mhurhangee/ep-ind-claims huggingface dataset:
A method of performing a network coding by a communication node in a wireless communication system, the method comprising: receiving, from at least two user equipments, UEs, (502, 504, 506, 508), uplink packets, wherein each of the uplink packets comprises a reception holding time for the communication node for a corresponding uplink packet; grouping the received uplink packets into at least one group based on channel quality information received from the at least two UEs; determining whether the network coding of uplink packets included in each of the at least one group is performed based on channel quality information and the reception holding time of the respective received uplink packets; and transmitting, to the at least two UEs, scheduling information corresponding to a group of the at least one group to which a UE receiving the scheduling information belongs, and transmitting, to the at least two UEs, a network coded uplink packet based on the scheduling information. receiving, from at least two user equipments, UEs, (502, 504, 506, 508), uplink packets, wherein each of the uplink packets comprises a reception holding time for the communication node for a corresponding uplink packet; grouping the received uplink packets into at least one group based on channel quality information received from the at least two UEs; determining whether the network coding of uplink packets included in each of the at least one group is performed based on channel quality information and the reception holding time of the respective received uplink packets; and transmitting, to the at least two UEs, scheduling information corresponding to a group of the at least one group to which a UE receiving the scheduling information belongs, and transmitting, to the at least two UEs, a network coded uplink packet based on the scheduling information.
A laminated vacuum insulated glass unit comprising a vacuum insulated glass unit comprising first and second glass sheets (2a, 2b) separated by support structures to provide a gap between the glass sheets (2a, 2b), and an edge-sealing enclosing and sealing said gap, an evacuation hole extending to the gap and arranged in said first glass sheet, a recessed portion in the outer surface of the first glass sheet, wherein said recessed portion encloses said evacuation hole, a sealing system sealing the evacuation hole, wherein the sealing system is arranged in said recessed portion and, a lamination layer arranged between a further sheet and the first glass sheet, wherein a part of said sealing system extends into a hole in the further sheet, and wherein an enclosure device comprising one or more walls (16a, 16b) encloses at least a part of said sealing system, the laminated VIG unit being characterised in that the enclosure device extends into said hole in the further sheet and into said recessed portion. a vacuum insulated glass unit comprising first and second glass sheets (2a, 2b) separated by support structures to provide a gap between the glass sheets (2a, 2b), and an edge-sealing enclosing and sealing said gap, an evacuation hole extending to the gap and arranged in said first glass sheet, a recessed portion in the outer surface of the first glass sheet, wherein said recessed portion encloses said evacuation hole, a sealing system sealing the evacuation hole, wherein the sealing system is arranged in said recessed portion and, a lamination layer arranged between a further sheet and the first glass sheet, wherein a part of said sealing system extends into a hole in the further sheet, and wherein an enclosure device comprising one or more walls (16a, 16b) encloses at least a part of said sealing system, the laminated VIG unit being characterised in that the enclosure device extends into said hole in the further sheet and into said recessed portion.
Process for the production of a tyre, characterized in that it comprises at least the following steps: - extrusion at least of one unvulcanized rubber mixture and then division into lengths for the formation of at least one unvulcanized tyre component and - application, onto the extruded unvulcanized tyre component after the extrusion process, of a layer made of an aqueous polymer emulsion which comprises at least one polymer, in order to form a coated unvulcanized tyre component, and - removal of the water content of the aqueous polymer emulsion by evaporation from the coated tyre component and - application of the coated tyre component to an unvulcanized carcass for the production of an unvulcanized tyre blank and - vulcanization of the tyre blank, where the aqueous emulsion applied comprises vulcanizing agents. - extrusion at least of one unvulcanized rubber mixture and then division into lengths for the formation of at least one unvulcanized tyre component and - application, onto the extruded unvulcanized tyre component after the extrusion process, of a layer made of an aqueous polymer emulsion which comprises at least one polymer, in order to form a coated unvulcanized tyre component, and - removal of the water content of the aqueous polymer emulsion by evaporation from the coated tyre component and - application of the coated tyre component to an unvulcanized carcass for the production of an unvulcanized tyre blank and - vulcanization of the tyre blank,
Olaparib for use in a method of treating cancer in a patient, where the patient is treated with posaconazole, wherein said method comprises: (a) treating the patient with posaconazole; (b) stopping posaconazole treatment; and then (c) treating the patient with a reduced dose of olaparib (relative to a reference dose of olaparib) for a time period of 2-42 days after stopping posaconazole treatment, which time period starts the day after stopping posaconazole treatment. (a) treating the patient with posaconazole; (b) stopping posaconazole treatment; and then (c) treating the patient with a reduced dose of olaparib (relative to a reference dose of olaparib) for a time period of 2-42 days after stopping posaconazole treatment, which time period starts the day after stopping posaconazole treatment.
Use of a modified starch gel composition for producing hard empty capsules said modified starch gel composition being composed of a starch aqueous solution modified with a debranching enzyme, wherein the modified starch gel composition has a degree of branching that is reduced by 30% to 100% and a viscosity of 500 to 5,000 cps, and is prepared by a method comprising steps of: fully dissolving a starch in water (1:2-1:10 wt/wt) at 85°C to obtain an aqueous starch solution; adding a debranching enzyme to the starch solution and reacting at 40-70°C for 0.5-5 hour, wherein the amount of the debranching enzyme is 0.00001% to 5% of the weight of the starch; heating the mixture to 80°C or above to inactivate the debranching enzyme; and cooling the mixture to 40-70 °C to obtain the modified starch gel composition. fully dissolving a starch in water (1:2-1:10 wt/wt) at 85°C to obtain an aqueous starch solution; adding a debranching enzyme to the starch solution and reacting at 40-70°C for 0.5-5 hour, wherein the amount of the debranching enzyme is 0.00001% to 5% of the weight of the starch; heating the mixture to 80°C or above to inactivate the debranching enzyme; and cooling the mixture to 40-70 °C to obtain the modified starch gel composition.
A method for determining at least one parameter related to charged particles emitted from a particle emitting sample, comprising the steps of: forming a particle beam of said charged particles and transporting the particles between said particle emitting sample and an entrance of a measurement region by means of a lens system having a substantially straight optical axis; deflecting the particle beam in at least a first coordinate direction (x, y) perpendicular to the optical axis of the lens system before entrance of the particle beam into the measurement region, detecting the positions of said charged particles in said measurement region, the positions being indicative of said at least one parameter, wherein detecting the positions of the charged particles involves detection of the positions in two dimensions, one of which is indicative of the energies of the particles and one of which is indicative of the start directions of the particles, characterised in that the method further comprises the step of deflecting the particle beam in the same at least first coordinate direction (x, y) at least a second time before entrance of the particle beam into the measurement region and controlling the deflections of the particle beam such that a predetermined part (A, B) of the angular distribution of the particles forming the particle beam passes the entrance of the measurement region, wherein a series of different predetermined parts are successively recorded. forming a particle beam of said charged particles and transporting the particles between said particle emitting sample and an entrance of a measurement region by means of a lens system having a substantially straight optical axis; deflecting the particle beam in at least a first coordinate direction (x, y) perpendicular to the optical axis of the lens system before entrance of the particle beam into the measurement region, detecting the positions of said charged particles in said measurement region, the positions being indicative of said at least one parameter, wherein detecting the positions of the charged particles involves detection of the positions in two dimensions, one of which is indicative of the energies of the particles and one of which is indicative of the start directions of the particles, the method further comprises the step of deflecting the particle beam in the same at least first coordinate direction (x, y) at least a second time before entrance of the particle beam into the measurement region and controlling the deflections of the particle beam such that a predetermined part (A, B) of the angular distribution of the particles forming the particle beam passes the entrance of the measurement region, wherein a series of different predetermined parts are successively recorded.
Sealing ring having a first sealing surface arranged on the inner circumference thereof and at least one second sealing surface (13, 14) arranged on the outer circumference thereof, wherein a compensation region (17, 18), which can be at least partially deformed in an elastic manner in the axial direction, is arranged on both end faces of the sealing ring, wherein two second sealing surfaces (13, 14) which are spaced apart in an axial manner and are arranged on a central region are provided, wherein the at least one compensation region (17, 18) connects to the central region in the axial direction, and wherein the at least one compensation region (17, 18) is arranged in the region of a central axis of the central region, said central axis extending in the longitudinal direction, wherein the first sealing surface is arranged on a sealing lip which projects radially inwards from the central region and is elastically resilient in a radial manner, and that the first sealing surface, when viewed in the axial direction, is arranged approximately centrally between the two second sealing surfaces (13, 14), characterized in that the at least one compensation region (17, 18) has a width which is smaller than the width of the central region, and in that the compensation region (17, 18) has a rectangular first region, to which connects a second region which is semi-circular in cross section.
A detection device comprising: a disk having a holding chamber separated from a process chamber by a valve; a motor to rotate the disk, and a single energy source configured to output electromagnetic energy at a first energy level to determine a position of the disk and at a second energy level to open the valve to permit fluid to flow from the holding chamber to the process chamber, wherein the first energy level is different from the second energy level. a disk having a holding chamber separated from a process chamber by a valve; a motor to rotate the disk, and a single energy source configured to output electromagnetic energy at a first energy level to determine a position of the disk and at a second energy level to open the valve to permit fluid to flow from the holding chamber to the process chamber, wherein the first energy level is different from the second energy level.
Handling trolley capable of moving a case element comprising a primary opening defined by a primary frame, this trolley comprising: - a chassis whereon are assembled at least one directing caster and a secured caster; - a vertical frame secured to the chassis and substantially perpendicular to it; - a mobile piece of equipment assembled sliding on the frame the mobile piece of equipment comprising: - handles; - a primary support capable of receiving the case element through the primary frame, characterised in that it comprises: - a balancing device secured to the chassis; and connected to the equipment 17. - a chassis whereon are assembled at least one directing caster and a secured caster; - a vertical frame secured to the chassis and substantially perpendicular to it; - a mobile piece of equipment assembled sliding on the frame the mobile piece of equipment comprising: - handles; - a primary support capable of receiving the case element through the primary frame, - handles; - a primary support capable of receiving the case element through the primary frame, - a balancing device secured to the chassis;
A rapid pyrolysis method for converting biomass or non-biomass feedstock into liquid product comprising: mixing feedstock with solid heat carriers in a reactor to thermally convert the feedstock into a vapor stream at a conversion temperature of between 350 and 600 °C; separating the solid heat carriers from the vapor stream; quenching the vapor stream in a condensing chamber (50, 60) to condense the vapor stream into liquid product; and collecting liquid product from the condensing chamber, characterized in that the vapor stream is rapidly quenched with a downward flow of a quench media to a temperature of less than 50 °C in less than 100 ms, wherein the quench media is poured down on the vapor stream at a flow rate in the range of 50 to 100 gallons per minute per 1 square feet (2037,3 to 4074,6 liter per minute per square meter) of a cross-sectional area of the condensing chamber (50,60). mixing feedstock with solid heat carriers in a reactor to thermally convert the feedstock into a vapor stream at a conversion temperature of between 350 and 600 °C; separating the solid heat carriers from the vapor stream; quenching the vapor stream in a condensing chamber (50, 60) to condense the vapor stream into liquid product; and collecting liquid product from the condensing chamber, characterized in that the vapor stream is rapidly quenched with a downward flow of a quench media to a temperature of less than 50 °C in less than 100 ms, wherein the quench media is poured down on the vapor stream at a flow rate in the range of 50 to 100 gallons per minute per 1 square feet (2037,3 to 4074,6 liter per minute per square meter) of a cross-sectional area of the condensing chamber (50,60).
An information processing device for providing modeling information for performing a three-dimensional object modeling process using a three-dimensional modeled object as a copy source, the information processing device comprising: an accumulation unit configured to accumulate a plurality of three-dimensional object information sets, each of which defines a structure of a three-dimensional modeled object and each including corresponding surface shape information, wherein the information processing device is configured to receive surface shape information generated by a scanning unit; a searching unit configured to, based on the generated surface shape information, search the accumulation unit for a three-dimensional object information set to be used for modeling; and an extraction unit configured to extract a modeling condition used in the modeling of the copy source from the generated surface shape information, wherein the information processing device is configured to transmit to a modeling unit the three-dimensional object information set found by the searching unit and the extracted modeling condition to cause the modeling unit to model a three-dimensional object as a copy of the copy source. an accumulation unit configured to accumulate a plurality of three-dimensional object information sets, each of which defines a structure of a three-dimensional modeled object and each including corresponding surface shape information, wherein the information processing device is configured to receive surface shape information generated by a scanning unit; a searching unit configured to, based on the generated surface shape information, search the accumulation unit for a three-dimensional object information set to be used for modeling; and an extraction unit configured to extract a modeling condition used in the modeling of the copy source from the generated surface shape information, wherein the information processing device is configured to transmit to a modeling unit the three-dimensional object information set found by the searching unit and the extracted modeling condition to cause the modeling unit to model a three-dimensional object as a copy of the copy source.
An apparatus for introducing a solution into a body cavity comprising: a hub comprising a proximal end portion adapted for removable attachment to a solution source and a distal end portion, a lumen having a variable diameter and extending between the hub proximal and distal end portions, an airflow passage in communication with the lumen, wherein the lumen diameter is constricted between the hub proximal and distal end portions and wherein at least a portion of the constricted lumen is in communication with the airflow passage; a catheter comprising a distal end portion and a proximal end portion and at least one lumen extending between the distal and proximal end portions, the proximal end portion of the catheter removably attached to the hub distal end portion. a hub comprising a proximal end portion adapted for removable attachment to a solution source and a distal end portion, a lumen having a variable diameter and extending between the hub proximal and distal end portions, an airflow passage in communication with the lumen, wherein the lumen diameter is constricted between the hub proximal and distal end portions and wherein at least a portion of the constricted lumen is in communication with the airflow passage; a proximal end portion adapted for removable attachment to a solution source and a distal end portion, a lumen having a variable diameter and extending between the hub proximal and distal end portions, an airflow passage in communication with the lumen, wherein the lumen diameter is constricted between the hub proximal and distal end portions and wherein at least a portion of the constricted lumen is in communication with the airflow passage; a catheter comprising a distal end portion and a proximal end portion and at least one lumen extending between the distal and proximal end portions, the proximal end portion of the catheter removably attached to the hub distal end portion.
Method of producing a vacuum insulated glazing unit comprising: - providing a first and second substantially parallel panes (1,2), a plurality of pillars and a peripheral seal provided between the first and second panes (1,2), where in the first pane there is provided an evacuation hole for evacuating a void through the evacuation hole to a pressure less than atmospheric pressure; - on a glass pane face, covering the evacuation hole with an evacuation head, the evacuation head adapted to have a substantially hermetic contact to the glass pane face; - evacuating the void through the evacuation head; - wherein the evacuation head has a heating element; and - heating the heating element and sealing off an evacuation tube tip of an evacuation tube comprised in the evacuation hole, the method being characterized in that the heating element is a ceramic heating element. - providing a first and second substantially parallel panes (1,2), a plurality of pillars and a peripheral seal provided between the first and second panes (1,2), where in the first pane there is provided an evacuation hole for evacuating a void through the evacuation hole to a pressure less than atmospheric pressure; - on a glass pane face, covering the evacuation hole with an evacuation head, the evacuation head adapted to have a substantially hermetic contact to the glass pane face; - evacuating the void through the evacuation head; - wherein the evacuation head has a heating element; and - heating the heating element and sealing off an evacuation tube tip of an evacuation tube comprised in the evacuation hole,
A method for mitigating memory imprinting in volatile memory of a computer system comprising a volatile memory wherein the method is characterized by: providing a computer system with a data bus inverter module located on a data bus (126, 128) between a processor and the volatile memory, and a bus mode control module in communication with the data bus inverter module; determining, by the bus mode control module at system power-up, whether to select a normal mode or an inversion mode for a current power cycle; inverting, when operating in the inversion mode, certain memory address contents when copying system non-volatile memory to the volatile memory at system power-up, where inverting includes swapping values of logical ones and zeroes; running an application program by the processor; inverting, by the data bus inverter module when operating in the inversion mode, data bits from the certain memory addresses of the volatile memory flowing in and out of the processor on the data bus (126,128); tracking, by the bus mode control module, cumulative system times operating in the normal mode and the inversion mode; and writing the cumulative system times to a bus mode non-volatile memory module, at system power-down, for use in determining which mode to select at a next system power-up. providing a computer system with a data bus inverter module located on a data bus (126, 128) between a processor and the volatile memory, and a bus mode control module in communication with the data bus inverter module; determining, by the bus mode control module at system power-up, whether to select a normal mode or an inversion mode for a current power cycle; inverting, when operating in the inversion mode, certain memory address contents when copying system non-volatile memory to the volatile memory at system power-up, where inverting includes swapping values of logical ones and zeroes; running an application program by the processor; inverting, by the data bus inverter module when operating in the inversion mode, data bits from the certain memory addresses of the volatile memory flowing in and out of the processor on the data bus (126,128); tracking, by the bus mode control module, cumulative system times operating in the normal mode and the inversion mode; and writing the cumulative system times to a bus mode non-volatile memory module, at system power-down, for use in determining which mode to select at a next system power-up.