mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: a register bank comprising at least one chain of registers (102, 103) comprising a plurality of registers (102A-N, 103A-N) serially connected in a chain, each register of the chain of registers configured to store a parameter in use, the or each chain of registers having an input node at a first end of the chain and an output node at an, opposed, second end of the chain, the register bank including a scan chain arrangement configured to provide for sequential output, at the output node, of the parameters stored in the registers of the chain by way of sequentially shifting the parameters stored in each register of the chain to an adjacent register in the chain in a direction of the output node; a feedback arrangement configured such that each parameter provided at the output node is fed back to the input node of that chain (102, 103) thereby providing for restoration of the parameters stored in the chain of registers once the scan chain arrangement has provided for output all of the parameters of the chain; the apparatus being characterised in that it comprises: a checksum determination element configured to calculate a checksum upon a plurality of the parameters of the chain(s) of registers (102, 103) received from the output node by the scan chain arrangement and comprising a comparator configured to compare the checksum to a previously calculated checksum stored in a memory of the checksum determination element for identification of changes to the parameters of the at least one chain of registers. a register bank comprising at least one chain of registers (102, 103) comprising a plurality of registers (102A-N, 103A-N) serially connected in a chain, each register of the chain of registers configured to store a parameter in use, the or each chain of registers having an input node at a first end of the chain and an output node at an, opposed, second end of the chain, the register bank including a scan chain arrangement configured to provide for sequential output, at the output node, of the parameters stored in the registers of the chain by way of sequentially shifting the parameters stored in each register of the chain to an adjacent register in the chain in a direction of the output node; a feedback arrangement configured such that each parameter provided at the output node is fed back to the input node of that chain (102, 103) thereby providing for restoration of the parameters stored in the chain of registers once the scan chain arrangement has provided for output all of the parameters of the chain; the apparatus being characterised in that it comprises: a checksum determination element configured to calculate a checksum upon a plurality of the parameters of the chain(s) of registers (102, 103) received from the output node by the scan chain arrangement and comprising a comparator configured to compare the checksum to a previously calculated checksum stored in a memory of the checksum determination element for identification of changes to the parameters of the at least one chain of registers.
Electrical plug-element (1a, 1b, 1e) comprising at least one socket module (2a, 2b, 2e) with a receptacle for a mating plug-element, the receptacle opens towards a plug-direction of the plug-element (1a, 1b, 1e), is formed between at least two wall sections (4, 4') of the socket module (2a, 2b, 2e) which extend essentially in parallel to a length direction of the plug-element (1a, 1b, 1e), and accommodates at least one contact support area which extends along the length direction and at least partially faces into the plug-direction, wherein the receptacle is laterally open through at least two recesses each extending along a width direction of the socket module (2a, 2b, 2e) between the at least two wall sections (4, 4'), the width direction extends perpendicularly to the length direction and the plug-direction, wherein the at least one contact support area is located at a bottom portion of the receptacle, the bottom portion facing into the plug-direction, and wherein the recesses extend down to the bottom portion and/or essentially along a distance measured in parallel to the width direction between the wall sections (4, 4'), characterised by at least two mounting modules (3a-3d, 3h, 3i) each having a holding section attached to a lateral side of the socket module (2a, 2b, 2e), the lateral side extending essentially in parallel to the plug-direction, and a mounting section (16a-16d, 16h, 16i) providing a mounting organ (17a-17d, 17h, 17i) adapted to be fastened to a substrate, wherein the mounting modules (3a-3d, 3h, 3i) at least partially close the recesses.
Cosmetic composition comprising: - one or more cationic surfactants, - one or more amphoteric or zwitterionic surfactants, - one or more silicones, - one or more cationic polymers, - one or more fatty alcohols, and - one or more clays, in an amount ranging from 1 to 5% by weight, with regard to the total weight of the composition; it being understood that the composition contains less than 5% by weight of anionic surfactants, with regard to the total weight of the composition. - one or more cationic surfactants, - one or more amphoteric or zwitterionic surfactants, - one or more silicones, - one or more cationic polymers, - one or more fatty alcohols, and - one or more clays, in an amount ranging from 1 to 5% by weight, with regard to the total weight of the composition;
An exoskeleton fitness device, in particular for training a human body, comprising: a portable structure including at least one fastening member, wherein the at least one fastening member is configured to attach the portable structure to the body of a user, at least one mechanical joint having at least one axis of rotation and at least one degree of freedom, wherein the at least one mechanical joint is attached to the portable structure, at least one unit for generating a rotational resistance moment counteracting a rotational movement of the at least one mechanical joint, a controller for controlling the rotational resistance moment, wherein the controller is configured to control the rotational resistance moment in accordance with a user setting, wherein the controller is further configured to control the at least one rotational resistance moment as a function of an angular force applied by the user, and characterized in that the exoskeleton fitness device includes at least one magnetostrictive torque transducer for sensing the angular force applied by the user. a portable structure including at least one fastening member, wherein the at least one fastening member is configured to attach the portable structure to the body of a user, at least one mechanical joint having at least one axis of rotation and at least one degree of freedom, wherein the at least one mechanical joint is attached to the portable structure, at least one unit for generating a rotational resistance moment counteracting a rotational movement of the at least one mechanical joint, a controller for controlling the rotational resistance moment, wherein the controller is configured to control the rotational resistance moment in accordance with a user setting, wherein the controller is further configured to control the at least one rotational resistance moment as a function of an angular force applied by the user, and characterized in that the exoskeleton fitness device includes at least one magnetostrictive torque transducer for sensing the angular force applied by the user.
A method in a serving base station, of a first multi-sector cell consisting of one macro sector and one pico sector in a mobile cellular network, for making a decision to handover a user equipment, within radio contact with different sectors of the first multi-sector cell, to a second cell of the mobile cellular network, the method comprising: obtaining a first measurement of an uplink signal received from the user equipment at the macro sector of the first multi-sector cell; obtaining a second measurement of an uplink signal received from the user equipment at the second cell; obtaining a third measurement of an uplink signal received from the user equipment at the pico sector of the first multi-sector cell, wherein the obtained first measurement and the obtained third measurement are path gains from the user equipment to antennas for the macro sector and the pico sector respectively; and making a decision to handover the user equipment from the first multi-sector cell to the second cell using the obtained first measurement, the obtained second measurement, and the obtained third measurement, wherein making the decision comprises computing an uplink geometry based on the obtained first measurement, the obtained second measurement, and the obtained third measurement; and comparing the computed uplink geometry with a predefined threshold, wherein the computed uplink geometry is a ratio of the obtained second measurement to a sum of the obtained first measurement and the obtained third measurement. obtaining a first measurement of an uplink signal received from the user equipment at the macro sector of the first multi-sector cell; obtaining a second measurement of an uplink signal received from the user equipment at the second cell; obtaining a third measurement of an uplink signal received from the user equipment at the pico sector of the first multi-sector cell, wherein the obtained first measurement and the obtained third measurement are path gains from the user equipment to antennas for the macro sector and the pico sector respectively; and making a decision to handover the user equipment from the first multi-sector cell to the second cell using the obtained first measurement, the obtained second measurement, and the obtained third measurement, wherein making the decision comprises computing an uplink geometry based on the obtained first measurement, the obtained second measurement, and the obtained third measurement; and comparing the computed uplink geometry with a predefined threshold, wherein the computed uplink geometry is a ratio of the obtained second measurement to a sum of the obtained first measurement and the obtained third measurement.
A method for reporting buffer status, comprising: obtaining, by a user equipment, UE, multiple Transport Blocks, TBs, from a base station within one Transmission Time Interval, TTI; selecting, by the UE, a TB compliant with a first condition of transmitting a Buffer Status Report, BSR, among the multiple TBs, wherein the first condition includes: padding bits of a single TB are capable of accommodating BSRs of all Logical Channel Groups, LCGs, and Control Element, CE, sub-headers of the BSRs; bearing, by the UE, the BSRs of all LCGs and the CE sub-headers of the BSRs onto the TB compliant with the first condition; and sending, by the UE, the TB compliant with the first condition to the base station. obtaining, by a user equipment, UE, multiple Transport Blocks, TBs, from a base station within one Transmission Time Interval, TTI; selecting, by the UE, a TB compliant with a first condition of transmitting a Buffer Status Report, BSR, among the multiple TBs, wherein the first condition includes: padding bits of a single TB are capable of accommodating BSRs of all Logical Channel Groups, LCGs, and Control Element, CE, sub-headers of the BSRs; bearing, by the UE, the BSRs of all LCGs and the CE sub-headers of the BSRs onto the TB compliant with the first condition; and sending, by the UE, the TB compliant with the first condition to the base station.
A method of video encoding, the method comprising: generating a context model comprising at least a first context, a second context, and a third context, wherein, for a chrominance video block: the first context is assigned to a first significant bin for a 4x4 block, and first and second significant bins for an 8x8 block, the second context is assigned to a second significant bin for the 4x4 block, and third and fourth significant bins for the 8x8 block, and the third context is assigned to a third significant bin for the 4x4 block and a fifth and sixth significant bin for the 8x8 block; converting each of an X coordinate position and a Y coordinate position of a last non-zero transform coefficient of that video block into a respective truncated codeword defined by a sequence of bins, wherein the video block has a size corresponding to one of the 4x4 block, or the 8x8 block; entropy encoding, using context adaptive binary arithmetic coding, CABAC, each bin in the respective sequence using the context model; and entropy encoding transform coefficients of the chrominance video block. generating a context model comprising at least a first context, a second context, and a third context, wherein, for a chrominance video block: the first context is assigned to a first significant bin for a 4x4 block, and first and second significant bins for an 8x8 block, the second context is assigned to a second significant bin for the 4x4 block, and third and fourth significant bins for the 8x8 block, and the third context is assigned to a third significant bin for the 4x4 block and a fifth and sixth significant bin for the 8x8 block; converting each of an X coordinate position and a Y coordinate position of a last non-zero transform coefficient of that video block into a respective truncated codeword defined by a sequence of bins, wherein the video block has a size corresponding to one of the 4x4 block, or the 8x8 block; the first context is assigned to a first significant bin for a 4x4 block, and first and second significant bins for an 8x8 block, the second context is assigned to a second significant bin for the 4x4 block, and third and fourth significant bins for the 8x8 block, and the third context is assigned to a third significant bin for the 4x4 block and a fifth and sixth significant bin for the 8x8 block; converting each of an X coordinate position and a Y coordinate position of a last non-zero transform coefficient of that video block into a respective truncated codeword defined by a sequence of bins, wherein the video block has a size corresponding to one of the 4x4 block, or the 8x8 block; entropy encoding, using context adaptive binary arithmetic coding, CABAC, each bin in the respective sequence using the context model; and entropy encoding transform coefficients of the chrominance video block.
A permanent magnet embedded-type rotating electric machine, formed by permanent magnets to which reinforcement sheets are adhering being embedded in a magnet embedding holes (35a, 35b) formed in the circumferential direction in a rotor, characterized in that the surfaces of the reinforcement sheets are in a state of not being attached to the inner wall surface of the magnet embedding holes, and said permanent magnet embedded-type rotating electric machine is formed by the reinforcement sheets being wrapped around the permanent magnets and formed by a removal process being added to one portion of the reinforcement sheets, wherein a plurality of the reinforcement sheets adhering to a magnetized surface perpendicular to the permanent magnets magnetization direction is ground away, and a plurality of the reinforcement sheets adhering to a non-magnetized surface other than the magnetized surface is left, so that the number of the reinforcement sheets adhering to the magnetized surface is less than the number of the reinforcement sheets adhering to the non-magnetized surface.
A method of forming a folded airbag cushion (10, 10A) comprises the steps of: providing an airbag cushion made of fabric material; placing the folded cushion (10, 10A) in a vacuum bag, whereby the bag is placed around the folded airbag cushion, and evacuating the air to create a vacuum and shrinking the airbag cushion to a compacted size; placing the vacuum bag containing the airbag cushion (10, 10A) in a high temperature environment between +50° C to +140 ° for a predetermined time to thermally set the fabric material to maintain the compacted airbag cushion shape; and releasing the vacuum and removing the thermally set airbag cushion (10, 10A) from the vacuum bag, the cushion maintaining the predetermined shape being formed as a mini pack or compacted airbag cushion (10, 10A). providing an airbag cushion made of fabric material; placing the folded cushion (10, 10A) in a vacuum bag, whereby the bag is placed around the folded airbag cushion, and evacuating the air to create a vacuum and shrinking the airbag cushion to a compacted size; placing the vacuum bag containing the airbag cushion (10, 10A) in a high temperature environment between +50° C to +140 ° for a predetermined time to thermally set the fabric material to maintain the compacted airbag cushion shape; and releasing the vacuum and removing the thermally set airbag cushion (10, 10A) from the vacuum bag, the cushion maintaining the predetermined shape being formed as a mini pack or compacted airbag cushion (10, 10A).
An image sensor (103, 301, 701) comprising a plurality of phase difference detection pixels for performing auto focus by phase difference detection, each phase difference detection pixel comprising one on-chip lens, and a plurality of photoelectric conversion layers (122, 125, 131-1, 131-2, 131-3, 131-4, 132-1, 132-2, 151, 151-1, 151-2, 152, 152-1, 152-2, 153-1, 153-2, 171) formed vertically stacked below the on-chip lens, wherein an organic photoelectric conversion film (132-1, 132-2, 153-1, 153-2) is the top photoelectric conversion layer among the plurality of photoelectric conversion layers; characterized in that the organic photoelectric conversion film includes a first portion and a second portion vertically stacked below the on-chip lens and at the same level as the top photoelectric conversion layer, and in that the image sensor is configured to use, for the phase difference detection, a difference in output between the first portion of the organic photoelectric conversion film (132-1, 153-1) and the second portion of the organic photoelectric conversion film (132-2, 153-2). one on-chip lens, and a plurality of photoelectric conversion layers (122, 125, 131-1, 131-2, 131-3, 131-4, 132-1, 132-2, 151, 151-1, 151-2, 152, 152-1, 152-2, 153-1, 153-2, 171) formed vertically stacked below the on-chip lens, wherein an organic photoelectric conversion film (132-1, 132-2, 153-1, 153-2) is the top photoelectric conversion layer among the plurality of photoelectric conversion layers; characterized in that the organic photoelectric conversion film includes a first portion and a second portion vertically stacked below the on-chip lens and at the same level as the top photoelectric conversion layer, and in that the image sensor is configured to use, for the phase difference detection, a difference in output between the first portion of the organic photoelectric conversion film (132-1, 153-1) and the second portion of the organic photoelectric conversion film (132-2, 153-2).
A device for rolling cigarettes, comprising: - a feeding unit for feeding a continuous web of wrapping material having a succession of discrete areas; - a conveyor configured to receive the continuous web from the feeding unit and defining a feed path; - cutting means, located along the feed path and acting in conjunction with the conveyor to cut the continuous web both at zones of the continuous web with the discrete areas and at zones of the continuous web without the discrete areas, in such a way as to obtain a succession of wrapping patches (200, 200'), each of which has only a part of one of the discrete areas; the device being characterized in that is comprises - at least one turning device, active on the feed path and operating on at least one of the patches separated from the continuous web to overturn the patch in such a way as to invert the positions of the front edge and rear edge of the patch with reference to the feed direction of the patch along the feed path. - a feeding unit for feeding a continuous web of wrapping material having a succession of discrete areas; - a conveyor configured to receive the continuous web from the feeding unit and defining a feed path; - cutting means, located along the feed path and acting in conjunction with the conveyor to cut the continuous web both at zones of the continuous web with the discrete areas and at zones of the continuous web without the discrete areas, in such a way as to obtain a succession of wrapping patches (200, 200'), each of which has only a part of one of the discrete areas;
A method for providing end-point mobility of a traffic engineering, TE, tunnel in a multi-domain network, wherein each domain belongs to an abstraction and control of TE networks, ACTN, the method being performed by a coordinator of the multi-domain network, where the TE tunnel has an ingress end-point and an egress end-point, wherein the mobility of the TE tunnel is provided by virtualizing one or both of the ingress and egress points of the TE tunnel to provide a virtualized end-point, VEP, TE tunnel, wherein an ingress end-point and an egress end-point comprise physical nodes and a virtualized end-point comprises one or more physical nodes, the method comprising: - receiving (52, S412; S414) a first request for a virtual network configuration of one or both of the ingress and the egress end-points of the TE tunnel; - determining (54, S416) a second request for virtualizing said one or both of the ingress and the egress end-points of the TE tunnel, based on the first request; and - sending (56; S418) the second request to a physical network controller in the multi-domain network, wherein the second request comprises a definition of the VEP TE tunnel to trigger the physical network controller to implement the VEP TE tunnel. - receiving (52, S412; S414) a first request for a virtual network configuration of one or both of the ingress and the egress end-points of the TE tunnel; - determining (54, S416) a second request for virtualizing said one or both of the ingress and the egress end-points of the TE tunnel, based on the first request; and - sending (56; S418) the second request to a physical network controller in the multi-domain network, wherein the second request comprises a definition of the VEP TE tunnel to trigger the physical network controller to implement the VEP TE tunnel.