mhurhangee/ep-ind-claims huggingface dataset:
A composition for coating or covering a lignocellulosic paper/cardboard material, comprising cereal flour, 100 to 1000 ppm of cysteine, 50 to 1000 ppm at 20,000 PNU/g of at least one protease, 10 to 1500 ppm at 1250 AXC/g of at least one hemicellulase, and at least 0.1%, by weight based on the flour weight, of a salt that is not an enzyme inhibitor.
A method for continuous sliding gesture-based text input, comprising: displaying a keyboard layout on a touch-screen detecting whether a continuous sliding gesture based input mode is triggered in response to an input of a user; detecting and recording a trajectory of the sliding gesture of the user on a touch-screen; in response to detecting and recording a trajectory of the sliding gesture of the user on a touch-screen, inputting a word; predicting one or more next possible words to be input based on a context and the word having been input; and updating the content displayed in the keyboard layout according to at least one of the prediction results; detecting and recording a trajectory of a further sliding gesture and inputting the at least one of the one or more next possible words if the trajectory of the further sliding gesture enters a region where one of the word is displayed; wherein said updating the content displayed in the keyboard layout comprises displaying one of the one or more next possible words in key areas of the keyboard layout according to a predefined word arrangement rule. displaying a keyboard layout on a touch-screen detecting whether a continuous sliding gesture based input mode is triggered in response to an input of a user; detecting and recording a trajectory of the sliding gesture of the user on a touch-screen; in response to detecting and recording a trajectory of the sliding gesture of the user on a touch-screen, inputting a word; predicting one or more next possible words to be input based on a context and the word having been input; and updating the content displayed in the keyboard layout according to at least one of the prediction results; detecting and recording a trajectory of a further sliding gesture and inputting the at least one of the one or more next possible words if the trajectory of the further sliding gesture enters a region where one of the word is displayed; wherein said updating the content displayed in the keyboard layout comprises displaying one of the one or more next possible words in key areas of the keyboard layout according to a predefined word arrangement rule.
Method for controlling the printing speed when at least two successive print jobs, each one with at least two prints differing from one another, are printed onto printing material, a first print job comprising n first prints with a respective first static proportion (A; 11a) and a respective first variable proportion (a i with i=1 to n, wherein n is an element of the positive integer numbers; 11b), and a second print job comprising m second prints, each one with a respective second static proportion (B, 11c) and a respective second variable proportion (bj with j=1 to m, wherein m is an element of the positive integers; 11d), comprising the following steps of 1) computing the print data of the first static proportion (A; 11a); 2) successively computing the print data of the first variable proportions (a i; 11b) and respectively combining them with the print data of the first static proportion (A; 11a) to create first print data (A+a i; 11a, 11b) and forwarding the first print data to a printing unit while a counter 810) counts the current value of i, 3) during step 2), calculating the print data of the second static proportion (B; 11c) in parallel; 4) printing the first prints on the printing unit using the respective first print data while controlling the printing speed of the printing unit in such a way that the computing of step 3) is completed before the counter reaches the value n; 5) successively calculating the print data of the second variable proportions (b j; 11d), respectively combining them with the print data of the second static proportion (B; 11c) to create second print data (B+b j; 11c, 11d) and forwarding the second print data to the printing unit; and 6) printing the second prints on the printing unit using the respective second print data. 1) computing the print data of the first static proportion (A; 11a); 2) successively computing the print data of the first variable proportions (a i; 11b) and respectively combining them with the print data of the first static proportion (A; 11a) to create first print data (A+a i; 11a, 11b) and forwarding the first print data to a printing unit while a counter 810) counts the current value of i, 3) during step 2), calculating the print data of the second static proportion (B; 11c) in parallel; 4) printing the first prints on the printing unit using the respective first print data while controlling the printing speed of the printing unit in such a way that the computing of step 3) is completed before the counter reaches the value n; 5) successively calculating the print data of the second variable proportions (b j; 11d), respectively combining them with the print data of the second static proportion (B; 11c) to create second print data (B+b j; 11c, 11d) and forwarding the second print data to the printing unit; and 6) printing the second prints on the printing unit using the respective second print data.
A hybrid blade for use in a chassis of a storage system, the hybrid blade including local storage resources (228, 230) and local compute resources wherein the hybrid blade also includes: a local access interface through which the local compute resources can access the local storage resources; a remote access interface through which compute resources on a remote blade can access the local storage resources without utilizing the local compute resources; a first power interface (242, 246) for coupling to a first power bus that is external to the hybrid blade and provided by the chassis that the blade can be mounted in, the first power interface (242, 246) configured to deliver power to the local compute resources; and a second power interface (242, 246) for coupling to a second power bus that is external to the hybrid blade and provided by the chassis that the blade can be mounted in, the second power interface (242, 246) configured to deliver power to the local storage resources, wherein the first power interface (242, 246) and the second power interface (242, 246) are independently operated. a local access interface through which the local compute resources can access the local storage resources; a remote access interface through which compute resources on a remote blade can access the local storage resources without utilizing the local compute resources; a first power interface (242, 246) for coupling to a first power bus that is external to the hybrid blade and provided by the chassis that the blade can be mounted in, the first power interface (242, 246) configured to deliver power to the local compute resources; and a second power interface (242, 246) for coupling to a second power bus that is external to the hybrid blade and provided by the chassis that the blade can be mounted in, the second power interface (242, 246) configured to deliver power to the local storage resources, wherein the first power interface (242, 246) and the second power interface (242, 246) are independently operated.
A method for, at a user equipment, UE, transmitting control information through a physical uplink control channel, PUCCH, through first and second antenna ports, in a wireless communication system, the method comprising: spreading a first modulated symbol sequence such that the first modulated symbol sequence corresponds to a plurality of single carrier-frequency division multiplexing, SC-FDMA, symbols in a first slot of a subframe, using first and second resources, to obtain respective first and second plurality of second modulated symbol sequences each corresponding to the plurality of SC-FDMA symbols; performing a discrete Fourier transform, DFT, precoding on the first and second plurality of second modulated symbol sequences to obtain respective first and second plurality of complex symbol sequences; and transmitting the first and second plurality of complex symbol sequences through the PUCCH at the first slot respectively through the first and second antenna ports, wherein scrambling is applied to the first and second plurality of second modulated symbol sequences at SC-FDMA symbol level, and wherein the first and second resources are orthogonal or quasi-orthogonal. spreading a first modulated symbol sequence such that the first modulated symbol sequence corresponds to a plurality of single carrier-frequency division multiplexing, SC-FDMA, symbols in a first slot of a subframe, using first and second resources, to obtain respective first and second plurality of second modulated symbol sequences each corresponding to the plurality of SC-FDMA symbols; performing a discrete Fourier transform, DFT, precoding on the first and second plurality of second modulated symbol sequences to obtain respective first and second plurality of complex symbol sequences; and transmitting the first and second plurality of complex symbol sequences through the PUCCH at the first slot respectively through the first and second antenna ports, wherein scrambling is applied to the first and second plurality of second modulated symbol sequences at SC-FDMA symbol level, and wherein the first and second resources are orthogonal or quasi-orthogonal.
A process for the preparation of FUDR in a diastereoisomeric purity of greater than 95%: the process comprising step a) and optionally step b): a) reacting a compound of Formula Ia with a compound of Formula IIa in the presence of an acid A1 to provide a compound of Formula IIIa in a diastereoisomeric purity of greater than 95%: wherein R 1 and R 2 are each independently trialkylsilyl groups; R 3 and R 4 are each a substituted or unsubstituted benzoyl group; and X is a leaving group; and b) removing the protecting group R 3 and R 4 from the compound of formula IIIa to provide FUDR in a diastereoisomeric purity of greater than 95%; wherein the step of reacting a compound of Formula Ia with a compound of Formula IIa is carried out at a temperature T1 in the range from 9 °C to 15 °C. a) reacting a compound of Formula Ia with a compound of Formula IIa in the presence of an acid A1 to provide a compound of Formula IIIa in a diastereoisomeric purity of greater than 95%: wherein R 1 and R 2 are each independently trialkylsilyl groups; R 3 and R 4 are each a substituted or unsubstituted benzoyl group; and X is a leaving group; and b) removing the protecting group R 3 and R 4 from the compound of formula IIIa to provide FUDR in a diastereoisomeric purity of greater than 95%;
A user equipment, UE, for channel state information, CSI, feedback, the UE comprising: a transceiver configured to receive, from a base station, BS, configuration information for the CSI feedback; and a processor operably connected to the transceiver, the processor configured to: identify a number of antenna ports for the CSI feedback based on the configuration information; in case that the number of antenna ports is < 16, identify a first codebook for the CSI feedback corresponding to a rank value of 3 or 4; in case that the number of antenna ports is ≥ 16, identify a second codebook for the CSI feedback corresponding to a rank value of 3 or 4; and generate the CSI feedback using the identified codebook, wherein the transceiver is further configured to transmit the generated CSI feedback to the BS, wherein the first codebook is based on a first beam v l,m and a second beam v l',m' for two equal partitions P i of the first codebook where i=0, 1, and wherein the second codebook is based on a beam v l, m ̃ for two equal partitions P i of the second codebook where i=0, 1 and a co-phasing parameter θ p between two sub-partitions P i,j of each of the partitions P i where j=0, 1 such that v l, m ̃ is used for a first of sub-partitions P i,0 and θ p v l, m ̃ is used for a second of sub-partitions P i,1, wherein each of the partitions Pi of the first and second codebooks where i = 0, 1 is a partition of the antenna ports. a transceiver configured to receive, from a base station, BS, configuration information for the CSI feedback; and a processor operably connected to the transceiver, the processor configured to: identify a number of antenna ports for the CSI feedback based on the configuration information; in case that the number of antenna ports is < 16, identify a first codebook for the CSI feedback corresponding to a rank value of 3 or 4; in case that the number of antenna ports is ≥ 16, identify a second codebook for the CSI feedback corresponding to a rank value of 3 or 4; and generate the CSI feedback using the identified codebook, identify a number of antenna ports for the CSI feedback based on the configuration information; in case that the number of antenna ports is < 16, identify a first codebook for the CSI feedback corresponding to a rank value of 3 or 4; in case that the number of antenna ports is ≥ 16, identify a second codebook for the CSI feedback corresponding to a rank value of 3 or 4; and generate the CSI feedback using the identified codebook, wherein the transceiver is further configured to transmit the generated CSI feedback to the BS, wherein the first codebook is based on a first beam v l,m and a second beam v l',m' for two equal partitions P i of the first codebook where i=0, 1, and wherein the second codebook is based on a beam v l, m ̃ for two equal partitions P i of the second codebook where i=0, 1 and a co-phasing parameter θ p between two sub-partitions P i,j of each of the partitions P i where j=0, 1 such that v l, m ̃ is used for a first of sub-partitions P i,0 and θ p v l, m ̃ is used for a second of sub-partitions P i,1,
Method for information exchange between a first network and a second network which each comprise network elements (5, 3) and which are connected together by at least two first routing elements which are selectively associated with the first network and by at least one second routing element which is associated with the second network and which is connected to the first routing elements, with the first network employing a routing protocol which uses static routing tables and with the second network employing a routing protocol which uses dynamic routing tables and which comprises a phase for the exchange of identification messages, these identification messages comprising a field for identifying neighbourship which is normally devoted to receiving identifiers of neighbour network elements directly connected to the network element emitting the identification message and which indicates to the neighbour network elements that the emitting network element is active, said routing protocol also comprising a phase for exchanging messages for updating the routing tables, these updating messages normally containing identifiers of network elements to which the message-emitting network element can be directly or indirectly connected, characterised in that the method comprises the steps of: - emitting, from each first routing element towards the second routing element, identification messages having a field for identifying neighbourship which comprises identifiers of network elements to which the first routing element can be directly or indirectly connected, - processing in each first routing element the identification messages coming from the second routing element only as an indication that the second routing element is active, - updating, in the second routing element, the routing table from the identification messages coming from the first routing element. - emitting, from each first routing element towards the second routing element, identification messages having a field for identifying neighbourship which comprises identifiers of network elements to which the first routing element can be directly or indirectly connected, - processing in each first routing element the identification messages coming from the second routing element only as an indication that the second routing element is active, - updating, in the second routing element, the routing table from the identification messages coming from the first routing element.
A communication apparatus comprising: a channel estimating section that carries out channel estimation per subband, each subband comprising a plurality of subcarriers; a parameter deciding section that decides modulation parameters and coding parameters on a per subband group basis based on the channel estimation results for the subbands, each subband group comprising a plurality of subbands; a parameter information transmission section that transmits to a communicating party parameter information that is information about the modulation parameters and the coding parameters decided at the parameter deciding section; a receiving section that receives a received signal containing data modulated and encoded per subband group at a communicating party using the modulation parameters and coding parameters of the parameter information transmitted at the parameter information transmission section; and a data obtaining section that demodulates and decodes the received signal received at the receiving section per subband group using the modulation parameters and coding parameters decided at the parameter deciding section and obtains the data contained in the received signal. a channel estimating section that carries out channel estimation per subband, each subband comprising a plurality of subcarriers; a parameter deciding section that decides modulation parameters and coding parameters on a per subband group basis based on the channel estimation results for the subbands, each subband group comprising a plurality of subbands; a parameter information transmission section that transmits to a communicating party parameter information that is information about the modulation parameters and the coding parameters decided at the parameter deciding section; a receiving section that receives a received signal containing data modulated and encoded per subband group at a communicating party using the modulation parameters and coding parameters of the parameter information transmitted at the parameter information transmission section; and a data obtaining section that demodulates and decodes the received signal received at the receiving section per subband group using the modulation parameters and coding parameters decided at the parameter deciding section and obtains the data contained in the received signal.
An idler mechanism configured for attachment to a hydraulic device, in particular an automatic swimming pool cleaner, the hydraulic device being configured to be deployed in water of a swimming pool or spa, which water circulates under influence of a pump, the idler mechanism comprising: - a. a first opening configured in use for fluid communication with the hydraulic device; - b. a second opening configured in use for fluid communication with means for causing fluid to flow to or from the hydraulic device; - c. a barrier configured in use to be in contact with water of the swimming pool or spa; - d. means, at least part of which operates without influence of the pump, for automatically opening and closing the barrier, characterized in that the automatic opening and closing means comprises a latch and a latch actuator that can be operated so as to move the latch between a first position wherein the latch allows the barrier to open under influence of a pump, and may let water of a swimming pool or spa enter through the barrier, and a second position wherein the latch prevents the barrier from opening, with a spring serving to bias the latch to the second position. - a. a first opening configured in use for fluid communication with the hydraulic device; - b. a second opening configured in use for fluid communication with means for causing fluid to flow to or from the hydraulic device; - c. a barrier configured in use to be in contact with water of the swimming pool or spa; - d. means, at least part of which operates without influence of the pump, for automatically opening and closing the barrier,
Use of -8-(3,4-dimethoxystyryl)-1,3-diethyl-7-methylxanthine or a pharmaceutically acceptable salt thereof for the manufacture of a medicament for reducing or suppressing OFF time in ON-OFF fluctuations caused by L-DOPA and/or dopamine agonist therapy to be administered to a Parkinson's disease patient in an advanced stage of the disease.
A cooling device, comprising: a magnetocaloric material whose temperature changes when an external magnetic field changes, and whose temperature changes when an applied pressure or a stress changes; a magnetization device for forming the external magnetic field; a conversion device for applying the pressure or the stress to the magnetocaloric material; movement means that are designed to move the magnetocaloric material relative to the magnetization device and the conversion device, so that the magnetocaloric material is exposed in alternation to the external magnetic field and to the change in the pressure or the stress in order to achieve a periodic change in temperature of the magnetocaloric material, wherein periods of reduced temperature are usable for cooling. a magnetocaloric material whose temperature changes when an external magnetic field changes, and whose temperature changes when an applied pressure or a stress changes; a magnetization device for forming the external magnetic field; a conversion device for applying the pressure or the stress to the magnetocaloric material; movement means that are designed to move the magnetocaloric material relative to the magnetization device and the conversion device, so that the magnetocaloric material is exposed in alternation to the external magnetic field and to the change in the pressure or the stress in order to achieve a periodic change in temperature of the magnetocaloric material, wherein periods of reduced temperature are usable for cooling.
A container for a liquid nutritional product, comprising: a thermo formed polymeric container body having a base and an upstanding sidewall defining a product space, the upstanding sidewall terminating at a peripheral flange; a cover, permanently sealed to the peripheral flange; and an outlet, provided on an outlet region of the container body, defining a flow channel for the liquid nutritional product to leave the product space, characterised in that, in a storage condition, the flow channel is directed at least partially downwards in a direction away from the cover and towards the base and wherein the outlet region is deformable to an administration position where the flow channel is directed sideways in a direction parallel to the base. a thermo formed polymeric container body having a base and an upstanding sidewall defining a product space, the upstanding sidewall terminating at a peripheral flange; a cover, permanently sealed to the peripheral flange; and an outlet, provided on an outlet region of the container body, defining a flow channel for the liquid nutritional product to leave the product space,
A slicing apparatus comprising: - a blade that is rotatable and arranged for defining a cutting plane; - a supplying device for supplying a food product to be sliced through said cutting plane; characterized by comprising: - a removable container (17; 17') carried by said supplying device to contain the food product whilst it is being sliced; and - closing means (19, 20) for sealingly closing said removed container (17; 17') and for creating a vacuum therein. - a blade that is rotatable and arranged for defining a cutting plane; - a supplying device for supplying a food product to be sliced through said cutting plane; - a removable container (17; 17') carried by said supplying device to contain the food product whilst it is being sliced; and - closing means (19, 20) for sealingly closing said removed container (17; 17') and for creating a vacuum therein.