mhurhangee/ep-ind-claims huggingface dataset:
A system for gasification of a carbonaceous material, comprising: a gasification reactor for the gasification of a carbonaceous material producing an overhead product stream comprising char and syngas; a separator for separating the overhead product stream into a solids stream comprising the char and a gas stream comprising the syngas; and a system (120, 130, 140) for recycling the solids stream to the gasification reactor, the recycling system (120, 130, 140) comprising: a standpipe that receives the solids stream from the separator for generating a pressure differential across a bed of accumulated char thereby producing a bottoms stream comprising char having a greater pressure than the solids stream; a holding vessel that receives the bottoms stream; a fluidized-bed distribution vessel that receives char from the holding vessel and is configured to provide a continuous flow of recycled char to the gasification reactor; and a measurement system configured to monitor and control a flow of char to the gasification reactor, wherein the holding vessel is disposed above the fluidized-bed distribution vessel. a gasification reactor for the gasification of a carbonaceous material producing an overhead product stream comprising char and syngas; a separator for separating the overhead product stream into a solids stream comprising the char and a gas stream comprising the syngas; and a system (120, 130, 140) for recycling the solids stream to the gasification reactor, the recycling system (120, 130, 140) comprising: a standpipe that receives the solids stream from the separator for generating a pressure differential across a bed of accumulated char thereby producing a bottoms stream comprising char having a greater pressure than the solids stream; a holding vessel that receives the bottoms stream; a fluidized-bed distribution vessel that receives char from the holding vessel and is configured to provide a continuous flow of recycled char to the gasification reactor; and a measurement system configured to monitor and control a flow of char to the gasification reactor, a standpipe that receives the solids stream from the separator for generating a pressure differential across a bed of accumulated char thereby producing a bottoms stream comprising char having a greater pressure than the solids stream; a holding vessel that receives the bottoms stream; a fluidized-bed distribution vessel that receives char from the holding vessel and is configured to provide a continuous flow of recycled char to the gasification reactor; and a measurement system configured to monitor and control a flow of char to the gasification reactor, wherein the holding vessel is disposed above the fluidized-bed distribution vessel.
Anti-fouling unit (1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12) configured to be arranged on a surface, wherein the anti-fouling unit (1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12) comprises at least one electric circuit including a light-emitting arrangement configured to emit anti-fouling light, and a plate-shaped carrier slab carrying the at least one electric circuit, wherein the carrier slab has an emission surface configured to allow light from the light-emitting arrangement of the at least one electric circuit to pass to outside of the anti-fouling unit (1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12) and to thereby subject an exterior side of the emission surface and surroundings thereof to an anti-fouling action, wherein the carrier slab includes at least one active slab zone where the at least one electric circuit is located and at least one passive slab zone outside the active slab zone, which at least one passive slab zone is configured to allow a division of the anti-fouling unit (1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12) in separate pieces (51, 52, 53, 54, 55, 56) in order to fit on a predetermined surface portion while keeping the functionality of the at least one electric circuit intact, and wherein the light-emitting arrangement of the at least one electric circuit is configured to subject the exterior side of the emission surface and surroundings thereof to an anti-fouling action both at a position of the at least one active slab zone and at a position of the at least one passive slab zone. wherein the anti-fouling unit (1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12) comprises at least one electric circuit including a light-emitting arrangement configured to emit anti-fouling light, and a plate-shaped carrier slab carrying the at least one electric circuit, wherein the carrier slab has an emission surface configured to allow light from the light-emitting arrangement of the at least one electric circuit to pass to outside of the anti-fouling unit (1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12) and to thereby subject an exterior side of the emission surface and surroundings thereof to an anti-fouling action, wherein the carrier slab includes at least one active slab zone where the at least one electric circuit is located and at least one passive slab zone outside the active slab zone, which at least one passive slab zone is configured to allow a division of the anti-fouling unit (1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12) in separate pieces (51, 52, 53, 54, 55, 56) in order to fit on a predetermined surface portion while keeping the functionality of the at least one electric circuit intact, and wherein the light-emitting arrangement of the at least one electric circuit is configured to subject the exterior side of the emission surface and surroundings thereof to an anti-fouling action both at a position of the at least one active slab zone and at a position of the at least one passive slab zone.
A memory device, comprising: a vertical resistive random access memory (RRAM) cell (38, 20, 134) comprising: a first electrode (WL, WL, 22, 126); a second electrode (42, 130); and an active material (44, 128) disposed between the first and second electrodes, wherein the active material has variable resistive properties and comprises a columnar grain structure defining a plurality of grain boundaries oriented generally perpendicular to the first and second electrodes, characterised in that the plurality of grain boundaries is oriented generally parallel to a plane of a substrate (112, 122) upon which the RRAM cell is formed. a vertical resistive random access memory (RRAM) cell (38, 20, 134) comprising: a first electrode (WL, WL, 22, 126); a second electrode (42, 130); and an active material (44, 128) disposed between the first and second electrodes, wherein the active material has variable resistive properties and comprises a columnar grain structure defining a plurality of grain boundaries oriented generally perpendicular to the first and second electrodes, a first electrode (WL, WL, 22, 126); a second electrode (42, 130); and an active material (44, 128) disposed between the first and second electrodes, wherein the active material has variable resistive properties and comprises a columnar grain structure defining a plurality of grain boundaries oriented generally perpendicular to the first and second electrodes, characterised in that the plurality of grain boundaries is oriented generally parallel to a plane of a substrate (112, 122) upon which the RRAM cell is formed.
A method of determining an encoding mode, the method comprising: determining an initial encoding mode of a current frame as a spectrum domain encoding mode from among a plurality of encoding modes when an audio signal is classified as a music signal by using characteristics of the audio signal; correcting the spectrum domain encoding mode to a Generic Signal Coding, GSC, mode for excitation encoding based on correction parameters; and determining a final encoding mode of the current frame from among the spectrum domain encoding mode and the GSC mode based on encoding modes of frames corresponding to a hangover length so as to prevent a frequent switching of the encoding mode. determining an initial encoding mode of a current frame as a spectrum domain encoding mode from among a plurality of encoding modes when an audio signal is classified as a music signal by using characteristics of the audio signal; correcting the spectrum domain encoding mode to a Generic Signal Coding, GSC, mode for excitation encoding based on correction parameters; and determining a final encoding mode of the current frame from among the spectrum domain encoding mode and the GSC mode based on encoding modes of frames corresponding to a hangover length so as to prevent a frequent switching of the encoding mode.
Powder module for an apparatus for additively manufacturing three-dimensional objects, the powder module comprising a powder chamber having a power chamber volume and a carrying device, the carrying device comprising: - a carrying unit being moveably supported along a motion axis between a first position, particularly a lower end position, and a second position, particularly an upper end position, relative to the powder chamber, - a drive unit for generating a drive force for moving the carrying unit between the first position and the second position or vice versa, - a coupling unit for coupling the carrying unit with the drive unit, the coupling unit being extendable between a first extension state, particularly corresponding to the first position of the carrying unit, and a second extension state, particularly corresponding to the second position of the carrying unit, - a guiding unit surrounding the coupling unit, the guiding unit being extendable between a first extension state, particularly corresponding to the first position of the carrying unit, and a second extension state, particularly corresponding to the second position of the carrying unit. - a carrying unit being moveably supported along a motion axis between a first position, particularly a lower end position, and a second position, particularly an upper end position, relative to the powder chamber, - a drive unit for generating a drive force for moving the carrying unit between the first position and the second position or vice versa, - a coupling unit for coupling the carrying unit with the drive unit, the coupling unit being extendable between a first extension state, particularly corresponding to the first position of the carrying unit, and a second extension state, particularly corresponding to the second position of the carrying unit, - a guiding unit surrounding the coupling unit, the guiding unit being extendable between a first extension state, particularly corresponding to the first position of the carrying unit, and a second extension state, particularly corresponding to the second position of the carrying unit.
A complex comprising (i) an immunoglobulin (Ig) binding moiety, and (ii) a pharmaceutically active moiety, wherein the Ig binding moiety specifically binds to the constant domain 1 of the heavy chain (C H 1) of an Ig molecule, wherein the Ig binding moiety comprises a C H I-binding immunoglobulin binding domain (IgBD) of streptococcal protein G. (i) an immunoglobulin (Ig) binding moiety, and (ii) a pharmaceutically active moiety,
A conductive film (10, 20) for use in a touch panel, the conductive film (10, 20) comprising: a base member (12, 22) including a sensor area and a wire area around the sensor area; a sensor electrode (142, 242) located on the base member (12, 22) in the sensor area; and a wire electrode (144, 244) located on the base member (12, 22) in the wire area, the wire electrode (144, 244) being electrically connected to the sensor electrode (142, 242), wherein at least one of the sensor electrode (142, 242) or the wire electrode (144, 244) includes a nano material conductor having a mesh shape, characterized in that the base member (12, 22) includes a folding portion located between the sensor area and the wire area wherein the folding portion allows the wire area to be located at a lateral surface of the touch panel. a base member (12, 22) including a sensor area and a wire area around the sensor area; a sensor electrode (142, 242) located on the base member (12, 22) in the sensor area; and a wire electrode (144, 244) located on the base member (12, 22) in the wire area, the wire electrode (144, 244) being electrically connected to the sensor electrode (142, 242), wherein at least one of the sensor electrode (142, 242) or the wire electrode (144, 244) includes a nano material conductor having a mesh shape, characterized in that the base member (12, 22) includes a folding portion located between the sensor area and the wire area wherein the folding portion allows the wire area to be located at a lateral surface of the touch panel.
A method of wireless communication operable at an access terminal, having more than one medium access control, MAC, entity and supporting downlink carrier aggregation, further comprising: receiving a packet at a MAC entity from a first serving cell; delivering the packet to a radio link control, RLC, layer; and characterised by inserting an identifier into the packet, the identifier adapted to indicate whether the first serving cell is a current primary serving cell at the time of the delivering of the packet to the RLC layer. receiving a packet at a MAC entity from a first serving cell; delivering the packet to a radio link control, RLC, layer; and
A method of wireless communication, comprising: establishing, at a first user equipment, UE, a network connection with a first base station, BS, of a first communication network; transmitting a scheduling request for communication resources in a second communication network by tunneling to a second BS of the second communication network through the first BS of the first communication network, including an indication whether to operate in LTE device-to-device mode or NR device-to-device mode; receiving from the first BS via the network connection, in response to the scheduling request, information for configuring the first UE for communicating with a second UE; configuring the first UE using the received information; and transmitting, directly, a message to the second UE using the communication resources in the second communication network. establishing, at a first user equipment, UE, a network connection with a first base station, BS, of a first communication network; transmitting a scheduling request for communication resources in a second communication network by tunneling to a second BS of the second communication network through the first BS of the first communication network, including an indication whether to operate in LTE device-to-device mode or NR device-to-device mode; receiving from the first BS via the network connection, in response to the scheduling request, information for configuring the first UE for communicating with a second UE; configuring the first UE using the received information; and transmitting, directly, a message to the second UE using the communication resources in the second communication network.
A process for manufacturing an optically variable security feature in a single printing step, said optically variable security feature comprising a region based on a single cured ink comprising a cholesteric liquid crystal polymer, said region having at least two, preferably at least three, patterns having different thicknesses, said at least two, preferably at least three patterns exhibiting, at at least one viewing angle, a different CIE color index parameter and/or a different position of the selective reflection band, said process comprising the steps of: a. applying on a substrate, by a rotogravure process with the use of a gravure cylinder having at least two, preferably at least three, different engravings, a single cholesteric liquid crystal precursor composition, b. heating the applied composition to bring said composition to a cholesteric liquid crystal state, and c. curing the composition so as to form the region based on a single cured ink comprising a cholesteric liquid crystal polymer. a. applying on a substrate, by a rotogravure process with the use of a gravure cylinder having at least two, preferably at least three, different engravings, a single cholesteric liquid crystal precursor composition, b. heating the applied composition to bring said composition to a cholesteric liquid crystal state, and c. curing the composition so as to form the region based on a single cured ink comprising a cholesteric liquid crystal polymer.
A traction element (1000; 1500), comprising: at least two plates (1004, 1002; 1502, 1504), including a first plate (1002; 1504) that is positioned approximately parallel to a second plate (1004; 1502), wherein a space (1006; 1510) is defined between the first plate and the second plate; an extendable portion attached to or integrally formed with the first plate; and a plunger (1010; 1516) directly attached to or integrally formed with the second plate so that the plunger is aligned with the extendable portion; wherein when a force is applied to the second plate, the plunger causes the extendable portion to extend from a first, retracted position to a second, extended position. at least two plates (1004, 1002; 1502, 1504), including a first plate (1002; 1504) that is positioned approximately parallel to a second plate (1004; 1502), wherein a space (1006; 1510) is defined between the first plate and the second plate; an extendable portion attached to or integrally formed with the first plate; and a plunger (1010; 1516) directly attached to or integrally formed with the second plate so that the plunger is aligned with the extendable portion; wherein when a force is applied to the second plate, the plunger causes the extendable portion to extend from a first, retracted position to a second, extended position.
A method for sending data, which is implemented by a device including a main module and a connection module, the connection module is configured to connect to a Personal Computer "PC" by using a USB connection mode, and the main module communicates with the connection module wirelessly, characterized in that the method comprises: determining, by the main module, data to be sent corresponding to operation information input by a user; encapsulating identification information and the data to be sent according to an identified type of the data to be sent and the identification information corresponding to the type of the data, and sending encapsulated data to the connection module (S303 and S304); and decapsulating, by the connection module, the encapsulated data received, and sending the data to be sent to the PC after removing the identification information; wherein the types of the data to be sent comprise: a type of internet data and a type of mouse control data; the identification information is for identifying that the type of the data to be sent is the type of internet data or the type of mouse control data, and the identification information occupies 1 bit. determining, by the main module, data to be sent corresponding to operation information input by a user; encapsulating identification information and the data to be sent according to an identified type of the data to be sent and the identification information corresponding to the type of the data, and sending encapsulated data to the connection module (S303 and S304); and decapsulating, by the connection module, the encapsulated data received, and sending the data to be sent to the PC after removing the identification information; wherein the types of the data to be sent comprise: a type of internet data and a type of mouse control data; the identification information is for identifying that the type of the data to be sent is the type of internet data or the type of mouse control data, and the identification information occupies 1 bit.
A method for controlling at least one control parameter from a number of parameters of an inking unit of an offset printing press, wherein the parameters of the inking unit, which can also be control parameters, comprise an opening of an ink blade or a rotational speed of an ink fountain roller, wherein, based on at least the control parameter, a calculated value of an ink density on a substrate, which is to be printed by the printing press, is calculated by means of an inking unit model, and, instead of an actual value, the calculated value is used as input variable for controlling purposes, wherein the calculated value is at least temporarily calculated exclusively based on a number of parameters of the inking unit, wherein the rotational speed of an ink fountain roller and/or the opening of at least one ink blade is a control parameter.
An isolated antibody or antibody fragment capable of binding sialyl-di-Lewis a, wherein the antibody or antibody fragment comprises the following six CDRs: a) GFTFNTYA (CDRH1), IRSKSNNYAT (CDRH2) and VGYGSGGNY (CDRH3), and b) QSLLNSGNQKNY (CDRL1), WAS (CDRL2) and QNDYSSPFT (CDRL3), wherein the antibody or antibody fragment is specific for sialyl-di-Lewis a and sialyl-Lewis a-x. a) GFTFNTYA (CDRH1), IRSKSNNYAT (CDRH2) and VGYGSGGNY (CDRH3), and b) QSLLNSGNQKNY (CDRL1), WAS (CDRL2) and QNDYSSPFT (CDRL3),
A gas sensor (1, 31, 41, 51) comprising a source electrode, a drain electrode and a gate electrode (4,5) for detecting a gas that is a target of detection, further comprising: a carbon nanotube provided between the source electrode and the drain electrode on a substrate, and a source-drain current flows therein; and a gas absorbing liquid disposed to cover the carbon nanotube and in contact with the carbon nanotube and the gate electrode (5,6) on the substrate wherein the carbon nanotube is configured so as to have one end side covered with the source electrode and the other end side covered with the drain electrode, and formed in a straight line shape between the source electrode and the drain electrode, and the gas is detected based on a change of the source-drain current in the carbon nanotube caused by absorbing the gas in the gas absorbing liquid. a carbon nanotube provided between the source electrode and the drain electrode on a substrate, and a source-drain current flows therein; and a gas absorbing liquid disposed to cover the carbon nanotube and in contact with the carbon nanotube and the gate electrode (5,6) on the substrate wherein the carbon nanotube is configured so as to have one end side covered with the source electrode and the other end side covered with the drain electrode, and formed in a straight line shape between the source electrode and the drain electrode, and the gas is detected based on a change of the source-drain current in the carbon nanotube caused by absorbing the gas in the gas absorbing liquid.