mhurhangee/ep-ind-claims huggingface dataset:
Fluid displacement device configured for generating a flow within a fluid, the fluid displacement device comprising: - an airflow duct with an inner surface configured to accommodate a flow of fluid (1A, 1B) to flow from an inlet to an outlet of the fluid displacement device; - a number of corona electrodes disposed in the airflow duct wherein each of the corona electrodes comprises an elongated body (6A2) with a distal end and a proximal end, the distal end is provided with a tip (6A1) configured to generate a corona discharge; and - a non-corona electrode downstream the corona electrodes, wherein the tips (6A1) of the corona electrodes are positioned at a predefined distance (d) from the non-corona electrode, wherein the predefined distance corresponds to the shortest distance between a surface of each of the corona electrodes and the non-corona-electrode and the proximal end joins the inner surface of the airflow duct at a distance from the non-corona electrode which is longer than the predefined distance, wherein the proximal ends are attached to a conductive ring-shaped element (6A3) characterized in that the electrical resistivity ρ of the conductive ring-shaped element (6A3) falls within the range: 0,001 ohm·metre < ρ < 1000 ohm·metre. - an airflow duct with an inner surface configured to accommodate a flow of fluid (1A, 1B) to flow from an inlet to an outlet of the fluid displacement device; - a number of corona electrodes disposed in the airflow duct wherein each of the corona electrodes comprises an elongated body (6A2) with a distal end and a proximal end, the distal end is provided with a tip (6A1) configured to generate a corona discharge; and - a non-corona electrode downstream the corona electrodes,
A syringe packaging system, comprising: a pre-filled syringe, comprising: a syringe barrel having a proximal end, a distal end, and a sidewall extending therebetween and defining a chamber, the proximal end having a flange; a fluid disposed within the chamber of the syringe barrel; a stopper slidably disposed within the chamber of the syringe barrel; and a plunger rod having a proximal end, a distal end engageable with a portion of the stopper; and a shell enclosing the syringe barrel and having a proximal end and a distal end, the proximal end including a syringe flange surrounding portion having a top wall that defines a shell proximal aperture, a bottom wall, and a sidewall extending therebetween, characterized in that the plunger rod having a proximal disk and a distal disk wherein with the syringe barrel enclosed within the shell, the proximal disk of the plunger rod limits movement of the plunger rod in a distal direction and the distal disk of the plunger rod limits movement of the plunger rod in a proximal direction. a syringe barrel having a proximal end, a distal end, and a sidewall extending therebetween and defining a chamber, the proximal end having a flange; a fluid disposed within the chamber of the syringe barrel; a stopper slidably disposed within the chamber of the syringe barrel; and a plunger rod having a proximal end, a distal end engageable with a portion of the stopper; and a shell enclosing the syringe barrel and having a proximal end and a distal end, the proximal end including a syringe flange surrounding portion having a top wall that defines a shell proximal aperture, a bottom wall, and a sidewall extending therebetween, characterized in that the plunger rod having a proximal disk and a distal disk wherein with the syringe barrel enclosed within the shell, the proximal disk of the plunger rod limits movement of the plunger rod in a distal direction and the distal disk of the plunger rod limits movement of the plunger rod in a proximal direction.
A closed- fluidic sorting system comprising: a detection component configured to detect a particle of interest (106, 208) in a particle flow stream at an interrogation point; and a movable catcher tube configured to be activated to move into a position to receive the detected particle of interest (106, 208) flowing from the interrogation point when the particle of interest (106, 208) is detected at the interrogation point a flow-through chamber (102, 206) configured to receive the particle (106, 208) from the movable catcher tube, wherein the flow-through chamber (102, 206) consists of a single fluid entry port, a single fluid exit port and a particle immobilization component (104, 210) positioned therebetween; wherein the particle immobilization component (104, 210) is configured to reversibly immobilize the particle (106, 208) within the flow-through chamber (102, 206). a detection component configured to detect a particle of interest (106, 208) in a particle flow stream at an interrogation point; and a movable catcher tube configured to be activated to move into a position to receive the detected particle of interest (106, 208) flowing from the interrogation point when the particle of interest (106, 208) is detected at the interrogation point a flow-through chamber (102, 206) configured to receive the particle (106, 208) from the movable catcher tube, wherein the flow-through chamber (102, 206) consists of a single fluid entry port, a single fluid exit port and a particle immobilization component (104, 210) positioned therebetween; wherein the particle immobilization component (104, 210) is configured to reversibly immobilize the particle (106, 208) within the flow-through chamber (102, 206).
An image processing apparatus comprising: a first correction unit configured to correct, without closing a shutter, imaging data acquired from an infrared imaging device that captures a thermal image outside of a mobile body, based on a preset first correction table, and output first corrected data having been corrected; a second correction unit configured to generate a second correction table for the imaging data in a state in which the shutter is closed, and output second corrected data having been corrected based on the generated second correction table; a saturated region detection unit configured to detect that a saturated region is present in the imaging data; a shutter control unit configured to perform closing control for the shutter for protecting the infrared imaging device based on a result of detection of the saturated region; an abnormal pixel detection unit configured to detect whether or not the imaging data acquired in the state in which the shutter is closed includes an abnormal pixel that is included in the first corrected data and pertains to a pixel having a luminance value exceeding a preset threshold; and a selection unit configured to select and output either the first corrected data or the second corrected data in accordance with a result of detection by the abnormal pixel detection unit. a first correction unit configured to correct, without closing a shutter, imaging data acquired from an infrared imaging device that captures a thermal image outside of a mobile body, based on a preset first correction table, and output first corrected data having been corrected; a second correction unit configured to generate a second correction table for the imaging data in a state in which the shutter is closed, and output second corrected data having been corrected based on the generated second correction table; a saturated region detection unit configured to detect that a saturated region is present in the imaging data; a shutter control unit configured to perform closing control for the shutter for protecting the infrared imaging device based on a result of detection of the saturated region; an abnormal pixel detection unit configured to detect whether or not the imaging data acquired in the state in which the shutter is closed includes an abnormal pixel that is included in the first corrected data and pertains to a pixel having a luminance value exceeding a preset threshold; and a selection unit configured to select and output either the first corrected data or the second corrected data in accordance with a result of detection by the abnormal pixel detection unit.
Apparatus for coating profiles, comprising a transport system for the profiles, a measuring device for measuring the transport speed of the profiles, and an applying device for applying onto the profiles a coating material that is withdrawn from a roll as an endless web, characterized by a rotary speed measuring device for measuring the rotary speed of the roll, and an evaluation device for calculating the length of the web present on the roll on the basis of the rotary speed and the transport speed.
A carbon nanotube fiber comprising an assembly of a plurality of carbon nanotubes, wherein the plurality of carbon nanotubes includes one or more carbon nanotubes having at least partially collapsed structures, and the density of the carbon nanotube fiber is at least 1.0 g/cm 3 and no greater than 1.5 g/cm 3.
A processed food composition, comprising: between 60 and 300 calories; between 6 and 35 grams of protein; between 1 and 30 grams of carbohydrate; and between 1 and 6 grams of fat, wherein the fat comprises between 100 and 1000 milligrams DHA, and wherein the number of calories provided by protein in the composition compared to the number of calories provided by carbohydrate and fat produces a ratio of at least 0.5:1. between 60 and 300 calories; between 6 and 35 grams of protein; between 1 and 30 grams of carbohydrate; and between 1 and 6 grams of fat,
An HME material (500,600a,600b,600c,800) for use in heat and moisture exchange with respiratory gases comprising a plurality of discrete protrusions (510a,510b,510c,610a,610b,610c,810a,810b) extending from at least part of one surface of the HME material (500,600a,600b,600c,800), characterised in that each protrusion (510a,510b,510c,610a,610b,610c,810a, 810b) is completely surrounded by substantially non-protruding HME material.
Method for providing control power for an electricity network in which at least one energy store connected to the electricity network supplies energy to the electricity network as required and/or takes up energy from the electricity network as required, characterized in that, when there is a change of the required control power, the time after the change from which a changed control power is provided by the energy store is chosen in dependence on the charging state at the given time of the energy store, in that the time lies in a time interval between the change of the required control power and a maximum time after the change, the time interval preferably depending on the type of control power requested, in particular the time interval being 30 seconds in the case of provision of primary control power, 5 minutes in the case of provision of secondary control power and 15 minutes in the case of provision of minutes reserve power, and in that, when there is a change of the required control power, positive control power is fed into the electricity network at an early time, preferably immediately, and/or negative control power is removed from the electricity network at a late time, preferably at the latest possible time, if the charging state of the energy store lies above a first limit value and/or, when there is a change of the required control power, negative control power is removed from the electricity network at an early time, preferably immediately, and/or positive control power is fed into the electricity network at a late time, preferably at the latest possible time, if the charging state of the energy store lies below a second limit value, the two limit values particularly preferably defining a desired medium charging state.
Pile driving hammer comprising a cylinder, a piston movably guided in the cylinder, a striking piece movably guided in the cylinder, which is arranged below the piston in the operating position of the pile driving hammer, a combustion chamber, which is axially delimited by an end face of the striking piece inside the cylinder and an end face of the piston, as well as a release device, by way of which the piston is movable into an upper position in the cylinder, characterised in that the release device comprises a carriage, which is connected to at least one rope, by way of which it is movably guided outside along the cylinder, wherein an outward-projecting stop is arranged at the cylinder and that at the carriage a buffer part is arranged, by means of which the carriage rests on the stop in an upper end position.
A power assembly for a garden tool, comprising: a housing, a driving unit received in the housing and including a driving motor and a control panel assembly located upon the driving motor, and a power supplying unit received in the housing for powering the driving unit, wherein the housing has at least one heat dissipation air duct formed therein for airflow passing through the driving unit, and wherein the heat dissipation air duct has an air inlet (161; 171) for air intaking and an air outlet (162; 172) for air flowing out, and wherein the air outlet (162; 172) is located at a bottom of the housing and open towards a lateral side of the housing, wherein the power assembly is configured to be replaceable component and configured to be detachably connected to a garden tool. a housing, a driving unit received in the housing and including a driving motor and a control panel assembly located upon the driving motor, and a power supplying unit received in the housing for powering the driving unit, wherein the housing has at least one heat dissipation air duct formed therein for airflow passing through the driving unit, and wherein the heat dissipation air duct has an air inlet (161; 171) for air intaking and an air outlet (162; 172) for air flowing out, and wherein the air outlet (162; 172) is located at a bottom of the housing and open towards a lateral side of the housing, wherein the power assembly is configured to be replaceable component and configured to be detachably connected to a garden tool.
A steering column for a motor vehicle, having a rotatably mounted steering spindle and a motor-operated steering boost device for steering angle superimposition and/or torque boost, wherein the steering boost device is connected to the steering spindle by means of at least one transmission member and the steering spindle has at least two steering spindle parts (5, 6) connected to one another in a torque-transmitting manner, wherein the steering spindle parts (5, 6) are, in a region of the steering spindle between the transmission member and a steering wheel connection of the steering spindle, connected to one another by means of at least one damping body for damping vibrations transmitted via the steering spindle, characterized in that at least one of the steering spindle parts (5,6) is rotatably mounted in a casing unit of the steering column and in the damping body there is formed a cavity into which the casing unit can be pushed in the case of a deformation and/or displacement within the steering column due to a crash.
A vacuum coating device comprising: a crucible; a flow distribution box connected to the top of the crucible through a steam pipeline; a pressure regulating valve and a diverter valve sequentially arranged in a direction in which the steam pipeline is in communication with the flow distribution box; a plurality of sub-nozzles connected to the top of the flow distribution box; wherein the diverter valve is configured to uniformly distribute the steam passing through the steam pipeline to the flow distribution box corresponding to each sub-nozzle, an induction heater arranged on the outer side of the crucible; a horizontal pressure stabilizing plate arranged in the flow distribution box; a plurality of air flow distribution chambers are arranged in the diverter valve; and a ratio of a total cross-sectional area of the air flow distribution chambers in the radial direction S distribution to the cross-sectional area of the steam pipeline in the radial direction S pipeline is greater than or equal to 0.1 and less than or equal than 1, that is: S distribution / S pipeline is 0.1 to 1. a crucible; a flow distribution box connected to the top of the crucible through a steam pipeline; a pressure regulating valve and a diverter valve sequentially arranged in a direction in which the steam pipeline is in communication with the flow distribution box; a plurality of sub-nozzles connected to the top of the flow distribution box; wherein the diverter valve is configured to uniformly distribute the steam passing through the steam pipeline to the flow distribution box corresponding to each sub-nozzle, an induction heater arranged on the outer side of the crucible; a horizontal pressure stabilizing plate arranged in the flow distribution box; a plurality of air flow distribution chambers are arranged in the diverter valve; and a ratio of a total cross-sectional area of the air flow distribution chambers in the radial direction S distribution to the cross-sectional area of the steam pipeline in the radial direction S pipeline is greater than or equal to 0.1 and less than or equal than 1, that is: S distribution / S pipeline is 0.1 to 1.
A terminal configured to operate in a 3GPP system, the terminal comprising: a receiving section configured to receive a physical downlink shared channel, PDSCH, scheduled by downlink control information, DCI, from a base station; a control section configured to determine, when the number of bits of a hybrid automatic repeat request acknowledgement, HARQ-ACK, codebook is determined based on a bit string of a downlink assignment index, DAI, field included in the DCI, a codebook for a physical uplink control channel, PUCCH, transmitted with repetitions per slot, based on a total downlink assignment index, T-DAI, and a counter downlink assignment index, C-DAI, wherein the T-DAI and the C-DAI are indicated by the DAI field; and a transmitting section configured to transmit, on the PUCCH, HARQ-ACK based on the codebook, wherein the HARQ-ACK is repeated in each of the PUCCH repetitions, wherein when a period for repetitions of PUCCH transmission containing the HARQ-ACK collides with a period for transmission of an uplink control information, UCI, type which is different from the HARQ-ACK, the control section is configured to not transmit the UCI type. a receiving section configured to receive a physical downlink shared channel, PDSCH, scheduled by downlink control information, DCI, from a base station; a control section configured to determine, when the number of bits of a hybrid automatic repeat request acknowledgement, HARQ-ACK, codebook is determined based on a bit string of a downlink assignment index, DAI, field included in the DCI, a codebook for a physical uplink control channel, PUCCH, transmitted with repetitions per slot, based on a total downlink assignment index, T-DAI, and a counter downlink assignment index, C-DAI, wherein the T-DAI and the C-DAI are indicated by the DAI field; and a transmitting section configured to transmit, on the PUCCH, HARQ-ACK based on the codebook, wherein the HARQ-ACK is repeated in each of the PUCCH repetitions, wherein when a period for repetitions of PUCCH transmission containing the HARQ-ACK collides with a period for transmission of an uplink control information, UCI, type which is different from the HARQ-ACK, the control section is configured to not transmit the UCI type.
A terminal apparatus in communication with a base station apparatus, comprising: a reception unit configured to receive uplink power control configuration information via a higher layer signal; and a transmission unit configured to transmit a physical uplink shared channel upon detecting an uplink grant, and calculate a first pathloss for the base station apparatus and a second pathloss for a second base station apparatus, set a transmit power of the physical uplink shared channel based on a first measurement target configuration, first uplink power control information and the first pathloss in a case that the physical uplink shared channel is transmitted to the base station apparatus on a first subframe of a first subframe set, and set a transmit power of the physical uplink shared channel based on a second measurement target configuration, second uplink power control information and the second pathloss in a case that the physical uplink shared channel is transmitted to the second base station apparatus on a second subframe of a second subframe set. a reception unit configured to receive uplink power control configuration information via a higher layer signal; and a transmission unit configured to transmit a physical uplink shared channel upon detecting an uplink grant, and calculate a first pathloss for the base station apparatus and a second pathloss for a second base station apparatus, set a transmit power of the physical uplink shared channel based on a first measurement target configuration, first uplink power control information and the first pathloss in a case that the physical uplink shared channel is transmitted to the base station apparatus on a first subframe of a first subframe set, and set a transmit power of the physical uplink shared channel based on a second measurement target configuration, second uplink power control information and the second pathloss in a case that the physical uplink shared channel is transmitted to the second base station apparatus on a second subframe of a second subframe set.
Method for verifying authenticity of a monitoring signal, wherein a multitude of actuators are employed to impact with individual signals on a physical environment, wherein said individual signals originating from said actuators are directed to said physical environment, wherein at least one sensor device observes said physical environment in such a way that said sensor device records the monitoring signal representing a combined impact of said individual signals on said physical environment, wherein said monitoring signal is compared with an expected signal in order to determine a degree of similarity between said monitoring signal and said expected signal, wherein said expected signal is computed on the basis of predetermined templates, characterized in that said templates are previously generated in a secret initialization procedure in such a way that the impact on said physical environment for each of said individual signals is separately recorded as template by said sensor device.