the deflection surface in a forward deployment direction relative to the outboard bolster section.

Abstract: The present invention relates to producing oil from an oil-bearing geological formation using a selection process. The process includes selecting a treatment option such as carbon dioxide flooding for enhancing oil recovery from a geological formation in a remote location. Various characteristic properties such as a physical or chemical property of the oil or rock may be used in the selection process and the carbon dioxide may be captured from a combustion process.

Abstract: Disclosed herein are embodiments of a latching mechanism for a vehicle seat. An exemplary latching mechanism for allowing selective attachment and detachment of a vehicle seat comprises a latch configured for latching and unlatching the seat, the latch being biased to a latched condition. The latching mechanism also comprises a lock for locking the latch and releasing the latch, the lock having a locked position, a transition position and a release position and configured for movement from the locked position to the release position through the transition position. The latching mechanism further comprises an indicator responsive to the position of the lock and configured to activate indication that the latch is released when the lock is moved through the transition position.

Abstract: Disclosed herein are embodiments of a latching mechanism for a vehicle seat. An exemplary latching mechanism for allowing selective attachment and detachment of a vehicle seat comprises a latch configured for latching and unlatching the seat, the latch being biased to a latched condition. The latching mechanism also comprises a lock for locking the latch and releasing the latch, the lock having a locked position, a transition position and a release position and configured for movement from the locked position to the release position through the transition position. The latching mechanism further comprises an indicator responsive to the position of the lock and configured to activate indication that the latch is released when the lock is moved through the transition position.

Abstract: Disclosed herein are embodiments of impact absorption blocks and vehicle seatbacks and seats comprising impact absorption blocks. One embodiment of a vehicle seatback assembly comprises a seatback frame, a seat pad and an impact absorption block. The seatback frame comprises a first side member having an upper end and a lower end, a second side member spaced apart from and substantially parallel to the first side member and having an upper end and a lower end and a cross-member extending between the first and second side members. The seat pad overlies the seatback frame to define a forward surface. The impact absorption block is positioned between the seat pad and the cross member.

Abstract: A process is presented for selecting a treatment option for enhancing oil recovery from a geological formation in a remote location. The process includes a selection process for identifying a suitable treatment option.

Abstract: Disclosed herein are embodiments of impact absorption blocks and vehicle seatbacks and seats comprising impact absorption blocks. One embodiment of a vehicle seatback assembly comprises a seatback frame, a seat pad and an impact absorption block. The seatback frame comprises a first side member having an upper end and a lower end, a second side member spaced apart from and substantially parallel to the first side member and having an upper end and a lower end and a cross-member extending between the first and second side members. The seat pad overlies the seatback frame to define a forward surface. The impact absorption block is positioned between the seat pad and the cross member.

Abstract: A vehicle seat includes a seat frame with at least one attachment point, a foam pad overlying the seat frame with at least one attachment opening and a flexible seat trim cover. The flexible seat trim cover overlies a front surface of the foam pad. The seat trim cover has at least one attachment member extending through the attachment opening. The attachment member is secured to the attachment point of the seat frame to hold the seat trim cover against the front surface of the foam pad.

Abstract: A deep water support platform, suitable for use as a hydrocarbon exploration or production facility in very deep waters of 10,000 ft or more is presented. The platform is attached to the floor of the ocean with a buoyant pile that includes buoyant members attached about the periphery of the pile. The buoyant pile and buoyant members include tubular members that can be filled with water, oil, air or other materials to produce a structure that has improved buoyancy and stability over prior platforms. Embodiments include configurations of buoyant members that have constant and equal diameter and spacing, and other configurations where the diameter and/or spacing of the buoyant members changes along the pile. In addition, the buoyant members are arranged about the pile to reduce vortex induced vibrations on the platform by interfering with current flow about the support structure.