Abstract: A method for enhancing at least a section of lower-quality visual data using a hierarchical algorithm, the method including receiving at least a plurality of neighbouring sections of lower-quality visual data. A plurality of input sections from the received plurality of neighbouring sections of lower quality visual data are selected and features are extracted from those plurality of input sections of lower-quality visual data. A target section based on the extracted features from the plurality of input sections of lower-quality visual data is then enhanced.

Abstract: Use of machine learning to improve motion compensation in video encoding. According to a first aspect, there is provided a method for motion compensation in video data using hierarchical algorithms, the method comprising the steps of: receiving one or more original blocks of video data and one or more reference blocks of video data; determining, using one or more hierarchical algorithms, one or more predicted blocks of video data from the one or more reference blocks of video data; and calculating one or more residual blocks of video data from the one or more predicted blocks of video data and the one or more original blocks of video data.

Abstract: The present disclosure relates to the use of hierarchical algorithms to temporally interpolate enhanced reference pictures for use in video encoding and decoding. According to a first aspect, there is provided a method of generating enhanced reference pictures in a video encoding and/or decoding process, the method comprising: receiving one or more known reference elements of video data from a reference picture buffer; generating, using one or more hierarchical algorithms, one or more additional reference elements of video data from the one or more known reference elements of video data; and outputting the one or more additional reference elements of video data; wherein the generating the one or more additional reference elements of video data from the one or more known reference elements of video data comprises the use of temporal interpolation.

Abstract: Use of machine learning to improve motion estimation in video encoding. According to a first aspect, there is provided a method for estimating the motion between pictures of video data using a hierarchical algorithm, the method comprising steps of: receiving one or more input pictures of video data; identifying, using a hierarchical algorithm, one or more reference elements in one or more reference pictures of video data that are similar to one or more input elements in the one or more input pictures of video data; determining an estimated motion vector relating the identified one or more reference elements to the one or more input elements; and outputting an estimated motion vector.

Abstract: Separating system for separating a support and a product arranged on the support. According to one embodiment the system includes conveying means adapted for receiving the product arranged on its support and for conveying the products in a first conveyance direction. The conveying means includes two product support elements separated from one another in at least one point by a width less than a width of the product (the width of the product being transverse to the first conveyance direction) and greater than the width of its support (with the width of the support being transverse to the first conveyance direction), such that the product is supported by, and conveyed on, the product support elements of the conveying means, and the support is separated from the product upon the product being supported on the product support elements.

Abstract: A method for increasing the quality of a section of visual data communicated over a network from a first node to a second node, the method at the second node including receiving a lower-quality visual data via a network, receiving a corresponding reference to an algorithm operable to increase a quality of the lower-quality visual data, the algorithm selected based on a higher-quality visual data from which the lower-quality visual data was generated, and using the algorithm to increase the quality of the lower-quality visual data to recreate the higher-quality visual data.

Abstract: A method for enhancing at least a section of lower-quality visual data using a hierarchical algorithm, the method comprising receiving at least a plurality of neighbouring sections of lower-quality visual data. A plurality of input sections from the received plurality of neighbouring sections of lower quality visual data are selected and features are extracted from those plurality of input sections of lower-quality visual data. A target section based on the extracted features from the plurality of input sections of lower-quality visual data is then enhanced.

Abstract: A method for developing an enhancement model for low-quality visual data, the method comprising the steps of receiving one or more sections of higher-quality visual data; and training a hierarchical algorithm. The hierarchical algorithm is operable to increase the quality of one or more sections of lower-quality visual data so as to substantially reproduce the one or more sections of higher-quality visual data. The hierarchical algorithm is then outputted.

Abstract: A method for enhancing one or more sections of lower-quality visual data using a hierarchical algorithm, the method comprising receiving one or more sections of lower-quality visual data. The one or more sections of lower-quality visual data are enhanced to one or more sections of higher-quality visual data using the hierarchical algorithm. Additionally, at least the first step of the hierarchical algorithm is performed in a lower-quality domain; and wherein the hierarchical algorithm operates in both a higher-quality domain and the lower-quality domain.

Abstract: A method for enhancing visual data when communicating visual data over a network from a first node to a second node. The method at the first node comprises developing at least one modified hierarchical algorithm from a known hierarchical algorithm operable to substantially recreate at least one section of higher-quality visual data. References to one or more known hierarchical algorithms from which the modified hierarchical algorithms were developed are transmitted to the second node along with one or more modifications to the one or more known hierarchical algorithms operable to reproduce the one or more modified hierarchical algorithms from the known hierarchical algorithms. The second node is able to recreate substantially the higher-quality video using the modified hierarchical algorithm.

Abstract: An elevator system includes a safety device strategically positioned within a hoistway to provide overhead or under car clearance during an inspection procedure, for example. An example safety device includes a triggering member that is selectively moved into a stopping position to engage a safety brake for preventing movement of an elevator car beyond a selected vertical position. The triggering member is selectively moveable in an automated manner between a retracted position and a stopping position. When the triggering member is in a retracted position, it has no effect on normal elevator system operation. When the triggering member is in the stopping position, it provides for maintaining adequate clearance between an elevator car assembly and another surface or structure within an elevator hoistway.

Abstract: A drive arrangement for an elevator car and a machine roomless elevator incorporates a machine (26) having a drive sheave (27) extending along an axis parallel to the axes of the deflection sheaves (23, 25) associated with both the counter-weight (24) and the elevator car (22). In this manner, the twisting which has occurred in the prior art is reduced or eliminated. The machine is mounted on a bedplate (18) between the guide rails. The elevator car is preferably cantilever mounted, and mounted on laterally outer surfaces of said guide rails. In this manner, the elevator car can travel vertically upwardly beyond the machine.

Abstract: An elevator system (20) includes a safety device (50) strategically positioned within a hoistway to provide overhead or under car clearance during an inspection procedure, for example. An example safety device (50) includes a triggering member (56) that is selectively moved into a stopping position to engage a safety brake (42) for preventing movement of an elevator car (24) beyond a selected vertical position. The triggering member (56) is selectively moveable in an automated manner between a retracted position and a stopping position. When the triggering member (56) is in a retracted position, it has no effect on normal elevator system operation. When the triggering member (56) is in the stopping position, it provides for maintaining adequate clearance between an elevator car assembly and another surface or structure within an elevator hoistway.

Abstract: An elevator car includes a cross-head portion and a balustrade mounted to the cross-head portion. The balustrade is moveable from a retracted position for normal operation of the car to a deployed position for inspection operation of the car. The car further includes a second retractable safety device also mounted to the cross-head for preventing or limiting movement of the car. The balustrade includes at least one control for operating the elevator car during the inspection operation, the control being arranged so that the control cannot be operated when the balustrade is in the retracted position.

Abstract: An elevator system comprises a hoistway; an elevator car (12) arranged to move vertically within the hoistway; a plurality of landings opening into said hoistway; and a pit (22) located below a lowermost landing (18). The elevator system further comprises an engineer interface, e.g. a key switch, located at or near the lowermost landing arranged to generate a control signal for moving the elevator car to a predetermined parking position above the lowermost landing thereby allowing access to the pit.

Abstract: An elevator car (2) comprises a cross-head portion (8) and a balustrade (10) mounted to the cross-head portion (8), The balustrade (10) is moveable from a retracted position for normal operation of the car (2) to a deployed position for inspection operation of the car (2). The car (2) further comprises a second retractable safety device (12,14) also mounted to the cross-head (8) for preventing or limiting movement of the car (2). Also disclosed is an elevator car (2) comprising a retractable balustrade (10) moveable between a retracted position for normal operation of the elevator car (2) and is a deployed position for inspection operation of the elevator car (2). The balustrade (10) comprises at least one control (40,42,44) for operating the elevator car (2) during the inspection operation wherein the control (40,42,44) is arranged so that it cannot be operated when the balustrade (10) is in the retracted position.

Abstract: A drive arrangement for an elevator car and a machine roomless elevator incorporates a machine (26) having a drive sheave (27) extending along an axis parallel to the axes of the deflection sheaves (23, 25) associated with both the counter-weight (24) and the elevator car (22). In this manner, the twisting which has occurred in the prior art is reduced or eliminated. The machine is mounted on a bedplate (18) between the guide rails. The elevator car is preferably cantilever mounted, and mounted on laterally outer surfaces of said guide rails. In this manner, the elevator car can travel vertically upwardly beyond the machine.

Abstract: A item carrying system for providing space-efficient tool storage and transportation. The item carrying system includes a housing with a pair of storage spaces, each of the storage spaces has an open top designed for permitting insertion of an item into the respective storage space, and a plurality of containers which are removably insertable within one of the storage spaces, each of the containers is designed for holding at least one of the items.