mhurhangee/ep-ind-claims huggingface dataset:
Method for selecting a satellite that is designed to send a global navigation satellite system signal, called a GNSS signal below, to a vehicle, comprising: - measurement of measurement location data (50, 52) relating to the vehicle with respect to the satellite on the basis of the GNSS signal, - determination of reference location data relating to the vehicle that are redundant in relation to the measurement location data (50, 52) determined on the basis of the GNSS signal and are defined as the expected values of the measurement location data (50, 52); and - selection of the satellite when a juxtaposition of the measurement location data (50, 52) and the reference location data satisfies a predetermined condition, wherein the predetermined condition is a maximum admissible error (μ Stan) between the measurement location data (50, 52) and the reference location data, characterized in that the maximum admissible error (μ Stan) is dependent on a standard deviation that is calculated on the basis of a sum comprising a reference variance (σ rec) for the reference location data and a measurement variance (σ GNSS) for the measurement location data (50, 52), wherein the maximum admissible error (μ Stan) corresponds to a multiple of the standard deviation such that a probability that the measurement location data (50, 52) are within a scatter range that is dependent on the standard deviation is below a predetermined threshold value. - measurement of measurement location data (50, 52) relating to the vehicle with respect to the satellite on the basis of the GNSS signal, - determination of reference location data relating to the vehicle that are redundant in relation to the measurement location data (50, 52) determined on the basis of the GNSS signal and are defined as the expected values of the measurement location data (50, 52); and - selection of the satellite when a juxtaposition of the measurement location data (50, 52) and the reference location data satisfies a predetermined condition, wherein the predetermined condition is a maximum admissible error (μ Stan) between the measurement location data (50, 52) and the reference location data,
A low profile loudspeaker transducer comprising a voice coil (214; 1420), a former (218; 1418) including an upper end, wherein the former (218; 1418) is connected to the voice coil (214; 1420) and the upper end of the former (218; 1418) is opposite the voice coil (214; 1420), a diaphragm (202; 1414), a loudspeaker magnet assembly (204, 206, 208, 210; 1402, 1425, 1426, 1434) including an annular outer magnet (222, 224; 1438) having a top surface, and a surround suspension member (212; 1416) which includes an inner edge that is attached to the upper end of the former (218; 1418), characterized in that the surround suspension member (212; 1416) includes an outer edge that is attached to the top surface of the annular outer magnet (222, 224; 1438).
Laminated glazing comprising a set of diodes and its control electronics, which are borne by a thin flexible printed circuit -FPC- and connected to a cable strip equipped with a connector at its end, characterized in that it includes two glass sheets (2, 3), in that the assembly made up of the flexible printed circuit and the cable strip is hidden from the interior side of the glazing by an enamel layer deposited on face 4 of the glazing and containing apertures facing each diode in order to let pass the light emitted thereby, and in that the assembly made up of the diodes, the flexible printed circuit and the cable strip is hidden from the exterior side of the glazing by an enamel layer deposited on face 2 of the glazing.
A method performed by a work tools communication system for facilitating communication between a tool server and a plurality of tool controllers (16a, 16, 16) of the work tools communication system, the tool server being connected to the plurality of tool controllers (16a, 16, 16), the tool controllers further being adapted for communication with work tools connected to the tool controllers, the method comprising: sending, from the tool server to a first of the plurality of tool controllers, a message relating to control of one or more work tools connected to the first tool controller, the message comprising a destination address of the first tool controller and a requested action to be performed by the first tool controller; receiving, by the first tool controller, the message sent by the tool server, based on the destination address, analyzing, by the first tool controller, the message to detect the requested action, controlling, by the first tool controller, the one or more work tools connected to the first tool controller according to the detected requested action, wherein the message further comprises a header part and a payload part, the header part comprising the requested action and the payload part comprising details of the requested action, and wherein the payload part is divided into a plurality of data nodes, each data node comprising a type of data field and a data value field. sending, from the tool server to a first of the plurality of tool controllers, a message relating to control of one or more work tools connected to the first tool controller, the message comprising a destination address of the first tool controller and a requested action to be performed by the first tool controller; receiving, by the first tool controller, the message sent by the tool server, based on the destination address, analyzing, by the first tool controller, the message to detect the requested action, controlling, by the first tool controller, the one or more work tools connected to the first tool controller according to the detected requested action,
A method for producing a galvannealed steel sheet, the method comprising the successive steps of: - providing a cold rolled steel sheet made of a steel having a chemical composition comprising, in weight %: 0.34 % ≤ C ≤ 0.45% 1.50 % ≤ Mn ≤ 2.30 % 1.50 ≤ Si ≤ 2.40% 0 % < Cr ≤ 0.7% 0 % ≤ Mo ≤ 0.3 % 0.10 % ≤ Al ≤ 0.7 %, and optionally 0% ≤ Nb ≤ 0.05%, the remainder being Fe and unavoidable impurities, - annealing the cold-rolled steel sheet at an annealing temperature AT higher than the Ac3 transformation point of the steel, - quenching the annealed steel sheet by cooling it down to a quenching temperature QT lower than the Ms transformation point of the steel and comprised between 150°C and 250°C, - reheating the quenched steel sheet to a partitioning temperature PT between 350°C and 450°C and maintaining the steel sheet at the partitioning temperature PT for a partitioning time Pt of at least 80s, - coating the steel sheet by hot dip coating in a zinc bath followed by galvannealing, with an alloying temperature GAT comprised between 470°C and 520°C. - providing a cold rolled steel sheet made of a steel having a chemical composition comprising, in weight %: 0.34 % ≤ C ≤ 0.45% 1.50 % ≤ Mn ≤ 2.30 % 1.50 ≤ Si ≤ 2.40% 0 % < Cr ≤ 0.7% 0 % ≤ Mo ≤ 0.3 % 0.10 % ≤ Al ≤ 0.7 %, and optionally 0% ≤ Nb ≤ 0.05%, the remainder being Fe and unavoidable impurities, 0.34 % ≤ C ≤ 0.45% 1.50 % ≤ Mn ≤ 2.30 % 1.50 ≤ Si ≤ 2.40% 0 % < Cr ≤ 0.7% 0 % ≤ Mo ≤ 0.3 % 0.10 % ≤ Al ≤ 0.7 %, and optionally 0% ≤ Nb ≤ 0.05%, - annealing the cold-rolled steel sheet at an annealing temperature AT higher than the Ac3 transformation point of the steel, - quenching the annealed steel sheet by cooling it down to a quenching temperature QT lower than the Ms transformation point of the steel and comprised between 150°C and 250°C, - reheating the quenched steel sheet to a partitioning temperature PT between 350°C and 450°C and maintaining the steel sheet at the partitioning temperature PT for a partitioning time Pt of at least 80s, - coating the steel sheet by hot dip coating in a zinc bath followed by galvannealing, with an alloying temperature GAT comprised between 470°C and 520°C.
A method for preparing a Factor IX formulation for intravenous injection, the method comprising adding a 25 mM to 150 mM sodium chloride solution to a lyophilized Factor IX formulation thereby resulting in a formulation prepared for intravenous injection, wherein the lyophilized formulation, if reconstituted in water, does not contain more than 5 mM of an ionizing salt, and, wherein the prepared formulation is about isotonic with respect to plasma and has an osmolarity that is from 270 mOsm/L to 330 mOsm/L, or, is slightly hypotonic with respect to plasma and has an osmolarity that is from 220 mOsm/L to 270 mOsm/L, or, is slightly hypertonic with respect to plasma, and has an osmolarity that is from 330 mOsm/L to 600 mOsm/L and, wherein the prepared formulation has a sufficient ionic strength to prevent erythrocyte agglutination upon intravenous injection.
A drive unit for a drive train of an electrically drivable motor vehicle, in particular a hybrid motor vehicle, comprising a first electric machine, a second electric machine and an output shaft, wherein a rotor of the second electric machine is connected to the output shaft for conjoint rotation and the drive unit additionally has an separating clutch with which a rotor of the first electric machine can be connected to the output shaft for transmitting torque, wherein the drive unit additionally has a first flow system for implementing a flow of a first fluid for at least partially cooling at least one of the electric machines (110, 120), said flow system being designed in such a way that the first fluid can also be supplied to the separating clutch for cooling and/or lubricating the latter, characterized in that the first flow system of at least either one of the electric machines (110, 120) has a branching into a first cooling path and a second cooling path, so that the electric machine (110, 120) can be cooled in a radial inner chamber formed by its rotor (111, 121) as well as on its radial outer side, and in that the drive unit additionally has a second flow system for implementing a flow of a second fluid, the first flow system and the second flow system being arranged and designed in such a way that heat can be transferred from the first fluid in the first flow system to the second fluid in the second flow system.
A method for automatically transferring media content from user equipment to a wireless communications device, the method comprising: determining, at the wireless communications device, if the wireless communications device is outside of a predetermined range from the user equipment; establishing a connection between the user equipment and the wireless communications device; and in response to determining that the wireless communications device is outside of the predetermined range, automatically displaying content being displayed on the user equipment on the wireless communications device, wherein automatically displaying the media content on the wireless communications device comprises: receiving, over the connection, the media content at the wireless communications device from the user equipment; and starting to display the received media content on the wireless communications device. determining, at the wireless communications device, if the wireless communications device is outside of a predetermined range from the user equipment; establishing a connection between the user equipment and the wireless communications device; and in response to determining that the wireless communications device is outside of the predetermined range, automatically displaying content being displayed on the user equipment on the wireless communications device, wherein automatically displaying the media content on the wireless communications device comprises: receiving, over the connection, the media content at the wireless communications device from the user equipment; and starting to display the received media content on the wireless communications device. receiving, over the connection, the media content at the wireless communications device from the user equipment; and starting to display the received media content on the wireless communications device.
Fusion implant for a facet joint, comprising transfacetal fastening means, a support module and jaw elements (4, 4'), wherein the jaw elements (4, 4') are arranged on the support module and each has a holder (61, 62) for the transfacetal fastening means, characterized in that the support module comprises an expansion element (2, 3), wherein the jaw elements (4, 4') have contact surfaces for the lamina on outer sides facing away from one another and are arranged on a guide (28, 31) of the expansion element (2, 3) such that they can be spread out from one another, such that a distance between the jaw elements (4, 4') is variable by means of the expansion element (2, 3).
An antibody that binds to STEAP-1, wherein the antibody comprises a heavy chain variable region comprising a heavy chain complementary determining region (HCDR) 1 of SEQ ID NO: 1, a HCDR 2 of SEQ ID NO: 2, and a HCDR 3 selected from the group consisting of SEQ ID NO: 4, SEQ ID NO: 5 and SEQ ID NO: 6, and a light chain variable region comprising a light chain complementarity determining region (LCDR) 1 of SEQ ID NO: 7, a LCDR 2 of SEQ ID NO: 8 and a LCDR 3 of SEQ ID NO: 9.
A xylose fermenting yeast strain that is mutated or genetically engineered to produce ethanol on the base of xylose, comprising a GLO1 allele, which confers to the strain an improved fermentation performance in the presence of at least 0.4% acetic acid in the medium as compared to a control strain with an identical background except for the GLO1 allele, and wherein the improved fermentation performance is at least one of faster fermentation rate and a shorter lag period, wherein said GLO1 allele is an allele encoding SEQ ID NO: 2 or an allele consisting of SEQ ID NO: 1.
A method of detecting the presence of insects in an indoor environment comprising: a / taking a sample of volatile organic compounds (VOCs) in the indoor environment; b / separating the VOCs sampled; c / detecting the presence or absence of predetermined "target" VOCs, these predetermined "target" VOCs belonging to at least one of the following three categories of VOCs: - VOCs that are emitted independently of the substrate on which the insects grow, and that are only emitted during an insect infestation, called "category 1 VOCs"; - VOCs that are emitted independently of the substrate on which the insects grow but that may also have biological origins other than insects, called "category 2 VOCs"; - VOCs that are emitted as a function of the substrate on which the insects grow, and that are only emitted during an insect infestation, called "category 3 VOCs"; d / calculating respectively a value "Insect Infestation Index" called "31" (or "3I index") and a value "Limit Value" called "VL", each of which depends on the presence or absence of the predetermined target VOCs, e / comparing the values "31" and "VL"; if the value "31" is strictly greater than the value "VL" then the environment is infested, and if the value "31" is less than or equal to the value "VL", the environment is not infested. a / taking a sample of volatile organic compounds (VOCs) in the indoor environment; b / separating the VOCs sampled; c / detecting the presence or absence of predetermined "target" VOCs, these predetermined "target" VOCs belonging to at least one of the following three categories of VOCs: - VOCs that are emitted independently of the substrate on which the insects grow, and that are only emitted during an insect infestation, called "category 1 VOCs"; - VOCs that are emitted independently of the substrate on which the insects grow but that may also have biological origins other than insects, called "category 2 VOCs"; - VOCs that are emitted as a function of the substrate on which the insects grow, and that are only emitted during an insect infestation, called "category 3 VOCs"; - VOCs that are emitted independently of the substrate on which the insects grow, and that are only emitted during an insect infestation, called "category 1 VOCs"; - VOCs that are emitted independently of the substrate on which the insects grow but that may also have biological origins other than insects, called "category 2 VOCs"; - VOCs that are emitted as a function of the substrate on which the insects grow, and that are only emitted during an insect infestation, called "category 3 VOCs"; d / calculating respectively a value "Insect Infestation Index" called "31" (or "3I index") and a value "Limit Value" called "VL", each of which depends on the presence or absence of the predetermined target VOCs, e / comparing the values "31" and "VL"; if the value "31" is strictly greater than the value "VL" then the environment is infested, and if the value "31" is less than or equal to the value "VL", the environment is not infested.
A sheet for a pressure sensor, comprising a first electrode sheet, a second electrode sheet, and a flocculent pressure-sensitive conductive layer composed of tangled conductive fibers, which is disposed between the first electrode sheet and the second electrode sheet and undergoes a change in resistance value when compressed, wherein the conductive fibers are stacked in a perpendicular direction to electrode sheets (1a,1b), the conductive fibers that constitute the pressure-sensitive conductive layer have spaces provided therebetween, the conductive fibers comprise a conductive material dispersed in a polymer material, the conductive material comprises a first conductive material and a second conductive material, the first conductive material is a filamentous conductive material, and the second conductive material is a particulate conductive material that includes flake-like conductive material, and a diameter of the conductive fibers is within a range from 100 nm to 10 μm.
A method for producing -1,1,3-trimethyl-4-aminoindane, comprising the following steps,, and:: a step of optically resolving 1,1,3-trimethyl-4-aminoindane with D-tartaric acid to obtain -1,1,3-trimethyl-4-aminoindane and -1,1,3-trimethyl-4-aminoindane;: a step of racemizing the -1,1,3-trimethyl-4-aminoindane obtained in the step or to obtain 1,1,3-trimethyl-4-aminoindane; and: a step of optically resolving the 1,1,3-trimethyl-4-aminoindane obtained in the step to obtain -1,1,3-trimethyl-4-aminoindane and -1,1,3-trimethyl-4-aminoindane, wherein the step is a step of bringing the -1,1,3-trimethyl-4-aminoindane obtained in the step or into contact with a transition metal catalyst to perform racemization.: a step of optically resolving 1,1,3-trimethyl-4-aminoindane with D-tartaric acid to obtain -1,1,3-trimethyl-4-aminoindane and -1,1,3-trimethyl-4-aminoindane;: a step of racemizing the -1,1,3-trimethyl-4-aminoindane obtained in the step or to obtain 1,1,3-trimethyl-4-aminoindane; and: a step of optically resolving the 1,1,3-trimethyl-4-aminoindane obtained in the step to obtain -1,1,3-trimethyl-4-aminoindane and -1,1,3-trimethyl-4-aminoindane,
A portable device for orienting a level measuring instrument on a container, the device comprising: a processor; a tilt sensor; a display device; wherein the processor is configured to determine an inclination of the level measuring instrument by using the tilt sensor to determine an inclination of the device when the device is touching the level measuring instrument; wherein the processor is configured to determine a dimension of the container and a position of the level measuring instrument relative to the container; characterized in that the processor is configured to determine a required alteration in an orientation of the level measuring instrument on the basis of the dimension of the container, the position of the level measuring instrument relative to the container and the inclination of the level measuring instrument; and the processor is configured to transmit to the display device a signal for outputting the determined required alteration in the orientation of the level measuring instrument. a processor; a tilt sensor; a display device; wherein the processor is configured to determine an inclination of the level measuring instrument by using the tilt sensor to determine an inclination of the device when the device is touching the level measuring instrument; wherein the processor is configured to determine a dimension of the container and a position of the level measuring instrument relative to the container; characterized in that the processor is configured to determine a required alteration in an orientation of the level measuring instrument on the basis of the dimension of the container, the position of the level measuring instrument relative to the container and the inclination of the level measuring instrument; and the processor is configured to transmit to the display device a signal for outputting the determined required alteration in the orientation of the level measuring instrument.
Workstation of an air-spinning machine, comprising - an air-spinning device for spinning a thread from a supplied sliver and - a thread-guiding unit, which is downstream of the air-spinning device and has an inlet opening for receiving the thread exiting from the outlet opening of the air-spinning device and a thread guide channel for conducting at least the air-spun thread coming from the air-spinning device, wherein the thread-guiding unit comprises a thread deflection unit for defined deflection of the thread, the thread deflection unit forms the inlet opening and comprises an exit at its end facing away from the inlet opening, which is coupled to the inlet opening via an interposed thread deflection section and via which the thread deflection unit can be connected to the thread guide channel for guiding the thread through the thread-guiding unit to the inlet opening, characterised in that a thread-guiding element (1, 1a) is arranged in the area between the outlet opening of the air-spinning device and the inlet opening of the thread-guiding unit, wherein the thread-guiding element (1, 1a) comprises a channel body having a through-channel, which comprises - a connection section configured for connection to the spinning device for arranging a first open end of the through-channel in the region of the outlet opening of the spinning device and - an end section (21, 21a) which can be arranged facing the inlet opening, wherein the end section (21, 21a), in order to receive a thread exiting from the inlet opening, is matched to a contour of the thread-guiding unit surrounding the inlet opening. - an air-spinning device for spinning a thread from a supplied sliver and - a thread-guiding unit, which is downstream of the air-spinning device and has an inlet opening for receiving the thread exiting from the outlet opening of the air-spinning device and a thread guide channel for conducting at least the air-spun thread coming from the air-spinning device, wherein the thread-guiding unit comprises a thread deflection unit for defined deflection of the thread, the thread deflection unit forms the inlet opening and comprises an exit at its end facing away from the inlet opening, which is coupled to the inlet opening via an interposed thread deflection section and via which the thread deflection unit can be connected to the thread guide channel for guiding the thread through the thread-guiding unit to the inlet opening, characterised in that a thread-guiding element (1, 1a) is arranged in the area between the outlet opening of the air-spinning device and the inlet opening of the thread-guiding unit, wherein the thread-guiding element (1, 1a) comprises a channel body having a through-channel, which comprises - a connection section configured for connection to the spinning device for arranging a first open end of the through-channel in the region of the outlet opening of the spinning device and - an end section (21, 21a) which can be arranged facing the inlet opening, wherein the end section (21, 21a), in order to receive a thread exiting from the inlet opening, is matched to a contour of the thread-guiding unit surrounding the inlet opening.