mhurhangee/ep-ind-claims huggingface dataset:
A cover assembly (71, 73) for on-board electric equipment, the cover assembly (71, 73) being configured to accommodate an electric circuit, comprising: a cover body; and a connector that is mounted to the cover body, includes a terminal and a connector housing, and electrically connects the electric circuit to an external component outside the cover assembly (71, 73), the cover body includes a ferrous base metal body, characterized in that a Zn-based plating layer is formed on a surface of the base metal body that is away from the electric circuit, the plating layer contains Al in the form of flakes, the cover body has a through hole that is formed through the base metal body and the plating layer, the terminal is passed through the through hole and electrically connected to the electric circuit, the connector housing is formed on the cover body so as to surround the terminal, wherein the connector housing is made of a thermoplastic resin-based material, a laser mark (75, 76) is formed on the cover body, wherein the laser mark (75, 76) has a circular shape about the through hole and penetrates the plating layer to the base metal body, an engagement portion (77, 79) is formed in a circular shape about the through hole, conforming to the circular laser mark (75, 76), and with the engagement portion (77, 79), the connector housing extends to the base metal body through the plating layer within the laser mark (75, 76). a cover body; and a connector that is mounted to the cover body, includes a terminal and a connector housing, and electrically connects the electric circuit to an external component outside the cover assembly (71, 73), the cover body includes a ferrous base metal body, characterized in that a Zn-based plating layer is formed on a surface of the base metal body that is away from the electric circuit, the plating layer contains Al in the form of flakes, the cover body has a through hole that is formed through the base metal body and the plating layer, the terminal is passed through the through hole and electrically connected to the electric circuit, the connector housing is formed on the cover body so as to surround the terminal, wherein the connector housing is made of a thermoplastic resin-based material, a laser mark (75, 76) is formed on the cover body, wherein the laser mark (75, 76) has a circular shape about the through hole and penetrates the plating layer to the base metal body, an engagement portion (77, 79) is formed in a circular shape about the through hole, conforming to the circular laser mark (75, 76), and with the engagement portion (77, 79), the connector housing extends to the base metal body through the plating layer within the laser mark (75, 76).
A method for generating one or more media files, according to ISO Base Media File Format, based on timed media data, the timed media data comprising samples (210, 220, 230, 240), the method comprising: obtaining the timed media data comprising the samples (210, 220, 230, 240); creating tracks each comprising at least a part of at least one of the obtained samples (210, 220, 230, 240); generating descriptive metadata associated with the created tracks; and generating the one or more media files based on the tracks and the descriptive metadata, wherein the descriptive metadata comprises at least one TrackGroupTypeBox including at least one track group identifier and describing at least one group of the created tracks by using the at least one track group identifier, wherein the descriptive metadata further comprises a plurality of sets of properties for the created tracks and a SampleToGroupBox characterised by including a grouping type parameter, and the descriptive metadata further comprises a set of properties which is among the plurality of sets of properties and is associated with one or more samples of one of the created tracks, wherein a value of the grouping type parameter is equal to the at least one track group identifier, and wherein the associated set of properties is applied to the one or more samples within a track group identified by the grouping type parameter. obtaining the timed media data comprising the samples (210, 220, 230, 240); creating tracks each comprising at least a part of at least one of the obtained samples (210, 220, 230, 240); generating descriptive metadata associated with the created tracks; and generating the one or more media files based on the tracks and the descriptive metadata, wherein the descriptive metadata comprises at least one TrackGroupTypeBox including at least one track group identifier and describing at least one group of the created tracks by using the at least one track group identifier, wherein the descriptive metadata further comprises a plurality of sets of properties for the created tracks and a SampleToGroupBox characterised by including a grouping type parameter, and the descriptive metadata further comprises a set of properties which is among the plurality of sets of properties and is associated with one or more samples of one of the created tracks, wherein a value of the grouping type parameter is equal to the at least one track group identifier, and wherein the associated set of properties is applied to the one or more samples within a track group identified by the grouping type parameter.
A method, performed by a wireless device, for managing a modified control block, wherein the modified control block carries control information for the wireless device, wherein the modified control block is encoded using a FIRE code, wherein the wireless device is served by a radio network node, wherein a Temporary Flow Identifier, TFI, and an extended Temporary Flow Identifier, eTFI, are assigned to the wireless device by the radio network node, wherein the method comprises: receiving the modified control block from the radio network node; performing a bit-wise modulo two addition between the modified control block and a combination of the eTFI and a pre-determined bit pattern to obtain a control block, wherein the pre-determined bit pattern is distributed over a distance being equal to or exceeding a shortest uncorrectable burst error length associated with the FIRE code; decoding the control block using FIRE-decoding to obtain the control information; and reading a TFI from a header portion of the control information, comparing the read TFI with the TFI assigned to the wireless device, and determining the control information is intended for the wireless device when the read TFI and the assigned TFI match. receiving the modified control block from the radio network node; performing a bit-wise modulo two addition between the modified control block and a combination of the eTFI and a pre-determined bit pattern to obtain a control block, wherein the pre-determined bit pattern is distributed over a distance being equal to or exceeding a shortest uncorrectable burst error length associated with the FIRE code; decoding the control block using FIRE-decoding to obtain the control information; and reading a TFI from a header portion of the control information, comparing the read TFI with the TFI assigned to the wireless device, and determining the control information is intended for the wireless device when the read TFI and the assigned TFI match.
An isolated and purified Bifidobacterium longum strain, excluding Bifidobacterium longum strains 35624 (NCIMB 41003) BL1207 (PTA-9608); AH121A (NCIMB 41675); AH1714 (NCIMB 41676); and AH1206 (NCIMB 41382) wherein the strain: a) expresses an exopolysaccharide containing 6-deoxy tallose; and b) comprises nucleic acid sequence SEQ ID NO. 86 or nucleic acid sequences with at least 95% sequence homology thereto that codes for protein-tyrosine-phosphatase. 35624 (NCIMB 41003) BL1207 (PTA-9608); AH121A (NCIMB 41675); AH1714 (NCIMB 41676); and AH1206 (NCIMB 41382) a) expresses an exopolysaccharide containing 6-deoxy tallose; and b) comprises nucleic acid sequence SEQ ID NO. 86 or nucleic acid sequences with at least 95% sequence homology thereto that codes for protein-tyrosine-phosphatase.
An apparatus for constructing a punctured polar code, comprising: a comparison unit, configured to compare a phase sequence number j of a current bit channel with a period index t of a puncturing pattern to obtain a comparison result, wherein j = i mod 2 t, the puncturing pattern is periodic, the period is 2 t, and i ∈ {0,1,....,2 t -1}; an obtaining unit, configured to obtain a transition probability of the bit channel if the comparison result is that the phase sequence number j is less than or equal to the period index t and a bit of the binary representation of the sequence number of the bit channel in each phase corresponds to 0, wherein the obtaining unit is further configured to obtain a reliability value of each bit channel according to the transition probability; wherein the reliability value comprises the Bhattacharyya parameter and an error probability, and a determining unit, configured to select the smaller one of the error probability and the Bhattacharyya parameter of each bit channel, sort the selected smaller ones in ascending order, and select sequence numbers of bit channels corresponding to the first K smaller ones to form the information bit index set, wherein K is a positive integer less than or equal to a total quantity of the bit channels. a comparison unit, configured to compare a phase sequence number j of a current bit channel with a period index t of a puncturing pattern to obtain a comparison result, wherein j = i mod 2 t, the puncturing pattern is periodic, the period is 2 t, and i ∈ {0,1,....,2 t -1}; an obtaining unit, configured to obtain a transition probability of the bit channel if the comparison result is that the phase sequence number j is less than or equal to the period index t and a bit of the binary representation of the sequence number of the bit channel in each phase corresponds to 0, wherein the obtaining unit is further configured to obtain a reliability value of each bit channel according to the transition probability; wherein the reliability value comprises the Bhattacharyya parameter and an error probability, and a determining unit, configured to select the smaller one of the error probability and the Bhattacharyya parameter of each bit channel, sort the selected smaller ones in ascending order, and select sequence numbers of bit channels corresponding to the first K smaller ones to form the information bit index set, wherein K is a positive integer less than or equal to a total quantity of the bit channels.
A safety valve for a cleaning apparatus for a milking system for milking milk-producing animals, having a first block valve with an inlet connector, a second block valve with an outlet connector, a bleed valve with a bleed outlet connector, a piston rod and a drive unit (34, 34', 34"), the safety valve being configured such that it can be adjusted from a block position, in which the first block valve and the second block valve are closed for blocking the inlet connector and the outlet connector, and the bleed valve is open for connecting the bleed outlet connector to a connection, into a passage position, in which the first block valve and the second block valve are open for connecting the inlet connector via the connection to the outlet connector, and the bleed valve is closed for blocking the bleed outlet connector, and back again, wherein the first block valve, the second block valve and the bleed valve of the safety valve are configured as seat valves with a common piston plate, characterized in that the piston plate has seat section faces (40a, 40b, 40c) of the valves (20, 22, 21) which are configured as seat valves, and that the safety valve has a valve body with a longitudinal axis, which valve body is constructed in a sandwich design from different functional units which comprise a block valve unit, a bleed valve unit, a connecting unit and at least one drive unit.
A method for providing a system of intelligent devices (4a, 4b, 4c) connected to each other through a network, wherein the devices (4a, 4b, 4c) interact with each other and automatically discover new devices by sending and receiving messages over the network, and wherein each device comprises a software unit having a program module for controlling and monitoring the device and for interaction with other devices, each program module comprising a number of channel drivers (24a-d), each assigned for a special type of physical or wireless connection having a specific communication protocol, the method comprising: a) connecting a first intelligent device to a second intelligent device via a connection having a communication protocol, b) in said first intelligent device, discovering by means of a channel driver corresponding to the connection type for which the channel driver is assigned the connection and identifying the communication protocol of the connection, c) in said first intelligent device, creating by means of the channel driver a channel for said second intelligent device, the channel being adapted to send and receive messages between the devices over the identified communication protocol, and d) sending a message from one of said devices to the other device via said channel. a) connecting a first intelligent device to a second intelligent device via a connection having a communication protocol, b) in said first intelligent device, discovering by means of a channel driver corresponding to the connection type for which the channel driver is assigned the connection and identifying the communication protocol of the connection, c) in said first intelligent device, creating by means of the channel driver a channel for said second intelligent device, the channel being adapted to send and receive messages between the devices over the identified communication protocol, and d) sending a message from one of said devices to the other device via said channel.
Method for balancing a flow of liquid steel in a casting mold, wherein the steel is introduced into the casting mold from a tundish through a protective nozzle opening below the level of steel in the casting mold, comprising the following steps: a) acquisition of a set of characteristics of the flow in the casting mold by an analysis of the thermal characteristics of the steel in the casting mold comprising a measurement of the temperature of the casting mold in several positions, b) comparison of the flow characteristics acquired in the preceding step against a predetermined model and determination of the adjustment actions to be taken in order to balance the flow, and c) adjustment of the flow by operating a relative movement between the nozzle and the casting mold in a direction parallel to the longitudinal axis of the casting mold. a) acquisition of a set of characteristics of the flow in the casting mold by an analysis of the thermal characteristics of the steel in the casting mold comprising a measurement of the temperature of the casting mold in several positions, b) comparison of the flow characteristics acquired in the preceding step against a predetermined model and determination of the adjustment actions to be taken in order to balance the flow, and c) adjustment of the flow by operating a relative movement between the nozzle and the casting mold in a direction parallel to the longitudinal axis of the casting mold.
Distributing apparatus comprising: - at least one first manifold comprising a plurality of first ports for the passage of material; - at least one second manifold comprising a plurality of second ports for the passage of material; - at least one transport portion (7; 8) for transporting material, said at least one transport portion comprising at least one first mouth that is movable with the possibility of selectively assuming a plurality of positions in each of which is connected to a respective first port, said at least one transport portion comprising at least one second mouth that is movable with the possibility of selectively assuming a plurality of positions in each of which is connected to a respective second port, to allow passage of material, selectively, between any first port and any second port; - valve means arranged to selectively open or close at least one of said second ports and/or valve means arranged to selectively open or close at least one of said first ports, characterized in that said distributing apparatus comprises pressure sensor means arranged in an area of passage of the material and/or in proximity of means for generating a cleaning flow in said transport portion (7; 8) and/or in proximity of means for transporting the material, to emit a pressure signal that is used by control means of the distributing apparatus to detect an anomalous situation. - at least one first manifold comprising a plurality of first ports for the passage of material; - at least one second manifold comprising a plurality of second ports for the passage of material; - at least one transport portion (7; 8) for transporting material, said at least one transport portion comprising at least one first mouth that is movable with the possibility of selectively assuming a plurality of positions in each of which is connected to a respective first port, said at least one transport portion comprising at least one second mouth that is movable with the possibility of selectively assuming a plurality of positions in each of which is connected to a respective second port, to allow passage of material, selectively, between any first port and any second port; - valve means arranged to selectively open or close at least one of said second ports and/or valve means arranged to selectively open or close at least one of said first ports,
A medical imaging system, comprising: one or more processors programmed to: receive an MR image, referred to herein as a first image, said first image contrasting regions of tissue, including fat and water, with a distinct radiotracer accumulation probability; generate a constraint map based on the regions of tissue with the distinct radiotracer accumulation probability; reconstruct a second image with redistribution of a measured radiotracer based on using the constraint map and acquired image raw data including a measured radiotracer, registered to the constraint map; and a display device configured to display the reconstructed second image; characterised in that the one or more processors are further programmed to use anatomical information included from an atlas or other source to modify the constraint map such that fat inside the bone is not excluded in the constraint map and such that fat outside the bone is excluded in the constraint map. one or more processors programmed to: receive an MR image, referred to herein as a first image, said first image contrasting regions of tissue, including fat and water, with a distinct radiotracer accumulation probability; generate a constraint map based on the regions of tissue with the distinct radiotracer accumulation probability; reconstruct a second image with redistribution of a measured radiotracer based on using the constraint map and acquired image raw data including a measured radiotracer, registered to the constraint map; and a display device configured to display the reconstructed second image; characterised in that the one or more processors are further programmed to use anatomical information included from an atlas or other source to modify the constraint map such that fat inside the bone is not excluded in the constraint map and such that fat outside the bone is excluded in the constraint map. receive an MR image, referred to herein as a first image, said first image contrasting regions of tissue, including fat and water, with a distinct radiotracer accumulation probability; generate a constraint map based on the regions of tissue with the distinct radiotracer accumulation probability; reconstruct a second image with redistribution of a measured radiotracer based on using the constraint map and acquired image raw data including a measured radiotracer, registered to the constraint map; and a display device configured to display the reconstructed second image; characterised in that the one or more processors are further programmed to use anatomical information included from an atlas or other source to modify the constraint map such that fat inside the bone is not excluded in the constraint map and such that fat outside the bone is excluded in the constraint map.
An exhaust gas purification catalyst, comprising a catalyst support and a plurality of bimetallic particles supported thereon, wherein said bimetallic particles consist of gold and cobalt and have an average particle size of greater than 0 nm but 100 nm or less, and characterized in that said bimetallic particles have an average gold content of 5 atomic% or more but 30 atomic% or less.
A method of configuring a sub-slot having a layer-modulated multi-user packet, MUP, the method comprising: modulating symbols associated with a first layer by using a non-layered modulation scheme; and modulating symbols associated with a second layer and a third layer using a layered-modulation scheme, wherein the symbols associated with the second layer and the third layer are multiplexed by any one of an orthogonal frequency division multiplexing, a code division multiplexing, a multi-carrier code division multiplexing, or a time division multiplexing, and wherein the layered-modulation scheme includes modulating the symbols associated with the second layer and the third layer using layered-modulation schemes in which at least one layer of the second layer and the third layer is rotated with respect to at least one other layer of the second layer and the third layer. modulating symbols associated with a first layer by using a non-layered modulation scheme; and modulating symbols associated with a second layer and a third layer using a layered-modulation scheme, wherein the symbols associated with the second layer and the third layer are multiplexed by any one of an orthogonal frequency division multiplexing, a code division multiplexing, a multi-carrier code division multiplexing, or a time division multiplexing, and wherein the layered-modulation scheme includes modulating the symbols associated with the second layer and the third layer using layered-modulation schemes in which at least one layer of the second layer and the third layer is rotated with respect to at least one other layer of the second layer and the third layer.
A turbine shroud engagement arrangement, comprising an outer shroud having at least one of a channel formed in an inner radial surface thereof and a protruding member extending from an inner radial surface thereof; and an inner shroud operably connectable with the outer shroud having at least one of a protruding member extending from an outer radial surface thereof being complementary to the channel of the outer shroud or a channel formed in the outer radial surface being complementary to the protruding member of the outer shroud, the turbine shroud engagement arrangement being primarily axially slidably engagable and configured to radially support the inner shroud relative to the outer shroud, wherein the outer shroud and the inner shroud have a feature to axially lock them together, characterized in that the feature is a threaded hole split along the axial direction of the hole into two halves, one half formed in the outer shroud and the other half formed in the inner shroud such that a threaded member engaged therein prevents axial movement between the outer shroud and the inner shroud.