mhurhangee/ep-ind-claims huggingface dataset:
An elevator system comprising: a landing door; a landing door sensor arranged to detect a state of the landing door; a power supply arranged to power said elevator system; an elevator controller arranged to control the elevator system; and an elevator safety device arranged to monitor said landing door and comprising: a power source arranged to power the landing door sensor independently of the power supply of the elevator system; and a memory arranged to record a state of the landing door detected by the landing door sensor when the landing door sensor is powered by the power source; wherein the elevator controller is arranged to control the elevator system according to the state of the landing door recorded by the memory; and characterised in that the elevator controller is arranged to receive information from the landing door sensor independently of the elevator safety device, and to control the elevator system according to information received from the landing door sensor independently of the elevator safety device. a landing door; a landing door sensor arranged to detect a state of the landing door; a power supply arranged to power said elevator system; an elevator controller arranged to control the elevator system; and an elevator safety device arranged to monitor said landing door and comprising: a power source arranged to power the landing door sensor independently of the power supply of the elevator system; and a memory arranged to record a state of the landing door detected by the landing door sensor when the landing door sensor is powered by the power source; a power source arranged to power the landing door sensor independently of the power supply of the elevator system; and a memory arranged to record a state of the landing door detected by the landing door sensor when the landing door sensor is powered by the power source; wherein the elevator controller is arranged to control the elevator system according to the state of the landing door recorded by the memory; and characterised in that the elevator controller is arranged to receive information from the landing door sensor independently of the elevator safety device, and to control the elevator system according to information received from the landing door sensor independently of the elevator safety device.
An agent for use in the treatment of periodontitis containing at least one salt-type chloride compound selected from the group consisting of alkali or alkali earth metal salts and at least one oxidizing agent selected from the group of persulfate compounds.
Method for monitoring optical performance in an optical data transmission network, wherein the optical data transmission network comprises at least a first router node, a second router node and an optical data transmission line connecting the first router node with the second router node providing optical data transmission from the first router node to the second router node using at least two channels, each using a predetermined wavelength, wherein the optical data transmission network comprises a multitude of amplifier nodes arranged in series along the optical data transmission line between the first router node and the second router node, wherein the second router node comprises a monitoring functionality using an IP router interface, and wherein the method comprises the following steps: - in a measurement step, optical performance parameters of the at least two channels are provided at the IP router interface, wherein the optical performance parameters of the at least two channels comprise at least optical receive power levels, - in a transmission step, subsequent to the measurement step, optical performance parameters are transmitted to a remote control unit, - in an analysis step, subsequent to the transmission step, optical performance parameters are analyzed and it is determined whether a corrective action is necessary to improve optical performance of the at least two channels, characterized in that the analysis step comprises computing estimated optical output power levels at the outputs of the amplifier nodes for the at least two channels taking into account measured optical receive power levels, predetermined amplifier node gain values of the amplifier nodes and predetermined transmission losses along the optical data transmission line. - in a measurement step, optical performance parameters of the at least two channels are provided at the IP router interface, wherein the optical performance parameters of the at least two channels comprise at least optical receive power levels, - in a transmission step, subsequent to the measurement step, optical performance parameters are transmitted to a remote control unit, - in an analysis step, subsequent to the transmission step, optical performance parameters are analyzed and it is determined whether a corrective action is necessary to improve optical performance of the at least two channels, characterized in that the analysis step comprises computing estimated optical output power levels at the outputs of the amplifier nodes for the at least two channels taking into account measured optical receive power levels, predetermined amplifier node gain values of the amplifier nodes and predetermined transmission losses along the optical data transmission line.
A method performed by an on-board control unit of a vehicle for enabling a safe operation of the vehicle, wherein the method comprise: receiving, from an off-board control station, information indicating that the vehicle is to be activated for operation; transmitting a first activation code to the off-board control station in response to the received information by embedding a visual representation of the first activation code in camera images obtained from one or more on-board cameras (112, 113) and transmitting the camera images comprising the visual representation of the first activation code to the off-board control station; receiving, via a wireless communication interface, a second activation code from an off-board control station capable of remotely operating the vehicle; and activating the vehicle for operation in case the received second activation code correspond to the first activation code comprised in the on-board control unit. receiving, from an off-board control station, information indicating that the vehicle is to be activated for operation; transmitting a first activation code to the off-board control station in response to the received information by embedding a visual representation of the first activation code in camera images obtained from one or more on-board cameras (112, 113) and transmitting the camera images comprising the visual representation of the first activation code to the off-board control station; receiving, via a wireless communication interface, a second activation code from an off-board control station capable of remotely operating the vehicle; and activating the vehicle for operation in case the received second activation code correspond to the first activation code comprised in the on-board control unit.
A liquid dispensing system comprising, a container enclosing a chamber; a flexible bag in the chamber; a first liquid contained in the bag; a first conduit and a second conduit (22, 24) in the chamber, the first conduit connecting the chamber to an outlet port in the container, the second conduit connecting the said flexible bag to the said first conduit; and a third conduit in the chamber, wherein said chamber has an_upper and a lower region (RU, RL); said flexible bag extends in a vertical manner between the upper region and the lower region (RU, RL) of the chamber; and a supply source is configured for introducing a pressurized second liquid into the chamber and separately into the third conduit for delivery to the first conduit, the first conduit serving to direct an exiting flow of the pressurized second liquid to the outlet port, with the pressurized second liquid in the chamber serving to collapse the flexible bag and expel the first liquid contained therein via the second conduit to the first conduit for mixture with the exiting flow of the pressurized second liquid. a container enclosing a chamber; a flexible bag in the chamber; a first liquid contained in the bag; a first conduit and a second conduit (22, 24) in the chamber, the first conduit connecting the chamber to an outlet port in the container, the second conduit connecting the said flexible bag to the said first conduit; and a third conduit in the chamber, wherein said chamber has an_upper and a lower region (RU, RL); said flexible bag extends in a vertical manner between the upper region and the lower region (RU, RL) of the chamber; and a supply source is configured for introducing a pressurized second liquid into the chamber and separately into the third conduit for delivery to the first conduit, the first conduit serving to direct an exiting flow of the pressurized second liquid to the outlet port, with the pressurized second liquid in the chamber serving to collapse the flexible bag and expel the first liquid contained therein via the second conduit to the first conduit for mixture with the exiting flow of the pressurized second liquid. said chamber has an_upper and a lower region (RU, RL); said flexible bag extends in a vertical manner between the upper region and the lower region (RU, RL) of the chamber; and a supply source is configured for introducing a pressurized second liquid into the chamber and separately into the third conduit for delivery to the first conduit, the first conduit serving to direct an exiting flow of the pressurized second liquid to the outlet port, with the pressurized second liquid in the chamber serving to collapse the flexible bag and expel the first liquid contained therein via the second conduit to the first conduit for mixture with the exiting flow of the pressurized second liquid.
A cooling tower comprising cooling tower fill arranged for the cooling of process water with air by indirect heat exchange, in which the fill is configured with a first set of channels and a second set of channels, said first and second set of channels interleaved with one-another so that heat exchange occurs across material separating said channels from one-another, characterised in that said first set of channels are vertical from a top of said fill to a bottom of said fill, and wherein said second set of channels shift one column width at a top section of said fill, and are vertical through a middle section of said fill, or wherein said first set of channels shift one-half column width in a first direction at a top section of said fill, are vertical through a middle section of said fill, and wherein said second set of channels shift one-half column width in a second direction at said top section of said fill, and are vertical through a middle section of said fill.
Sensor system for monitoring an object, comprising at least a first part and a second part, one of which is a sensor module with at least one sensor, and at least one means of fastening to fasten the first part to the object to be monitored, the first part and the second part being set up to produce a detachable connection between the second part and the first part, and one of the mentioned parts being equipped with a signal transmitter that is set up to detect undoing of the mentioned connection between the second part and the first part and to produce a signal triggered by this, it being impossible to undo the mentioned fastening of the first part to the object in a nondestructive manner in the state, in which the second part and the first part are connected in the way mentioned, characterized in that the at least one sensor of the sensor module comprises at least one sensor element (12, 20) to measure a temperature and/or an atmospheric humidity and/or a radiation intensity and/or shaking and/or harmful substances and/or positioning signals of a positioning system.
A method for operating a hearing system comprising a hearing device, a camera (11, 12) and an auxiliary device, the method comprising the steps of: - providing an input signal for said hearing device, - capturing an image or a sequence of images of at least sections of a surrounding of a user wearing said hearing device, - processing said image or said sequence of images in said auxiliary device for obtaining consolidated data of a sound source (15, 22) being important for said user, wherein said consolidated data of the sound source (15, 22) comprises a directional angle (α) being defined between a sagittal plane of said user and said sound source (15, 22) seen from said user, - locating said sound source (15, 22), - tracking said sound source (15, 22), - updating said angle (α) of said sound source (15, 22) being tracked, - transmitting said consolidated data to the hearing device, - generating an output signal in said hearing device by processing the input signal and by taking into account said consolidated data, and - feeding said output signal to an output transducer of said hearing device. - providing an input signal for said hearing device, - capturing an image or a sequence of images of at least sections of a surrounding of a user wearing said hearing device, - processing said image or said sequence of images in said auxiliary device for obtaining consolidated data of a sound source (15, 22) being important for said user, wherein said consolidated data of the sound source (15, 22) comprises a directional angle (α) being defined between a sagittal plane of said user and said sound source (15, 22) seen from said user, - locating said sound source (15, 22), - tracking said sound source (15, 22), - updating said angle (α) of said sound source (15, 22) being tracked, - transmitting said consolidated data to the hearing device, - generating an output signal in said hearing device by processing the input signal and by taking into account said consolidated data, and - feeding said output signal to an output transducer of said hearing device.
Transmitting device for electromagnetic radiation, wherein the transmitting device comprises the following: - a waveguide having an input for feeding an electromagnetic wave into the waveguide; - an opening in the waveguide in order to allow the electromagnetic wave to emerge as radiation, - there is at least one further opening in the waveguide and provision is made of a driveable closure element for selectively closing at least one of the openings with respect to the electromagnetic wave, and wherein the openings are arranged in the waveguide in such a way that an emission direction of the electromagnetic radiation is dependent on the frequency of the electromagnetic wave, characterized in that - the closure element comprises a mechanical diaphragm which is configured to release or wholly or partly to close at least one of the openings, - in order to achieve, depending on the driving of the closure element, at least two emission characteristics (210, 220) which differ in their extents. - a waveguide having an input for feeding an electromagnetic wave into the waveguide; - an opening in the waveguide in order to allow the electromagnetic wave to emerge as radiation, - there is at least one further opening in the waveguide and provision is made of a driveable closure element for selectively closing at least one of the openings with respect to the electromagnetic wave, and wherein the openings are arranged in the waveguide in such a way that an emission direction of the electromagnetic radiation is dependent on the frequency of the electromagnetic wave, - the closure element comprises a mechanical diaphragm which is configured to release or wholly or partly to close at least one of the openings, - in order to achieve, depending on the driving of the closure element, at least two emission characteristics (210, 220) which differ in their extents.
A removable insert (600a, 600b, 600c) for a socket of a welding power supply, comprising: a base having a keyed entryway (602a, 602b, 602c) configured to connect with a key interface of a plug; a nose comprising a contact surface configured to make electrical contact with a complementary contact surface of a socket connector; and a coupler configured to couple the removable insert (600a, 600b, 600c) to the socket connector, characterized in that the coupler comprises a shoulder screw having a head, a screw thread, and a shank connecting the head to the screw thread, the screw thread configured to engage complementary threaded grooves of the socket connector, wherein the head of the shoulder screw is positioned within the nose, the head having a tool interface configured for coupling to a tool. a base having a keyed entryway (602a, 602b, 602c) configured to connect with a key interface of a plug; a nose comprising a contact surface configured to make electrical contact with a complementary contact surface of a socket connector; and a coupler configured to couple the removable insert (600a, 600b, 600c) to the socket connector, characterized in that the coupler comprises a shoulder screw having a head, a screw thread, and a shank connecting the head to the screw thread, the screw thread configured to engage complementary threaded grooves of the socket connector, wherein the head of the shoulder screw is positioned within the nose, the head having a tool interface configured for coupling to a tool.
A position detection device comprising: a magnetic generation unit (213a; 120; 220; 320; 420); and a magnetic detection unit (213b; 110; 210), the magnetic detection unit being arranged to detect magnetism generated by the magnetic generation unit, so as to detect a relative position in a predetermined direction between the magnetic generation unit and the magnetic detection unit, wherein: the magnetic generation unit comprises a magnetic section, having a plurality of regions arranged in a plane including the predetermined direction, that generate magnetism, and a low magnetism section (NM, NMa, NMb) arranged between the plurality of regions in the plane so as to extend in the predetermined direction and which has lower magnetisation than the magnetic sections so as to generate less magnetism than the magnetic section, the low magnetism section has a width in a direction in the plane and across the predetermined direction varying along the predetermined direction to vary a state of the magnetism generated by the magnetic generator, and the magnetic detection unit and the magnetic generation unit are separated in a direction perpendicular to the plane. a magnetic generation unit (213a; 120; 220; 320; 420); and a magnetic detection unit (213b; 110; 210), the magnetic detection unit being arranged to detect magnetism generated by the magnetic generation unit, so as to detect a relative position in a predetermined direction between the magnetic generation unit and the magnetic detection unit, wherein: the magnetic generation unit comprises a magnetic section, having a plurality of regions arranged in a plane including the predetermined direction, that generate magnetism, and a low magnetism section (NM, NMa, NMb) arranged between the plurality of regions in the plane so as to extend in the predetermined direction and which has lower magnetisation than the magnetic sections so as to generate less magnetism than the magnetic section, the low magnetism section has a width in a direction in the plane and across the predetermined direction varying along the predetermined direction to vary a state of the magnetism generated by the magnetic generator, and the magnetic detection unit and the magnetic generation unit are separated in a direction perpendicular to the plane. the magnetic generation unit comprises a magnetic section, having a plurality of regions arranged in a plane including the predetermined direction, that generate magnetism, and a low magnetism section (NM, NMa, NMb) arranged between the plurality of regions in the plane so as to extend in the predetermined direction and which has lower magnetisation than the magnetic sections so as to generate less magnetism than the magnetic section, the low magnetism section has a width in a direction in the plane and across the predetermined direction varying along the predetermined direction to vary a state of the magnetism generated by the magnetic generator, and the magnetic detection unit and the magnetic generation unit are separated in a direction perpendicular to the plane.
A multi-layer susceptor assembly for inductively heating an aerosol-forming substrate, the susceptor assembly comprising at least: - a first layer comprising a first susceptor material; - a second layer intimately coupled to the first layer, comprising a second susceptor material having a Curie temperature lower than 500 °C; characterized in that the susceptor assembly further comprises a third layer intimately coupled to the second layer, comprising a specific stress-compensating material and specific layer thickness for compensating differences in thermal expansion occurring in the multi-layer susceptor assembly after intimately coupling the layers to each other and/or after a heat treatment of the multi-layer susceptor assembly such that at least in a compensation temperature range an overall thermal deformation of the susceptor assembly is essentially limited to in-plane deformations, wherein the compensation temperature range extends at least from 20 K below the Curie temperature of the second susceptor material up to the Curie temperature of the second susceptor material. - a first layer comprising a first susceptor material; - a second layer intimately coupled to the first layer, comprising a second susceptor material having a Curie temperature lower than 500 °C;
Method for producing direct reduced iron comprising the steps of - treating raw material comprising iron oxide containing material and carbonaceous containing material in a direct reduction unit at an elevated reaction temperature between 1000°C and 1200°C for a given time period for producing the direct reduced iron and hot off-gas, whereas the direct reduction unit is heated to the reaction temperature using electrically heating, so that the hot off-gas comprises 80% to 95% carbon dioxide, - purifying the off-gas from polluting constituents others than carbon dioxide and - obtaining carbon dioxide final gas from the purified off-gas in a carbon capture and storage process. - treating raw material comprising iron oxide containing material and carbonaceous containing material in a direct reduction unit at an elevated reaction temperature between 1000°C and 1200°C for a given time period for producing the direct reduced iron and hot off-gas, whereas the direct reduction unit is heated to the reaction temperature using electrically heating, so that the hot off-gas comprises 80% to 95% carbon dioxide, - purifying the off-gas from polluting constituents others than carbon dioxide and - obtaining carbon dioxide final gas from the purified off-gas in a carbon capture and storage process.