mhurhangee/ep-ind-claims huggingface dataset:
An EDT apparatus for producing a textured or matt finish on the surface of an electrically-conductive roll workpiece, the machine comprising: a rotatable mount for mounting a roll workpiece, at least one electrode mounted on a carrier that in use is spaced from a mounted workpiece surface to define a gap across which electrical pulses are transmitted, a dielectric bath for holding dielectric fluid and arranged to provide dielectric fluid between the electrode(s) and the workpiece surface, a return system for transmitting dielectric fluid which spills from the dielectric bath back to said bath, and characterised in that the apparatus further comprises: a separate drip bath spaced from, and positioned below, the workpiece for collecting dielectric fluid that falls from the workpiece and which communicates with, or form part of, the return system so that the collected fluid can be returned to the dielectric bath. a rotatable mount for mounting a roll workpiece, at least one electrode mounted on a carrier that in use is spaced from a mounted workpiece surface to define a gap across which electrical pulses are transmitted, a dielectric bath for holding dielectric fluid and arranged to provide dielectric fluid between the electrode(s) and the workpiece surface, a return system for transmitting dielectric fluid which spills from the dielectric bath back to said bath, and characterised in that the apparatus further comprises: a separate drip bath spaced from, and positioned below, the workpiece for collecting dielectric fluid that falls from the workpiece and which communicates with, or form part of, the return system so that the collected fluid can be returned to the dielectric bath.
A method for controlling detach of a mobile terminal, comprising: when the mobile terminal is powered off, starting a first timer, and sending powering-off indication information to a network equipment, and keeping in an Evolved Mobility Management, EMM-registered state before powering-off without performing a detach operation, wherein the powering-off indication information indicates that the mobile terminal has been powered off such that the network equipment starts a second timer which is aligned with the first timer; if the mobile terminal has not yet been powered on again when the first timer expires, deleting, by the mobile terminal, context information stored during attach and performing, by the mobile terminal, the detach operation when the first timer expires, to enter an EMM-deregistered state; and while the first timer is running, keeping, by the mobile terminal, the context information stored during the attach. when the mobile terminal is powered off, starting a first timer, and sending powering-off indication information to a network equipment, and keeping in an Evolved Mobility Management, EMM-registered state before powering-off without performing a detach operation, wherein the powering-off indication information indicates that the mobile terminal has been powered off such that the network equipment starts a second timer which is aligned with the first timer; if the mobile terminal has not yet been powered on again when the first timer expires, deleting, by the mobile terminal, context information stored during attach and performing, by the mobile terminal, the detach operation when the first timer expires, to enter an EMM-deregistered state; and while the first timer is running, keeping, by the mobile terminal, the context information stored during the attach.
A communication method, comprising: receiving, by a terminal device, a first message from a network device, wherein the first message comprises first offset information, or the first message comprises second offset information, or the first message comprises the first offset information and the second offset information, wherein the first offset information is used to indicate a time offset value of a random access response, RAR, monitoring window for monitoring a RAR, and the second offset information is used to indicate a time offset value for sending a second message, and the second message is a message sent by the terminal device based on the RAR; and randomly accessing, by the terminal device, the network device based on the first message, wherein the time offset values corresponding to the first offset information and the second offset information are calculated based on signal transmission duration between the network device and the terminal device. receiving, by a terminal device, a first message from a network device, wherein the first message comprises first offset information, or the first message comprises second offset information, or the first message comprises the first offset information and the second offset information, wherein the first offset information is used to indicate a time offset value of a random access response, RAR, monitoring window for monitoring a RAR, and the second offset information is used to indicate a time offset value for sending a second message, and the second message is a message sent by the terminal device based on the RAR; and randomly accessing, by the terminal device, the network device based on the first message, wherein the time offset values corresponding to the first offset information and the second offset information are calculated based on signal transmission duration between the network device and the terminal device.
A fastening apparatus for a concentric fastening of a shaft to a rotary encoder shaft, comprising a shaft bushing which is arranged between the shaft and the rotary encoder shaft and which compensates a diameter difference between the shafts; and a clamping unit which aligns the shaft bushing with respect to the rotary encoder shaft and which fixes the shaft bushing and the rotary encoder shaft to the shaft, wherein the clamping unit has a radially directed fixing means for fixing the shaft bushing, the rotary encoder and the shaft, characterized in that the clamping unit comprises an axially directed alignment means for aligning the clamping unit and the shaft bushing with respect to the rotary encoder shaft.
A device, comprising: a first coil (102, 118, 202, 204) and a second coil (102, 118, 202, 204), wherein the first coil (102, 118, 202, 204) has a lower self-resonant frequency compared to the second coil (102, 118, 202, 204); a main transmit inverter circuit configured to provide a power signal to the first coil (102, 118, 202, 204); and one or more circuits (108, 134) configured to: generate a small signal; select one of the first coil (102, 118, 202, 204) or the second coil (102, 118, 202, 204) depending on a type of an object to be detected; provide the small signal to the selected coil (102, 118, 202, 204); receive a response signal; compare the response signal with one or more reference signals; and detect the object according to the comparison, wherein the device is configured such that the object is detected without providing a power signal from the main transmit inverter circuit to the first or the second coil (102, 118, 202, 204). a first coil (102, 118, 202, 204) and a second coil (102, 118, 202, 204), wherein the first coil (102, 118, 202, 204) has a lower self-resonant frequency compared to the second coil (102, 118, 202, 204); a main transmit inverter circuit configured to provide a power signal to the first coil (102, 118, 202, 204); and one or more circuits (108, 134) configured to: generate a small signal; select one of the first coil (102, 118, 202, 204) or the second coil (102, 118, 202, 204) depending on a type of an object to be detected; provide the small signal to the selected coil (102, 118, 202, 204); receive a response signal; compare the response signal with one or more reference signals; and detect the object according to the comparison, wherein the device is configured such that the object is detected without providing a power signal from the main transmit inverter circuit to the first or the second coil (102, 118, 202, 204). generate a small signal; select one of the first coil (102, 118, 202, 204) or the second coil (102, 118, 202, 204) depending on a type of an object to be detected; provide the small signal to the selected coil (102, 118, 202, 204); receive a response signal; compare the response signal with one or more reference signals; and detect the object according to the comparison, wherein the device is configured such that the object is detected without providing a power signal from the main transmit inverter circuit to the first or the second coil (102, 118, 202, 204).
Ultrasonic transducer as a part of an ultrasonic flowmeter, comprising a transducer housing and a transducer element, wherein the transducer housing has an ultrasound window and a housing tube, the transducer element is designed to transmit or receive ultrasound waves and is provided either close to the ultrasound window of the transducer housing or remote from the ultrasound window of the transducer housing, wherein a relatively soft mechanical coupling system is provided and wherein a second soft mechanical coupling system is provided, characterized in that the second coupling system is implemented corresponding to the first coupling system, that the transducer housing has a housing flange, that one coupling system of the two coupling systems (7, 9) is arranged on the side of the housing flange close to the ultrasound window and the other coupling system is arranged on the side of the housing flange remote from the ultrasound window, that the coupling system provided on the side of the housing flange close to the ultrasound window is connected at its end close to the ultrasound window to the housing tube and at its end remote from the ultrasound window to the housing flange and that the coupling system provided on the side of the housing flange remote from the ultrasound window is connected at its end remote from the ultrasound window to the housing tube and at its end close to the ultrasound window to the housing flange, so that the two coupling systems (7, 9) act antiparallel. that the second coupling system is implemented corresponding to the first coupling system, that the transducer housing has a housing flange, that one coupling system of the two coupling systems (7, 9) is arranged on the side of the housing flange close to the ultrasound window and the other coupling system is arranged on the side of the housing flange remote from the ultrasound window, that the coupling system provided on the side of the housing flange close to the ultrasound window is connected at its end close to the ultrasound window to the housing tube and at its end remote from the ultrasound window to the housing flange and that the coupling system provided on the side of the housing flange remote from the ultrasound window is connected at its end remote from the ultrasound window to the housing tube and at its end close to the ultrasound window to the housing flange, so that the two coupling systems (7, 9) act antiparallel.
A method for heat-treating a coil of metal, wherein the metal is aluminum or an aluminum alloy, the method comprising: heating the coil of metal within a furnace to elevate a temperature of the metal to be within a pre-heated temperature range corresponding to a homogenizing temperature range between 400 °C and 600 °C or an annealing temperature range between 300 °C and 500 °C; unwinding the coil of metal in a heated state in which the metal is within the preheated temperature range or before the metal has cooled past a threshold amount being 50 °C or less below the pre-heated temperature range, wherein the unwinding produces an unwound portion of the coil, wherein at least part of the unwinding of the coil is performed while the coil is maintained within the furnace that performed the heating of the coil; and quenching the unwound portion of the coil to reduce a temperature of the unwound portion to a quenched temperature range within a predetermined amount of time being less than 20 seconds, wherein the quenching produces a quenched portion. heating the coil of metal within a furnace to elevate a temperature of the metal to be within a pre-heated temperature range corresponding to a homogenizing temperature range between 400 °C and 600 °C or an annealing temperature range between 300 °C and 500 °C; unwinding the coil of metal in a heated state in which the metal is within the preheated temperature range or before the metal has cooled past a threshold amount being 50 °C or less below the pre-heated temperature range, wherein the unwinding produces an unwound portion of the coil, wherein at least part of the unwinding of the coil is performed while the coil is maintained within the furnace that performed the heating of the coil; and quenching the unwound portion of the coil to reduce a temperature of the unwound portion to a quenched temperature range within a predetermined amount of time being less than 20 seconds, wherein the quenching produces a quenched portion.
A method for controlling settings of an ultrasound scanner, the method comprising: acquiring an ultrasound image feed according to a first preset by sequentially obtaining ultrasound data frames that are converted to viewable image frames; and during acquisition of the ultrasound image feed: acquiring, using reference scan parameters, ultrasound control data frames that are interspersed amongst the ultrasound data frames, the reference scan parameters being consistently used for the interspersed ultrasound control data frames regardless of scan parameters that are used for acquiring the ultrasound image feed, and wherein the ultrasound control data frames are not converted to viewable image frames; and using the ultrasound control data frames to control the settings of the ultrasound scanner, said control of the settings of the ultrasound scanner comprising changing the first preset to a second preset different from the first preset; wherein prior to changing the first preset to the second preset, at least the latest of the ultrasound control data frames is processed against an artificial intelligence model to predict a suitable preset for the ultrasound image feed, and the predicted suitable preset is used as the second preset that the ultrasound scanner is changed to. acquiring an ultrasound image feed according to a first preset by sequentially obtaining ultrasound data frames that are converted to viewable image frames; and during acquisition of the ultrasound image feed: acquiring, using reference scan parameters, ultrasound control data frames that are interspersed amongst the ultrasound data frames, the reference scan parameters being consistently used for the interspersed ultrasound control data frames regardless of scan parameters that are used for acquiring the ultrasound image feed, and wherein the ultrasound control data frames are not converted to viewable image frames; and using the ultrasound control data frames to control the settings of the ultrasound scanner, said control of the settings of the ultrasound scanner comprising changing the first preset to a second preset different from the first preset; acquiring, using reference scan parameters, ultrasound control data frames that are interspersed amongst the ultrasound data frames, the reference scan parameters being consistently used for the interspersed ultrasound control data frames regardless of scan parameters that are used for acquiring the ultrasound image feed, and wherein the ultrasound control data frames are not converted to viewable image frames; and using the ultrasound control data frames to control the settings of the ultrasound scanner, said control of the settings of the ultrasound scanner comprising changing the first preset to a second preset different from the first preset; wherein prior to changing the first preset to the second preset, at least the latest of the ultrasound control data frames is processed against an artificial intelligence model to predict a suitable preset for the ultrasound image feed, and the predicted suitable preset is used as the second preset that the ultrasound scanner is changed to.
Process of producing a non-ferrous metallic tube, which process comprises a casting stage, in which a cast tube having an outer diameter of 20-70 mm, preferably 35-55 mm, is cast from melt by continuous upward vertical casting process, and the casting stage is followed by at least two drawing stages (12, 13), which cast tube cast from melt by continuous upward vertical casting process has a wall thickness of 1.0-4.0 mm, preferably 2.0-3.0 mm, characterized in that in the drawing stages (12, 13) drawing direction of the cast tube in at least two each other following drawing stages (12, 13) is opposite to each other
Method for monitoring the operating state of an installation, wherein the following steps are carried out: a) detecting the temporal progression of at least one operating parameter in a reference operation of the installation and transforming it into the frequency range as a reference parameter, b) detecting the temporal progression of the at least operating parameter in a normal operation of the installation and transforming it into the frequency range as a normal parameter, c) detecting the temporal progression of the at least operating parameter in an interference operation of the installation and transforming it into the frequency range as an interference parameter, d) generating and training an installation model, which is based on the principle of machine learning, at least with the reference parameter, the normal parameter and the interference parameter, e) detecting the temporal progression of the at least one operating parameter during ongoing operation of the installation and transforming it into the frequency range as a current parameter, f) generating an operating state estimator by means of the installation model and the current parameter, wherein, when the operating state estimator is exceeded in relation to a predefined limit value, an operating state signal is output. a) detecting the temporal progression of at least one operating parameter in a reference operation of the installation and transforming it into the frequency range as a reference parameter, b) detecting the temporal progression of the at least operating parameter in a normal operation of the installation and transforming it into the frequency range as a normal parameter, c) detecting the temporal progression of the at least operating parameter in an interference operation of the installation and transforming it into the frequency range as an interference parameter, d) generating and training an installation model, which is based on the principle of machine learning, at least with the reference parameter, the normal parameter and the interference parameter, e) detecting the temporal progression of the at least one operating parameter during ongoing operation of the installation and transforming it into the frequency range as a current parameter, f) generating an operating state estimator by means of the installation model and the current parameter, wherein, when the operating state estimator is exceeded in relation to a predefined limit value, an operating state signal is output.
A roof drain gateway, comprising: gateway logic circuitry to: determine (1006, 1106) an average water level using data included in the water level signal received from each of a plurality of detectors, each water level being proximate a particular roof drain and at least one detector being associated with each particular roof drain; and for each of the plurality of detectors: determine (1008, 1010, 1012, 1014, 1108, 1110, 1112, 1114) whether a water level sensor failure has occurred for a water level sensor communicatively coupled to water level monitoring circuitry in the detector using the determined average water level; and determine whether a roof drain is obstructed using the determined average water level. determine (1006, 1106) an average water level using data included in the water level signal received from each of a plurality of detectors, each water level being proximate a particular roof drain and at least one detector being associated with each particular roof drain; and for each of the plurality of detectors: determine (1008, 1010, 1012, 1014, 1108, 1110, 1112, 1114) whether a water level sensor failure has occurred for a water level sensor communicatively coupled to water level monitoring circuitry in the detector using the determined average water level; and determine whether a roof drain is obstructed using the determined average water level. determine (1008, 1010, 1012, 1014, 1108, 1110, 1112, 1114) whether a water level sensor failure has occurred for a water level sensor communicatively coupled to water level monitoring circuitry in the detector using the determined average water level; and determine whether a roof drain is obstructed using the determined average water level.
An optical sensing device for sensing a pressure or force within a body lumen, the device comprising: a plurality of optical light guide portions, each optical light guide portion having a sensing region for sensing a pressure or force; a support for supporting the optical light guide portions, the support being a tubular member and having a plurality of recesses at the sensing regions, the sensing regions having two or more different radial positions around a portion of the support, the optical light guide portions being attached to the support at the sensing regions such that the sensing regions are positioned between attachment regions, the support being rigid at the sensing regions and arranged such that a strain in any one of the sensing regions is not directly influenced by a change in strain of an or the optical light guide portion outside that sensing region; wherein the optical device is arranged to sense a pressure or force at the two or more different radial positions such that it is possible to sense the pressure or force in a multi-directional manner; characterised in that the support comprises at least one groove that is helical and is arranged to guide at least one optical light guide portion around the support and each optical light guide portion is positioned around the support in a respective groove. a plurality of optical light guide portions, each optical light guide portion having a sensing region for sensing a pressure or force; a support for supporting the optical light guide portions, the support being a tubular member and having a plurality of recesses at the sensing regions, the sensing regions having two or more different radial positions around a portion of the support, the optical light guide portions being attached to the support at the sensing regions such that the sensing regions are positioned between attachment regions, the support being rigid at the sensing regions and arranged such that a strain in any one of the sensing regions is not directly influenced by a change in strain of an or the optical light guide portion outside that sensing region; wherein the optical device is arranged to sense a pressure or force at the two or more different radial positions such that it is possible to sense the pressure or force in a multi-directional manner; characterised in that the support comprises at least one groove that is helical and is arranged to guide at least one optical light guide portion around the support and each optical light guide portion is positioned around the support in a respective groove.