Abstract: A system and method for machine learning architecture for prospective resource allocations are described. The method may include: receiving data records representing historical resource allocations from a user account associated with a first identifier to a resource account associated with a second identifier; deriving input features based on the data records; computing, using a trained neural network architecture, a predicted resource allocation amount and a predicted resource allocation date for the predicted resource allocation amount based on the derived input features; determining, using the trained neural network architecture, a first selection score associated with the predicted resource allocation amount and a second selection score associated with the predicted resource allocation date; and when the first or second selection score is above a minimum threshold, causing to display, at a display device, the associated resource allocation amount or date corresponding to the second identifier.

Abstract: The present disclosure relates to seating apparatus. In particular, the present application relates to an aircraft seat (1). The aircraft seat (1) includes a seat chassis (4) and a seat assembly (5). The seat assembly (5) has a seat pan (6) and a seat back (7). The seat pan (6) is mounted to the seat chassis (4) by a first pivoting connection (30) defining a seat pan pivot axis (Y1) about which the seat pan (6) pivots. The location of the seat pan pivot axis (Y1) is fixed relative to the seat chassis (4). At least one seat pan link (53-1) is provided for controlling pivoting of the seat pan (6) about said seat pan pivot axis (Y1). The at least one seat pan link (53-1) is coupled to the seat pan (6) in front of the seat pan pivot axis (Y1). The present disclosure also relates to an aircraft (2) including one or more of the aircraft seat (1).

Abstract: An aircraft seat including: a seat chassis; a seat assembly including a seat pan and a seat back; the seat pan being mounted to the seat chassis by a first pivoting connection defining a seat pan pivot axis about which the seat pan pivots, the first pivoting connection being configured such that the seat pan can pivot about the seat pan pivot axis without undergoing a related translational movement; the second pivoting connection defining a seat back pivot axis about which the seat back pivots; at least one seat pan link for controlling pivoting of the seat pan about said seat pan pivot axis; wherein the at least one seat pan link is coupled to the seat pan in front of the seat pan pivot axis; and at least one recline link connected to the seat back and the at least one seat pan link.

Abstract: An apparatus in one embodiment comprises at least one processing device configured to control delivery of input-output (IO) operations from a host device to a storage system over selected ones of a plurality of paths through a network, and to monitor response times for particular ones of the IO operations sent from the host device to the storage system. The at least one processing device is further configured to interact with the storage system to determine network latency from a viewpoint of the storage system, and responsive to (i) at least a subset of the monitored response times being above a first threshold and (ii) the network latency from the viewpoint of the storage system being above a second threshold, to at least temporarily modify a manner in which additional ones of the IO operations are sent from the host device to the storage system.

Abstract: An apparatus in one embodiment comprises at least one processing device configured to control delivery of input-output (IO) operations from a host device to a storage system over selected ones of a plurality of paths through a network, and to monitor response times for particular ones of the IO operations sent from the host device to the storage system. The at least one processing device is further configured to interact with the storage system to determine network latency from a viewpoint of the storage system, and responsive to (i) at least a subset of the monitored response times being above a first threshold and (ii) the network latency from the viewpoint of the storage system being above a second threshold, to at least temporarily modify a manner in which additional ones of the IO operations are sent from the host device to the storage system.

Abstract: The present disclosure relates to seating apparatus. In particular, the present application relates to an aircraft seat (1). The aircraft seat (1) includes a seat chassis (4) and a seat assembly (5). The seat assembly (5) has a seat pan (6) and a seat back (7). The seat pan (6) is mounted to the seat chassis (4) by a first pivoting connection (30) defining a seat pan pivot axis (Y1) about which the seat pan (6) pivots. The location of the seat pan pivot axis (Y1) is fixed relative to the seat chassis (4). At least one seat pan link (53-1) is provided for controlling pivoting of the seat pan (6) about said seat pan pivot axis (Y1). The at least one seat pan link (53-1) is coupled to the seat pan (6) in front of the seat pan pivot axis (Y1). The present disclosure also relates to an aircraft (2) including one or more of the aircraft seat (1).