mhurhangee/ep-ind-claims huggingface dataset:
Digital display mechanism for timepieces, for the alphanumeric segment display of at least one integer magnitude whose instantaneous value is defined by an output of a timepiece movement,said digital display mechanism comprising at least one continuous display support guided along a particular trajectory by guide means, and comprising, for each said continuous display support, drive means arranged to drive said support in at least one direction of travel, each said continuous display support comprising at least a first surface and at least a second surface arranged to be visible to a user of said timepiece and different from each other, and which are display surfaces, at least one said continuous display support being either a serrated belt whose said drive means include at least one serrated pinion complementary to the serration thereof, or a chain whose said drive means include at least one pinion complementary to the articulation of links comprised in said chain, said first surface or second surface forming only one part of an alphanumeric symbol, numeral or letter digital display mechanism including at least one display member (91, 92, 93) for the segment display of said numeral, or of said letter, said digital display mechanism including a first said continuous display support arranged for display on first segments, and a second said continuous display support for display on second segments.
An optical wavelength conversion member comprising a polycrystalline ceramic sintered body containing, as main components, Al 2 O 3 crystal grains and crystal grains represented by formula (Y,A) 3 B 5 O 12:Ce, wherein each of A and B of (Y,A) 3 B 5 O 12:Ce is at least one element selected from the following element groups: A: lanthanoids (except for Ce) and Sc, and B: Al and Ga; and any of the (Y,A) 3 B 5 O 12:Ce crystal grains has a region wherein the concentration of the element A of a peripheral portion of the (Y,A) 3 B 5 O 12:Ce crystal grain is higher than that of an interior portion of the (Y,A) 3 B 5 O 12:Ce crystal grain. each of A and B of (Y,A) 3 B 5 O 12:Ce is at least one element selected from the following element groups: A: lanthanoids (except for Ce) and Sc, and B: Al and Ga; and A: lanthanoids (except for Ce) and Sc, and B: Al and Ga; and any of the (Y,A) 3 B 5 O 12:Ce crystal grains has a region wherein the concentration of the element A of a peripheral portion of the (Y,A) 3 B 5 O 12:Ce crystal grain is higher than that of an interior portion of the (Y,A) 3 B 5 O 12:Ce crystal grain.
A method for dynamic memory cache size adjustment, the method characterised by: disabling dynamic adjustment of a size of a memory cache in a memory array (100; 630) of a memory device in response to determining that a file system on the memory device does not support dynamic cache size adjustment; enabling the disabled dynamic adjustment of the size of the memory cache in response to receiving a command that is supported by the memory device and that allows deletion of a range of logical block addresses of the memory device; determining a size of available memory space in the memory array (100; 630) of the memory device; and adjusting the size of the memory cache in the memory array (100; 630) responsive to the determined size of the available memory space. disabling dynamic adjustment of a size of a memory cache in a memory array (100; 630) of a memory device in response to determining that a file system on the memory device does not support dynamic cache size adjustment; enabling the disabled dynamic adjustment of the size of the memory cache in response to receiving a command that is supported by the memory device and that allows deletion of a range of logical block addresses of the memory device; determining a size of available memory space in the memory array (100; 630) of the memory device; and adjusting the size of the memory cache in the memory array (100; 630) responsive to the determined size of the available memory space.
A composition comprising (i) CD80 extracellular domain fusion molecules comprising a human CD80 ECD polypeptide and a human IgG1 Fc domain, and (ii) at least one pharmaceutically acceptable carrier, wherein the CD80 ECD fusion molecules comprise at least 15 moles or at least 20 moles of sialic acid per mole of CD80 ECD fusion protein, and wherein the CD80 ECD fusion molecules comprise the amino acid sequence of SEQ ID NO:20.
An apparatus comprising: a tube configured to carry an inert gas in a fuel tank; an opening in the tube; and a valve associated with the opening, wherein the valve comprises: a cylindrical portion connected to the tube and configured to rotate around the tube to open and close the opening based on a position of the cylindrical portion; and a float structure connected to the cylindrical portion, wherein the float structure is configured to be buoyant in the fuel, wherein the valve is configured to control an amount of the inert gas that exits the opening based on a level of fuel relative to the opening, wherein the float structure causes the cylindrical portion to rotate to close the opening when the level of fuel is lower than the opening and below the float structure. a tube configured to carry an inert gas in a fuel tank; an opening in the tube; and a valve associated with the opening, wherein the valve comprises: a cylindrical portion connected to the tube and configured to rotate around the tube to open and close the opening based on a position of the cylindrical portion; and a float structure connected to the cylindrical portion, wherein the float structure is configured to be buoyant in the fuel, wherein the valve is configured to control an amount of the inert gas that exits the opening based on a level of fuel relative to the opening, wherein the float structure causes the cylindrical portion to rotate to close the opening when the level of fuel is lower than the opening and below the float structure. a cylindrical portion connected to the tube and configured to rotate around the tube to open and close the opening based on a position of the cylindrical portion; and a float structure connected to the cylindrical portion, wherein the float structure is configured to be buoyant in the fuel, wherein the valve is configured to control an amount of the inert gas that exits the opening based on a level of fuel relative to the opening, wherein the float structure causes the cylindrical portion to rotate to close the opening when the level of fuel is lower than the opening and below the float structure.
A pull stud bolt for connecting a tool holder to a collet in a spindle, the pull stud bolt comprising: a body configured to receive a tool holder, the body having a longitudinal passage fluidly connected to a cavity, characterised in that the cavity fluidly connected to a plurality of longitudinal channels; and in that the pull stud bolt further comprises a sealing ring disposed between an end of the longitudinal passage and the cavity; a spring disposed in the cavity; and a sphere configured to be biased by the spring, the sphere is configured to unblock the end of the longitudinal passage by losing contact with the sealing ring when a first force applied to the sphere from the spring is less than a second force applied by a fluid flowing through the longitudinal passage, wherein the first and second forces are substantially opposite in direction of application. a body configured to receive a tool holder, the body having a longitudinal passage fluidly connected to a cavity, characterised in that the cavity fluidly connected to a plurality of longitudinal channels; and in that the pull stud bolt further comprises a sealing ring disposed between an end of the longitudinal passage and the cavity; a spring disposed in the cavity; and a sphere configured to be biased by the spring, the sphere is configured to unblock the end of the longitudinal passage by losing contact with the sealing ring when a first force applied to the sphere from the spring is less than a second force applied by a fluid flowing through the longitudinal passage, wherein the first and second forces are substantially opposite in direction of application.
Polypropylene composition, comprising a) 40.0 to 60.0 wt.-%, based on the overall polypropylene composition, of a first heterophasic propylene copolymer (HECO1) having a comonomer content of the xylene soluble fraction equal or above 40.0 mol-%, said first heterophasic propylene copolymer comprising i) a first matrix being a first propylene polymer and ii) a first elastomeric copolymer of propylene and ethylene being dispersed in said first matrix, b) 21.0 to 31.0 wt.-%, based on the overall polypropylene composition, of a second heterophasic propylene copolymer (HECO2) having a comonomer content of the xylene soluble fraction below 39.0 mol-%, said second heterophasic propylene copolymer comprising iii) a second matrix being a second propylene polymer and iv) a second elastomeric copolymer of propylene and ethylene being dispersed in said second matrix, c) 10.0 to 20.0 wt.-%, based on the overall polypropylene composition, of an inorganic filler, d) optionally a high density polyethylene (HDPE), and e) optionally a plastomer being a copolymer of ethylene and a C 4 to C 8 α-olefin. a) 40.0 to 60.0 wt.-%, based on the overall polypropylene composition, of a first heterophasic propylene copolymer (HECO1) having a comonomer content of the xylene soluble fraction equal or above 40.0 mol-%, said first heterophasic propylene copolymer comprising i) a first matrix being a first propylene polymer and ii) a first elastomeric copolymer of propylene and ethylene being dispersed in said first matrix, i) a first matrix being a first propylene polymer and ii) a first elastomeric copolymer of propylene and ethylene being dispersed in said first matrix, b) 21.0 to 31.0 wt.-%, based on the overall polypropylene composition, of a second heterophasic propylene copolymer (HECO2) having a comonomer content of the xylene soluble fraction below 39.0 mol-%, said second heterophasic propylene copolymer comprising iii) a second matrix being a second propylene polymer and iv) a second elastomeric copolymer of propylene and ethylene being dispersed in said second matrix, iii) a second matrix being a second propylene polymer and iv) a second elastomeric copolymer of propylene and ethylene being dispersed in said second matrix, c) 10.0 to 20.0 wt.-%, based on the overall polypropylene composition, of an inorganic filler, d) optionally a high density polyethylene (HDPE), and e) optionally a plastomer being a copolymer of ethylene and a C 4 to C 8 α-olefin.
A polyolefin microporous membrane having a loss tangent (tanδ) at 230°C of 0.35 or more and less than 0.60 as determined in the melt viscoelasticity measurement described in the description, wherein the polyolefin microporous membrane comprises a mixture of polyethylene having a viscosity-average molecular weight (Mv), determined as described in the description, of 100,000 or more and 300,000 or less and polyethylene having a viscosity-average molecular weight (Mv), determined as described in the description, of 500,000 or more and less than 1,000,000.
Solid, particulate plant-protein-based structurant composition comprising, based on total dry matter: a) 50-95 wt.% plant derived protein, b) 5-10 wt.% xanthan gum, wherein the xanthan gum has a pyruvate content, based on weight of xanthan gum, of between 3 and 8 wt.%, c) 1-30 wt.% glucono delta lactone-derived acidulant, wherein at most 30 wt.% of the plant-protein-based structurant particles pass a sieve with a mesh size of 125 μm, and wherein the solid particulate is a complex coacervate. a) 50-95 wt.% plant derived protein, b) 5-10 wt.% xanthan gum, wherein the xanthan gum has a pyruvate content, based on weight of xanthan gum, of between 3 and 8 wt.%, c) 1-30 wt.% glucono delta lactone-derived acidulant,
Electrical machine with multiple air gaps and 3D magnetic flux comprising: - an axis of rotation, - a stator equipped with an armature and at least one annular exciter unit comprising a coil and at least two annular yokes (13a,13b), said coil being positioned inside said yokes and having at least two faces and said yokes (13a, 13b) comprising a plurality of teeth, and - a rotor revolving around said axis of rotation and equipped with a structure and at least one annular receiver unit, each receiver unit comprising a plurality of magnets and cooperating with a single exciter unit, each magnet having a first north pole and a first south pole, one of said first poles being located opposite said exciter unit and the other first pole being located opposite said structure of the said rotor, the total number of magnets being equal to the total number of said teeth, characterised in that, each yoke comprising at least two sides, of which two are extreme sides (131,132), said teeth of each yoke being distributed along said two extreme sides (131,132) and angularly in a regular manner about said axis of rotation on each extreme side (131,132), said teeth of two adjacent yokes are fitted into each other on one of said faces while maintaining a distance (d) between them, alternately forming second north poles and second south poles, each receiver unit comprising at least two rows of magnets, each row consisting of an alternation of said first north poles and of the said first south poles and located facing one of said faces upon which are fitted said teeth, said magnets being distributed angularly in a regular manner about said axis of rotation, an air gap thus being formed between each row of magnets and said exciter unit. - an axis of rotation, - a stator equipped with an armature and at least one annular exciter unit comprising a coil and at least two annular yokes (13a,13b), said coil being positioned inside said yokes and having at least two faces and said yokes (13a, 13b) comprising a plurality of teeth, and - a rotor revolving around said axis of rotation and equipped with a structure and at least one annular receiver unit, each receiver unit comprising a plurality of magnets and cooperating with a single exciter unit, each magnet having a first north pole and a first south pole, one of said first poles being located opposite said exciter unit and the other first pole being located opposite said structure of the said rotor, the total number of magnets being equal to the total number of said teeth,
A method for removing hydrogen sulfide (H 2 S) and hydrogen cyanide from concentrated ammonia liquor, the method comprising: a catalyst treatment step of bringing concentrated ammonia liquor containing hydrogen sulfide (H 2 S) and hydrogen cyanide into contact with an iron oxide catalyst; and a regeneration step of regenerating the iron oxide catalyst by supplying a regeneration liquid to the iron oxide catalyst. a catalyst treatment step of bringing concentrated ammonia liquor containing hydrogen sulfide (H 2 S) and hydrogen cyanide into contact with an iron oxide catalyst; and a regeneration step of regenerating the iron oxide catalyst by supplying a regeneration liquid to the iron oxide catalyst.
Blood treatment device comprising an attachment unit for attaching a functional unit intended for single use for carrying out the blood treatment and a monitoring unit for monitoring the operability and/or the operating state of the functional unit, the monitoring unit comprising at last one light transmitter (17A, 18A) and at least one light receiver (17B, 18B), which are arranged such that the light emitted by the light transmitter (17A, 18A) falls on one side of the functional unit and the light reflected on a part of the functional unit or a part of the attachment unit falls on the light receiver (17B, 18B), and the monitoring unit comprising a calculation- and evaluation unit 13 which is configured such that conclusions can be drawn as to a defective state and/or a certain operating state of the functional unit based on the intensity of the light falling on the functional unit and of the light reflected on the functional unit or the attachment unit. characterised in that the attachment unit comprises an attachment component and a cover component, the cover component being attached to the attachment component so as to be movable between an open position and a closed position, and attachment component and cover component are arranged at such a distance from one another that the functional unit can be inserted between the attachment component and the cover component, and the light transmitter (17A, 18A) and the light receiver (17B, 18B) is provided in or on the cover component.
A method for measuring the intracranial pressure, ICP, in a subject, the method comprising: - detecting whether spontaneous retinal venous pulsations, SRVPs, are occurring in an eye of the subject as the orientation of the head of the subject changes; - identifying the orientation of the head of the subject at which SRVPs start to occur or stop occurring; and - using the identified orientation of the head of the subject at which SRVPs start to occur or stop occurring to determine the ICP in the subject. - detecting whether spontaneous retinal venous pulsations, SRVPs, are occurring in an eye of the subject as the orientation of the head of the subject changes; - identifying the orientation of the head of the subject at which SRVPs start to occur or stop occurring; and - using the identified orientation of the head of the subject at which SRVPs start to occur or stop occurring to determine the ICP in the subject.
A wireless communication method, comprising: receiving, by a wireless communication device, configurations of a plurality of resource pools for sidelink communications; wherein the configurations of the plurality of resource pools comprise a first list indicating a first subset of the plurality of resource pools and a second list indicating a second subset of the plurality of resource pools; wherein at least one of the plurality of resource pools includes: a first type of resources that are each configured for the wireless communication device to communicate control information in the sidelink communications; a second type of resources that are each configured for the wireless communication device to communicate data in the sidelink communications; and a third type of resources that are each configured for the wireless communication device to communicate feedback in the sidelink communications, wherein the third type of resources is associated with the second type of resources in the at least one of the plurality of resource pools. receiving, by a wireless communication device, configurations of a plurality of resource pools for sidelink communications; wherein the configurations of the plurality of resource pools comprise a first list indicating a first subset of the plurality of resource pools and a second list indicating a second subset of the plurality of resource pools; wherein at least one of the plurality of resource pools includes: a first type of resources that are each configured for the wireless communication device to communicate control information in the sidelink communications; a second type of resources that are each configured for the wireless communication device to communicate data in the sidelink communications; and a third type of resources that are each configured for the wireless communication device to communicate feedback in the sidelink communications, wherein the third type of resources is associated with
A drive unit for a powertrain of an electrically driveable motor vehicle, in particular a hybrid motor vehicle, comprising a first electric machine having a first shaft, wherein the first shaft is a rotor support of a rotor of the first electric machine, to which the rotor is connected in a rotationally fixed manner, a second electric machine, and an output shaft, wherein a rotor of the second electric machine can be connected to the output shaft in a rotationally fixed manner, the output shaft is a hollow shaft, wherein the first shaft is arranged in sections radially within the output shaft and is connectable to a separating clutch, by which the rotor of the first electric machine is connectable to the output shaft for torque transfer, wherein the rotor (111, 121) of one of the electric machines (110, 120) is supported at least indirectly radially on the rotor (121, 111) of the other electric machine (120, 110) by means of a third rotary bearing, wherein the output shaft is mounted in the housing of the drive unit by two rotary bearings (3, 4), wherein the two rotary bearings (3, 4) are arranged at axially opposite end regions of the output shaft, and wherein the first shaft is supported by means of exactly two rotary bearings (1, 5), more specifically, at an end region the first shaft is supported by means of a first rotary bearing on a housing wall and at an axially opposite end region by means of the third rotary bearing on the output shaft. a second electric machine, and an output shaft, wherein a rotor of the second electric machine can be connected to the output shaft in a rotationally fixed manner, the output shaft is a hollow shaft, wherein the first shaft is arranged in sections radially within the output shaft and is connectable to a separating clutch, by which the rotor of the first electric machine is connectable to the output shaft for torque transfer, wherein the rotor (111, 121) of one of the electric machines (110, 120) is supported at least indirectly radially on the rotor (121, 111) of the other electric machine (120, 110) by means of a third rotary bearing, wherein the output shaft is mounted in the housing of the drive unit by two rotary bearings (3, 4), wherein the two rotary bearings (3, 4) are arranged at axially opposite end regions of the output shaft, and wherein the first shaft is supported by means of exactly two rotary bearings (1, 5), more specifically, at an end region the first shaft is supported by means of a first rotary bearing on a housing wall and at an axially opposite end region by means of the third rotary bearing on the output shaft.
A touch screen panel comprising: a plurality of driving electrodes (Tx); a plurality of sensing electrodes (Rx) crossing the driving electrodes; a driver for supplying a driving signal to the driving electrodes in a touch recognizing mode; and a controller for receiving signals from the sensing electrodes, characterised in that, in a noise measuring mode, the controller is configured to electrically connect the driving and sensing electrodes to each other, to cut off an electrical connection between a portion of the sensing electrodes and the controller and to detect a noise signal from one of the sensing electrodes electrically connected to the controller. a plurality of driving electrodes (Tx); a plurality of sensing electrodes (Rx) crossing the driving electrodes; a driver for supplying a driving signal to the driving electrodes in a touch recognizing mode; and a controller for receiving signals from the sensing electrodes,
Valve housing having a valve top, where the valve housing has a connecting thread into which the valve top is fitted, having a head piece, a spindle passing through the centre of the head piece, and a valve body to rest against the valve seat of the housing and to be actuated by means of the spindle, where a sealing device is arranged on the side of the valve body facing away from the spindle, where the sealing device comprises a valve plunger which is substantially cylindrical in shape, where the valve plunger is connected to the valve body via a portion in the form of a truncated cone and has a groove concentric with the spindle axis that receives a sealing disc which exceeds the groove in height, characterised in that the sealing disc projects out of the groove by no more than 30 percent of its height and where the circumferential edge of the valve plunger, in a final position of the valve body, rests against the valve seat of the valve housing.