mhurhangee/ep-ind-claims huggingface dataset:
System for operating a packaging installation for products, in particular tobacco items, wherein inside a packaging installation several elements of the packaging installation, in particular packaging machines or units of the same, follow in succession inside a packaging process, and wherein, to improve the energy efficiency of the packaging installation, elements are switched into an energy-saving mode at least partially by means of at least one control unit in at least a temporary manner, in which energy-saving mode the corresponding elements require less energy than in an operating mode, and wherein programs for operating interruptions of the packaging installation and/or the elements thereof are filed in the control unit, said programs being selected depending on the anticipated duration of the operating interruption, characterized in that the operating states of the packaging installation and/or the elements thereof are detected by the control unit, and in that the anticipated duration of operating interruptions is determined as a result of the detected data on the basis of statistical calculations or probability calculations
A method for dynamically determining a size of a partition, comprising: receiving, by a computing device, a continuous data stream related to an application; identifying, by the computing device, an input geometry associated with the continuous data stream, the input geometry specifying a region in the continuous data stream to be partitioned; generating, by the computing device, a cluster of geometries based at least in part on the input geometry; generating, by the computing device, an output geometry based at least in part on the cluster of geometries and a number of geometries in each cluster of the cluster of geometries; determining, by the computing device, one or more partitions for the output geometry based on the cluster of geometries and the number of geometries in each cluster of the cluster of geometries; dynamically, by the computing device, changing a size of the one or more partitions for the output geometry; and transmitting, by the computing device, the output geometry associated with the continuous data stream to one or more event sinks (910, 912) to notify notable events in the continuous data stream. receiving, by a computing device, a continuous data stream related to an application; identifying, by the computing device, an input geometry associated with the continuous data stream, the input geometry specifying a region in the continuous data stream to be partitioned; generating, by the computing device, a cluster of geometries based at least in part on the input geometry; generating, by the computing device, an output geometry based at least in part on the cluster of geometries and a number of geometries in each cluster of the cluster of geometries; determining, by the computing device, one or more partitions for the output geometry based on the cluster of geometries and the number of geometries in each cluster of the cluster of geometries; dynamically, by the computing device, changing a size of the one or more partitions for the output geometry; and transmitting, by the computing device, the output geometry associated with the continuous data stream to one or more event sinks (910, 912) to notify notable events in the continuous data stream.
A flight control device outputting actuator steering commands in the yaw, pitch and roll domain from an angular velocity rate control input, wi, the flight control device controlling a rotary wing aircraft comprising at least one rotor and one fuselage, the flight control device comprising a rate controller deriving requested angular velocity, w, and requested angular acceleration, wdot, from wi and from a measured velocity rate, wg, an actuator controller deriving the actuator steering commands by an aerodynamic function, F2, being modeled by at least the aerodynamics of the rotary wing aircraft, characterized by: a torque device deriving required torque, T, corresponding to w and wdot by a torque function F1, wherein the F1 is dependent on w, wdot, the inertia of the fuselage, If, and the inertia of the rotor, Ir, the torque device being coupled between the rate controller and the actuator controller, having the outputs w and wdot from the rate controller as inputs and providing T as an input to the actuator controller.
A process for converting feedstock comprising biomass and/or carbon-containing solid waste material to synthesis gas, the process comprising the following steps: (a) densifying the feedstock; (b) pressurizing the densified feedstock in a pressurization unit; (c) supplying the feedstock from step (b) to a single gasifier, the single gasifier comprising a fluidized bed zone and a post-gasification zone, the post-gasification zone being a freeboard zone, wherein optionally the gasifier is a refractory-lined reactor; (d) converting the feedstock to a synthesis gas product by contacting the feedstock with a gasification agent in the gasifier; and (e) recovering the synthesis gas from the product produced in step (d), wherein recovering the synthesis gas comprises separating at least a portion of CO 2 from the product produced in step (d) and recycling at least a portion of the separated CO 2 to the pressurization unit and recycling at least another portion of the separated CO 2 to the gasifier further comprising operating the fluidized bed and post-gasification zones (107, 108) at a pressure of between about 1000 kPa to 3000 kPa, wherein densifying the feedstock in step (a) takes place in a densification unit, wherein the densifying comprises pelletizing the feedstock in a pelletizer unit. (a) densifying the feedstock; (b) pressurizing the densified feedstock in a pressurization unit; (c) supplying the feedstock from step (b) to a single gasifier, the single gasifier comprising a fluidized bed zone and a post-gasification zone, the post-gasification zone being a freeboard zone, wherein optionally the gasifier is a refractory-lined reactor; (d) converting the feedstock to a synthesis gas product by contacting the feedstock with a gasification agent in the gasifier; and (e) recovering the synthesis gas from the product produced in step (d), wherein recovering the synthesis gas comprises separating at least a portion of CO 2 from the product produced in step (d) and recycling at least a portion of the separated CO 2 to the pressurization unit and recycling at least another portion of the separated CO 2 to the gasifier further comprising operating the fluidized bed and post-gasification zones (107, 108) at a pressure of between about 1000 kPa to 3000 kPa, wherein densifying the feedstock in step (a) takes place in a densification unit, wherein the densifying comprises pelletizing the feedstock in a pelletizer unit. wherein recovering the synthesis gas comprises separating at least a portion of CO 2 from the product produced in step (d) and recycling at least a portion of the separated CO 2 to the pressurization unit and recycling at least another portion of the separated CO 2 to the gasifier further comprising operating the fluidized bed and post-gasification zones (107, 108) at a pressure of between about 1000 kPa to 3000 kPa, wherein densifying the feedstock in step (a) takes place in a densification unit, wherein the densifying comprises pelletizing the feedstock in a pelletizer unit.
Pharmaceutical composition containing a corticosteroid together with exosomes in the presence or absence of a cytokine antagonist and/or a growth factor, wherein the exosomes can be manufactured by a method comprising the steps: Provision of a blood sample containing exosomes and preferably increasing the concentration of the exosomes.
A bogie axle assembly comprising: an axle housing; an axle shaft that is disposed in the axle housing and rotates about an axis; a planetary gear set disposed in the axle housing, the planetary gear set including: a sun gear disposed proximate the axle shaft; a ring gear disposed proximate the axle housing; a plurality of planet gears disposed between the sun gear and the ring gear; and a planet gear carrier that is coupled to the plurality of planet gears, and characterized by the planet gear carrier having a planet gear carrier hole through which the axle shaft extends; a drive sprocket unit that is fixedly disposed on the planet gear carrier, the drive sprocket unit including an inner sprocket and an outer sprocket; a spindle that is fixedly disposed on the axle housing, the spindle having a spindle hole that receives the drive sprocket unit; and a first roller bearing assembly that is disposed on the spindle and rotatably supports the drive sprocket unit. an axle housing; an axle shaft that is disposed in the axle housing and rotates about an axis; a planetary gear set disposed in the axle housing, the planetary gear set including: a sun gear disposed proximate the axle shaft; a ring gear disposed proximate the axle housing; a plurality of planet gears disposed between the sun gear and the ring gear; and a planet gear carrier that is coupled to the plurality of planet gears, and characterized by the planet gear carrier having a planet gear carrier hole through which the axle shaft extends; a sun gear disposed proximate the axle shaft; a ring gear disposed proximate the axle housing; a plurality of planet gears disposed between the sun gear and the ring gear; and a planet gear carrier that is coupled to the plurality of planet gears, a drive sprocket unit that is fixedly disposed on the planet gear carrier, the drive sprocket unit including an inner sprocket and an outer sprocket; a spindle that is fixedly disposed on the axle housing, the spindle having a spindle hole that receives the drive sprocket unit; and a first roller bearing assembly that is disposed on the spindle and rotatably supports the drive sprocket unit.
A liquid-material discharge device, comprising: a liquid-material discharge head of handy type including a nozzle, a liquid reservoir, and a pickup member (15; 19) that is arranged next to the nozzle and; a suction tube configured to supply negative-pressure air to the pickup member (15; 19); characterized in that it further comprises a pressurizing tube configured to supply pressurized air to the liquid reservoir; and a controller configured to supply pressurized air to the pressurizing tube and supply negative-pressure air to the suction tube; whereby, the pickup member (15; 19) is configured to pick up and releasably hold a target object by generating negative pressure at a distal end portion. a liquid-material discharge head of handy type including a nozzle, a liquid reservoir, and a pickup member (15; 19) that is arranged next to the nozzle and; a suction tube configured to supply negative-pressure air to the pickup member (15; 19); characterized in that it further comprises a pressurizing tube configured to supply pressurized air to the liquid reservoir; and a controller configured to supply pressurized air to the pressurizing tube and supply negative-pressure air to the suction tube; whereby, the pickup member (15; 19) is configured to pick up and releasably hold a target object by generating negative pressure at a distal end portion. a pressurizing tube configured to supply pressurized air to the liquid reservoir; and a controller configured to supply pressurized air to the pressurizing tube and supply negative-pressure air to the suction tube; whereby, the pickup member (15; 19) is configured to pick up and releasably hold a target object by generating negative pressure at a distal end portion.
A microcapsule comprising a core containing vitamin B3 (1, 2), characterised by a coating layer system comprising an inner layer of shellac, an outer layer of shellac and a pH-modulating substance (5, 6) provided between the two layers of shellac (3, 4).
Method of producing a cast material from liquid metal, in which the liquid metal is poured into a moving casting mould, which is formed between cooling blocks mounted at support elements which are moved in a transport direction along two oppositely arranged endless horizontal circulation paths, wherein an upper caterpillar (14.1) and a lower caterpillar (14.2) are formed by the support elements moved along the circulation paths, wherein the inclination of the upper and/or the lower caterpillar (14.1, 14.2) in the direction of its longitudinal axis relative to the respective other caterpillar (14.2, 14.1) is changed in that at least one actuator is activated by a control device, characterised in that the actuator is operatively connected with a frame device, on which a guide rail (12.1, 12.2) forming the endless circulation path for the caterpillar (14.1, 14.2) is mounted, and the inclination of a unit, which is formed from the upper and lower caterpillar (14.1, 14.2), relative to the horizontal and/or of one caterpillar (14.1, 14.2) relative to the respective other caterpillar (14.2, 14.1) is automatically set or changed by the control device in dependence on a predetermined process variable during the casting process in that the at least one actuator is automatically regulated in force by the control device in dependence on the predetermined process variable and this process variable is a contact force with respect to a lateral guide device.
Hand-held power tool comprising a tool holder for supporting a tool on a working axis, a striking mechanism having a striker moved periodically at an impact rate along the working axis between a turning point close to the tool and a turning point remote from the tool, a drive controller of the striking mechanism that adjusts the impact rate to a desired value, an absorber having an oscillator movable along the working axis about a rest position and one or more springs driving the oscillator back into the rest position, a sensor for determining a first phase of a compression point of the striking mechanism and a sensor for determining a second phase of a reversal point of the absorber close to the tool, characterised by a damping controller that adapts the desired value in such a manner that the phase difference between the first phase and the second phase is smaller than a threshold value by increasing the desired value when the first phase lags behind the second phase and reducing the desired value when the first phase is ahead of the second phase.
A device for cleaning smoke removal equipment having a globally planar free surface and through which smoke to be cleaned flows during the use of the smoke removal equipment, this device including bars for dispensing a pressurized fluid, said bars: - extending lengthwise substantially parallel to one another, while being distributed transversely relative to their longitudinal direction, and - are suitable for being arranged, during use, across from the free surface of the smoke removal equipment, each bar being provided with elements (11, 12) that are distributed along the length of the bar and which, during use, emit fluid jets (J11, J12) that are each centered on an axis (Z11, Z12) and that are intended to clean the free surface of the smoke removal equipment, characterized in that the bars are, during use, located at a distance from the free surface of the smoke removal equipment, which is comprised between 120 and 400 mm, and in that each of the elements (11, 12) is suitable for orienting its fluid jet (J11, J12) such that the axis (Z11, Z12) of the fluid jet forms an angle (α) comprised between 15 and 35° relative to the free surface of the smoke removal equipment. - extending lengthwise substantially parallel to one another, while being distributed transversely relative to their longitudinal direction, and - are suitable for being arranged, during use, across from the free surface of the smoke removal equipment, each bar being provided with elements (11, 12) that are distributed along the length of the bar and which, during use, emit fluid jets (J11, J12) that are each centered on an axis (Z11, Z12) and that are intended to clean the free surface of the smoke removal equipment, characterized in that the bars are, during use, located at a distance from the free surface of the smoke removal equipment, which is comprised between 120 and 400 mm, and in that each of the elements (11, 12) is suitable for orienting its fluid jet (J11, J12) such that the axis (Z11, Z12) of the fluid jet forms an angle (α) comprised between 15 and 35° relative to the free surface of the smoke removal equipment.
A method for selecting promoter elements, comprising: (a) providing a plurality of transcription factor regulatory elements (TFREs), wherein each of the plurality of TFREs is associated with one or more of a plurality of genes, each of which is differentially expressed in a particular cell type or tissue type, or under a particular condition; and (b) selecting TFREs from among the plurality of TFREs provided in step (a), wherein each of the selected TFREs is within 20 kilobases of more than fifty percent of the plurality of genes defined in step (a), and has a SYN value larger than 0.3, wherein the SYN value of a TFRE is defined as frequency (1/length), wherein frequency is its frequency within 20 kilobases of any of the plurality of the genes and length is the length in nucleotides of the TFRE, and wherein frequency is defined as the number of occurrences of a given TFRE being associated with any of the plurality of genes, divided by the total number of TFREs associated with any of the plurality of genes. (a) providing a plurality of transcription factor regulatory elements (TFREs), wherein each of the plurality of TFREs is associated with one or more of a plurality of genes, each of which is differentially expressed in a particular cell type or tissue type, or under a particular condition; and (b) selecting TFREs from among the plurality of TFREs provided in step (a), wherein each of the selected TFREs is within 20 kilobases of more than fifty percent of the plurality of genes defined in step (a), and has a SYN value larger than 0.3, wherein the SYN value of a TFRE is defined as frequency (1/length), wherein frequency is its frequency within 20 kilobases of any of the plurality of the genes and length is the length in nucleotides of the TFRE, and wherein frequency is defined as the number of occurrences of a given TFRE being associated with any of the plurality of genes, divided by the total number of TFREs associated with any of the plurality of genes.
A method for producing a semi-finished fibre-composite product, the semi-finished fibre-composite product comprising carbon fibres and a matrix material, wherein the semi-finished fibre-composite product is present as a tape, band or fibre bundle (tow), characterised by the following steps: a) producing the carbon fibres, and b) applying the matrix material to the unchanged carbon fibres, wherein step b) is carried out directly following step a) without a further processing step. a) producing the carbon fibres, and b) applying the matrix material to the unchanged carbon fibres, wherein step b) is carried out directly following step a) without a further processing step.
A method of transmitting a signal, comprising: determining, by a first device, a first numerology used to transmit a signal; determining, by the first device, a first precoding granularity which is used to transmit the signal based on the first numerology; performing, by the first device, transmission of the signal with a second device using the first precoding granularity, wherein determining, by the first device, a first precoding granularity which is used to transmit the signal based on the first numerology comprises: determining the first precoding granularity based on a first frequency point and a subcarrier spacing, wherein the first frequency point is a frequency point for transmitting the signal, wherein determining the first precoding granularity based on a first frequency point and a subcarrier spacing comprises: determining the first precoding granularity based on the subcarrier spacing, the first frequency point and a third correspondence, wherein the third correspondence indicates an association of at least one frequency point, at least one subcarrier spacing and at least one precoding granularity. determining, by a first device, a first numerology used to transmit a signal; determining, by the first device, a first precoding granularity which is used to transmit the signal based on the first numerology; performing, by the first device, transmission of the signal with a second device using the first precoding granularity, wherein determining, by the first device, a first precoding granularity which is used to transmit the signal based on the first numerology comprises: determining the first precoding granularity based on a first frequency point and a subcarrier spacing, wherein the first frequency point is a frequency point for transmitting the signal, wherein determining the first precoding granularity based on a first frequency point and a subcarrier spacing comprises: determining the first precoding granularity based on the subcarrier spacing, the first frequency point and a third correspondence, wherein the third correspondence indicates an association of at least one frequency point, at least one subcarrier spacing and at least one precoding granularity.
A method for detecting a fault in a system configured to actuate a hydraulically-actuated device, the method comprising: actuating a first valve of a valve assembly in the system, the valve assembly including a conduit defining an inlet in fluid communication with a pressure source configured to provide a hydraulic fluid, an outlet in fluid communication with the hydraulically-actuated device, and a vent in fluid communication with a reservoir and/or a subsea environment, the first valve being actuated to an open position configured to direct the hydraulic fluid from the inlet to a second valve of the valve assembly; actuating the second valve to a position configured to direct the hydraulic fluid to the vent; supplying the hydraulic fluid from the pressure source through the first valve and the second valve; capturing data indicative of an actual system parameter; comparing the actual system parameter with a corresponding expected system parameter; detecting the fault when a condition is met; and actuating the first valve to a closed position configured to prevent fluid communication between the inlet and the second valve. actuating a first valve of a valve assembly in the system, the valve assembly including a conduit defining an inlet in fluid communication with a pressure source configured to provide a hydraulic fluid, an outlet in fluid communication with the hydraulically-actuated device, and a vent in fluid communication with a reservoir and/or a subsea environment, the first valve being actuated to an open position configured to direct the hydraulic fluid from the inlet to a second valve of the valve assembly; actuating the second valve to a position configured to direct the hydraulic fluid to the vent; supplying the hydraulic fluid from the pressure source through the first valve and the second valve; capturing data indicative of an actual system parameter; comparing the actual system parameter with a corresponding expected system parameter; detecting the fault when a condition is met; and actuating the first valve to a closed position configured to prevent fluid communication between the inlet and the second valve.