mhurhangee/ep-ind-claims huggingface dataset:
Elevator system comprising at least one elevator having an elevator car with at least one car door, and an elevator shaft comprising landing doors, at least one control unit for controlling the elevator, a safety circuit to which one or more safety circuit switches (42, 44) are connected, which safety circuit is connected to the control unit, whereby at least one safety circuit switch is assigned to the car door status and at least one safety circuit switch is assigned to a landing door status, and a car position detection device (38, 40), which control unit comprises an operating mode control configured to switch between a first operating mode, wherein the safety circuit is activated and a second operating mode wherein at least one of the safety circuit switches of the safety circuit is bypassed by a bypass means, wherein upon activation of the second operating mode the control unit activates a roof position determination unit which is connected with the car position detection (38, 40) device and/or with a separate roof position detection device, and - that the roof position determination unit of the control unit comprises a roof zone indicator which is activated when the car roof is positioned within a certain level range with respect to a landing floor or other shaft access, and/or - that the roof position determination unit initiates a car operation stop circuit in the control unit to stop the elevator car when the car roof is positioned within a certain level range with respect to a landing floor or other shaft access, wherein the certain level is the landing door zone, wherein the car door is essentially aligned with the landing floor so that entering the car is possible without danger, characterized in that the roof position determination unit is connected with the car position detection (38, 40) device and/or with a separate roof position detection device, and that the roof zone indicator is a door zone indicator which is activated in a first indication mode when the car bottom is in a certain level range with respect to a landing door and which is activated in a second indication mode when the car roof is in a certain level range with respect to a landing door. - that the roof position determination unit of the control unit comprises a roof zone indicator which is activated when the car roof is positioned within a certain level range with respect to a landing floor or other shaft access, and/or - that the roof position determination unit initiates a car operation stop circuit in the control unit to stop the elevator car when the car roof is positioned within a certain level range with respect to a landing floor or other shaft access,
Heat exchanger, in particular a condenser, comprising two parallel end closure plates (1, 2) having made a coolant inlet and outlet and at least one inlet and an outlet of the refrigerant, a heat exchange unit arranged between the closure plates (1, 2) and including at least one coolant compartment and at least one refrigerant compartment, separated by an inner plate, wherein the coolant compartments and refrigerant compartments are arranged alternately and connected such that they form together with said inlets and outlets separate hydraulic circuits for the coolant and refrigerant, and in each of the compartments a turbulator panel (3, 4) is arranged wherein the turbulator panels of the refrigerant circuit comprise on their surface first disturbing elements having a wave shape with a rounded or rectangular contour wherein they have an orientation configured to ensure a refrigerant flow along the waves which determine the height of the turbulator panel of the refrigerant circuit, wherein the turbulator panels of the coolant circuit comprise on their surface second disturbing elements being approximatively some triangular, rectangular or circular contoured projections which are cut and/or embossed in the turbulator panel and arranged in rows along the cutting lines, wherein they have an orientation configured to ensure the coolant flow passing along the cutting line which determine the height of the turbulator panel of the coolant circuit, wherein the shape of the first disturbing elements is different from the shape of the second disturbing elements, whereas the shape of the turbulator panels (3, 4) is slowing down and disturbing of the refrigerant and the coolant, while ensuring a low pressure drop of their flow to achieve a high heat exchange coefficient and wherein the height of the turbulator panel of the coolant circuit is from 1 to 2 times greater than the height of the turbulator panel of the refrigerant circuit.
A method for transmitting a demodulation reference signal for an uplink control signal in a wireless communication system, the method performed by a terminal, comprising: generating a low peak to average power ratio, PAPR, sequence based on a length-6 sequence; generating a sequence used for the demodulation reference signal based on the low PAPR sequence; and transmitting, to a base station, the demodulation reference signal based on the sequence used for the demodulation reference signal, wherein the length-6 sequence has an 8-phase shift keying, PSK, symbol as each element of a sequence, wherein the length-6 sequence is determined by e jφ ( i) π /8, wherein the i is an index of elements of the length-6 sequence, and wherein a value of the φ ( i) includes (-7 3 1 5 -1 3), (-7 -5 -1 -7 -5 5), (-7 1 -3 3 7 5), and (-7 1 -3 1 5 1). generating a low peak to average power ratio, PAPR, sequence based on a length-6 sequence; generating a sequence used for the demodulation reference signal based on the low PAPR sequence; and transmitting, to a base station, the demodulation reference signal based on the sequence used for the demodulation reference signal, wherein the length-6 sequence has an 8-phase shift keying, PSK, symbol as each element of a sequence, wherein the length-6 sequence is determined by e jφ ( i) π /8, wherein the i is an index of elements of the length-6 sequence, and wherein a value of the φ ( i) includes (-7 3 1 5 -1 3), (-7 -5 -1 -7 -5 5), (-7 1 -3 3 7 5), and (-7 1 -3 1 5 1).
A hydraulic-boosted rail brake (100, 500) for use with an elevator (400, 600) having a guide rail, comprising: a braking plate having friction material, the braking plate being selectively movable relative to the guide rail; a spring package in communication with the braking plate, the spring package biasing the friction material to interact with the guide rail whereby causing braking; at least one hydraulic cylinder (132, 532a, 532b); at least one piston (133, 533a, 533b) housed at least partially inside the at least one hydraulic cylinder (132, 532a, 532b), the piston being in communication with the braking plate and selectively: (a) movable in a release direction to diminish or overcome force from the spring package; and (b) movable in an engage direction to supplement the force from the spring package; and a brake controller selectively causing the piston (133, 533a, 533b) to move in the release direction and in the engage direction; characterized in that the brake (100, 500) comprising a sensor in data communication with the brake controller, the sensor providing the brake controller pressure data for a hydraulic tank; and programming in data communication with the brake controller, the programming causing the brake controller to deactivate the piston (133, 533a, 533b) when the pressure data indicates that pressure inside the hydraulic tank is less than a predetermined pressure. a braking plate having friction material, the braking plate being selectively movable relative to the guide rail; a spring package in communication with the braking plate, the spring package biasing the friction material to interact with the guide rail whereby causing braking; at least one hydraulic cylinder (132, 532a, 532b); at least one piston (133, 533a, 533b) housed at least partially inside the at least one hydraulic cylinder (132, 532a, 532b), the piston being in communication with the braking plate and selectively: (a) movable in a release direction to diminish or overcome force from the spring package; and (b) movable in an engage direction to supplement the force from the spring package; and a brake controller selectively causing the piston (133, 533a, 533b) to move in the release direction and in the engage direction; characterized in that the brake (100, 500) comprising a sensor in data communication with the brake controller, the sensor providing the brake controller pressure data for a hydraulic tank; and programming in data communication with the brake controller, the programming causing the brake controller to deactivate the piston (133, 533a, 533b) when the pressure data indicates that pressure inside the hydraulic tank is less than a predetermined pressure.
A method for automated defect classification of a sample by means of acoustic ultrasonic microscopy, in particular in the frequency range of 10 MHz to 2000 MHz, wherein a sample is scanned with an ultrasonic microscope with at least one ultrasonic transducer and a pulse generating and receiving unit, which is connected with the at least one ultrasonic transducer, the sample is positioned stepwise relative to the ultrasonic transducer or transducers at raster points, and one or more ultrasound signals is or are generated at each raster point and recorded after reflection on and/or in the sample and/or after transmission by the sample, wherein the chronological sequences of the recorded ultrasound signals reflected and/or transmitted, so-called A-scan signals, are digitized and analysed, in particular classified, with regard to defects by means of at least one neural network (50, 70), which had previously been trained in an initial training by means of a deep learning algorithm with the help of A-scan signals of ultrasonic microscope scans of one or more control samples of the same type as the sample unsupervised or with known and labelled defects.
A method of patterning an electronic or photonic material on a substrate comprising: a) forming a film of said electronic or photonic material on said substrate; b) depositing a polymer as a layer on said film of said electronic or photonic material; c) depositing a light sensitive layer on said polymer; d) patterning said electronic or photonic material using photolithography and etching; and e) removing the regions of the light sensitive layer that remain after patterning, wherein said polymer protects regions of said electronic or photonic material during any of steps (c), (d) and/or (e), characterised in that said polymer is a fluoropolymer. a) forming a film of said electronic or photonic material on said substrate; b) depositing a polymer as a layer on said film of said electronic or photonic material; c) depositing a light sensitive layer on said polymer; d) patterning said electronic or photonic material using photolithography and etching; and e) removing the regions of the light sensitive layer that remain after patterning, wherein said polymer protects regions of said electronic or photonic material during any of steps (c), (d) and/or (e), characterised in that said polymer is a fluoropolymer.
Gear manufacturing machine, comprising a workpiece holder and a tool holder, which can each be caused to rotate by means of a drive (5, 5'), wherein the tool holder is arranged on a machining head, which can be moved relative to the workpiece holder by one or a plurality of motion axes of the gear manufacturing machine for gear manufacturing machining a workpiece held in the workpiece holder by means of a tool (14, 15) held in the tool holder, wherein the tool holder comprises a counterholder, wherein the counterholder is movable by a motion axis from its working position to an inactive position and/or is arranged on the machining head of the gear manufacturing machine in a releasably connectable manner, and comprising a control unit which comprises a function for performing a method in which in a first machining step and/or machining mode, a workpiece is machined by means of a first tool clamped between a tool holder and a counterholder, and wherein, in a second machining step and/or machining mode, a workpiece is machined by means of a second tool clamped in the tool holder on one side thereof, wherein the counterholder occupies an inactive position or is dismounted from the machining head during the second machining step, characterized in that the workpiece is machined by milling in one of the machining steps and/or machining modes, and wherein the workpiece is machined by skiving in the other machining step and/or machining mode, and/or the first machining step and/or machining mode takes place with a first axis intersection angle between the tool and the workpiece, and the second machining step and/or machining mode takes place with a second axis intersection angle between the tool and the workpiece, wherein the difference between the first and the second axis intersection angle is greater than 45°, preferably greater than 70°, and wherein the difference between the first and the second axis intersection angle is less than 135°, preferably less than 110°, further preferred less than 100°.
Polypropylene composition being a binary blend consisting of two propylene polymer fractions PPF1 and PPF2 in specific amounts: a) less than or equal to 50 wt% of a propylene polymer fraction PPF1, the propylene polymer fraction PPF1 being a propylene copolymer comprising propylene monomers and 1.50 to 7.00 mol% of one comonomer selected from C 4 -C 10 alpha-olefin, and b) more than or equal to 50 wt% of a propylene polymer fraction PPF2, the propylene polymer fraction PPF2 being a propylene terpolymer comprising propylene monomers, 3.00 to 12.00 mol% of ethylene comonomer and 1.50 to 17.00 mol% of one comonomer selected from C 4 -C 10 alpha-olefin, wherein the polypropylene composition: i. has a melting temperature (Tm) in the range of 135 to 160 °C as determined by DSC according to ISO 11357, and ii. satisfies the equation: Delta = Tm − SIT wherein Delta is in the range of 39 to 50 °C, and wherein Tm is the melting temperature, in °C, of the polypropylene composition, SIT is the sealing initiation temperature, in °C, of the polypropylene composition, as calculated from pellets via DSC analysis, the respective amounts of the propylene polymer fractions PPF1 and PPF2 being relative to the total sum of the propylene polymer fractions PPF1 and PPF2. a) less than or equal to 50 wt% of a propylene polymer fraction PPF1, the propylene polymer fraction PPF1 being a propylene copolymer comprising propylene monomers and 1.50 to 7.00 mol% of one comonomer selected from C 4 -C 10 alpha-olefin, and b) more than or equal to 50 wt% of a propylene polymer fraction PPF2, the propylene polymer fraction PPF2 being a propylene terpolymer comprising propylene monomers, 3.00 to 12.00 mol% of ethylene comonomer and 1.50 to 17.00 mol% of one comonomer selected from C 4 -C 10 alpha-olefin, i. has a melting temperature (Tm) in the range of 135 to 160 °C as determined by DSC according to ISO 11357, and ii. satisfies the equation: Delta = Tm − SIT wherein Delta is in the range of 39 to 50 °C, and wherein Tm is the melting temperature, in °C, of the polypropylene composition, SIT is the sealing initiation temperature, in °C, of the polypropylene composition, as calculated from pellets via DSC analysis, wherein Delta is in the range of 39 to 50 °C, and wherein Tm is the melting temperature, in °C, of the polypropylene composition, SIT is the sealing initiation temperature, in °C, of the polypropylene composition, as calculated from pellets via DSC analysis,
Meter for liquid fluid, in particular water meter, comprising a body enclosing a measuring chamber with at least one liquid intake opening that is extended towards the outside by an injection nozzle or a similar portion of duct, is formed in one piece with said body, and extends along a median longitudinal axis, whereas the or each injection nozzle has at least one internal protruding structure (6, 6') in the form of a fin, which is produced in one piece with the internal face (5") of the wall of the injection nozzle, is disposed in a plane containing the median longitudinal axis, extends along at least a part of the axial length of said nozzle and has a substantially triangular overall shape, characterized in that the or each injection nozzle has a frustoconical design, with an internal passage that tapers in the direction of the intake opening, wherein the free internal edge (7, 7') of the or each fin (6, 6') extends parallel to the median longitudinal axis, wherein the or each fin (6, 6') has a cross section with a variable thickness (e) from its base that is integral with the internal face of the wall of the injection nozzle in question towards its respective free edge (7, 7').
A method for configuring on-site a device, said method comprising: generating, using a processor, electronic configuration settings for the device based on site plans of the site where the device is to be installed that specify how to configure the device with site-specific settings and data, the electronic configuration settings including a safety check value; generating, using a code generator, one or more machine readable codes embedding site-specific information and associated with the electronic configuration settings; generating modified site plans (28, 32) for the device by applying images of the one or more machine readable codes to the site plans for the device by copying the images of the one or more machine readable codes into the site plan; reading, by a machine readable code reader connected to the device, the images of the one or more codes from the modified site plans (28, 32) to obtain the electronic configuration settings and safety check value; and configuring the device based on the obtained electronic configuration settings. generating, using a processor, electronic configuration settings for the device based on site plans of the site where the device is to be installed that specify how to configure the device with site-specific settings and data, the electronic configuration settings including a safety check value; generating, using a code generator, one or more machine readable codes embedding site-specific information and associated with the electronic configuration settings; generating modified site plans (28, 32) for the device by applying images of the one or more machine readable codes to the site plans for the device by copying the images of the one or more machine readable codes into the site plan; reading, by a machine readable code reader connected to the device, the images of the one or more codes from the modified site plans (28, 32) to obtain the electronic configuration settings and safety check value; and configuring the device based on the obtained electronic configuration settings.
A headset, comprising: a housing configured to be positioned within an ear of a subject, the ear having an ear canal; an optical emitter and an optical detector; and at least one light guide associated with the housing; wherein the at least one light guide comprises a cylindrical distal end portion extending outwardly from the housing and having a flat or rounded end surface that, when the housing is positioned within the ear, engages a region of the ear external to the ear canal; wherein the at least one light guide is in optical communication with the optical emitter or optical detector; and wherein the at least one light guide is configured to deliver light from the optical emitter into said region via the distal end or collect light from said region via the distal end and deliver collected light to the optical detector. a housing configured to be positioned within an ear of a subject, the ear having an ear canal; an optical emitter and an optical detector; and at least one light guide associated with the housing; wherein the at least one light guide comprises a cylindrical distal end portion extending outwardly from the housing and having a flat or rounded end surface that, when the housing is positioned within the ear, engages a region of the ear external to the ear canal; wherein the at least one light guide is in optical communication with the optical emitter or optical detector; and wherein the at least one light guide is configured to deliver light from the optical emitter into said region via the distal end or collect light from said region via the distal end and deliver collected light to the optical detector.
Electrostatically-dispersive translucent or transparent film material comprising a base layer comprising a film of polymer material in which carbon nanoparticles are dispersed to provide electrical conductivity the content of carbon nanoparticles being less than 3 wt% relative to the polymer material and the light transmission of the polymer film at 550 nm being at least 85%, and a network of electrically conductive material on the surface of the polymer film wherein the thickness of the polymer film is from 50 to 200 μm. a base layer comprising a film of polymer material in which carbon nanoparticles are dispersed to provide electrical conductivity the content of carbon nanoparticles being less than 3 wt% relative to the polymer material and the light transmission of the polymer film at 550 nm being at least 85%, and a network of electrically conductive material on the surface of the polymer film wherein the thickness of the polymer film is from 50 to 200 μm.
Construction for a climate ceiling for a room of a building, comprising flat heat exchanging elements, each comprising a support plate, on which pipe sections (15a, 15b) are arranged, allowing passage of a cooling or heating medium therethrough, which pipe sections are thermally connected to the support plate, whereby the support plate is mechanically connected to two parallel aligned C-shaped profiles (11a, 11b) fixedly mounted at a ceiling, characterized in that the support plate is mechanically connected to at least one of the C-shaped profiles by means of a rigid bottom profile (18, 18a), which is separately from the support plate connected to the C-shaped profile (11a, 11b) by fastening means, and having a connecting section (22, 22a), connectable to the support plate for accomplishing a mechanical and thermal coupling of the support plate to the bottom profile, whereby the support plate and the bottom profile of said support plate each is commonly engaged underneath by a gypsum plaster board, and/or whereby the bottom profile each is engaged underneath by two adjacent gypsum plaster boards (20a, 20b).