Disclosed is a control device for comfort equipment for a seat module in a passenger transport vehicle. The control device includes a control unit capable of transmitting adjustment commands to a piece of comfort equipment, and one imager capable of acquiring one image representing a part of the body of a passenger resting on a seat. The control unit communicates with the imager to receive the one acquired image. The control unit is capable of detecting an object in the image representing a part of the passenger's body and generating one adjustment command to be sent to the comfort equipment as a function of the detected part of the passenger's body.

A seat system includes a base support structure having at least one flat seat support surface, a seat pan support structure movably coupled to the base support structure and having at least one contoured seat support surface, and a back rest support structure movably coupled to the base support structure. The back rest support structure includes a primary frame having at least one flat back support surface, and an articulating frame movably coupled to the primary frame and having at least one contoured back support surface. The seat system also includes a back rest cushion having an occupant-facing back rest surface, and an articulating arrangement of back rest cushion support members movably coupled together to define a bottom surface of the back rest cushion opposing the occupant-facing back rest surface.

An aircraft passenger seat comprises a seat back and a seat pan, the seat pan being pivotally connected at or around a forward end thereof to a seat frame at a first pivot point, and at or around a rearward end thereof to a lower end of the seat back at a second pivot point. The seat back has an extension extending beyond the second pivot point and engaging a guide track in or connected to the seat frame, and a reclining actuator for driving the extension along the guide track so as to adjust the reclining of the seat.

A seat assembly having a seat back and a thoracic support mechanism. The thoracic support mechanism may have a flex plate that may be movably disposed on a support member of the seat back frame. A first actuator may flex the flex plate. A second actuator may actuate the flex plate along the support member.

An adjustable structure (1) comprising a first structural layer (10) defined by a first array of extendable and/or retractable rods or beams (11, 11a, 11b) pivotally connected to each other at their ends and a second structural layer (20) connected to the first structural layer (10) and defined by a second array of extendable and/or retractable rods or beams (21, 21a, 21b) pivotally connected to each other at their ends, wherein at least a portion of the second layer (20) is outside the volume defined by the first structural layer (10) and the extendable and/or retractable rods or beams in the second array are more densely packed than the extendable and/or retractable rods or beams in the first array.

This actuator comprises a frame, a motor, an output shaft, and a drive train for driving the output shaft via the motor. The drive train comprises an upstream element, a downstream element, and a device for coupling the upstream element to the downstream element. Said coupling device has a first configuration for transmitting all of the torque exerted by one of the upstream and downstream elements on the coupling device to the other of the upstream and downstream elements when said torque is below a threshold torque, and a second configuration for diverting at least part of said torque exerted by one of the upstream and downstream elements on the coupling device to the frame when said torque is at least equal to the threshold torque.

A system for seat motion planning includes a seat installable in an environment, the seat including a plurality of adjustable components, a plurality of actuators configured to move the adjustable components, and a seat controller configured to operate the plurality of actuators. The system further includes a motion planner communicatively coupled to the seat controller configured to access a seat motion plan from a plurality of seat motion plans stored in memory, access a model of the environment including at least one object affecting the seat motion plan, and modify the seat motion plan to account for the at least one object. In embodiments, the motion planner is implemented as an application executable by a processor configured to execute other, separate seat-related applications.

A seat system for a passenger aircraft. The seat system includes a passenger seat frame having a backrest support assembly including a backrest and a spreaders and spar tube assembly; and a seat bottom support assembly. The seat system further includes a solenoid-actuated recline lever assembly including an armrest or center console connected to the spreaders and spar tube assembly; a counter-balanced solenoid actuator positioned in the seat bottom support assembly; and a passenger operated release switch attached between the solenoid actuator and the armrest or center console. The seat system may further include a seat back tray table attached to the back of the passenger seat frame.

An aircraft passenger seat has a seat back including a lower portion pivotably mounted to a seat bottom and an upper portion rotatably coupled to the lower portion. The upper portion may rotate in a forward direction relative to the lower portion during articulation of the seat. An inner diaphragm may be positioned between a headrest and a set of side frame members of the upper portion and is rotatably coupled to the upper portion and lower portion to provide support for an upper back and shoulders of a seated passenger. An actuating assembly may coordinate articulation of the lower portion, the upper portion, and the inner diaphragm to permit articulation of the seat between an upright taxi takeoff and landing (TTOL) position and a reclined position and to enable the seated passenger to achieve more ergonomic postures.

A seat actuation control system is disclosed. The seat actuation control system may permit multiple functions to be controlled by a single actuator. For example, a seat floor tracking function, and a seat pan track and swivel function may be individually controlled by a single actuator, such as a rotary actuator.