mhurhangee/ep-ind-claims huggingface dataset:
Method for identifying microsleep of a driver of a vehicle, the method including the following steps: reading an eye closure information item about an eye parameter of the driver, wherein the eye closure information item represents, for the driver, a first eyelid position for the eye being open a maximum level and/or a second eyelid position for the eye being open a minimum level; classifying a current eyelid position of an eyelid of the driver using the eye closure information item in order to obtain an open eye information item, which represents an open state of the eyes or a closed state of the eyes; and establishing a sleep identification value, which represents a risk of an occurrence of microsleep, wherein the sleep identification value is established using the current eyelid position and/or the open eye information item, wherein the microsleep is identified if the sleep identification value exceeds a threshold during at least a predetermined time interval, characterized in that the driver is identified in an identification step before the reading step and the eye closure information item is provided using an information item about the identified driver, in particular from a database. reading an eye closure information item about an eye parameter of the driver, wherein the eye closure information item represents, for the driver, a first eyelid position for the eye being open a maximum level and/or a second eyelid position for the eye being open a minimum level; classifying a current eyelid position of an eyelid of the driver using the eye closure information item in order to obtain an open eye information item, which represents an open state of the eyes or a closed state of the eyes; and establishing a sleep identification value, which represents a risk of an occurrence of microsleep, wherein the sleep identification value is established using the current eyelid position and/or the open eye information item, wherein the microsleep is identified if the sleep identification value exceeds a threshold during at least a predetermined time interval,
Circuit arrangement (100, 1100, 1200, 1300) with a first capacitor, a second capacitor and a third capacitor, wherein first capacitor foils (111, 121, 131) of the capacitors (110, 120, 130) are connected in each case to a first circuit node, wherein the circuit arrangement (100, 1100, 1200, 1300) is designed to supply the first capacitor with a first time-dependent voltage, to supply the second capacitor with a second time-dependent voltage and to supply the third capacitor with a third time-dependent voltage, wherein the first voltage and the second voltage are clocked in antiphase, wherein the second voltage and the third voltage are clocked in phase, wherein the circuit arrangement (100, 1100, 1200, 1300) comprises an amplifier, a synchronous demodulator and a comparator, wherein inputs (201, 202) of the amplifier are connected to the first circuit node and to a ground contact, wherein the synchronous demodulator is provided for applying an output signal of the amplifier synchronously with the clock of the first voltage alternately to two inputs (221, 222) of the comparator, wherein the circuit arrangement (100, 1100, 1200, 1300) is designed to generate a control value in dependence on an output value of the comparator, wherein the circuit arrangement (100, 1100, 1200, 1300) is also designed for changing amplitude amounts of the first voltage and of the third voltage and/or an amplitude amount of the second voltage in dependence on the control value.
A system for detecting fluid leaks on a surface, the system comprising:a sound wave generator configured to generate sound waves;a tube having a first end coupled to the sound wave generator, a second end opposite the first end, and a plurality of openings formed in the tube; and a sound wave receiver coupled to the second end of the tube, the sound wave receiver being configured to detect sound waves generated by the sound wave generator that travel through the tube; and a controller coupled to the sound wave generator and the sound wave receiver, the controller being configured to detect a leak when fluid enters the tube through the plurality of openings in the tube.
Apparatus for additively manufacturing three-dimensional objects by means of successive layerwise consolidation of layers of a build material which can be consolidated by means of an energy source, comprising a dose module and a build module and an application unit, wherein the application unit is adapted to convey build material from a dose plane provided by the dose module to a build plane of the build module, characterized by at least one buffer module, wherein the application unit is adapted to convey build material from a buffer plane to the build plane, which buffer plane is provided by the buffer module in an operational state of the apparatus in which the dose module is not available, in particular during an exchange of the dose module, wherein the buffer plane is smaller than the dose plane.
A method for sending a single-ended loop testing SELT measurement signal, comprising: aligning a synchronization symbol of a digital subscriber line on which a SELT diagnosis needs to be performed with a synchronization symbol of at least one digital subscriber line for data transmission, wherein the synchronization symbol of the digital subscriber line on which a SELT diagnosis needs to be performed and the synchronization symbol of the at least one digital subscriber line for data transmission are uplink or downlink synchronization symbols; and the method being characterized by carrying a SELT measurement signal over the aligned synchronization symbol of the digital subscriber line on which a SELT diagnosis needs to be performed, wherein the SELT measurement signal is used to detect transmission quality or a line fault of the digital subscriber line, characterized in that the carrying a SELT measurement signal over the aligned synchronization symbol of the digital subscriber line on which a SELT diagnosis needs to be performed comprises: detecting whether a condition of carrying the SELT measurement signal is met; and carrying, when it is detected that the condition of carrying the SELT measurement signal is met, the SELT measurement signal over the aligned synchronization symbol of the digital subscriber line on which a SELT diagnosis needs to be performed, until all SELT measurement signals are carried and sent. aligning a synchronization symbol of a digital subscriber line on which a SELT diagnosis needs to be performed with a synchronization symbol of at least one digital subscriber line for data transmission, wherein the synchronization symbol of the digital subscriber line on which a SELT diagnosis needs to be performed and the synchronization symbol of the at least one digital subscriber line for data transmission are uplink or downlink synchronization symbols; and the method being characterized by carrying a SELT measurement signal over the aligned synchronization symbol of the digital subscriber line on which a SELT diagnosis needs to be performed, wherein the SELT measurement signal is used to detect transmission quality or a line fault of the digital subscriber line, characterized in that the carrying a SELT measurement signal over the aligned synchronization symbol of the digital subscriber line on which a SELT diagnosis needs to be performed comprises: detecting whether a condition of carrying the SELT measurement signal is met; and carrying, when it is detected that the condition of carrying the SELT measurement signal is met, the SELT measurement signal over the aligned synchronization symbol of the digital subscriber line on which a SELT diagnosis needs to be performed, until all SELT measurement signals are carried and sent. detecting whether a condition of carrying the SELT measurement signal is met; and carrying, when it is detected that the condition of carrying the SELT measurement signal is met, the SELT measurement signal over the aligned synchronization symbol of the digital subscriber line on which a SELT diagnosis needs to be performed, until all SELT measurement signals are carried and sent.
Use of a decontamination system for disinfecting escalator hand-rails, wherein the decontamination system comprises at least one sealed decontamination unit (1', 1") comprising at least one ozone generator, at least one ozone concentration sensor, at least one first 5-ozone destruction unit; and further comprises at least one ozone safety sensor (5', 5"), positioned after the at least one decontamination unit (1', 1"), at least one secondary ozone destruction unit (7', 7"), positioned after the at least one safety sensor (5', 5"), an intermediate controller, and a central controller.
Communication apparatus having a display arrangement (10; 110; 210) and a control apparatus for performing at least one mode of operation, wherein the display arrangement (10; 110; 210) has a pyramid-like body (12; 112; 212) having a base area, a top area (20; 120) and a multiplicity of side areas (16; 116; 216), wherein at least four and no more than six side areas (16; 116; 216) are provided and at least four of these each have means for holding a display unit (14; 214), wherein the control apparatus is arranged completely inside the body (12; 112; 212) of the display arrangement (10; 110; 210) and wherein the control apparatus uses a second connection, which is in wired and/or wireless form, to actuate the display arrangement (10; 110; 210) and the respectively held display units (14; 214) in the normal mode and can thus switch prescribed modes of operation, and hence, depending on the mode of operation, allows a communication between the display units (14; 214).
A vapour provision system comprising: a heating element for generating a vapour from a vapour precursor material; and control circuitry configured to provide power for the heating element for performing a heating operation to generate the vapour and to compare a measurement of a resistance value for the heating element for the heating operation with a predetermined threshold resistance value for the heating element for use in detecting a fault condition, wherein the control circuitry is further configured to: monitor the resistance of the heating element during at least one heating operation of the heating element to determine a plurality of monitored resistance values over a period of time; compare each of the plurality of monitored resistance values with the predetermined threshold resistance value; and detect a fault condition for the heating element based on the comparison of the plurality of monitored resistance values with the predetermined threshold resistance value, wherein the control circuitry is configured to detect said fault condition for the heating element in the event a plurality of the monitored resistance values exceed the predetermined threshold resistance value during the period of time. a heating element for generating a vapour from a vapour precursor material; and control circuitry configured to provide power for the heating element for performing a heating operation to generate the vapour and to compare a measurement of a resistance value for the heating element for the heating operation with a predetermined threshold resistance value for the heating element for use in detecting a fault condition, wherein the control circuitry is further configured to: monitor the resistance of the heating element during at least one heating operation of the heating element to determine a plurality of monitored resistance values over a period of time; compare each of the plurality of monitored resistance values with the predetermined threshold resistance value; and detect a fault condition for the heating element based on the comparison of the plurality of monitored resistance values with the predetermined threshold resistance value, wherein the control circuitry is configured to detect said fault condition for the heating element in the event a plurality of the monitored resistance values exceed the predetermined threshold resistance value during the period of time. monitor the resistance of the heating element during at least one heating operation of the heating element to determine a plurality of monitored resistance values over a period of time; compare each of the plurality of monitored resistance values with the predetermined threshold resistance value; and detect a fault condition for the heating element based on the comparison of the plurality of monitored resistance values with the predetermined threshold resistance value, wherein the control circuitry is configured to detect said fault condition for the heating element in the event a plurality of the monitored resistance values exceed the predetermined threshold resistance value during the period of time.
A computer program product comprising one or more computer-readable media having thereon computer-executable instructions that, when executed by one or more processors of a computing system, causes the computing system to perform the following: obtaining (301, 501) from a website a form field specification specifying a plurality of form fields of a form, wherein the form field specification contains a username and password specification of the website; prompting (302, 502) a user of the computing system to create a digital identity to be used to provide at least one value into at least one of the plurality of form fields of the form; automatically generating a username and password pair which conforms to the obtained username and password specification; securely storing the generated username and password pair such that it can be recalled by the computing system for future authentication at the website; creating a digital identity associated with the generated username and password pair; obtaining (303, 503), using the user-created digital identity, data to be used to populate the at least one of the plurality of form fields of the form; populating (304, 504) the at least one of the plurality of form fields of the form with the obtained data to generate at least one populated form field; and submitting (305, 505) the at least one populated form field to the website. obtaining (301, 501) from a website a form field specification specifying a plurality of form fields of a form, wherein the form field specification contains a username and password specification of the website; prompting (302, 502) a user of the computing system to create a digital identity to be used to provide at least one value into at least one of the plurality of form fields of the form; automatically generating a username and password pair which conforms to the obtained username and password specification; securely storing the generated username and password pair such that it can be recalled by the computing system for future authentication at the website; creating a digital identity associated with the generated username and password pair; obtaining (303, 503), using the user-created digital identity, data to be used to populate the at least one of the plurality of form fields of the form; populating (304, 504) the at least one of the plurality of form fields of the form with the obtained data to generate at least one populated form field; and submitting (305, 505) the at least one populated form field to the website.
An endoscope system, comprising: a light source device having a first light source that emits blue light; a second light source that emits broadband green light including not only a green component but also a red component; an optical filter that adjusts an amount of the broadband green light for each wavelength, wherein the optical filter has a characteristic in which a reflectance of the green component is smaller than a reflectance of the red component in a case of reflecting the broadband green light or a characteristic in which a transmittance of the green component is smaller than a transmittance of the red component in a case of transmitting the broadband green light, and wherein the transmittance/reflectance of the green component for each wavelength in the optical filter is substantially constant, and the transmittance/reflectance of the red component for each wavelength in the optical filter gradually rises smoothly towards the long wavelength side, and an image sensor that images an observation target using the blue light and the broadband green light whose components have been adjusted by the optical filter. a light source device having a first light source that emits blue light; a second light source that emits broadband green light including not only a green component but also a red component; an optical filter that adjusts an amount of the broadband green light for each wavelength, wherein the optical filter has a characteristic in which a reflectance of the green component is smaller than a reflectance of the red component in a case of reflecting the broadband green light or a characteristic in which a transmittance of the green component is smaller than a transmittance of the red component in a case of transmitting the broadband green light, and wherein the transmittance/reflectance of the green component for each wavelength in the optical filter is substantially constant, and the transmittance/reflectance of the red component for each wavelength in the optical filter gradually rises smoothly towards the long wavelength side, and an image sensor that images an observation target using the blue light and the broadband green light whose components have been adjusted by the optical filter.
Flexible, pressure-sensitively adhesive sheetlike structure for structural bonding, more particularly for clearance compensation, comprising (a) an open-cell flexible foam substrate with (b) at least one layer of a thermally curable pressure sensitive adhesive on both sides of the open-cell flexible foam substrate, wherein the open-cell foam substrate (a) is a chemically crosslinked foam, wherein the thermally curable pressure sensitive adhesive comprises at least (i) a polymer, at least (ii) a reactive component, at least (iii) an activator, and optionally (iv) a tackifier resin, wherein the thermally curable pressure sensitive adhesive comprises at least 100 parts of reactive component (ii) per 100 parts of polymer (i) and, where used, tackifier resin (iv). wherein the open-cell foam substrate (a) is a chemically crosslinked foam, wherein the thermally curable pressure sensitive adhesive comprises at least (i) a polymer, at least (ii) a reactive component, at least (iii) an activator, and optionally (iv) a tackifier resin, wherein the thermally curable pressure sensitive adhesive comprises at least 100 parts of reactive component (ii) per 100 parts of polymer (i) and, where used, tackifier resin (iv).
A method for capturing an acid gas (e.g. CO 2) in an exhaust gas, comprising contacting said exhaust gas with an aqueous amine absorbent in an absorption column, wherein at least a part of a surface of said absorption column comprises polypropylene, wherein the polypropylene composition comprises a hydrolytically stable antioxidant stable in amine solutions, of formula 1,3,5-tri-methyl-2,4,6-tris-(3,5-di-tert. butyl-4-hydroxyphenyl) benzene.
A use of a porous crystalline MOF solid consisting of a three-dimensional succession of units selected from the group comprising: - Fe 3 OX[C 6 H 3 -(CO 2) 3] 2 and - Fe 6 O 2 X 2 [C 12 H 6 N 2 -(CO 2) 4] 3 in which: • X is an anion selected from the group comprising OH -, Cl -, F -, as catalyst for reduction of nitrogen oxide, said porous crystalline MOF solid having a pore size of from 0.4 to 6 nm, said reduction of nitrogen oxide being carried out without the use of a reducing agent. - Fe 3 OX[C 6 H 3 -(CO 2) 3] 2 and - Fe 6 O 2 X 2 [C 12 H 6 N 2 -(CO 2) 4] 3 • X is an anion selected from the group comprising OH -, Cl -, F -, as catalyst for reduction of nitrogen oxide, said porous crystalline MOF solid having a pore size of from 0.4 to 6 nm, said reduction of nitrogen oxide being carried out without the use of a reducing agent.
Harmonic pin ring transmission having an input shaft and an output shaft, the harmonic pin ring transmission comprising the following features: - two outer gears, each having an internal toothing, - a single inner gear having an external toothing, disposed concentrically with respect to a first outer gear and inside the first outer gear in an axial direction, and - a drive means extending between the two outer gears and the inner gear and comprising a pin ring formed integrally in a circumferential direction and a plurality of pins protruding laterally from the pin ring in the axial direction, - a revolving transmitter for lifting the drive means from the external toothing of the inner gear and for pushing the drive means into the internal toothings of the outer gears - wherein the inner gear comprises an inner gear holder fixed to the inner gear and wherein the pin ring transmission comprises an inner gear rolling bearing supported radially inwardly on a transmission housing, the inner gear and the inner gear holder encompassing an outer ring of the inner gear rolling bearing. - two outer gears, each having an internal toothing, - a single inner gear having an external toothing, disposed concentrically with respect to a first outer gear and inside the first outer gear in an axial direction, and - a drive means extending between the two outer gears and the inner gear and comprising a pin ring formed integrally in a circumferential direction and a plurality of pins protruding laterally from the pin ring in the axial direction, - a revolving transmitter for lifting the drive means from the external toothing of the inner gear and for pushing the drive means into the internal toothings of the outer gears - wherein the inner gear comprises an inner gear holder fixed to the inner gear and wherein the pin ring transmission comprises an inner gear rolling bearing supported radially inwardly on a transmission housing, the inner gear and the inner gear holder encompassing an outer ring of the inner gear rolling bearing.
System comprising a floating body that has an arm, the arm being movable via at least one actuator (36, 38, 40), with a movement compensation device being provided by means of which a movement of the arm can be compensated, with a sensor device (1, 2) being provided which is designed in such a way that a deformation of the arm and/or a vibration of the arm is determined, the movement compensation device being designed in such a way that the deformation and/or vibration determined by means of the sensor device (1, 2) is used for the movement compensation, characterized in that the sensor device (1, 2) is designed in such a way that a relative position (T 39) between two regions of the arm is determined, with one region being provided at the free end and one region being provided closer to a base of the arm.