mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, first information on a first bandwidth part, BWP, inactivity timer for a primary cell, PCell, and second information on a second BWP inactivity timer for a secondary cell, SCell ; identifying that a random access procedure is initiated on a serving cell; stopping the first BWP inactivity timer associated with an active downlink, DL, BWP of the PCell, in case that the random access procedure is initiated on the PCell; and stopping the first BWP inactivity timer associated with the active DL BWP of the PCell and the second BWP inactivity timer associated with an active DL BWP of the SCell, in case that the random access procedure is initiated on the SCell. receiving, from a base station, first information on a first bandwidth part, BWP, inactivity timer for a primary cell, PCell, and second information on a second BWP inactivity timer for a secondary cell, SCell ; identifying that a random access procedure is initiated on a serving cell; stopping the first BWP inactivity timer associated with an active downlink, DL, BWP of the PCell, in case that the random access procedure is initiated on the PCell; and stopping the first BWP inactivity timer associated with the active DL BWP of the PCell and the second BWP inactivity timer associated with an active DL BWP of the SCell, in case that the random access procedure is initiated on the SCell.
Process for biological nitrogen elimination from raw water with autotrophic nitrification and subsequent denitrification, wherein raw water is passed through at least one common rotary cylinder reactor according to any of claims 10 to 13 with at least three subsequent reaction zones, wherein by addition of at least one gaseous and/or liquid oxidizing agent into the reactor, a first reaction zone is adjusted to milieu conditions for microbial nitrification and a subsequent further reaction zone is adjusted to milieu conditions for microbial denitrification, and at least one intermediate reaction zone arranged between the first and the further reaction zone is adjusted to milieu conditions for microbial nitrification and microbial denitrification, wherein the gaseous and/or liquid oxidant flows into the reactor axially along the longitudinal axis of the reactor and passes radially along the longitudinal axis into the first reaction zone, wherein the dissolved oxygen concentration decreases over the reaction zones, wherein the first reaction zone is set to aerobic conditions and to a dissolved oxygen concentration of at least 2.5 mg/l, wherein the intermediate reaction zone is set to an average dissolved oxygen concentration which is smaller than the average dissolved oxygen concentration in the first reaction zone and larger than the average dissolved oxygen concentration in the further reaction zone, and to a dissolved oxygen concentration of at least 0.5 to 2.5 mg/l, and wherein the further reaction zone is set to anaerobic conditions and to a dissolved oxygen concentration of at most 0.5 ml/l, and wherein the denitrification is carried out autotrophically. wherein by addition of at least one gaseous and/or liquid oxidizing agent into the reactor, a first reaction zone is adjusted to milieu conditions for microbial nitrification and a subsequent further reaction zone is adjusted to milieu conditions for microbial denitrification, and at least one intermediate reaction zone arranged between the first and the further reaction zone is adjusted to milieu conditions for microbial nitrification and microbial denitrification, wherein the gaseous and/or liquid oxidant flows into the reactor axially along the longitudinal axis of the reactor and passes radially along the longitudinal axis into the first reaction zone, wherein the dissolved oxygen concentration decreases over the reaction zones, wherein the first reaction zone is set to aerobic conditions and to a dissolved oxygen concentration of at least 2.5 mg/l, wherein the intermediate reaction zone is set to an average dissolved oxygen concentration which is smaller than the average dissolved oxygen concentration in the first reaction zone and larger than the average dissolved oxygen concentration in the further reaction zone, and to a dissolved oxygen concentration of at least 0.5 to 2.5 mg/l, and wherein the further reaction zone is set to anaerobic conditions and to a dissolved oxygen concentration of at most 0.5 ml/l, and wherein the denitrification is carried out autotrophically.
A method comprising: receiving at a thermal modeling module , data from a Power Sourcing Equipment device, PSE , for cables extending from the PSE to Powered Devices, PDs , the cables configured to transmit power and data from the PSE to the PDs , wherein the data comprises real-time electrical data for the cables ; identifying at the thermal modeling module a wire gauge of one or more of the cables based on measurements at the PSE and PD , wherein the measurements include a voltage at the PSE , a voltage at the PD , a current of the cable , and a cable length measured using a time domain reflectometer; calculating at the thermal modeling module , thermal characteristics for the cables based on the data and the wire gauge; and identifying a thermal rise above a specified threshold at one of the cables . receiving at a thermal modeling module , data from a Power Sourcing Equipment device, PSE , for cables extending from the PSE to Powered Devices, PDs , the cables configured to transmit power and data from the PSE to the PDs , wherein the data comprises real-time electrical data for the cables ; identifying at the thermal modeling module a wire gauge of one or more of the cables based on measurements at the PSE and PD , wherein the measurements include a voltage at the PSE , a voltage at the PD , a current of the cable , and a cable length measured using a time domain reflectometer; calculating at the thermal modeling module , thermal characteristics for the cables based on the data and the wire gauge; and identifying a thermal rise above a specified threshold at one of the cables .
Cooking appliance component , in particular comprising a cooking chamber suitable for carrying out pyrolysis, and comprising a component wall that delimits the cooking appliance component at least in part, the component wall comprising a metal substrate that has an enamel coating applied thereto at least in part, the component wall having at least one surface portion which is kept free of the enamel coating and is therefore electrically conductive, which portion is intended for making electrical contact with the metal substrate , characterised in that the electrical contact resistance at the electrically conductive surface portion after the enamel coating has been applied to the metal substrate is increased to a maximum of four times, in particular to at most twice or 1.5 times, in that both the outer surface and the inner surface of the metal substrate , apart from the surface portion , are substantially completely covered with an enamel layer, and in that the metal substrate consists at least in part of a heat-resistant and also austenitic or ferritic steel from the group having a material number and material short name designation 1.4742, 1.4762, 1.4724, 1.4713, 1.4878, 1.4828, 1.4821, 1.4876, 1.4872, 1.4835 or 1.4841.
A curable composition comprising a compound , a compound , and a Lewis acid catalyst, the compound being represented by Formula : where in Formula , Y represents a single bond or a linking group, the compound being at least one compound selected from compounds represented by Formula , Formula , and Formula : wherein a weight ratio of a content of the compound to a content of the compound is from 10/90 to 40/60. the compound being represented by Formula : where in Formula , Y represents a single bond or a linking group, the compound being at least one compound selected from compounds represented by Formula , Formula , and Formula : wherein a weight ratio of a content of the compound to a content of the compound is from 10/90 to 40/60.
Optical light guide (2; 102; 202) made of transparent or translucent material, of generally extended form with two opposing main faces (4, 8; 104, 108; 204, 208), and comprising: - a light input zone (6 1 ; 106 1 ; 206 1 ); - a light output zone (4 1 ; 104 1 ; 204 1 ) on one of the two opposing main faces; - a reflection zone (8 1 ; 108 1 ; 208 1 ) with means (10; 110; 210) for reflecting the light towards the output zone (4 1 ; 104 1 ; 204 1 ); characterized in that it comprises, in addition: means (4 2 ; 8 2 ; 104 2 ; 204 2 ) for dispersing the light within the guide, said means being situated between the input zone (6 1 ; 106 1 ; 206 1 ) and the output (4 1 ; 104 1 ; 204 1 ) and reflection (8 1 ; 108 1 ; 208 1 ) zones, the dispersion means comprising splines (4 2 , 8 2 ) extending over at least one of the main faces , transversely to the main direction of the light rays from the input zone (6 1 ) to the output (4 1 ) and reflection (8 1 ) zones. - a light input zone (6 1 ; 106 1 ; 206 1 ); - a light output zone (4 1 ; 104 1 ; 204 1 ) on one of the two opposing main faces; - a reflection zone (8 1 ; 108 1 ; 208 1 ) with means (10; 110; 210) for reflecting the light towards the output zone (4 1 ; 104 1 ; 204 1 ); means (4 2 ; 8 2 ; 104 2 ; 204 2 ) for dispersing the light within the guide, said means being situated between the input zone (6 1 ; 106 1 ; 206 1 ) and the output (4 1 ; 104 1 ; 204 1 ) and reflection (8 1 ; 108 1 ; 208 1 ) zones, the dispersion means comprising splines (4 2 , 8 2 ) extending over at least one of the main faces , transversely to the main direction of the light rays from the input zone (6 1 ) to the output (4 1 ) and reflection (8 1 ) zones.
A micro-truss structure , comprising: a plurality of unit cells arranged in a staggered array, wherein: each of the plurality of unit cells comprises a plurality of struts interconnected at a node , adjacent ones of at least two of the plurality of unit cells are spaced apart by a gap , the plurality of unit cells comprises a first plurality of unit cells arranged in a first row of the array and a second plurality of unit cells arranged in a second row of the array, the second plurality of unit cells in the second row of the array is laterally offset from the first plurality of unit cells in the first row of the array, at least one of the struts in each of the first plurality of unit cells in the first row is interconnected to one of the struts in one of the second plurality of unit cells in the second row , and the micro-truss structure has a sparsity of about 3. each of the plurality of unit cells comprises a plurality of struts interconnected at a node , adjacent ones of at least two of the plurality of unit cells are spaced apart by a gap , the plurality of unit cells comprises a first plurality of unit cells arranged in a first row of the array and a second plurality of unit cells arranged in a second row of the array, the second plurality of unit cells in the second row of the array is laterally offset from the first plurality of unit cells in the first row of the array, at least one of the struts in each of the first plurality of unit cells in the first row is interconnected to one of the struts in one of the second plurality of unit cells in the second row , and the micro-truss structure has a sparsity of about 3.
Connection bar for ladders for constructing a screening wall, comprising - a bar-shaped base body , wherein the ground-side side of the base body has at least partially a slip-resistant coating, - a first bracket pair, which is arranged on the base body and is designed to receive a ground-side section of stringers of a first ladder , and - a second bracket pair, which is arranged on the base body and is formed to receive a ground-side section and/or a section , facing away from the ground , of stringers of a second ladder , wherein the second bracket pair has two first receiving openings , which serve to receive the section , facing away from the ground, of the stringers of the second ladder , and at least one second receiving opening , which, together with one of the first receiving openings , serves to receive the ground-side section of the stringers of the second ladder , wherein the first bracket pair and the second bracket pair are arranged in such a way that the longitudinal axes of the two ladders are at an angle in relation to one another differing from 0° und 180°. - a bar-shaped base body , wherein the ground-side side of the base body has at least partially a slip-resistant coating, - a first bracket pair, which is arranged on the base body and is designed to receive a ground-side section of stringers of a first ladder , and - a second bracket pair, which is arranged on the base body and is formed to receive a ground-side section and/or a section , facing away from the ground , of stringers of a second ladder , wherein the second bracket pair has two first receiving openings , which serve to receive the section , facing away from the ground, of the stringers of the second ladder , and at least one second receiving opening , which, together with one of the first receiving openings , serves to receive the ground-side section of the stringers of the second ladder ,
A weigh module , comprising: a load cell ; a supporting member comprising a receiving hole extending vertically and through the supporting member ; and a connecting member , the connecting member comprising a fixing end fixed to the load cell and a limiting end extending into the receiving hole , the limiting end being configured to prevent the supporting member to be lift off from the connecting member ; and a sealing member , made of rubber material, comprising a first end fixed to the supporting member , a second end fixed between the load cell and a step face of the connecting member , the second end having embedded a second rigid part ; and a swelled raised portion , being next to the second end and horizontally arranged in the sealing member , the swelled raised portion generating a restoring force when the supporting member is displaced from the center position. a load cell ; a supporting member comprising a receiving hole extending vertically and through the supporting member ; and a connecting member , the connecting member comprising a fixing end fixed to the load cell and a limiting end extending into the receiving hole , the limiting end being configured to prevent the supporting member to be lift off from the connecting member ; and a receiving hole extending vertically and through the supporting member ; and a connecting member , the connecting member comprising a fixing end fixed to the load cell and a limiting end extending into the receiving hole , the limiting end being configured to prevent the supporting member to be lift off from the connecting member ; and a fixing end fixed to the load cell and a limiting end extending into the receiving hole , the limiting end being configured to prevent the supporting member to be lift off from the connecting member ; and a sealing member , made of rubber material, comprising a first end fixed to the supporting member , a second end fixed between the load cell and a step face of the connecting member , the second end having embedded a second rigid part ; and a swelled raised portion , being next to the second end and horizontally arranged in the sealing member , the swelled raised portion generating a restoring force when the supporting member is displaced from the center position. a first end fixed to the supporting member , a second end fixed between the load cell and a step face of the connecting member , the second end having embedded a second rigid part ; and a swelled raised portion , being next to the second end and horizontally arranged in the sealing member , the swelled raised portion generating a restoring force when the supporting member is displaced from the center position.
An electric tool , which includes a piston reciprocably housed in a cylinder provided in a main body portion and configured to be pushed by a pressure of a fluid; and a tool head coupled to a distal end of the main body portion and configured to perform a predetermined operation by being pushed by the piston , and is configured to be driven by an electric motor , the electric tool comprising: a return channel communicating from the cylinder to a fluid tank configured to store the fluid to allow the fluid to flow therethrough; a pressure regulating valve disposed in an operational flow channel for an operation branching from the return channel and configured to take an open position when a pressure of the fluid in the return channel becomes equal to or higher than a predetermined value; an operating pin disposed in the operational flow channel and configured to be pushed by a pressure of the fluid flowing therein; and a return valve disposed in the return channel and configured to take an open position by being pushed by the operating pin . a return channel communicating from the cylinder to a fluid tank configured to store the fluid to allow the fluid to flow therethrough; a pressure regulating valve disposed in an operational flow channel for an operation branching from the return channel and configured to take an open position when a pressure of the fluid in the return channel becomes equal to or higher than a predetermined value; an operating pin disposed in the operational flow channel and configured to be pushed by a pressure of the fluid flowing therein; and a return valve disposed in the return channel and configured to take an open position by being pushed by the operating pin .
A method for controlling an X-ray projection imaging device comprising the steps: - applying preferences (P) for a serial radiography image acquisition to the X-ray projection imaging device , - executing the serial radiography image acquisition with the X-ray projection imaging device , - recording data frames (DF) at different times during the serial radiography image acquisition, - applying a trigger signal (T) to the X-ray projection imaging device during the serial radiography image acquisition, - generating a snapshot image (S) from a subset of the data frames (DF), wherein this data frame subset (DFs) is chosen from the recorded data frames (DF) based on the trigger signal (T), wherein after a trigger signal (T) is applied, at least for the time where data frames (DF) are recorded for generating the snapshot image (S) - the image receptor dose per data frame (DF) is adapted, and/or - the framerate is increased, wherein the X-ray projection imaging device stays in the mode for serial radiography image acquisition. - applying preferences (P) for a serial radiography image acquisition to the X-ray projection imaging device , - executing the serial radiography image acquisition with the X-ray projection imaging device , - recording data frames (DF) at different times during the serial radiography image acquisition, - applying a trigger signal (T) to the X-ray projection imaging device during the serial radiography image acquisition, - generating a snapshot image (S) from a subset of the data frames (DF), wherein this data frame subset (DFs) is chosen from the recorded data frames (DF) based on the trigger signal (T), wherein after a trigger signal (T) is applied, at least for the time where data frames (DF) are recorded for generating the snapshot image (S) - the image receptor dose per data frame (DF) is adapted, and/or - the framerate is increased, - the image receptor dose per data frame (DF) is adapted, and/or - the framerate is increased, wherein the X-ray projection imaging device stays in the mode for serial radiography image acquisition.
A video decoding method performed by a video decoding apparatus, the video decoding method comprising: obtaining motion vector prediction mode information of a current block, from a bitstream; when the motion vector prediction mode information of the current block indicates a pre-set prediction mode, obtaining, from the bitstream, a bit representation indicating a signed direction of a motion vector difference, a bit representation indicating a pixel distance of the motion vector difference, and an index indicating a motion vector candidate from a prediction candidate list, determining the prediction candidate list including motion vectors of blocks adjacent to the current block, and determining a motion vector candidate indicated by the index from the prediction candidate list; determining the motion vector difference based on the signed direction of the motion vector difference and the pixel distance of the motion vector difference; determining a motion vector of the current block based on the motion vector candidate and the motion vector difference; and determining a reconstructed block of the current block by using a prediction block indicated by the motion vector, wherein the signed direction is one of a horizontal component of a positive sign, a horizontal component of a negative sign, a vertical component of a positive sign, and a vertical component of a negative sign, and the pixel distance is one of a sub-pel distance and an integer-pel distance, the sub-pel distance including a 1/4 pixel distance and a 1/2 pixel distance and the integer-pel distance including a 1 pixel distance. obtaining motion vector prediction mode information of a current block, from a bitstream; when the motion vector prediction mode information of the current block indicates a pre-set prediction mode, obtaining, from the bitstream, a bit representation indicating a signed direction of a motion vector difference, a bit representation indicating a pixel distance of the motion vector difference, and an index indicating a motion vector candidate from a prediction candidate list, determining the prediction candidate list including motion vectors of blocks adjacent to the current block, and determining a motion vector candidate indicated by the index from the prediction candidate list; determining the motion vector difference based on the signed direction of the motion vector difference and the pixel distance of the motion vector difference; determining a motion vector of the current block based on the motion vector candidate and the motion vector difference; and determining a reconstructed block of the current block by using a prediction block indicated by the motion vector, wherein the signed direction is one of a horizontal component of a positive sign, a horizontal component of a negative sign, a vertical component of a positive sign, and a vertical component of a negative sign, and the pixel distance is one of a sub-pel distance and an integer-pel distance, the sub-pel distance including a 1/4 pixel distance and a 1/2 pixel distance and the integer-pel distance including a 1 pixel distance.