mhurhangee/ep-ind-claims huggingface dataset:
Assembly for measuring a mass flow or a volume flow of a flow on or in a device through which a fluid can flow by means of electronic sensors (2, 3), wherein the device through which the fluid can flow is a heating device operated with a fuel gas and the mass flow or the volume flow relates to the fuel gas, supplied ambient air and/or exhaust gas, characterised in that the assembly is configured to determine the mass flow or the volume flow by at least two independent measuring systems (51, S2) and wherein the two measuring systems (51, S2) are designed so that they differ in at least their tendency to become contaminated, and in that all of the sensors (2, 3) are accommodated in a common housing and the first sensor is arranged in a bypass line and together with the bypass line forms the first measuring system, and the second sensor is arranged in a branch line with an opening to the environment of the device and together with the branch line forms the second measuring system, wherein each sensor (2, 3) is connected to evaluation electronics (4, 5) and the measured values determined by each evaluation electronics (4, 5) for the mass flow or the volume flow can be supplied to comparison electronics, which are configured to compare at least measured values of the mass flow or the volume flow or their behavior over time with one another in order to determine the contamination from deviations of the measured values from one another and to output results of the comparison in the form of an error log, a warning signal or a switch-off signal.
A method for versioning a dataset through file clustering, the method comprising: creating a file (220A-D) comprising a plurality of clusters (302, 304; 402, 404; 502-508; 602, 604); writing a first version of a first dataset (0,0) to a first cluster (302; 402; 602) of the plurality of clusters; writing a first version number of the first dataset to the first cluster; receiving a first instruction to save a second version (0,1) of the first dataset; writing a second version of the first dataset to a second cluster (304; 408; 608) of the plurality of clusters; writing a second version number to the second cluster that corresponds to the second version of the first dataset; receiving a second instruction to save a third version (0,2) of the first dataset; determining whether the first cluster or the second cluster contains a least recent version of the dataset based on a comparison of the first version number with the second version number; in response to a determination that the first version number is older than the second version number, writing the third version of the first dataset to the first cluster based on the determination, wherein the first version of the first dataset is overwritten with the third version of the first dataset; and writing a third version number to the first cluster corresponding to the third version of the first dataset. creating a file (220A-D) comprising a plurality of clusters (302, 304; 402, 404; 502-508; 602, 604); writing a first version of a first dataset (0,0) to a first cluster (302; 402; 602) of the plurality of clusters; writing a first version number of the first dataset to the first cluster; receiving a first instruction to save a second version (0,1) of the first dataset; writing a second version of the first dataset to a second cluster (304; 408; 608) of the plurality of clusters; writing a second version number to the second cluster that corresponds to the second version of the first dataset; receiving a second instruction to save a third version (0,2) of the first dataset; determining whether the first cluster or the second cluster contains a least recent version of the dataset based on a comparison of the first version number with the second version number; in response to a determination that the first version number is older than the second version number, writing the third version of the first dataset to the first cluster based on the determination, wherein the first version of the first dataset is overwritten with the third version of the first dataset; and writing a third version number to the first cluster corresponding to the third version of the first dataset.
A tool assembly for composite aircraft parts, said tool assembly comprising: a support frame including support beams and support mounts, the support mounts supporting the support beams, the support frame being rigid and used to transport the tool assembly; and a support tool supported by the support frame, the support tool having a faceplate and a supporting grid structure formed with the faceplate as a monolithic structure, the faceplate and the supporting grid structure being defined by a series of additive manufactured layers built on each other with the supporting grid structure being positioned below and supporting the faceplate, the faceplate having a supporting surface at a top of the support tool for supporting a working component, the supporting surface being contoured and defined by a well formed into the top-most AM layers; wherein the supporting grid structure engages the support beams such that loads are transferred between the support tool and the support frame through the support beams, the support frame maintaining dimensional stability of the support tool during transport and when resting within an allowable tolerance of the support tool. a support frame including support beams and support mounts, the support mounts supporting the support beams, the support frame being rigid and used to transport the tool assembly; and a support tool supported by the support frame, the support tool having a faceplate and a supporting grid structure formed with the faceplate as a monolithic structure, the faceplate and the supporting grid structure being defined by a series of additive manufactured layers built on each other with the supporting grid structure being positioned below and supporting the faceplate, the faceplate having a supporting surface at a top of the support tool for supporting a working component, the supporting surface being contoured and defined by a well formed into the top-most AM layers; wherein the supporting grid structure engages the support beams such that loads are transferred between the support tool and the support frame through the support beams, the support frame maintaining dimensional stability of the support tool during transport and when resting within an allowable tolerance of the support tool.
A thermal sensor integrated circuit, IC, (100, 500, 600) comprising: a resistor (110, 510, 610) implemented by at least one metal line, wherein a resistance of the resistor (110, 510, 610) is varied with a temperature of the resistor (110, 510, 610), the resistor (110, 510, 610) has a first terminal and a second terminal, and one of the first terminal and the second terminal is arranged such that a voltage signal corresponding to the resistance is generated; a switched-capacitor resistor (530, 630), coupled between a supply voltage and the first terminal of the resistor; a voltage-to-frequency converter (520, 620), coupled to the first terminal of the resistor, for converting the voltage signal to a frequency signal for determining the temperature; and a frequency divider (540, 640), coupled to the voltage-to-frequency converter and the switched-capacitor resistor, for frequency-dividing the frequency signal to generate a feedback signal to control the switched-capacitor resistor. a resistor (110, 510, 610) implemented by at least one metal line, wherein a resistance of the resistor (110, 510, 610) is varied with a temperature of the resistor (110, 510, 610), the resistor (110, 510, 610) has a first terminal and a second terminal, and one of the first terminal and the second terminal is arranged such that a voltage signal corresponding to the resistance is generated; a switched-capacitor resistor (530, 630), coupled between a supply voltage and the first terminal of the resistor; a voltage-to-frequency converter (520, 620), coupled to the first terminal of the resistor, for converting the voltage signal to a frequency signal for determining the temperature; and a frequency divider (540, 640), coupled to the voltage-to-frequency converter and the switched-capacitor resistor, for frequency-dividing the frequency signal to generate a feedback signal to control the switched-capacitor resistor.
A photoresist composition comprising: (a) one or more resins; (b) one or more photoacid generator compounds; and (c) one or more non-polymeric nitrogen-containing compounds that each comprise 1) more than two hydroxyl substituents and 2) one or more photoacid-labile groups, and wherein the one or more nitrogen-containing compounds corresponds to the following Formulae or: wherein in Formula R 1, R 2 and R 3 each independently represent an optionally substituted straight, branched or cyclic group of 1 to 30 carbon; R 4 represents hydrogen or a straight, branched or cyclic group of 1 to 30 carbon; m1, m2 and m3 are each independently an integer of 0 to 30; n1, n2 and n3 are each independently an integer of 0 or 1; and at least two among n1, n2 andn3 are 1; wherein in Formula R 1, R 2 and R 3 each independently represent a straight, branched or cyclic group of 1 to 30 carbon; R 4 represents hydrogen or an optionally substituted straight, branched or cyclic group of 1 to 30 carbon; and n is an integer of 1 to 30. (a) one or more resins; (b) one or more photoacid generator compounds; and (c) one or more non-polymeric nitrogen-containing compounds that each comprise 1) more than two hydroxyl substituents and 2) one or more photoacid-labile groups,
A poly(phenylene ether) composition comprising 31 to 40 weight percent of a poly(phenylene ether); 20 to 33 weight percent of a homopolystyrene; 1 to 15 weight percent of a hydrogenated block copolymer of an alkenyl aromatic monomer and a conjugated diene; 0.1 to 1.6 weight percent of a linear low density polyethylene; and 24 to 36 weight percent of a reinforcing filler; wherein weight percent of each component is based on total weight of the composition. 31 to 40 weight percent of a poly(phenylene ether); 20 to 33 weight percent of a homopolystyrene; 1 to 15 weight percent of a hydrogenated block copolymer of an alkenyl aromatic monomer and a conjugated diene; 0.1 to 1.6 weight percent of a linear low density polyethylene; and 24 to 36 weight percent of a reinforcing filler; wherein weight percent of each component is based on total weight of the composition.
Emergency stop system for putting a vehicle that is able to be operated at least partially autonomously into a safe state, having an actuation device for outputting an actuation signal, a control device for receiving the actuation signal and for outputting a control signal, an emergency braking device for actively braking the vehicle, wherein the emergency braking device is configured to actuate a brake system (800, 802) provided in the vehicle based on the output control signal and based on a predefined operating mode in order to generate a braking force for decelerating the vehicle, characterized by an operating mode setting device that is configured to selectively prohibit activation of the emergency braking device by the actuation device, wherein the operating mode setting device is additionally configured to specify different operating modes for the transmission to the transmission control device. an actuation device for outputting an actuation signal, a control device for receiving the actuation signal and for outputting a control signal, an emergency braking device for actively braking the vehicle, wherein the emergency braking device is configured to actuate a brake system (800, 802) provided in the vehicle based on the output control signal and based on a predefined operating mode in order to generate a braking force for decelerating the vehicle, characterized by an operating mode setting device that is configured to selectively prohibit activation of the emergency braking device by the actuation device, wherein the operating mode setting device is additionally configured to specify different operating modes for the transmission to the transmission control device.
An electronic lock, namely a door lock, comprising a handle (14, 16) for actuating said door lock (10, 11), a vibration element (18, 32) for generating vibrations (20, 40), and a driver element for driving said vibration element (18, 32), characterized in that said vibration element is vibrated by said driver element in such a way that different haptic signals can be output by different vibration patterns at said handle (14, 16) for signalling different operating states and/or error states of said electronic lock, that a closing element in the form of a lock cylinder cooperates with said handle (14, 16), and that said closing element is coupled to said handle (14, 16).
A polypropylene resin-based formulation comprising the following elements: - between 50 and 90 parts by weight of a copolymer of propylene and ethylene, - between 9 and 20 parts by weight of a mixture of mineral fillers comprising 40 to 80% of talc and 20 to 60% of fillers of the group comprising microspheres, fibers and microtalcs, - between 0.1 to 10 parts by weight of a blowing agent, the parts by weight of the different elements of the formulation being selected such that the sum is 100 parts by weight, the formulation having a Melt Mass Flow Rate MFR comprised between 50g/10min and 200g/10min and a density comprised before expansion of the blowing agent between 0.95g/cm 3 and 1g/cm 3. - between 50 and 90 parts by weight of a copolymer of propylene and ethylene, - between 9 and 20 parts by weight of a mixture of mineral fillers comprising 40 to 80% of talc and 20 to 60% of fillers of the group comprising microspheres, fibers and microtalcs, - between 0.1 to 10 parts by weight of a blowing agent, the parts by weight of the different elements of the formulation being selected such that the sum is 100 parts by weight,
A vasoprotective agent for use in suppressing or preventing the metastasis of a malignant tumor or exacerbation and/or augmentation of metastasis of a malignant tumor caused by an anticancer and/or antitumor agent, the agent comprising, as an active ingredient, at least one of the following: (i) adrenomedullin or a derivative, which is a polypeptide having a structure of an amino acid sequence represented by SEQ ID NO:13, and having an effect of increasing cAMP in platelets or a vasodilatory and/or antihypertensive effect; or (ii) ghrelin or a derivative, which is a peptide having a structure of an amino acid sequence represented by SEQ ID NO:1 or 2 in which the amino acid residue at the 3rd position from the amino terminus is a modified amino acid residue having a side chain acylated with n-octanoic acid, and having an agonistic effect on growth hormone secretagogue receptor 1a. (i) adrenomedullin or a derivative, which is a polypeptide having a structure of an amino acid sequence represented by SEQ ID NO:13, and having an effect of increasing cAMP in platelets or a vasodilatory and/or antihypertensive effect; or (ii) ghrelin or a derivative, which is a peptide having a structure of an amino acid sequence represented by SEQ ID NO:1 or 2 in which the amino acid residue at the 3rd position from the amino terminus is a modified amino acid residue having a side chain acylated with n-octanoic acid, and having an agonistic effect on growth hormone secretagogue receptor 1a.
A method for manufacturing a radiation source for a nondestructive inspection, comprising: manufacturing a spherical irradiation target; characterized by accommodating the spherical irradiation target in a rotating capsule; and rotating an axial flow impeller by a downward flow of a reactor primary coolant, whereby the rotating capsule is rotated. manufacturing a spherical irradiation target; characterized by accommodating the spherical irradiation target in a rotating capsule; and rotating an axial flow impeller by a downward flow of a reactor primary coolant, whereby the rotating capsule is rotated.
A gas turbine engine article comprising: a substrate; a bond coating (82; 182) covering at least a portion of the substrate with a step (86; 186) formed in at least one of the substrate and the bond coating (82; 182); and a thermally insulating topcoat (84; 184) disposed on the bond coating (82; 182), the thermally insulating topcoat includes a first topcoat portion separated by at least one fault (98; 198) extending through the thermally insulating topcoat (84; 184) from a second topcoat portion, wherein the step (86; 186) includes a radially inner edge having a radius R1, the step (86; 186) includes a radially outer fillet having a radius R2, the step (86; 186) extends in a non-perpendicular direction such that the step (86; 186) forms an undercut; characterised in that: the step (86; 186) extends in a radial and circumferential direction between opposing circumferential sides of the turbine article a substrate; a bond coating (82; 182) covering at least a portion of the substrate with a step (86; 186) formed in at least one of the substrate and the bond coating (82; 182); and a thermally insulating topcoat (84; 184) disposed on the bond coating (82; 182), the thermally insulating topcoat includes a first topcoat portion separated by at least one fault (98; 198) extending through the thermally insulating topcoat (84; 184) from a second topcoat portion, wherein the step (86; 186) includes a radially inner edge having a radius R1, the step (86; 186) includes a radially outer fillet having a radius R2, the step (86; 186) extends in a non-perpendicular direction such that the step (86; 186) forms an undercut; characterised in that: the step (86; 186) extends in a radial and circumferential direction between opposing circumferential sides of the turbine article
A sport ball comprising: a casing formed from a plurality of panels joined together at a plurality of seams; wherein each of the plurality of panels has: (a) a first layer (51; 71) formed from a polymer material and positioned to form a portion of an exterior surface of the sport ball; (b) a second layer (52; 72) formed from a polymer foam material and positioned inward and adjacent to the first layer (51;71); (c) a third layer (53; 73) positioned inward and adjacent to the second layer (52; 72); and a thickness; wherein the first layer (51; 71) of at least one of the plurality of panels defines a first indentation therein; wherein the first layer (51; 71) is bonded directly to the third layer (53; 73) at the first indentation; wherein the first indentation extends through an entirety of the thickness; wherein the first indentation has a first shoulder and a second shoulder each having a substantially squared cross-sectional configuration, wherein the third layer (53; 73) has an interior surface facing toward an interior of the sport ball and the interior surface has a substantially planar configuration opposite the first indentation in exterior surface of panel; and a bladder (40; 73) located within the casing. a casing formed from a plurality of panels joined together at a plurality of seams; wherein each of the plurality of panels has: (a) a first layer (51; 71) formed from a polymer material and positioned to form a portion of an exterior surface of the sport ball; (b) a second layer (52; 72) formed from a polymer foam material and positioned inward and adjacent to the first layer (51;71); (c) a third layer (53; 73) positioned inward and adjacent to the second layer (52; 72); and a thickness; (a) a first layer (51; 71) formed from a polymer material and positioned to form a portion of an exterior surface of the sport ball; (b) a second layer (52; 72) formed from a polymer foam material and positioned inward and adjacent to the first layer (51;71); (c) a third layer (53; 73) positioned inward and adjacent to the second layer (52; 72); and a thickness; wherein the first layer (51; 71) of at least one of the plurality of panels defines a first indentation therein; wherein the first layer (51; 71) is bonded directly to the third layer (53; 73) at the first indentation; wherein the first indentation extends through an entirety of the thickness; wherein the first indentation has a first shoulder and a second shoulder each having a substantially squared cross-sectional configuration, wherein the third layer (53; 73) has an interior surface facing toward an interior of the sport ball and the interior surface has a substantially planar configuration opposite the first indentation in exterior surface of panel; and a bladder (40; 73) located within the casing.
Method of operating a driver assistance system to support a parking operation of a motor vehicle, comprising the steps of: - determining an actual vehicle position by a position determining device of the motor vehicle, - determining a specific parking area in which the motor vehicle is to be parked, and a parking area information describing at least the parking area position of the particular parking area from predetermined map data as a function of the actual vehicle position by a computing device of the motor vehicle, - determining at least one sensor information relating to the specific parking area by detecting the surroundings of the parking area position by at least one sensor of the motor vehicle, wherein the sensor used to determine the sensor information is selected from a plurality of sensors of the motor vehicle depending on the parking area information and/or at least the detection of sensor data by the sensor parametrising acquisition parameters and/or a parametrising processing parameter is adjusted to the sensor information from the sensor data, - output of driver information and/or performing at least one driving intervention by the driver assistance system, in each case depending on both the parking area information and the sensor information. - determining an actual vehicle position by a position determining device of the motor vehicle, - determining a specific parking area in which the motor vehicle is to be parked, and a parking area information describing at least the parking area position of the particular parking area from predetermined map data as a function of the actual vehicle position by a computing device of the motor vehicle, - determining at least one sensor information relating to the specific parking area by detecting the surroundings of the parking area position by at least one sensor of the motor vehicle, wherein the sensor used to determine the sensor information is selected from a plurality of sensors of the motor vehicle depending on the parking area information and/or at least the detection of sensor data by the sensor parametrising acquisition parameters and/or a parametrising processing parameter is adjusted to the sensor information from the sensor data, - output of driver information and/or performing at least one driving intervention by the driver assistance system, in each case depending on both the parking area information and the sensor information.