mhurhangee/ep-ind-claims huggingface dataset:
Mechanical power transmission system comprising a first main shaft which extends longitudinally to a first coupling means and a second main shaft which extends longitudinally to a second coupling means, the first main shaft being rigidly connected to the first coupling means and the second main shaft being rigidly connected to the second coupling means, the mechanical power transmission system comprising an intermediate shaft which is rigidly connected to the first coupling means, a sub-assembly of the mechanical power transmission system comprising, successively and longitudinally in a direction of extension, the first main shaft, then the first coupling means, then the intermediate shaft, said second main shaft being a hollow shaft, the first coupling means and the second coupling means being mechanically connected at least by said intermediate shaft, said intermediate shaft passing through said second main shaft in order to be connected to the second coupling means, said second main shaft being arranged longitudinally in a space located between said first coupling means and said second coupling means, characterised in that a connecting shaft is secured to the intermediate shaft by a first mechanical connection and to the second coupling means by a second mechanical connection for rotation therewith, said connecting shaft surrounding a distal region of the intermediate shaft, the distal region projecting longitudinally from the second coupling means in said direction of extension, said intermediate shaft extending from the first coupling means to a threaded end, a nut being screwed onto said threaded end.
Method performed by a User Equipment, UE, for handling separate aperiodic channel state information, CSI, reports for one or more static subframes, in which the direction of signal transmission is fixed, and one or more flexible subframes, in which the direction of signal transmission is variable, the method being characterised by: - receiving a trigger for an aperiodic CSI report as part of an uplink, UL, grant from a radio node in a static downlink, DL, subframe, said trigger indicating one or more CSI processes and implicitly indicating a CSI subframe set, out of at least two alternative CSI subframe sets; - performing an aperiodic CSI measurement for a CSI reference resource in the indicated CSI subframe set, and - reporting a result of the CSI measurement to the radio node, in a CSI reporting subframe n, wherein one of the at least two alternative CSI subframe sets relates to the one or more static subframes, and another one of the at least two alternative CSI subframe sets relates to the one or more flexible subframes, and wherein indicating one or more CSI processes and implicitly indicating a CSI subframe set out of two alternative CSI subframe sets comprises at least one of the following criteria: - the aperiodic CSI report trigger is carried over an UL grant for static or flexible UL subframes; - the Control Channel Element, CCE, index of the UL grant which carries the aperiodic CSI report trigger; - the DL subframe over which the UL grant carrying the aperiodic CSI report trigger is transmitted is a special subframe or not; - the Hybrid Automatic Repeat Request, HARQ, process ID corresponding to the UL grant carrying the aperiodic CSI report trigger; and - the CSI process identifier in the UL grant carrying the aperiodic CSI report trigger. - receiving a trigger for an aperiodic CSI report as part of an uplink, UL, grant from a radio node in a static downlink, DL, subframe, said trigger indicating one or more CSI processes and implicitly indicating a CSI subframe set, out of at least two alternative CSI subframe sets; - performing an aperiodic CSI measurement for a CSI reference resource in the indicated CSI subframe set, and - reporting a result of the CSI measurement to the radio node, in a CSI reporting subframe n, - the aperiodic CSI report trigger is carried over an UL grant for static or flexible UL subframes; - the Control Channel Element, CCE, index of the UL grant which carries the aperiodic CSI report trigger; - the DL subframe over which the UL grant carrying the aperiodic CSI report trigger is transmitted is a special subframe or not; - the Hybrid Automatic Repeat Request, HARQ, process ID corresponding to the UL grant carrying the aperiodic CSI report trigger; and - the CSI process identifier in the UL grant carrying the aperiodic CSI report trigger.
An antagonistic antibody which binds human IL-13 comprising a heavy chain, wherein the variable domain of the heavy chain comprises the sequence given in SEQ ID NO:31 and, additionally comprising a light chain, wherein the variable domain of the light chain comprises the sequence given in SEQ ID NO:23.
A transfer mechanism for a four-wheel drive vehicle, comprising a power transmission element for realizing gear shift functionality for changing the speed of rotation input to an input shaft and causing the resulting rotation to be output from at least one of a rear-wheel output shaft and a front-wheel output shaft, and center differential functionality for permitting a differential effect between the two output shafts (12, 13), the power transmission element including: one planetary gear mechanism configured having a group of gears that are arranged in a single line in the axial direction; and a first sleeve for ensuring one of a first coupled state in which the input shaft 811) is coupled with a carrier of the planetary gear mechanism and a second coupled state in which the input shaft is coupled with a sun gear of the planetary gear mechanism, the transfer mechanism being characterized in that the power transfer mechanism further includes: a second sleeve for ensuring one of a first coupled state in which the front-wheel output shaft is coupled with the sun gear, a second coupled state in which the front-wheel output shaft is coupled with the carrier, and a state in which the front-wheel output shaft is disconnected from the sun gear and the carrier and can idle; a third sleeve for ensuring one of a first coupled state in which the rear-wheel output shaft is coupled with a ring gear of the planetary gear mechanism, a second coupled state in which the rear-wheel output shaft is coupled with the carrier, and a third coupled state in which the rear-wheel output shaft is coupled with the ring gear and the carrier; and a frictional engaging element for putting the ring gear into a rotatable free state or a non-rotatable locked state. a second sleeve for ensuring one of a first coupled state in which the front-wheel output shaft is coupled with the sun gear, a second coupled state in which the front-wheel output shaft is coupled with the carrier, and a state in which the front-wheel output shaft is disconnected from the sun gear and the carrier and can idle; a third sleeve for ensuring one of a first coupled state in which the rear-wheel output shaft is coupled with a ring gear of the planetary gear mechanism, a second coupled state in which the rear-wheel output shaft is coupled with the carrier, and a third coupled state in which the rear-wheel output shaft is coupled with the ring gear and the carrier; and a frictional engaging element for putting the ring gear into a rotatable free state or a non-rotatable locked state.
An in-situ pathogen detection system comprising: one or more magnetoelastic measurement sensors each including a biorecognition element configured to bind with a pathogen to cause a shift in a characteristic frequency of the associated measurement sensor; characterized by: a test coil configured to (i) apply a varying magnetic field to the one or more magnetoelastic measurement sensors and apply a uniform magnetic field while the varying magnetic field is applied, and (ii) detect a frequency response of the one or more magnetoelastic measurement sensors to the applied varying magnetic field, while the one or more magnetoelastic measurement sensors are positioned on a surface of a test object that is outside of an inner volume defined by the test coil; and a controller coupled to the test coil and configured to (i) transmit a first signal that causes the test coil to generate at least the varying magnetic field, (ii) receive a second signal indicative of the frequency response of the one or more magnetoelastic measurement sensors detected by the test coil, and (iii) determine whether the pathogen is present based on the second signal. one or more magnetoelastic measurement sensors each including a biorecognition element configured to bind with a pathogen to cause a shift in a characteristic frequency of the associated measurement sensor; characterized by: a test coil configured to (i) apply a varying magnetic field to the one or more magnetoelastic measurement sensors and apply a uniform magnetic field while the varying magnetic field is applied, and (ii) detect a frequency response of the one or more magnetoelastic measurement sensors to the applied varying magnetic field, while the one or more magnetoelastic measurement sensors are positioned on a surface of a test object that is outside of an inner volume defined by the test coil; and a controller coupled to the test coil and configured to (i) transmit a first signal that causes the test coil to generate at least the varying magnetic field, (ii) receive a second signal indicative of the frequency response of the one or more magnetoelastic measurement sensors detected by the test coil, and (iii) determine whether the pathogen is present based on the second signal. a test coil configured to (i) apply a varying magnetic field to the one or more magnetoelastic measurement sensors and apply a uniform magnetic field while the varying magnetic field is applied, and (ii) detect a frequency response of the one or more magnetoelastic measurement sensors to the applied varying magnetic field, while the one or more magnetoelastic measurement sensors are positioned on a surface of a test object that is outside of an inner volume defined by the test coil; and a controller coupled to the test coil and configured to (i) transmit a first signal that causes the test coil to generate at least the varying magnetic field, (ii) receive a second signal indicative of the frequency response of the one or more magnetoelastic measurement sensors detected by the test coil, and (iii) determine whether the pathogen is present based on the second signal.
A container for liquid washing agent, comprising - a main container body for receiving the washing agent; - an opening for dispensing the washing agent; - a first standing base that is arranged opposite the opening and defines a filling position of the container; - a second standing base that is arranged beside the first standing base and defines a storage position of the container; - a grip region that extends towards the opening from a side of the first standing base remote from the second standing base; and - a rolling surface that is arranged opposite the grip region and extends substantially from the second standing base as far as the opening; wherein the grip region comprises a portion which is arranged above the second standing base when the container is standing on the second standing base in the storage position. - a main container body for receiving the washing agent; - an opening for dispensing the washing agent; - a first standing base that is arranged opposite the opening and defines a filling position of the container; - a second standing base that is arranged beside the first standing base and defines a storage position of the container; - a grip region that extends towards the opening from a side of the first standing base remote from the second standing base; and - a rolling surface that is arranged opposite the grip region and extends substantially from the second standing base as far as the opening;
A method for cooling chocolate to form solid chocolate or an item comprising solid chocolate, the method comprising: i) depositing the chocolate or item comprising chocolate within one of a plurality of temperature-controlled chambers at a loading station of a process line, ii) controlling the temperature in the chamber over a treatment period to solidify the chocolate within the chamber according to a temperature profile, iii) passing each temperature-controlled chamber along the process line to an unloading station, iv) removing the item comprising solid chocolate from the respective temperature-controlled chamber, after the treatment period, at the unloading station, and v) returning the temperature-controlled chamber to the loading station. i) depositing the chocolate or item comprising chocolate within one of a plurality of temperature-controlled chambers at a loading station of a process line, ii) controlling the temperature in the chamber over a treatment period to solidify the chocolate within the chamber according to a temperature profile, iii) passing each temperature-controlled chamber along the process line to an unloading station, iv) removing the item comprising solid chocolate from the respective temperature-controlled chamber, after the treatment period, at the unloading station, and v) returning the temperature-controlled chamber to the loading station.
A multilayered container having at least a layer of a propylene type polymer which chiefly includes a homopolypropylene having an isotactic index of not less than 93%, and a layer of an ethylene-vinyl alcohol copolymer having not less than two crystal melting peak temperatures, wherein: the homopolypropylene has a melt flow rate in a range of 0.3 to 1.0 g/10 min; and the propylene type polymer contains a nucleating agent in an amount of 0.1 to 0.5 parts by weight per 100 parts by weight of the propylene type polymer; wherein the isotactic index of the propylene type polymer is calculated as an isotactic fraction of the pentad units from the measurement of the nuclear magnetic resonance spectra by using an isotopic carbon, 13C-NMR, using a nuclear magnetic resonator while being heated at 135°C, and calculating from the obtained chart the ratio of the height of the peak at 21.82 ppm to the total height of peaks at 21.82, 21.57, 21.31, 21.03, 20.82, 20.64, 20.29, 20.17 and 19.88 ppm, and the melt flow rate of the homopolypropylene is measured by using a melt indexer in compliance with the JIS K7210, in which measurements are taken at temperatures of 210°C and 230°C under a load of 2160 g. the homopolypropylene has a melt flow rate in a range of 0.3 to 1.0 g/10 min; and the propylene type polymer contains a nucleating agent in an amount of 0.1 to 0.5 parts by weight per 100 parts by weight of the propylene type polymer; wherein the isotactic index of the propylene type polymer is calculated as an isotactic fraction of the pentad units from the measurement of the nuclear magnetic resonance spectra by using an isotopic carbon, 13C-NMR, using a nuclear magnetic resonator while being heated at 135°C, and calculating from the obtained chart the ratio of the height of the peak at 21.82 ppm to the total height of peaks at 21.82, 21.57, 21.31, 21.03, 20.82, 20.64, 20.29, 20.17 and 19.88 ppm, and the melt flow rate of the homopolypropylene is measured by using a melt indexer in compliance with the JIS K7210, in which measurements are taken at temperatures of 210°C and 230°C under a load of 2160 g.
A thermoelectric conversion module (100A, 100B, 100C, 100D) comprising a p-type thermoelectric conversion element (110, 110B) and an n-type thermoelectric conversion element arranged between two stacked substrates (90, 90B, 90C, 90D), wherein the p-type thermoelectric conversion element (110, 110B) includes: a columnar p-type thermoelectric conversion portion; an insulator provided in a side surface of the p-type thermoelectric conversion portion; and a diffusion preventing film provided on each top surface, the top surface being different from the side surface of the p-type thermoelectric conversion portion, the n-type thermoelectric conversion element includes: a columnar n-type thermoelectric conversion portion; an insulator provided in a side surface of the n-type thermoelectric conversion portion; and a diffusion preventing film provided on each top surface, the top surface being different from the side surface of the n-type thermoelectric conversion portion, each of the stacked substrates (90, 90B, 90C, 90D) includes: a interconnecting layer that electrically connects the p-type thermoelectric conversion portion and the n-type thermoelectric conversion portion through the diffusion preventing films; and a jointing material that joins the diffusion preventing films and the interconnecting layer, top surfaces of the diffusion preventing films are projected from upper and lower top surfaces of each of the insulators (112, 122) in a direction connecting the upper and lower top surfaces of each of the p-type thermoelectric conversion portions or in a direction connecting the upper and lower top surfaces of each of the n-type thermoelectric conversion portions, and a gap (130, 130B, 130C) is provided on each of the insulators (112, 122) in the direction connecting the upper and lower top surfaces of each of the p-type thermoelectric conversion portions or in the direction connecting the upper and lower top surfaces of each of the n-type thermoelectric conversion portions, such that upper and lower surfaces of the insulators (112, 122) only interface with the gap (130, 130B, 130C). a columnar p-type thermoelectric conversion portion; an insulator provided in a side surface of the p-type thermoelectric conversion portion; and a diffusion preventing film provided on each top surface, the top surface being different from the side surface of the p-type thermoelectric conversion portion, a columnar n-type thermoelectric conversion portion; an insulator provided in a side surface of the n-type thermoelectric conversion portion; and a diffusion preventing film provided on each top surface, the top surface being different from the side surface of the n-type thermoelectric conversion portion, a interconnecting layer that electrically connects the p-type thermoelectric conversion portion and the n-type thermoelectric conversion portion through the diffusion preventing films; and a jointing material that joins the diffusion preventing films and the interconnecting layer,
A method for energy recovery after combustion of solid combustible material, for example solid waste material, in which flue gas obtained by combustion of the solid combustible material with a temperature of at least 800 °C is converted into steam for use as such or for electricity production, by performing the following steps: - cooling the flue gas to a temperature not exceeding 250 °C by heat exchange with water, wherein the water is first heated to saturated steam and then the saturated steam is further heated to superheated steam, after which the flue gas is discharged; - using the superheated steam as such for energy-demanding processes and/or converting the superheated steam into electricity, characterized in that the cooling of the flue gas is carried out in two steps, in which in a first step the flue gas is cooled to a temperature of 620 to 680 °C via radiant heat transfer and in a second step the flue gas is further cooled by convection heat transfer with water to a temperature of at most 250°C, through which convection heat transfer the heating of water to saturated steam and subsequently to superheated steam is also carried out. - cooling the flue gas to a temperature not exceeding 250 °C by heat exchange with water, wherein the water is first heated to saturated steam and then the saturated steam is further heated to superheated steam, after which the flue gas is discharged; - using the superheated steam as such for energy-demanding processes and/or converting the superheated steam into electricity,
A work machine comprising a hydraulic pump, a hydraulic actuator that is driven by a pressure oil discharged from the hydraulic pump, a solenoid valve device that controls a flow of a pressure oil supplied from the hydraulic pump to the hydraulic actuator, an operation member through which the solenoid valve device is operated, and an operation position determining section (128, 228) that determines whether or not the operation member is disposed within a preset neutral range, and a current supplying section that supplies a current to the solenoid valve device based on an operation of the operation member, characterized in that, the work machine further comprises: an operation intention determining section (128, 228) that determines whether or not an operator intends to operate the operation member based on a state change of the operation member; and a current control section that allows a standby current, that is lower than a current of the time when the hydraulic actuator starts driving, to be supplied from the current supplying section to the solenoid valve device when the operation position determining section (128, 228) determines that the operation member is disposed within the neutral range and the operation intention determining section (128, 228) determines that there is an intention to operate the operation member.
A computer-implemented method comprising: receiving an input text (160, 310) and a target image, the target image including a target face; generating, based on the input text (160, 310), a sequence of sets of acoustic features corresponding to the input text (160, 310); generating, based on the sequence of sets of acoustic features, a sequence of sets of mouth key points representing facial landmarks located substantially around a mouth region of a model face; generating, based on the sequence of sets of mouth key points, a sequence of sets of facial key points representing facial landmarks located at least around face shape, in regions of nose, eyes, and brows of the model face; determining, based on the sequence of sets of facial key points, a sequence of sets of two-dimensional, 2D, deformations of the target face; and applying the sequence of deformations to the target image, thereby generating, a sequence of frames of an output video. receiving an input text (160, 310) and a target image, the target image including a target face; generating, based on the input text (160, 310), a sequence of sets of acoustic features corresponding to the input text (160, 310); generating, based on the sequence of sets of acoustic features, a sequence of sets of mouth key points representing facial landmarks located substantially around a mouth region of a model face; generating, based on the sequence of sets of mouth key points, a sequence of sets of facial key points representing facial landmarks located at least around face shape, in regions of nose, eyes, and brows of the model face; determining, based on the sequence of sets of facial key points, a sequence of sets of two-dimensional, 2D, deformations of the target face; and applying the sequence of deformations to the target image, thereby generating, a sequence of frames of an output video.