mhurhangee/ep-ind-claims huggingface dataset:
A general-purpose engine comprising an engine main body having an exhaust-system component connected to a cylinder; a cooling mechanism which cools the engine main body, and an air cleaner which is arranged at a side of an intake side of the general-purpose engine, wherein the cooling mechanism includes: a cooling fan which generates a cooling air flow by rotating; a blowing part which is arranged at the side of the intake side of the cooling fan, and which blows the cooling air flow generated by rotation of the cooling fan into the general-purpose engine; and an air guide which is arranged above the cooling fan and which guides the cooling air flow blown from the blowing part towards the cylinder and the exhaust-system component, wherein the exhaust-system component is disposed on one side of the general-purpose engine, and wherein the blowing part is disposed on another side of the general-purpose engine, wherein a convex part formed to project towards an inner side and directing the cooling air flow towards the air guide is provided at an outer circumferential part of the blowing part, characterized in that the air guide has an air guide main body which extends to slope from a front surface side of the general-purpose engine on which the cooling fan is provided to inwards of the general-purpose engine and towards a side of the exhaust-system component, as approaching the exhaust-system component from a side of the blowing part, wherein the air guide main body has a substantially L-shaped cross section which extends towards the blowing part in a state in which a bend faces the side of the exhaust-system component. a cooling fan which generates a cooling air flow by rotating; a blowing part which is arranged at the side of the intake side of the cooling fan, and which blows the cooling air flow generated by rotation of the cooling fan into the general-purpose engine; and an air guide which is arranged above the cooling fan and which guides the cooling air flow blown from the blowing part towards the cylinder and the exhaust-system component, wherein the exhaust-system component is disposed on one side of the general-purpose engine, and wherein the blowing part is disposed on another side of the general-purpose engine, wherein a convex part formed to project towards an inner side and directing the cooling air flow towards the air guide is provided at an outer circumferential part of the blowing part, characterized in that the air guide has an air guide main body which extends to slope from a front surface side of the general-purpose engine on which the cooling fan is provided to inwards of the general-purpose engine and towards a side of the exhaust-system component, as approaching the exhaust-system component from a side of the blowing part, wherein the air guide main body has a substantially L-shaped cross section which extends towards the blowing part in a state in which a bend faces the side of the exhaust-system component.
A vehicle driveline system, comprising a differential having an input, a front output connecting to a front axle and a rear output connecting to a rear axle, wherein said vehicle driveline system further comprises one actuator without any clutch, which is configured to control the operation of the differential between a first mode, in which the front output is disconnected from the input, and a second mode, in which the front output is connected to the input, wherein the differential is a bevel-gear differential or a planetary gear differential.
A card holder, configured to install a data card, comprising: a card tray defining a card slot, the card slot being configured to receive the data card, characterized in that, the card tray further defines a sliding groove in communication with the card slot; and the card holder further comprises a sliding block and an elastic element, the sliding block is capable of sliding along the sliding groove, and the elastic element is coupled to the sliding block, fixed to the card tray, and configured to press the sliding block to make the sliding block capable of abutting against the data card when the elastic element is in a deformation state. a card tray defining a card slot, the card slot being configured to receive the data card, characterized in that, the card tray further defines a sliding groove in communication with the card slot; and the card holder further comprises a sliding block and an elastic element, the sliding block is capable of sliding along the sliding groove, and the elastic element is coupled to the sliding block, fixed to the card tray, and configured to press the sliding block to make the sliding block capable of abutting against the data card when the elastic element is in a deformation state.
A medical device comprising a balloon, catheter or medical tubing, the medical device comprising plasticized nylon, wherein the plasticized nylon comprises a nylon copolymerized with a polyether and a plasticizer, the plasticizer comprising a plasticizer having the following structure: wherein R is a C2-C16 hydrocarbon, wherein the plasticizer is present in an amount of greater than 1 wt-% and up to 10 wt-%, based on the total weight of the plasticized nylon.
An impact-attenuation support member for an article of footwear comprising: a first impact-attenuation element configured to absorb a force by longitudinally compressing, the first impact-attenuation element comprising a core support section, a first set of support struts (145A, 145C, 145E) extending from the core support section, and a second set of support struts (145B, 145D, 145F) extending from the core support section in a direction generally opposite to the first set of support struts (145A, 145C, 145E); and a second impact-attenuation element comprising a support frame that at least partially encloses a central cavity and that includes a first set of apertures and a second set of apertures, the second impact-attenuation element being configured to dampen the force, attenuate the longitudinally compressing, and impede a lateral skewing of the first impact-attenuation element, wherein the core support section is positioned in the central cavity and is at least partially enclosed by the support frame, wherein the first set of support struts (145A, 145C, 145E) extend from the core support section and through the first set of apertures, and wherein the second set of support struts (145B, 145D, 145F) extend from the core support section and through the second set of apertures, such that the first impact-attenuation element is interlaced with the second impact attenuation element. a first impact-attenuation element configured to absorb a force by longitudinally compressing, the first impact-attenuation element comprising a core support section, a first set of support struts (145A, 145C, 145E) extending from the core support section, and a second set of support struts (145B, 145D, 145F) extending from the core support section in a direction generally opposite to the first set of support struts (145A, 145C, 145E); and a second impact-attenuation element comprising a support frame that at least partially encloses a central cavity and that includes a first set of apertures and a second set of apertures, the second impact-attenuation element being configured to dampen the force, attenuate the longitudinally compressing, and impede a lateral skewing of the first impact-attenuation element, wherein the core support section is positioned in the central cavity and is at least partially enclosed by the support frame, wherein the first set of support struts (145A, 145C, 145E) extend from the core support section and through the first set of apertures, and wherein the second set of support struts (145B, 145D, 145F) extend from the core support section and through the second set of apertures, such that the first impact-attenuation element is interlaced with the second impact attenuation element.
A total air temperature probe comprising: a housing defining a total air temperature sensor flow passage; and a sensor assembly positioned within the total air temperature sensor flow passage, the sensor assembly including: an element flow tube, wherein an upper portion of the element flow tube is an entrance including a plurality of protrusions (42; 42A; 42B; 42C); and a sensing element within the element flow tube, characterised in that the plurality of protrusions (42; 42A; 42B; 42C) are positioned along an end of the entrance and extend in an upstream direction. a housing defining a total air temperature sensor flow passage; and a sensor assembly positioned within the total air temperature sensor flow passage, the sensor assembly including: an element flow tube, wherein an upper portion of the element flow tube is an entrance including a plurality of protrusions (42; 42A; 42B; 42C); and a sensing element within the element flow tube, characterised in that the plurality of protrusions (42; 42A; 42B; 42C) are positioned along an end of the entrance and extend in an upstream direction. an element flow tube, wherein an upper portion of the element flow tube is an entrance including a plurality of protrusions (42; 42A; 42B; 42C); and a sensing element within the element flow tube, characterised in that the plurality of protrusions (42; 42A; 42B; 42C) are positioned along an end of the entrance and extend in an upstream direction.
A composition comprising sub-cell sized microvesicles loaded with therapeutic or diagnostic substances, wherein said microvesicles are derived from nucleated mammalian cells using extrusion method to produce microvesicles maintaining the cell membrane topology.
A method implemented in a computer system for presenting context-sensitive menus as a user navigates a pointer, comprising: gathering data regarding a windowing environment in which the pointer navigates; educing user interface elements at a user interface target to which the pointer navigates; and displaying a sector menu that moves with the pointer, the act of displaying including displaying multiple segments (334A - 334D) formed by multiple radii cutting the sector menu, a segment housing a menu item which includes a user interface element at the target toward which the pointer navigates, wherein the sector menu lacks a segment, defining a devoid segment, wherein the devoid segment is oriented in the direction toward which the on-screen cursor is moving. gathering data regarding a windowing environment in which the pointer navigates; educing user interface elements at a user interface target to which the pointer navigates; and displaying a sector menu that moves with the pointer, the act of displaying including displaying multiple segments (334A - 334D) formed by multiple radii cutting the sector menu, a segment housing a menu item which includes a user interface element at the target toward which the pointer navigates, wherein the sector menu lacks a segment, defining a devoid segment, wherein the devoid segment is oriented in the direction toward which the on-screen cursor is moving.
A device, arrangeable for fluid communication with a washing chamber of a dishwasher, the device further being arrangeable to allow a passage of air between the washing chamber and the device, the device comprising: a drying material arranged in a bed, the bed being arranged for a passage of air through the bed, the drying material being able to: withdraw moisture from the air passing through the bed during a withdrawal step when the device is in use, and release moisture to the air during a regeneration step when the device is in use, a heating element arranged in the bed, the heating element being arranged to heat the drying material during the regeneration step when the device is in use such that moisture is released from the drying material, and a fan, arrangeable to circulate the air between the device and the washing chamber and arranged such that the mean air flow rate through the bed during the withdrawal step is higher than the mean air flow rate through the bed during the regeneration step by altering the fan speed, characterized in that the fan is arranged such that the speed during the regeneration step is substantially periodical and altered between a first fan speed, being substantially the same as the fan speed during the withdrawal step, and a second fan speed, being zero. a drying material arranged in a bed, the bed being arranged for a passage of air through the bed, the drying material being able to: withdraw moisture from the air passing through the bed during a withdrawal step when the device is in use, and release moisture to the air during a regeneration step when the device is in use, withdraw moisture from the air passing through the bed during a withdrawal step when the device is in use, and release moisture to the air during a regeneration step when the device is in use, a heating element arranged in the bed, the heating element being arranged to heat the drying material during the regeneration step when the device is in use such that moisture is released from the drying material, and a fan, arrangeable to circulate the air between the device and the washing chamber and arranged such that the mean air flow rate through the bed during the withdrawal step is higher than the mean air flow rate through the bed during the regeneration step by altering the fan speed, characterized in that the fan is arranged such that the speed during the regeneration step is substantially periodical and altered between a first fan speed, being substantially the same as the fan speed during the withdrawal step, and a second fan speed, being zero.
A patient support surface for supporting a patient, the patient support surface comprising a core including at least one patient support element, a ticking surrounding the core, the ticking having an upper layer overlying the core and a lower layer underlying the core, at least one radio detection and ranging, RADAR, antenna situated beneath the core, the at least one RADAR antenna emitting a pulse that travels through the core and that is reflected by either the patient or an inner surface of the upper layer of the ticking as a reflected signal back to the at least one RADAR antenna, processor circuitry that determines a time-of-flight, TOF, of the pulse and the reflected signal to determine whether the patient supported on the patient support surface is at risk of contraction of pressure ulcers due to improper immersion into the patient support surface; an impedance matching circuit configured to tune the at least one antenna to match an impedance of the core; and an impedance-matched delay line coupled to the impedance matching circuit and to the at least one RADAR antenna, the impedance-matched delay line increasing an amount of time that it takes for the reflected signal to reach the impedance matching circuit thereby preventing interference between the emitted pulse and the reflected signal. a core including at least one patient support element, a ticking surrounding the core, the ticking having an upper layer overlying the core and a lower layer underlying the core, at least one radio detection and ranging, RADAR, antenna situated beneath the core, the at least one RADAR antenna emitting a pulse that travels through the core and that is reflected by either the patient or an inner surface of the upper layer of the ticking as a reflected signal back to the at least one RADAR antenna, processor circuitry that determines a time-of-flight, TOF, of the pulse and the reflected signal to determine whether the patient supported on the patient support surface is at risk of contraction of pressure ulcers due to improper immersion into the patient support surface; an impedance matching circuit configured to tune the at least one antenna to match an impedance of the core; and an impedance-matched delay line coupled to the impedance matching circuit and to the at least one RADAR antenna, the impedance-matched delay line increasing an amount of time that it takes for the reflected signal to reach the impedance matching circuit thereby preventing interference between the emitted pulse and the reflected signal.
Process for depositing a transparent conductive layer, comprising a host material and a doping material, on a substrate within a vacuum chamber, where the host material consists of zinc oxide or indium oxide and the doping material comprises an oxide of at least one of the metallic or semi-metallic elements of main group III or IV, characterized in that oxygen and a precursor are admitted into the vacuum chamber during the deposition of the host material by means of a PVD process, where the precursor contains the at least one element of main group III or IV, and in that the concentration of the doping material has a gradient over the layer thickness.
An isolated Interleukin-15 (IL-15) fusion protein complex comprising: an IL-15 polypeptide (or variant thereof) linked to an Fc domain; and an IL-15 Receptor alpha ("IL-15Rα") domain noncovalently linked to the IL-15 polypeptide to form an IL-15/IL-15Rα-Fc fusion protein complex, wherein the IL-15 polypeptide is linked to the C-terminus of the Fc domain, or wherein the IL-15 polypeptide is linked to the N-terminus of the Fc domain, and wherein the IL-15 polypeptide is an IL-15 variant polypeptide comprising a substitution of S to D at position 58 of SEQ ID NO: 2. wherein the IL-15 polypeptide is linked to the C-terminus of the Fc domain, or wherein the IL-15 polypeptide is linked to the N-terminus of the Fc domain, and wherein the IL-15 polypeptide is an IL-15 variant polypeptide comprising a substitution of S to D at position 58 of SEQ ID NO: 2.
An image decoding apparatus for decoding input image coded data, comprising: an image-coded data extractor that extracts image coded data pertaining to a decoding target layer set including at least one layer, from the input image coded data, based on a target layer ID list indicating layers contained in the decoding target layer set and on a target highest temporal ID of the decoding target layer set; and a picture decoding unit that decodes a picture in the decoding target layer set, from the extracted image coded data, wherein a target NAL unit having a layer ID that is not in the target layer ID list or having a temporal ID that is greater than a value of the target highest temporal ID is discarded from the extracted image coded data, wherein the temporal ID is for identifying a temporal sub-layer and the target NAL unit is a non-VCL NAL unit or a VCL NAL unit, and wherein the layer ID of a target NAL unit that is a non-VCL NAL unit having a parameter set NAL unit type and having a layer ID that is not in the target layer ID list is set to the lowest layer ID in the target layer ID list. an image-coded data extractor that extracts image coded data pertaining to a decoding target layer set including at least one layer, from the input image coded data, based on a target layer ID list indicating layers contained in the decoding target layer set and on a target highest temporal ID of the decoding target layer set; and a picture decoding unit that decodes a picture in the decoding target layer set, from the extracted image coded data, wherein a target NAL unit having a layer ID that is not in the target layer ID list or having a temporal ID that is greater than a value of the target highest temporal ID is discarded from the extracted image coded data, wherein the temporal ID is for identifying a temporal sub-layer and the target NAL unit is a non-VCL NAL unit or a VCL NAL unit, and wherein the layer ID of a target NAL unit that is a non-VCL NAL unit having a parameter set NAL unit type and having a layer ID that is not in the target layer ID list is set to the lowest layer ID in the target layer ID list.
A base station comprising: a communication unit configured to communicate with a terminal device via a first band and a second band used in frequency division duplex, FDD, a switching unit configured to switch an operation mode of the first band between a first mode in which the first band is used by the base station for uplink reception and a second mode in which the first band is used by the base station for both downlink transmission and uplink reception in a time division manner; and a control unit configured to give to the terminal device an instruction on a first timing advance on the basis of a downlink reception timing of the terminal device in the second band and an instruction on a second timing advance on the basis of a downlink reception timing of the terminal device in the first band. a communication unit configured to communicate with a terminal device via a first band and a second band used in frequency division duplex, FDD, a switching unit configured to switch an operation mode of the first band between a first mode in which the first band is used by the base station for uplink reception and a second mode in which the first band is used by the base station for both downlink transmission and uplink reception in a time division manner; and a control unit configured to give to the terminal device an instruction on a first timing advance on the basis of a downlink reception timing of the terminal device in the second band and an instruction on a second timing advance on the basis of a downlink reception timing of the terminal device in the first band.
A method for producing a coated activated carbon comprising: providing activated carbon particles having an average particle size up to 100 μm; and coating the activated carbon particles by spraying droplets of cationic polymer solution onto the surface of the activated carbon particles, wherein the cationic polymer solution comprises 2% to 8% by weight cationic polymer and the droplet size is between 15 μm and 55 μm. providing activated carbon particles having an average particle size up to 100 μm; and coating the activated carbon particles by spraying droplets of cationic polymer solution onto the surface of the activated carbon particles, wherein the cationic polymer solution comprises 2% to 8% by weight cationic polymer and the droplet size is between 15 μm and 55 μm.
Stator winding of a directly cooled electric machine, comprising directly gas cooled double Roebel bars (14a-g; 25, 25a-c) being arranged as active parts in slots (12, 23) of a stator body (11, 22), wherein a double Roebel bar consists of two single Roebel bars (17, 18) and a single intermediate cooling tube stack between them, wherein each single Roebel bar comprises a stack of a plurality of transposed individual strands (17a-f, 18a-f), wherein for the compensation of stray field voltages at least one double Roebel bar is constructed as a cross-over bar (25a-c) with the strands (17a-f, 18a-f) being transposed over the stack of cooling tubes in the middle in order to change the sides of the single Roebel bars (17, 18) along the active part.
Electronic device comprising - an anode, - a layer A which is adjacent to the anode on the cathode side, comprising a compound K1 which is selected from coordination compounds containing at least one bismuth atom, in a proportion of at least 20%, - a layer B which is adjacent to layer A on the cathode side, comprising a compound H and a further compound K2 which is selected from coordination compounds containing at least one bismuth atom; - a cathode. - an anode, - a layer A which is adjacent to the anode on the cathode side, comprising a compound K1 which is selected from coordination compounds containing at least one bismuth atom, in a proportion of at least 20%, - a layer B which is adjacent to layer A on the cathode side, comprising a compound H and a further compound K2 which is selected from coordination compounds containing at least one bismuth atom; - a cathode.
A noncrystalline composite alkali metal titanate composition comprising 60 to 90 wt. % of an alkali metal titanate represented by the general formula M 2 O·nTiO 2 wherein M is one or at least two alkali metal elements and n is a number of 1 to 4, and 10 to 40 wt. % of SiO 2, and wherein M 2 O/SiO 2 by weight ratio is equal to or less than 2.5.