mhurhangee/ep-ind-claims huggingface dataset:
A system comprising a smart locking apparatus and a smart phone, the smart secured locking apparatus comprising: a first fixture; a second fixture; and a third fixture for connecting the first fixture to the second fixture; and wherein: the first fixture comprises a receptacle; the second fixture comprises a plate with an opening; the third fixture is a seal that comprises a protrusive structure that fits into the receptacle of the first structure and into the opening of the plate of the second fixture to connect the first fixture to the second fixture; the second fixture has a serial number; the serial number is encrypted and put into a code; the code is printed on the third fixture; wherein the smart phone is configured to: check the association of the serial number and the code to verify that locking of the first fixture and the second fixture together continues to be valid; encrypt the serial number into a second code; compare the second code with the code, and; determine that if the scanned code and second code are the same, then the locking of the first fixture and the second fixture together with the apparatus appears valid; and if the scanned code and the second code are not the same, then the locking of the first fixture and the second fixture together with the apparatus is not necessarily valid. a first fixture; a second fixture; and a third fixture for connecting the first fixture to the second fixture; and the first fixture comprises a receptacle; the second fixture comprises a plate with an opening; the third fixture is a seal that comprises a protrusive structure that fits into the receptacle of the first structure and into the opening of the plate of the second fixture to connect the first fixture to the second fixture; the second fixture has a serial number; the serial number is encrypted and put into a code; the code is printed on the third fixture; wherein the smart phone is configured to: check the association of the serial number and the code to verify that locking of the first fixture and the second fixture together continues to be valid; encrypt the serial number into a second code; compare the second code with the code, and; determine that if the scanned code and second code are the same, then the locking of the first fixture and the second fixture together with the apparatus appears valid; and if the scanned code and the second code are not the same, then the locking of the first fixture and the second fixture together with the apparatus is not necessarily valid. check the association of the serial number and the code to verify that locking of the first fixture and the second fixture together continues to be valid; encrypt the serial number into a second code; compare the second code with the code, and; determine that if the scanned code and second code are the same, then the locking of the first fixture and the second fixture together with the apparatus appears valid; and if the scanned code and the second code are not the same, then the locking of the first fixture and the second fixture together with the apparatus is not necessarily valid.
A permanent-magnet particle beam apparatus, comprising: charged particle beam emitter which is configured to emit a particle beam; a set of permanent magnets (204A, 204B) forming a magnetic field for controlling condensing of the charged particle beam; and a non-magnetic electrical conductor component (206A, 206B) situated with the set of permanent magnets to control kinetic energy of the charged particle beam moving through the magnetic field; characterised in that the set of permanent magnets have an input opening facing an output opening of the non-magnetic electrical conductor component, such that the charged particle beam enters the magnetic field at the input opening of the set of permanent magnets from the output opening of the non-magnetic electrical conductor component, for being condensed; wherein the non-magnetic electrical conductor is a single component with a channel through which the particle beam travels, wherein an input opening of the non-magnetic electrical conductor component that receives the charged particle beam from the emitter as input is larger than the output opening of the non-magnetic electrical conductor component through which the charged particle beam is output, wherein the non-magnetic electrical conductor component (206A, 206B) is coupled to the set of permanent magnets (204A, 204B). charged particle beam emitter which is configured to emit a particle beam; a set of permanent magnets (204A, 204B) forming a magnetic field for controlling condensing of the charged particle beam; and a non-magnetic electrical conductor component (206A, 206B) situated with the set of permanent magnets to control kinetic energy of the charged particle beam moving through the magnetic field; characterised in that wherein the non-magnetic electrical conductor is a single component with a channel through which the particle beam travels, wherein an input opening of the non-magnetic electrical conductor component that receives the charged particle beam from the emitter as input is larger than the output opening of the non-magnetic electrical conductor component through which the charged particle beam is output, wherein the non-magnetic electrical conductor component (206A, 206B) is coupled to the set of permanent magnets (204A, 204B).
A de-icing system for a counter rotating propeller system, comprising: first and second counter rotating hubs (26, 30) supporting corresponding first and second pluralities of propeller blades (18, 20) rotatable about a first axis, wherein each of the first and second pluralities of propeller blades (18, 20) are rotatable about a second axis (52, 54) transverse to the first axis for adjusting a desired blade pitch; a generator for generating electric power; an actuator for driving rotation of one of the first and second plurality of blades about the second axis; characterised in comprising a transfer mechanism for translating rotation to the other of the first and second plurality of blades about the second axis, the transfer mechanism including a bearing assembly having a first part rotating with the first hub and a second part rotating with the second hub; and a heating element (48, 50) mounted to at least one propeller blade (18, 20) supported on each of the first hub and the second hub receiving electric power from the generator; further characterised in that the generator is mounted within the bearing assembly. first and second counter rotating hubs (26, 30) supporting corresponding first and second pluralities of propeller blades (18, 20) rotatable about a first axis, wherein each of the first and second pluralities of propeller blades (18, 20) are rotatable about a second axis (52, 54) transverse to the first axis for adjusting a desired blade pitch; a generator for generating electric power; an actuator for driving rotation of one of the first and second plurality of blades about the second axis; characterised in comprising a transfer mechanism for translating rotation to the other of the first and second plurality of blades about the second axis, the transfer mechanism including a bearing assembly having a first part rotating with the first hub and a second part rotating with the second hub; and a heating element (48, 50) mounted to at least one propeller blade (18, 20) supported on each of the first hub and the second hub receiving electric power from the generator; further characterised in that the generator is mounted within the bearing assembly.
Method for operating a Coriolis mass flow meter, wherein the Coriolis mass flow meter has at least one measuring tube through which a medium flows, the measuring tube is excited to oscillations in at least one frequency and/or in at least one eigenmode, the resulting oscillations of the measuring tube are detected and the density d of the medium is determined by evaluating the detected oscillations, wherein at a calibration temperature T k a calibration density sensitivity E d,k (T k) of the Coriolis mass flow meter is determined using the detected oscillations of the measuring tube,wherein at a temperature T differing from the calibration temperature T k a density sensitivity E d of the Coriolis mass flow meter is determined using the detected oscillations of the measuring tube, wherein a density sensitivity E d indicates the sensitivity with which the density d of the medium changes with a change in the detected resonance frequency f 0, wherein a measurement change rate r m of the density sensitivity E d is determined from the calibration density sensitivity E d,k (T k) determined using the detected oscillations and the density sensitivity E d at the temperature T, characterized in that a prediction change rate r p of the density sensitivity is calculated using a prediction algorithm which depends on the temperature T differing from the calibration temperature T k, but not depending on the detected oscillations of the measuring tube during the determination of the density sensitivity E d at the temperature T, and that a deviation signal is generated when the measurement change rate r m deviates from the prediction change rate r p.
Rotary drum machine for dyeing, washing or the like of textile articles, comprising: - a stationary support structure having a pressurizable treatment chamber, - a rotary drum located inside said treatment chamber, - a shaft fastened to the drum and having two ends (24a, 24b) rotatably supported by the stationary support structure by means of respective support assemblies (26a, 26b), and - two flat walls (16, 18) that delimit the treatment chamber from opposite sides with respect to the drum, characterised in that said support assemblies (26a, 26b) comprise respective thrust bearings (32a, 32b) that transmit the forces generated on said flat walls (16, 18) by the pressure within said treatment chamber to the shaft. - a stationary support structure having a pressurizable treatment chamber, - a rotary drum located inside said treatment chamber, - a shaft fastened to the drum and having two ends (24a, 24b) rotatably supported by the stationary support structure by means of respective support assemblies (26a, 26b), and - two flat walls (16, 18) that delimit the treatment chamber from opposite sides with respect to the drum,
A method for manufacturing a band-like cut member, the method comprising the steps of: setting N, where N is a natural number, cutting positions in a band-like member, the band-like member having a plurality of reinforcing cords arranged mutually parallel and embedded in rubber, from a first end toward a second end in a width direction of the band-like member, the width direction being orthogonal to a length direction of the plurality of reinforcing cords in the band-like member; and forming cuts in the band-like member on the basis of the cutting positions in order to produce (N + 1) band-like cut members by cutting the band-like member along the length direction of the plurality of reinforcing cords at the N cutting positions, wherein the step of setting the cutting positions in the band-like member includes: a step A of setting M, where M is a natural number less than N, cutting positions in the band-like member every first number of reinforcing cords of the plurality of reinforcing cords, the first number that is a fixed number; and a step B of setting a second number within an allowable number range of the plurality of reinforcing cords that is predetermined and setting (N - M) cutting positions in the band-like member every second number such that band-like cut members having the second number of reinforcing cords of the plurality of reinforcing cords are continuously produced. setting N, where N is a natural number, cutting positions in a band-like member, the band-like member having a plurality of reinforcing cords arranged mutually parallel and embedded in rubber, from a first end toward a second end in a width direction of the band-like member, the width direction being orthogonal to a length direction of the plurality of reinforcing cords in the band-like member; and forming cuts in the band-like member on the basis of the cutting positions in order to produce (N + 1) band-like cut members by cutting the band-like member along the length direction of the plurality of reinforcing cords at the N cutting positions, a step A of setting M, where M is a natural number less than N, cutting positions in the band-like member every first number of reinforcing cords of the plurality of reinforcing cords, the first number that is a fixed number; and a step B of setting a second number within an allowable number range of the plurality of reinforcing cords that is predetermined and setting (N - M) cutting positions in the band-like member every second number such that band-like cut members having the second number of reinforcing cords of the plurality of reinforcing cords are continuously produced.
A cosmetic composition comprising: (i) 2-3 % w/w a water-insoluble UV-A sunscreen agent which is selected from the group consisting of Avobenzone, Benzophenone-3 and mixtures thereof; (ii) 3-5 % w/w a water-insoluble UV-B sunscreen agent which is selected from octyl methoxycinnamate, octyl salicylate and mixtures thereof; (iii) 2-3 % w/w a water-soluble sunscreen agent which is 2-phenylbenzimidazole-5-sulfonic acid salts, the water-soluble sunscreen agent having metallic counter ions which in a first portion are sodium ions and in a second portion are potassium ions, the ions being in a respective molar ratio of 0.8:1 to 0.4:1; and (iiv) a cosmetically acceptable carrier comprising from 0.2 to 4% of potassium stearate by weight of the composition. (i) 2-3 % w/w a water-insoluble UV-A sunscreen agent which is selected from the group consisting of Avobenzone, Benzophenone-3 and mixtures thereof; (ii) 3-5 % w/w a water-insoluble UV-B sunscreen agent which is selected from octyl methoxycinnamate, octyl salicylate and mixtures thereof; (iii) 2-3 % w/w a water-soluble sunscreen agent which is 2-phenylbenzimidazole-5-sulfonic acid salts, the water-soluble sunscreen agent having metallic counter ions which in a first portion are sodium ions and in a second portion are potassium ions, the ions being in a respective molar ratio of 0.8:1 to 0.4:1; and (iiv) a cosmetically acceptable carrier comprising from 0.2 to 4% of potassium stearate by weight of the composition.
Method for checking a speed recording device and a motorized apparatus in the form of an electric tool or washing machine, having the steps of: a) switching on the motorized apparatus; b) checking whether a speed signal from the motorized apparatus, which is recorded by the speed recording device, is present at a first input of a control device; c) outputting a test signal to the speed recording device via an output of the control device if no speed signal is sensed in step b); d) transmitting the test signal processed in a defined manner by the speed recording device to the first input of the control device; e) identifying a fault in the speed recording device if the output test signal is not present at the first input of the control device in the defined manner; f) recording a speed value of the motorized apparatus during a soft start phase in which the speed of the motorized apparatus is slowly brought to a defined speed value; g) identifying a fault in the motorized apparatus if the defined speed value has not been reached within a defined period during the soft start phase. a) switching on the motorized apparatus; b) checking whether a speed signal from the motorized apparatus, which is recorded by the speed recording device, is present at a first input of a control device; c) outputting a test signal to the speed recording device via an output of the control device if no speed signal is sensed in step b); d) transmitting the test signal processed in a defined manner by the speed recording device to the first input of the control device; e) identifying a fault in the speed recording device if the output test signal is not present at the first input of the control device in the defined manner; f) recording a speed value of the motorized apparatus during a soft start phase in which the speed of the motorized apparatus is slowly brought to a defined speed value; g) identifying a fault in the motorized apparatus if the defined speed value has not been reached within a defined period during the soft start phase.
A processor, comprising: a configurable nonlinear activation function circuit configured to: determine, based on a selected nonlinear activation function, a set of parameters for the selected nonlinear activation function; and generate output data based on application of the set of parameters for the selected nonlinear activation function, the processor further characterized in that the configurable nonlinear activation function circuit comprises at least one nonlinear approximator comprising at least two successive linear approximators, and each linear approximator of the at least two successive linear approximators is configured to approximate a linear function using one or more function parameters of the set of parameters. a configurable nonlinear activation function circuit configured to: determine, based on a selected nonlinear activation function, a set of parameters for the selected nonlinear activation function; and generate output data based on application of the set of parameters for the selected nonlinear activation function, determine, based on a selected nonlinear activation function, a set of parameters for the selected nonlinear activation function; and generate output data based on application of the set of parameters for the selected nonlinear activation function, the processor further characterized in that the configurable nonlinear activation function circuit comprises at least one nonlinear approximator comprising at least two successive linear approximators, and each linear approximator of the at least two successive linear approximators is configured to approximate a linear function using one or more function parameters of the set of parameters. the configurable nonlinear activation function circuit comprises at least one nonlinear approximator comprising at least two successive linear approximators, and each linear approximator of the at least two successive linear approximators is configured to approximate a linear function using one or more function parameters of the set of parameters.
Mobile verification device for checking the authenticity of identification documents, in particular travel documents, comprising an upper device part and a lower device part which are connected together in an articulated manner and which form a gap for the insertion of an identification document to be read, characterized - in that the lower device part, tapering downwards in steps, merges into a handle, and - in that, in the event of breakage of an intended breakage point, which is arranged in a mechanical or electronic connection between the verification device and a holding person, the verification device is designed to block the function of the verification device and at the same time to trigger an acoustic alarm signal and/or location of the device. - in that the lower device part, tapering downwards in steps, merges into a handle, and - in that, in the event of breakage of an intended breakage point, which is arranged in a mechanical or electronic connection between the verification device and a holding person, the verification device is designed to block the function of the verification device and at the same time to trigger an acoustic alarm signal and/or location of the device.
Apparatus to feed metal products to a work machine comprising a plurality of feed heads disposed during use in a direction of feed (x) upstream of said work machine, each of which being configured to support said metal products, and at least one of which being configured to retain at least two metal products and render them selectively available to said work machine, characterized in that it comprises a drawing unit interposed during use between said feed heads and said work machine, said drawing unit being configured to assume at least a first operating condition not interfering with said metal products, and a second operating condition in which it is positioned during use in axis with the work axis of said work machine and is configured to pick up from said feed head at least one of said metal products chosen from among the at least two metal products retained by the specific feed head and to feed it to said work machine in said direction of feed, said feed heads being movable during use with respect to the drawing unit in a direction transverse with respect to said direction of feed.
A heating device, which is configured for heating a medium, with a first plate element, the top side of which is in contact with the medium in the operation of the heating device, wherein a second plate element is arranged on a bottom side of the first plate element, which has a greater thermal conductivity than the first plate element, and with a carrier plate for positioning at least one tubular heating body (22, 24) of the heating device, wherein the carrier plate is connected to a bottom side of the second plate element, characterized in that the carrier plate comprises at least one receptacle (40, 42) for positioning the at least one tubular heating body (22, 24), into which the at least one tubular heating body (22, 24) is inserted, wherein a thickness of the carrier plate is reduced in the area of the at least one receptacle (40, 42) compared to the thickness of at least one area of a base body of the carrier plate adjoining to the at least one receptacle (40, 42).
An influenza A H5 virus hemagglutinin molecule comprising an amino acid substitution in the receptor binding site, wherein the substituted HA molecule comprises the amino acid asparagine at the position corresponding to position 223 in H5 HA, wherein the HA molecule does not originate with human H5 isolate A/HK/213/03 and the inclusion of asparagine at position 223 results in an increased reactivity with antisera derived from an animal exposed to an influenza virus.