mhurhangee/ep-ind-claims huggingface dataset:
A multi-chip system configured as an antenna array, wherein said multi-chip system comprises: - at least two transmitting chips each comprising an integrated transmitting antenna and an integrated up-conversion circuit; and - at least two receiving chips, each comprising at least one integrated receiving antenna and at least one integrated down-conversion circuit; and wherein: - each integrated transmitting antenna of a first one of the transmitting chips is spaced apart by λ/2 from each adjacent integrated transmitting antenna of a respective one of the transmitting chips; and wherein λ is the wavelength of the multi-chip system in air; and wherein each integrated receiving antenna of one of said receiving chips is spaced apart by N T *(λ/2) from each adjacent integrated receiving antennas of another one of said receiving chips along a first dimension, and wherein N T is the number of integrated transmitting antennas along the first dimension. - at least two transmitting chips each comprising an integrated transmitting antenna and an integrated up-conversion circuit; and - at least two receiving chips, each comprising at least one integrated receiving antenna and at least one integrated down-conversion circuit; - each integrated transmitting antenna of a first one of the transmitting chips is spaced apart by λ/2 from each adjacent integrated transmitting antenna of a respective one of the transmitting chips;
A spinning method executed in a spinning machine in which a yarn is produced by drafting a fiber bundle by a draft device and spinning the drafted fiber bundle by a spinning device, the spinning method comprising: a first acquiring step of acquiring fiber bundle information indicating a status of the pre-draft fiber bundle; a second acquiring step of acquiring as yarn information, tension of the produced yarn; and a changing step of changing a total draft ratio of a drafting operation of the draft device in accordance with the fiber bundle information acquired in the first acquiring step and the yarn information acquired in the second acquiring step. a first acquiring step of acquiring fiber bundle information indicating a status of the pre-draft fiber bundle; a second acquiring step of acquiring as yarn information, tension of the produced yarn; and a changing step of changing a total draft ratio of a drafting operation of the draft device in accordance with the fiber bundle information acquired in the first acquiring step and the yarn information acquired in the second acquiring step.
Method for data transmission between a user equipment operating in a cellular network for wireless communication, and a control terminal accessible from the cellular network, wherein the user equipment operates in a communication connection to the control terminal by means of at least a first and a second wireless carrier, with one of the control terminal and the user equipment acting as transmitting apparatus, the other as receiving apparatus, wherein the transmitting apparatus is sending a content record at least as at least a first data packet over the first wireless carrier and as at least a second data packet over the second wireless carrier, the method comprising the steps for the receiving apparatus of: - attempting to receive the first data packet over the first wireless carrier and the second data packet over the second wireless carrier, - sending over the first and second wireless carrier each a success indication message (11, 12) to the transmitting apparatus indicating whether at least one of the first and second data packet was successfully received. wherein the user equipment operates in a communication connection to the control terminal by means of at least a first and a second wireless carrier, with one of the control terminal and the user equipment acting as transmitting apparatus, the other as receiving apparatus, wherein the transmitting apparatus is sending a content record at least as at least a first data packet over the first wireless carrier and as at least a second data packet over the second wireless carrier, the method comprising the steps for the receiving apparatus of: - attempting to receive the first data packet over the first wireless carrier and the second data packet over the second wireless carrier, - sending over the first and second wireless carrier each a success indication message (11, 12) to the transmitting apparatus indicating whether at least one of the first and second data packet was successfully received. - attempting to receive the first data packet over the first wireless carrier and the second data packet over the second wireless carrier, - sending over the first and second wireless carrier each a success indication message (11, 12) to the transmitting apparatus indicating whether at least one of the first and second data packet was successfully received.
A method of communication between devices, comprising: receiving, by a server, a connection request from a first device; receiving, by the server, identifying information for an application running on the first device that is making the connection request; determining, by the server and by checking the identifying information, that the first device is incompatible with a first type of connection comprising a WebSocket based connection; determining, by the server and in response to the first device being incompatible with the WebSocket based connection and by checking the identifying information, that the first device is compatible with a second type of connection, the second type of connection comprising at least one of an EventSource based connection, a forever frame based connection, or a long polling persistent connection; establishing, by the server, a connection to the first device of the second type of connection in response to the determining that the first device is compatible with the second type of connection; receiving, by the server, a first web API request on the connection; executing, by the server, a first procedure in response to the first web API request; receiving, by the server, a second web API request on the connection; and executing, by the server, at least one of the first procedure or a second procedure in response to the second web API request. receiving, by a server, a connection request from a first device; receiving, by the server, identifying information for an application running on the first device that is making the connection request; determining, by the server and by checking the identifying information, that the first device is incompatible with a first type of connection comprising a WebSocket based connection; determining, by the server and in response to the first device being incompatible with the WebSocket based connection and by checking the identifying information, that the first device is compatible with a second type of connection, the second type of connection comprising at least one of an EventSource based connection, a forever frame based connection, or a long polling persistent connection; establishing, by the server, a connection to the first device of the second type of connection in response to the determining that the first device is compatible with the second type of connection; receiving, by the server, a first web API request on the connection; executing, by the server, a first procedure in response to the first web API request; receiving, by the server, a second web API request on the connection; and executing, by the server, at least one of the first procedure or a second procedure in response to the second web API request.
A coating composition, comprising: 40 to 80 weight percent (wt.%) of a base polymer that is a non-functionalized ethylene polymer and not a non-functionalized propylene/ethylene copolymer; 5 to 15 wt.% of a polymeric coupling agent; 10 to 30 wt.% of a polymeric stabilizing agent; 0 to 35 wt.% of a polymeric performance improving agent; a neutralizing agent that partially or fully neutralizes the polymeric stabilizing agent; and a fluid medium, where the percent values are based on the total weight of the base polymer, the polymeric coupling agent, the polymeric stabilizing agent and, when present, the polymeric performance improving agent of the coating composition and sum to a value of 100 wt.%. 40 to 80 weight percent (wt.%) of a base polymer that is a non-functionalized ethylene polymer and not a non-functionalized propylene/ethylene copolymer; 5 to 15 wt.% of a polymeric coupling agent; 10 to 30 wt.% of a polymeric stabilizing agent; 0 to 35 wt.% of a polymeric performance improving agent; a neutralizing agent that partially or fully neutralizes the polymeric stabilizing agent; and a fluid medium, where the percent values are based on the total weight of the base polymer, the polymeric coupling agent, the polymeric stabilizing agent and, when present, the polymeric performance improving agent of the coating composition and sum to a value of 100 wt.%.
A composite graphite material, comprising a core material and a coating layer coating at least a part of the surface of the core material, the core material comprising graphite, wherein the composite graphite material has an absolute value K of Zeta potential of at least 20 mV, in deionized water with a pH of 7, and wherein the Zeta potential is measured in accordance with the national standard GB/T 32668-2016 "Analysis of Zeta Potential of Colloids-Electrophoresis Guidelines".
Method for inspecting an elongated element for smoking articles, wherein the element is rod-shaped and is made of a fibrous raw material, comprising the steps of - obtaining at least a first profile of a first measurable physical quantity, said first measurable physical quantity being density, and a second profile of a second measurable physical quantity, said second measurable physical quantity being humidity, by means of at least one sensor interacting with the elongated element along the same elongated element; - processing at least one of the first profile and the second profile to determine the presence of at least one capsule made of non-fibrous material, for example an aromatising additive inserted inside the elongated element; - if the capsule is present, evaluating the intactness of the capsule, comparing the first and the second profile respectively with a first (16, 17) and second threshold reference (21, 22); characterised in that said method further comprises: - moving the first profile and/or the second profile to an ideal reference position of the capsule along the elongated element; - establishing, during the operational functioning, the first threshold reference (16, 17) by statistical processing of the first profile and establishing the second threshold reference (21, 22) by statistical processing of the second profile; - the first and second statistical processing being performed respectively on moved profiles of a preceding inspection cycle, defined by a predetermined number of inspected elements. - obtaining at least a first profile of a first measurable physical quantity, said first measurable physical quantity being density, and a second profile of a second measurable physical quantity, said second measurable physical quantity being humidity, by means of at least one sensor interacting with the elongated element along the same elongated element; - processing at least one of the first profile and the second profile to determine the presence of at least one capsule made of non-fibrous material, for example an aromatising additive inserted inside the elongated element; - if the capsule is present, evaluating the intactness of the capsule, comparing the first and the second profile respectively with a first (16, 17) and second threshold reference (21, 22); characterised in that said method further comprises: - moving the first profile and/or the second profile to an ideal reference position of the capsule along the elongated element; - establishing, during the operational functioning, the first threshold reference (16, 17) by statistical processing of the first profile and establishing the second threshold reference (21, 22) by statistical processing of the second profile; - the first and second statistical processing being performed respectively on moved profiles of a preceding inspection cycle, defined by a predetermined number of inspected elements.
A non-enzymatic recombinant protein comprising an amino acid sequence of an extracellular domain of PTPRS, wherein the protein comprises both PTPRS immunoglobulin-like domain 1 and immunoglobulin-like domain 2, for use in therapy.
A laminate comprising a reinforcing fiber sheet (b) and a thermoplastic resin sheet (a), wherein (i) the reinforcing fiber sheet (b) comprises reinforcing fibers having a melting temperature of not lower than 350°C, and (ii) the thermoplastic resin sheet (a) is a nonwoven fabric containing hollow fibers which comprise a thermoplastic resin having a melting temperature of lower than 350°C, wherein the thermoplastic resin sheet (a) is a nonwoven fabric containing hollow fibers which are arranged in a reticulate form, wherein the end face angle of the hollow fiber is smaller than 60°, wherein the hollow fiber has discontinuous bubbles therein. (i) the reinforcing fiber sheet (b) comprises reinforcing fibers having a melting temperature of not lower than 350°C, and (ii) the thermoplastic resin sheet (a) is a nonwoven fabric containing hollow fibers which comprise a thermoplastic resin having a melting temperature of lower than 350°C, wherein the thermoplastic resin sheet (a) is a nonwoven fabric containing hollow fibers which are arranged in a reticulate form, wherein the end face angle of the hollow fiber is smaller than 60°, wherein the hollow fiber has discontinuous bubbles therein.
A method for displaying running applications on a touch screen (110, 310) of an electronic device (100, 200), comprising: selecting a combined group representation of two or more applications, the combined group representation comprising two or more application representations (522, 524) that are grouped and displayed on a viewable area of the touch screen, each application representation (522, 524) corresponding to an application and the combined group representation created by a user interaction with the touch screen (110, 310) by overlaying on the touch screen (110, 310) the two or more application representations (522, 524) corresponding to the two or more applications, wherein overlaying on the touch screen (110, 310) the two or more application representations (522, 524) corresponding to the two or more applications comprises one or more of: pinching together the two or more application representations (522, 524) from the home screen to create the combined group representation, and dragging together the two or more application representations from the home screen so that they are stacked on top of one another to create the combined group representation; and in response to a selection of the combined group representation, entering a split screen mode and in the split screen mode running and displaying in the viewable area of the touch screen the two or more running applications. pinching together the two or more application representations (522, 524) from the home screen to create the combined group representation, and dragging together the two or more application representations from the home screen so that they are stacked on top of one another to create the combined group representation; and in response to a selection of the combined group representation, entering a split screen mode and in the split screen mode running and displaying in the viewable area of the touch screen the two or more running applications.
An electrode assembly comprising: a first electrode stair including at least one first electrode unit; and a second electrode stair including at least one second electrode unit having an area different from that of the first electrode unit, wherein the first electrode stair and the second electrode stair are stacked to be adjacent, separated by at least one separator as a boundary therebetween and including one or more electrode laminates having steps formed by a difference between the areas of the first electrode stair and the second electrode stair, shapes of corners of the first electrode stair and the second electrode stair are different, wherein the at least one first electrode unit extends along a length direction, extends along a width direction, defines a maximum length along the length direction, and defines first and second linear edges (480; 482) spaced apart along the width direction, and characterized in that each of the first and second linear edges (480; 482)being shorter than the maximum length, and in that a perimeter of the at least one first electrode unit at endpoints (480a, 480b; 482a, 482b) of each of the first and second linear edges extends toward the opposing linear edge in a direction parallel to the width direction. a first electrode stair including at least one first electrode unit; and a second electrode stair including at least one second electrode unit having an area different from that of the first electrode unit,
A method of transferring a sample container, the method comprising: detecting, with at least one sensor, at least one predetermined feature of a sample group holder; receiving, with a controller, a detection signal from the at least one sensor corresponding to detection of the at least one predetermined feature; determining, with the controller, a thermal growth or shrinkage change in a dimension of a predetermined physical characteristic intrinsic to the sample group holder based on a detected position of the at least one predetermined feature; characterized in that the method further comprises: determining, with the controller, a location of a sample container in the sample group holder based on the detection signal and the determined thermal growth or shrinkage change; and transferring the sample container to or from the sample group holder using an automated sample container picker based on the determined location of the sample container. detecting, with at least one sensor, at least one predetermined feature of a sample group holder; receiving, with a controller, a detection signal from the at least one sensor corresponding to detection of the at least one predetermined feature; determining, with the controller, a thermal growth or shrinkage change in a dimension of a predetermined physical characteristic intrinsic to the sample group holder based on a detected position of the at least one predetermined feature; characterized in that the method further comprises: determining, with the controller, a location of a sample container in the sample group holder based on the detection signal and the determined thermal growth or shrinkage change; and transferring the sample container to or from the sample group holder using an automated sample container picker based on the determined location of the sample container. determining, with the controller, a location of a sample container in the sample group holder based on the detection signal and the determined thermal growth or shrinkage change; and transferring the sample container to or from the sample group holder using an automated sample container picker based on the determined location of the sample container.
A casting device comprising a melt transport device with at least one melt container (3a, 3b) in which a melt receiving space (4a, 4b) and a spout (5a, 5b) in the form of a lance (20a, 20b) lying at the bottom of the melt container (3a, 3b) is formed, wherein the spout (5a, 5b) has a spout orifice (6a, 6b) which is flow-connected to the melt receiving space (4a, 4b), wherein a siphon is formed on an underside of the lance, characterized in that the lance (20a, 20b) is arranged removably on the melt container (3a, 3b).
A vaccinia virus, having suicide genes, cytosine deaminase gene and uracil phosphoribosyltransferase (UPRT) gene, inserted into one of the vaccinia virus growth factor and the OIL gene, having a marker gene inserted into the other of the vaccinia virus growth factor and the OIL gene, being deprived of functions of the vaccinia virus growth factor and the OIL gene, not growing in normal cells and growing specifically in cancer cells, and having oncolytic effect damaging specifically cancer cells; and further killing cancer cells by the action of the suicide genes.
A method for receiving physical uplink control information, comprising: selecting (110, 610), by a base station, a physical uplink control channel, PUCCH, resource of a relay, wherein the PUCCH resource of the relay is configured to be multiplexed with a first resource, wherein the first resource comprises a PUCCH resource occupied by a 3rd Generation Partnership Project long term evolution, 3GPP LTE, terminal for transmitting a first physical uplink control information in a first format; characterized by determining (120, 620), by the base station, a channel index corresponding to the PUCCH resource of the relay; transmitting (130, 630), by the base station, notification information to the relay, wherein the notification information comprises the channel index; and receiving (140, 640), by the base station, a second physical uplink control information, wherein the second physical uplink control information is transmitted by the relay according to the channel index; wherein the selecting, by the base station, the PUCCH resource of the relay, wherein the PUCCH resource is configured to be multiplexed with the first resource, comprises: selecting, by the base station, the PUCCH resource of the relay, wherein the PUCCH resource is configured to be multiplexed with the first resource through code division multiplexing in frequency domain. selecting (110, 610), by a base station, a physical uplink control channel, PUCCH, resource of a relay, wherein the PUCCH resource of the relay is configured to be multiplexed with a first resource, wherein the first resource comprises a PUCCH resource occupied by a 3rd Generation Partnership Project long term evolution, 3GPP LTE, terminal for transmitting a first physical uplink control information in a first format;
A method in a client terminal for enabling safe communication with a web server, the method comprising: - obtaining a web page comprising an HTML form and a JavaScript from the web server in a session with the web server, - determining a set of context parameters, P1,...Pn, pertaining to said session and/or web page, - deriving an application specific key, Ks_NAF, based on a master Key, Ks, - creating a context specific key, Ks_NAF', based on said context parameters and the application specific key, Ks_NAF, - sending the context specific key, Ks_NAF', to the JavaScript using a JavaScript API, so that the created context specific key Ks_NAF' can be used for verification of the client in the web server if a context specific key determined in the web server matches the context specific key created by the client terminal. - obtaining a web page comprising an HTML form and a JavaScript from the web server in a session with the web server, - determining a set of context parameters, P1,...Pn, pertaining to said session and/or web page, - deriving an application specific key, Ks_NAF, based on a master Key, Ks, - creating a context specific key, Ks_NAF', based on said context parameters and the application specific key, Ks_NAF, - sending the context specific key, Ks_NAF', to the JavaScript using a JavaScript API, so that the created context specific key Ks_NAF' can be used for verification of the client in the web server if a context specific key determined in the web server matches the context specific key created by the client terminal.