mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting signals, the method comprising: selecting a prescribed precoding matrix from a codebook which is predetermined between a transmitting side and a receiving side; performing precoding with respect to a transmitting signal using the selected precoding matrix; transmitting the signal to the receiving side using two transmit antennas (1, 2), wherein the precoding matrix is selected from different subsets of the codebook depending on whether the transmitting side (Tx) uses an open-loop transmission mode or a closed-loop transmission mode, wherein the codebook uses the following table: Codebook Index Number of Rank 1 2 0 1 2 1 1 1 2 1 0 0 1 1 1 2 1 − 1 1 2 1 1 1 − 1 2 1 2 1 j 1 2 1 1 j − j 3 1 2 1 − j wherein the transmitting side (Tx) does not employ a precoding matrix corresponding to index 0 of rank 2 in the codebook, when the transmitting side (Tx) uses the closed-loop transmission mode, wherein the transmitting side (Tx) fixedly employs the precoding matrix corresponding to index 0 of rank 2 in the codebook, when the transmitting side (Tx) uses the open-loop transmission mode, and wherein the method further comprises: receiving feedback information for selecting a next precoding matrix when the transmitting side (Tx) uses the closed-loop transmission mode, wherein overhead associated with the feedback information for rank 2 is one bit when the transmitting side (Tx) uses the closed-loop transmission mode. selecting a prescribed precoding matrix from a codebook which is predetermined between a transmitting side and a receiving side; performing precoding with respect to a transmitting signal using the selected precoding matrix; transmitting the signal to the receiving side using two transmit antennas (1, 2), wherein the precoding matrix is selected from different subsets of the codebook depending on whether the transmitting side (Tx) uses an open-loop transmission mode or a closed-loop transmission mode, wherein the codebook uses the following table: Codebook Index Number of Rank 1 2 0 1 2 1 1 1 2 1 0 0 1 1 1 2 1 − 1 1 2 1 1 1 − 1 2 1 2 1 j 1 2 1 1 j − j 3 1 2 1 − j wherein the transmitting side (Tx) does not employ a precoding matrix corresponding to index 0 of rank 2 in the codebook, when the transmitting side (Tx) uses the closed-loop transmission mode, wherein the transmitting side (Tx) fixedly employs the precoding matrix corresponding to index 0 of rank 2 in the codebook, when the transmitting side (Tx) uses the open-loop transmission mode, and wherein the method further comprises: receiving feedback information for selecting a next precoding matrix when the transmitting side (Tx) uses the closed-loop transmission mode, wherein overhead associated with the feedback information for rank 2 is one bit when the transmitting side (Tx) uses the closed-loop transmission mode. receiving feedback information for selecting a next precoding matrix when the transmitting side (Tx) uses the closed-loop transmission mode, wherein overhead associated with the feedback information for rank 2 is one bit when the transmitting side (Tx) uses the closed-loop transmission mode.
Signalling mast intended to carry a display element, illuminated or not, of the tubular type, comprising a perforated mast base with polygonal section forming a plurality of faces separated by ribs, and an upper part in the extension of the mast base which is intended to support the display element, said mast base comprising a plurality of apertures which are aligned in the direction of the height, the section of the mast base being constant over the entire height thereof, the apertures being produced on the faces of the mast base, the intervals between the apertures of two adjacent faces defining angles comprising two planar sides, characterised in that the lengths of the sides of the angles associated with the aperture which is nearest to the base of the mast reduce at points in order to form a brittle zone which is intended to break the mast base during impact by a high-velocity object.
A load carrying apparatus having: a frame; a load transfer belt for transferring load from the load carrying apparatus to a user's hips; a rotary connection between the load transfer belt and the frame; and a hinge connection between the load transfer belt and the frame; wherein the rotary connection permits the belt to rotate about a rotary axis of rotation and the hinge connection permits the belt to rotate about a hinge axis of rotation, the hinge axis of rotation being perpendicular to the rotary axis of rotation; characterised in that the rotary connection comprises a housing and a hub positioned within a cavity of the housing and wherein the hinge connection is a hinge located on the hub. a frame; a load transfer belt for transferring load from the load carrying apparatus to a user's hips; a load transfer belt for transferring load from the load carrying apparatus to a user's hips; a rotary connection between the load transfer belt and the frame; and a hinge connection between the load transfer belt and the frame; wherein the rotary connection permits the belt to rotate about a rotary axis of rotation and the hinge connection permits the belt to rotate about a hinge axis of rotation, the hinge axis of rotation being perpendicular to the rotary axis of rotation; characterised in that the rotary connection comprises a housing and a hub positioned within a cavity of the housing and wherein the hinge connection is a hinge located on the hub.
A non-transitory machine-readable storage medium comprising instructions executable by a processing resource to: acquire a request in a first device, wherein said first device is an imaging device; intercept the request from a processing pipeline of the first device; determine whether the request is authentic and authorized; generate a cancellation request if the request is not authentic or not authorized; and provide the cancellation request to the processing pipeline of the first device, wherein: the instruction to determine whether the request is authentic and authorized further comprises instructions to provide the request to the processing pipeline if the request is authentic and authorized; and characterised in that the instructions to generate the cancellation request further comprises instructions to provide the request to a second device in response to generation of the cancellation request. acquire a request in a first device, wherein said first device is an imaging device; intercept the request from a processing pipeline of the first device; determine whether the request is authentic and authorized; generate a cancellation request if the request is not authentic or not authorized; and provide the cancellation request to the processing pipeline of the first device, wherein: the instruction to determine whether the request is authentic and authorized further comprises instructions to provide the request to the processing pipeline if the request is authentic and authorized; and characterised in that the instructions to generate the cancellation request further comprises instructions to provide the request to a second device in response to generation of the cancellation request. the instruction to determine whether the request is authentic and authorized further comprises instructions to provide the request to the processing pipeline if the request is authentic and authorized; and characterised in that the instructions to generate the cancellation request further comprises instructions to provide the request to a second device in response to generation of the cancellation request.
A method of transmitting information in a multi-beam transmission system, said method comprising: a. coding data by using at least one of a space-time and space-frequency coding; and b. transmitting the same coded data in different data streams using at least two transmission beams with substantially different coverage areas; c. wherein different portions of said at least one of said space-time or space-frequency codes are applied to said different data streams. a. coding data by using at least one of a space-time and space-frequency coding; and b. transmitting the same coded data in different data streams using at least two transmission beams with substantially different coverage areas; c. wherein different portions of said at least one of said space-time or space-frequency codes are applied to said different data streams.
An exhaust pipe comprising a pump arrangement and a mounting arrangement for attaching said pump arrangement (10, 110, 210) at a boss (14, 114) of the exhaust pipe (12, 112), the pump arrangement (10, 110, 210) comprising a delivery nozzle section (22, 122) and a remaining section including a pump body (20, 120), wherein the mounting arrangement comprises packing means (66, 152, 252) for supporting the pump body (20, 120), more than half the weight of the pump arrangement and/or the centre of mass of the pump arrangement being at said remaining section and wherein, the mounting arrangement further comprises retaining means (24, 26, 28; 126, 144, 226, 244) for retaining the nozzle section (22, 122) of the pump arrangement (110, 110, 210) in the boss (14, 114), in use, and wherein the mounting arrangement is cooperable with the retaining means, characterized in that the packing means comprises a plurality of layers (160, 162, 164, 166, 168); the packing means further comprises at least one insulating layer (164, 264), and at least one flexible sealing layer (160, 260) arranged to oppose the ingress of hot air towards the insulating layer.
Refuse bin having a means for holding open a refuse bag, for example having a bucket, and having a means for fastening a refuse bag held open by the holding-open means, wherein the means for fastening the refuse bag is an elastic belt, an elastic strap, an elastic band or the like, wherein the fastening means is fitted on the holding-open means and, in a first position, butts in a prestressed state against the holding-open means and, in a second position, although connected to the holding-open means at at least one location or in at least one region is otherwise in contact with the holding-open means at best loosely and without any prestressing, characterized in that - either the fastening means is fitted on a lug of the holding-open means and the lug is surrounded by a U-shaped slot in the holding-open means, wherein the slot has two end regions and a central region, - or the holding-open means has a slot (11, 12, 13) which, in a central region, has an extent smaller than the diameter or the width of the cross section of the fastening means and which has end regions (11, 13) which have an extent which corresponds at least to the diameter or the width of the cross section of the fastening means. - either the fastening means is fitted on a lug of the holding-open means and the lug is surrounded by a U-shaped slot in the holding-open means, wherein the slot has two end regions and a central region, - or the holding-open means has a slot (11, 12, 13) which, in a central region, has an extent smaller than the diameter or the width of the cross section of the fastening means and which has end regions (11, 13) which have an extent which corresponds at least to the diameter or the width of the cross section of the fastening means.
Method for facilitating the ability to wash out cosmetic preparations comprising 4-(tert-butyl)-4'-methoxydibenzoylmethane from textiles, characterized in that 1-hydroxy-4-methyl-6-(2,4,4-trimethylpentyl)-2(1 H)-pyridone (piroctone) and/or the monoethanolamine salt thereof is added to the cosmetic.
A marine information display assembly for installation on a marine vessel, the marine information display assembly comprising: a plurality of user interface displays for displaying marine data to a user, wherein each of the plurality of user interface displays includes a front face and a screen; an overlay pane defining a front face and a rear face, wherein the rear face of the overlay pane is bonded to the front face of each of the plurality of user interface displays such that each screen of the plurality of user interface displays is visible through the overlay pane; and a protective mounting frame configured to surround the plurality of user interface displays and abut the rear face of the overlay pane such the front face of each of the plurality of the user interface displays is substantially flush with a front face of the protective mounting frame when a retention lip of each of the plurality of the user interface displays is seated within a corresponding display recess of the protective mounting frame, wherein the protective mounting frame extends along the rear face of the overlay pane between at least two of the plurality of user interface displays. a plurality of user interface displays for displaying marine data to a user, wherein each of the plurality of user interface displays includes a front face and a screen; an overlay pane defining a front face and a rear face, wherein the rear face of the overlay pane is bonded to the front face of each of the plurality of user interface displays such that each screen of the plurality of user interface displays is visible through the overlay pane; and a protective mounting frame configured to surround the plurality of user interface displays and abut the rear face of the overlay pane such the front face of each of the plurality of the user interface displays is substantially flush with a front face of the protective mounting frame when a retention lip of each of the plurality of the user interface displays is seated within a corresponding display recess of the protective mounting frame, wherein the protective mounting frame extends along the rear face of the overlay pane between at least two of the plurality of user interface displays.
A method for making a shaped porous body comprising interlocking alpha-alumina platelets, the method comprising: a. providing a vessel in which a total pressure can be varied and controlled; b. introducing into the vessel a shaped precursor body which comprises at least one alpha-alumina precursor; c. heating the vessel containing the shaped precursor body to a temperature of 750 to 1150°C prior to introducing a fluorine-containing gas; d. introducing into the vessel, as the fluorine-containing gas at the conditions of introduction, a fluorine-containing compound; e. establishing a total pressure within the vessel of between about 1 torr and 100,000 torr; and f. contacting the introduced fluorine-containing gas with at least a portion of the shaped precursor body, at one or more temperatures above 700°C, for one or more partial pressures of the fluorine containing gas, wherein the one or more partial pressures of the fluorine-containing gas are of from 1 to less than 760 torr, for one or more time periods, wherein the one or more time periods are from 1 minute to 48 hours, sufficient to convert at least 50 % of the alpha-alumina precursor to alpha-alumina platelets. a. providing a vessel in which a total pressure can be varied and controlled; b. introducing into the vessel a shaped precursor body which comprises at least one alpha-alumina precursor; c. heating the vessel containing the shaped precursor body to a temperature of 750 to 1150°C prior to introducing a fluorine-containing gas; d. introducing into the vessel, as the fluorine-containing gas at the conditions of introduction, a fluorine-containing compound; e. establishing a total pressure within the vessel of between about 1 torr and 100,000 torr; and f. contacting the introduced fluorine-containing gas with at least a portion of the shaped precursor body, at one or more temperatures above 700°C, for one or more partial pressures of the fluorine containing gas, wherein the one or more partial pressures of the fluorine-containing gas are of from 1 to less than 760 torr, for one or more time periods, wherein the one or more time periods are from 1 minute to 48 hours, sufficient to convert at least 50 % of the alpha-alumina precursor to alpha-alumina platelets.
A computer-implemented method of characterizing a specimen, wherein the specimen is whole blood, comprising a settled blood portion and a serum or plasma portion, the method comprising: capturing one or more images of the specimen, the one or more images including a serum or plasma portion of the specimen, the capturing generating pixel data; wherein the method further comprises: processing pixel data of the one or more images of the specimen using a first neural network executing on a computer (124/172) to predict a classification of the serum or plasma portion, wherein the first neural network outputs a classification hypothesis for said serum or plasma portion of the specimen, whereby the first neural network hypothesizes to which one of a plurality of classes said portion belongs, wherein the classes of the classification comprise hemolysis, icterus, and lipemia; and verifying the predicted classification using one or more verification neural networks, wherein the verification neural network identifies if the prediction of the first neural network is correct, and wherein the verifying uses a verification neural network selected in response and corresponding to the respective class obtained by said first neural network. capturing one or more images of the specimen, the one or more images including a serum or plasma portion of the specimen, the capturing generating pixel data; wherein the method further comprises: processing pixel data of the one or more images of the specimen using a first neural network executing on a computer (124/172) to predict a classification of the serum or plasma portion, wherein the first neural network outputs a classification hypothesis for said serum or plasma portion of the specimen, whereby the first neural network hypothesizes to which one of a plurality of classes said portion belongs, wherein the classes of the classification comprise hemolysis, icterus, and lipemia; and verifying the predicted classification using one or more verification neural networks, wherein the verification neural network identifies if the prediction of the first neural network is correct, and wherein the verifying uses a verification neural network selected in response and corresponding to the respective class obtained by said first neural network. processing pixel data of the one or more images of the specimen using a first neural network executing on a computer (124/172) to predict a classification of the serum or plasma portion, wherein the first neural network outputs a classification hypothesis for said serum or plasma portion of the specimen, whereby the first neural network hypothesizes to which one of a plurality of classes said portion belongs, wherein the classes of the classification comprise hemolysis, icterus, and lipemia; and verifying the predicted classification using one or more verification neural networks, wherein the verification neural network identifies if the prediction of the first neural network is correct, and wherein the verifying uses a verification neural network selected in response and corresponding to the respective class obtained by said first neural network.
A device for communicating over a communication medium, the device comprising: a medium attachment unit, MAU, for receiving and transmitting messages on the communication medium; a central processing unit, CPU, for processing data contained in messages received and creating data to be contained in messages to be transmitted; and a communication controller for interfacing between the MAU and the CPU, the communication controller producing event pulses corresponding to events associated with received and transmitted messages and automatically storing time stamp values in response to the event pulses, characterized in that the communication controller includes a first timer for providing a first time value and a second timer for providing a second time value of higher resolution than the first time value, wherein the first time value represents a sense of time of the device on the communication medium and the second time value represents an internal time of the device, and wherein, in response to the event pulses, the communication controller stores time stamp values derived from both the first and the second timers. a medium attachment unit, MAU, for receiving and transmitting messages on the communication medium; a central processing unit, CPU, for processing data contained in messages received and creating data to be contained in messages to be transmitted; and a communication controller for interfacing between the MAU and the CPU, the communication controller producing event pulses corresponding to events associated with received and transmitted messages and automatically storing time stamp values in response to the event pulses, characterized in that the communication controller includes a first timer for providing a first time value and a second timer for providing a second time value of higher resolution than the first time value, wherein the first time value represents a sense of time of the device on the communication medium and the second time value represents an internal time of the device, and wherein, in response to the event pulses, the communication controller stores time stamp values derived from both the first and the second timers.
A wireless network system comprising: a first base station configured to communicate with mobile stations; and a plurality of relay stations for providing bi-directional communication between the first base station and a plurality of mobile stations, wherein the first base station is configured to transmit a relay physical downlink control channel, R-PDCCH, in the downlink to the plurality of relay stations, the R-PDCCH comprising: i) a first search space for downlink, DL, grants associated with the plurality of relay stations in a first time slot; and ii) a second search space for uplink, UL, grants associated with the plurality of relay stations in a second time slot, and wherein each, the DL grants and the UL grants are interleaved respectively, and separately mapped to a resource in the first time slot and a resource in the second time slot respectively, wherein the first base station is configured to transmit a first DL grant directed to a first relay station in a first physical resource block located in the first search space, and wherein the first base station is configured to transmit a first UL grant directed to the first relay station in the first physical resource block located in the second search space. a first base station configured to communicate with mobile stations; and a plurality of relay stations for providing bi-directional communication between the first base station and a plurality of mobile stations, wherein the first base station is configured to transmit a relay physical downlink control channel, R-PDCCH, in the downlink to the plurality of relay stations, the R-PDCCH comprising: i) a first search space for downlink, DL, grants associated with the plurality of relay stations in a first time slot; and ii) a second search space for uplink, UL, grants associated with the plurality of relay stations in a second time slot, and wherein each, the DL grants and the UL grants are interleaved respectively, and separately mapped to a resource in the first time slot and a resource in the second time slot respectively, wherein the first base station is configured to transmit a first DL grant directed to a first relay station in a first physical resource block located in the first search space, and wherein the first base station is configured to transmit a first UL grant directed to the first relay station in the first physical resource block located in the second search space.