mhurhangee/ep-ind-claims huggingface dataset:
Drive device, in particular for an electric vehicle, with at least one electric motor (10a-e), with at least one final drive (11a-e) and with a multi-stage gearbox (12a-e), which is located between the electric motor (10a-e) and the final drive (11a-e) and which has precisely three planetary stages (P1a-e. P2a-e, P3a-e) effectively connected to one another with sun gears (P11a-e. P21a-e, P31a-e), ring gears (P13a-e, P23a-e, P33a-e) and planet carriers (P12a-e. P22a-e, P32a-e), two shifting units (S1a-e, S2a-e), a gearbox input element (13a-e) for the non-rotatable connection of the electric motor (10a-e) and a gearbox output element (14a-e) for the non-rotatable connection of the final drive (11a-e), wherein the gearbox input element (13a-e) is permanently and non-rotatably connected to the sun gear (P11a-e) of the first planetary stage (P1a-e), the gearbox output element (14a-e) is permanently and non-rotatably connected to the planet carrier (P32a-e) of the third planetary stage (P3a-e) and the planet carrier (P12a-e) of the first planetary stage (P1a-e) and the sun gear (P31a-e) of the third planetary stage (P3a-e) are permanently and non-rotatably connected to each other, wherein the ring gear (P13a; P13b; P13d; P13e) of the first planetary stage (P1a; P1b; P1d; P1e) and the sun gear (P21a; P21b; P21d; P21e) of the second planetary stage (P2a; P2b; P2d; P2e) are permanently and non-rotatably connected to each other, characterised in that the planet carrier (P22a; P22c; P22d) of the second planetary stage (P2a; P2c; P2d) and the planet carrier (P32a; P32c; P32d) of the third planetary stage (P3a; P3c; P3d) are permanently and non-rotatably connected to each other and/or in that a third shifting unit (S3b; S3e) is provided to connect the planet carrier (P22b; P22e) non-rotatably to the planet carrier (P32b; P32e) of the third planetary stage (P3b; P3e).
Measuring device for a deformable vehicle tyre, having: a sensor unit, a first data processing unit, and a first radio unit, wherein the sensor unit is designed to be fastenable to the inside of the vehicle tyre such that a radial acceleration acting in a radial direction on a tread of the vehicle tyre can be detected by means of the sensor unit; wherein the first data processing unit is configured to determine a result value, relevant for a tyre mileage of the vehicle tyre, at least on the basis of the radial acceleration and at least one predetermined tyre parameter of the vehicle tyre; wherein each tyre parameter characterizes a property of the vehicle tyre; and wherein the first radio unit is designed to transmit a radio signal which represents the determined result value, wherein the result value is a tyre mileage of the vehicle tyre, wherein the tyre parameters are formed at least by the standardized radial distance of the sensor unit from the rotational axis of the vehicle tyre, by the standardized rolling radius of the vehicle tyre and by a predefined correction factor for the vehicle tyre, wherein the correction factor is based on a predefined deviation of the radial acceleration detected by the sensor unit, characterized in that the correction factor is predetermined as a function of a or the sampling rate of the sensor unit. a sensor unit, a first data processing unit, and a first radio unit, wherein the sensor unit is designed to be fastenable to the inside of the vehicle tyre such that a radial acceleration acting in a radial direction on a tread of the vehicle tyre can be detected by means of the sensor unit; wherein the first data processing unit is configured to determine a result value, relevant for a tyre mileage of the vehicle tyre, at least on the basis of the radial acceleration and at least one predetermined tyre parameter of the vehicle tyre; wherein each tyre parameter characterizes a property of the vehicle tyre; and wherein the first radio unit is designed to transmit a radio signal which represents the determined result value, wherein the result value is a tyre mileage of the vehicle tyre, wherein the tyre parameters are formed at least by the standardized radial distance of the sensor unit from the rotational axis of the vehicle tyre, by the standardized rolling radius of the vehicle tyre and by a predefined correction factor for the vehicle tyre, wherein the correction factor is based on a predefined deviation of the radial acceleration detected by the sensor unit, characterized in that the correction factor is predetermined as a function of a or the sampling rate of the sensor unit.
An automatic bathroom flusher comprising: a body having an inlet and an outlet (3.2), a valve assembly in said body positioned to close water flow between said inlet and outlet upon sealing action of a moving member at a valve seat thereby controlling flow from said inlet to said outlet, an.actuator (62, 701, 840) for actuating operation of said moving member, said actuator including a solenoid coil and a linearly movable armature housing constructed to receive said linearly movable armature constructed to be displaced between extended and retracted positions by a drive current delivered to said solenoid coil and thereby control said sealing action of said moving member, and a controller coupled to a power driver constructed to provide said drive current to said solenoid coil of said actuator, said controller being constructed to determine a latch point based on said drive signal delivered to said solenoid coil and an induced signal due to movement of said armature with respect to said solenoid coil, said controller being further constructed to determine latch time based on said latch point and constructed to determine water pressure at said inlet based on said latch time. a body having an inlet and an outlet (3.2), a valve assembly in said body positioned to close water flow between said inlet and outlet upon sealing action of a moving member at a valve seat thereby controlling flow from said inlet to said outlet, an.actuator (62, 701, 840) for actuating operation of said moving member, said actuator including a solenoid coil and a linearly movable armature housing constructed to receive said linearly movable armature constructed to be displaced between extended and retracted positions by a drive current delivered to said solenoid coil and thereby control said sealing action of said moving member, and a controller coupled to a power driver constructed to provide said drive current to said solenoid coil of said actuator, said controller being constructed to determine a latch point based on said drive signal delivered to said solenoid coil and an induced signal due to movement of said armature with respect to said solenoid coil, said controller being further constructed to determine latch time based on said latch point and constructed to determine water pressure at said inlet based on said latch time.
A composition for assaying glycated proteins in a sample, comprising a protease, a fructosyl amino acid oxidase and a protease stabilizer selected from the group consisting of dimethylsulfoxide, alcohol, and sodium-chloride.
A heating assembly, characterized by comprising an electrically conductive external tube, an electrical resistance circuit disposed in the external tube and having an electrode electrically connected with the external tube, a first electrode lead wire in electrical connection with the external tube, and a second electrode lead wire in electrical connection with an opposite electrode of the electrical resistance circuit, wherein the heating assembly further comprises a needle arranged at a top of the external tube; characterised in that an upper end of the electrical resistance circuit is crimped between the needle and the external tube, so as to be in contact and conductive connection with the external tube. wherein the heating assembly further comprises a needle arranged at a top of the external tube; characterised in that an upper end of the electrical resistance circuit is crimped between the needle and the external tube, so as to be in contact and conductive connection with the external tube.
Method for determining a conformity factor with regard to the colour conformity of a printed product with specified target values for colours, comprising the following steps: a) Determining the target values for colours of the printed product to be printed in a defined colour space in a source printing process, b) identifying the print data set specified for a target printing process based on printing process parameters that have been changed with respect to the source printing process, c) transforming the print data set for the printed product to be printed for use in the target printing process using a specified transformation method, d) Generating a printout of the printed product together with measurement fields of this print in the target printing process, e) Spectrally measuring the measurement fields of the printout according to d) to record the actual values, f) Comparing the target values with the actual values, characterised by the successive steps: g) Defining a colour value axis from a unique colour value as the starting point to a second unique colour value as the end point, while simultaneously defining the reference points between the two colour values, h) Determining the target values for the starting point, the end point and the reference points, i) Determining the actual values for the starting point, the end point and the reference points, j) Determining a distance value representing the distance between the target value and the actual value for each of the start points, end points and support points, k) Calculating and outputting a conformity factor in the form of percentage values as a statistical mean value from the distance values. a) Determining the target values for colours of the printed product to be printed in a defined colour space in a source printing process, b) identifying the print data set specified for a target printing process based on printing process parameters that have been changed with respect to the source printing process, c) transforming the print data set for the printed product to be printed for use in the target printing process using a specified transformation method, d) Generating a printout of the printed product together with measurement fields of this print in the target printing process, e) Spectrally measuring the measurement fields of the printout according to d) to record the actual values, f) Comparing the target values with the actual values, g) Defining a colour value axis from a unique colour value as the starting point to a second unique colour value as the end point, while simultaneously defining the reference points between the two colour values, h) Determining the target values for the starting point, the end point and the reference points, i) Determining the actual values for the starting point, the end point and the reference points, j) Determining a distance value representing the distance between the target value and the actual value for each of the start points, end points and support points, k) Calculating and outputting a conformity factor in the form of percentage values as a statistical mean value from the distance values.
A method for producing a RIG-I agonist, comprising the steps of (a) preparing a first polyribonucleotide with 21-300 nucleotides in length, which polyribonucleotide starts at the 5' end with a sequence selected from 5'-gbucndnwnnnnnnnnwnsnn-3' (SEQ ID NO: 12), 5'-gucuadnwnnnnnnnnwnsnn-3' (SEQ ID NO: 13), 5'-guagudnwnnnnnnnnwnsnn-3' (SEQ ID NO: 14), 5'-gguaadnwnnnnnnnnwnsnn-3' (SEQ ID NO: 15), 5'-ggcagdnwnnnnnnnnwnsnn-3' (SEQ ID NO: 16), 5'-gcuucdnwnnnnnnnnwnsnn-3' (SEQ ID NO: 17), 5'-gcccadnwnnnnnnnnwnsnn-3' (SEQ ID NO: 18), and 5'-gcgcudnwnnnnnnnnwnsnn-3' (SEQ ID NO: 19); (b) preparing a second polyribonucleotide with 21-300 nucleotides in length which is at least 80% complementary to the first polyribonucleotide of step (a) over the whole length of the first polyribonucleotide of step (a), and which, if annealed to the first polyribonucleotide of step (a), exhibits a 3' overhang of at most 2 nucleotides, more preferably at most 1 nucleotide, and most preferably forms a blunt end with the 5' end of the polyribonucleotide of step (a); and (c) annealing the first polyribonucleotide of step (a) with the second polyribonucleotide of step (b), thereby obtaining a RIG-I agonist. (a) preparing a first polyribonucleotide with 21-300 nucleotides in length, which polyribonucleotide starts at the 5' end with a sequence selected from 5'-gbucndnwnnnnnnnnwnsnn-3' (SEQ ID NO: 12), 5'-gucuadnwnnnnnnnnwnsnn-3' (SEQ ID NO: 13), 5'-guagudnwnnnnnnnnwnsnn-3' (SEQ ID NO: 14), 5'-gguaadnwnnnnnnnnwnsnn-3' (SEQ ID NO: 15), 5'-ggcagdnwnnnnnnnnwnsnn-3' (SEQ ID NO: 16), 5'-gcuucdnwnnnnnnnnwnsnn-3' (SEQ ID NO: 17), 5'-gcccadnwnnnnnnnnwnsnn-3' (SEQ ID NO: 18), and 5'-gcgcudnwnnnnnnnnwnsnn-3' (SEQ ID NO: 19); 5'-gbucndnwnnnnnnnnwnsnn-3' (SEQ ID NO: 12), 5'-gucuadnwnnnnnnnnwnsnn-3' (SEQ ID NO: 13), 5'-guagudnwnnnnnnnnwnsnn-3' (SEQ ID NO: 14), 5'-gguaadnwnnnnnnnnwnsnn-3' (SEQ ID NO: 15), 5'-ggcagdnwnnnnnnnnwnsnn-3' (SEQ ID NO: 16), 5'-gcuucdnwnnnnnnnnwnsnn-3' (SEQ ID NO: 17), 5'-gcccadnwnnnnnnnnwnsnn-3' (SEQ ID NO: 18), and 5'-gcgcudnwnnnnnnnnwnsnn-3' (SEQ ID NO: 19); (b) preparing a second polyribonucleotide with 21-300 nucleotides in length which is at least 80% complementary to the first polyribonucleotide of step (a) over the whole length of the first polyribonucleotide of step (a), and which, if annealed to the first polyribonucleotide of step (a), exhibits a 3' overhang of at most 2 nucleotides, more preferably at most 1 nucleotide, and most preferably forms a blunt end with the 5' end of the polyribonucleotide of step (a); and (c) annealing the first polyribonucleotide of step (a) with the second polyribonucleotide of step (b), thereby obtaining a RIG-I agonist.
An isolated peptide consisting of the amino acid sequence: 1 X n C 2 XD 3 XVYTCR 4 XGQTC C/A RGLHGYGC 5 X m (SEQ ID NO:1), wherein 1 X n is a sequence of amino acids of length n, with n = 0-11 and 1 X being any amino acid; wherein each of 2 X, 3 X, and 4 X is P or A; wherein 5 X m is a sequence of amino acids of length m, with m = 0-4 and 5 X being any amino acid; and wherein the isolated peptide comprises, or is capable of forming, two or three intrachain disulphide bonds. wherein 1 X n is a sequence of amino acids of length n, with n = 0-11 and 1 X being any amino acid; wherein each of 2 X, 3 X, and 4 X is P or A; wherein 5 X m is a sequence of amino acids of length m, with m = 0-4 and 5 X being any amino acid; and wherein the isolated peptide comprises, or is capable of forming, two or three intrachain disulphide bonds.
A cartridge for an aerosol provision system, wherein the cartridge comprises: a reservoir for containing aerosolisable material for vaporising; a vaporiser for vaporising the aerosolisable material to generate vaporised aerosolisable-material, the vaporiser being located in an aerosol generation region; an air channel (38;62) extending from an air inlet for the cartridge to a mouthpiece outlet; wherein the air channel (38;62) comprises a first portion, for receiving vaporised aerosolisable-material, extending from the mouthpiece outlet; a seal located between the first portion of the air channel (38;62) and the aerosol generation region, wherein the seal is located between the first portion of the air channel and the vaporiser, and wherein the seal comprises an internal circumferential ridge which engages against the first portion of the air channel; wherein the reservoir is annular, and wherein the first portion of the air channel is at least partially surrounded by the reservoir; wherein the first portion of the air channel (38;62) extends between the aerosol generation region and the mouthpiece outlet, and wherein the first portion of the air channel is integrally formed with the mouthpiece outlet; wherein the cartridge further comprises an aerosolisable-material-level observation means for allowing a user to observe a level of aerosolisable material inside the reservoir; wherein the aerosolisable-material-level observation means comprises a portion of the cartridge; wherein the portion of the cartridge comprises a plurality of windows for viewing into the reservoir. a reservoir for containing aerosolisable material for vaporising; a vaporiser for vaporising the aerosolisable material to generate vaporised aerosolisable-material, the vaporiser being located in an aerosol generation region; an air channel (38;62) extending from an air inlet for the cartridge to a mouthpiece outlet; wherein the air channel (38;62) comprises a first portion, for receiving vaporised aerosolisable-material, extending from the mouthpiece outlet; a seal located between the first portion of the air channel (38;62) and the aerosol generation region, wherein the seal is located between the first portion of the air channel and the vaporiser, and wherein the seal comprises an internal circumferential ridge which engages against the first portion of the air channel; wherein the reservoir is annular, and wherein the first portion of the air channel is at least partially surrounded by the reservoir; wherein the first portion of the air channel (38;62) extends between the aerosol generation region and the mouthpiece outlet, and wherein the first portion of the air channel is integrally formed with the mouthpiece outlet; wherein the cartridge further comprises an aerosolisable-material-level observation means for allowing a user to observe a level of aerosolisable material inside the reservoir; wherein the aerosolisable-material-level observation means comprises a portion of the cartridge; wherein the portion of the cartridge comprises a plurality of windows for viewing into the reservoir.
A sheeted article providing at least one identification band comprising: a face layer having an upper surface and a lower surface and defining at least one identification band, the at least one identification band having a first region proximate a first end, and a second region defined by a second end and a strap extending between the first and second end (52, 54); a liner layer; a release material disposed on the liner layer in an area corresponding to the first region of the band; a first adhesive overlying the release material; a second adhesive disposed on the liner extending along at least a majority in an area corresponding to the second region of the band, the second adhesive being chosen from a hot melt adhesive; and a deadener disposed on the second adhesive; wherein upon removal of the identification band from the sheeted article, the first region of the identification band comprises the first adhesive. a face layer having an upper surface and a lower surface and defining at least one identification band, the at least one identification band having a first region proximate a first end, and a second region defined by a second end and a strap extending between the first and second end (52, 54); a liner layer; a release material disposed on the liner layer in an area corresponding to the first region of the band; a first adhesive overlying the release material; a second adhesive disposed on the liner extending along at least a majority in an area corresponding to the second region of the band, the second adhesive being chosen from a hot melt adhesive; and a deadener disposed on the second adhesive; wherein upon removal of the identification band from the sheeted article, the first region of the identification band comprises the first adhesive.
A system for detection of a fluid condition in a flexible tube, the system comprising: a flexible tube; a sensor coupled to a wall of the tube via a restraining element and configured to obtain a value of a tubing force F t when the tube is deformed by the restraining element; a memory storing instructions; and a processor configured to execute the instructions to determine parameters for fitting a force-time curve, the curve comprising the time-varying value of the tubing force F t, to determine a fluid pressure value for a fluid in the tube based on the parameters for fitting the curve, and to activate an alarm responsive to the fluid pressure value and to the parameters for fitting the curve when an abnormal condition is identified in the fluid, wherein the parameters for fitting the force-time curve comprise at least one time-decaying parameter associated to the tubing force Ft, characterized by wherein, to determine the fluid pressure value, the processor is configured to determine a force Ft on the wall of the tube using an initial resilient force (F(t 0)) plus a creep parameter (m) times a logarithmic function of time, ln(t), and to adjust one or more of the initial resilient force (F(t 0)) and the creep parameter (m) based on a material, an age, and a handling of the tube. a flexible tube; a sensor coupled to a wall of the tube via a restraining element and configured to obtain a value of a tubing force F t when the tube is deformed by the restraining element; a memory storing instructions; and a processor configured to execute the instructions to determine parameters for fitting a force-time curve, the curve comprising the time-varying value of the tubing force F t, to determine a fluid pressure value for a fluid in the tube based on the parameters for fitting the curve, and to activate an alarm responsive to the fluid pressure value and to the parameters for fitting the curve when an abnormal condition is identified in the fluid, wherein the parameters for fitting the force-time curve comprise at least one time-decaying parameter associated to the tubing force Ft, characterized by wherein, to determine the fluid pressure value, the processor is configured to determine a force Ft on the wall of the tube using an initial resilient force (F(t 0)) plus a creep parameter (m) times a logarithmic function of time, ln(t), and to adjust one or more of the initial resilient force (F(t 0)) and the creep parameter (m) based on a material, an age, and a handling of the tube.
Retroreflective sheeting, comprising: an array of microreplicated cube corner elements having a surface texture with an average surface roughness between about 0.0005 microns and about 0.0060 microns, wherein the surface texture forms a haze that at an entrance angle of -4 degrees provides a uniform decrease in total light return over observation angles of 0.5 to 4 degrees, and wherein at an entrance angle of -4 degrees the retroreflective sheeting exhibits a fractional retroreflectance slope measured in accordance with ASTM D 4956-04 and ASTM E 808-01 of between about 3% and about 15% of fractional retroreflectance per degree of observation angle at an observation angle of about 0.5 degree.