mhurhangee/ep-ind-claims huggingface dataset:
A method for establishing a data connection for a remote station, comprising: finding a wireless network capable of establishing a data connection; determining that the remote station is a non-subscribing remote station that does not have an existing subscription relationship that supports establishment of the data connection using the wireless network; sending an initial connection identity, ICI, value to the wireless network, wherein the ICI value includes a characteristic associated with the non-subscribing remote station and further includes a characteristic which supports the establishment of the data connection; receiving an authentication inquiry from the wireless network in response to the sent ICI value, wherein the authentication inquiry is based on pseudo-authentication information provided to the wireless network by an authentication entity determined based on the ICI value; generating a response value, responsive to the authentication inquiry, associated with the ICI value; and sending the response value to the wireless network for allowing establishment of a limited data connection between the remote station and the wireless network which enables the remote station to carry out only a predefined set of actions. finding a wireless network capable of establishing a data connection; determining that the remote station is a non-subscribing remote station that does not have an existing subscription relationship that supports establishment of the data connection using the wireless network; sending an initial connection identity, ICI, value to the wireless network, wherein the ICI value includes a characteristic associated with the non-subscribing remote station and further includes a characteristic which supports the establishment of the data connection; receiving an authentication inquiry from the wireless network in response to the sent ICI value, wherein the authentication inquiry is based on pseudo-authentication information provided to the wireless network by an authentication entity determined based on the ICI value; generating a response value, responsive to the authentication inquiry, associated with the ICI value; and sending the response value to the wireless network for allowing establishment of a limited data connection between the remote station and the wireless network which enables the remote station to carry out only a predefined set of actions.
A battery comprising: an anode and a cathode, and an electrolyte disposed between the anode and the cathode, wherein one or both of the anode and the cathode comprises an electrode comprising a plurality of sheets of graphene and a plurality of carbon nanohorns disposed between adjacent sheets and further comprises zinc particles that have a diameter of less than 100 nanometres. an anode and a cathode, and an electrolyte disposed between the anode and the cathode, wherein one or both of the anode and the cathode comprises an electrode comprising a plurality of sheets of graphene and a plurality of carbon nanohorns disposed between adjacent sheets and further comprises zinc particles that have a diameter of less than 100 nanometres.
A user equipment, UE, occupying a Radio Access Network, RAN, the UE being configured to: initiate a cell search of the RAN to decode a limited set of system information, SI; randomly select a preamble/sequence from a set of predefined preamble/sequences, and transmit the selected preamble/sequence to a RAN base station transceiver, wherein the preamble/sequence indicates a request for additional SI, wherein the preamble/sequence transmission triggers the additional SI associated with an identifier, wherein the identifier is a cell radio network temporary identifier, C-RNTI, dedicated to the UE; monitor for transmission of the additional SI in the RAN; and decode the additional SI, wherein the additional SI is specific to the UE relative to other UEs operating in the RAN, and the UE is thereafter able to communicate with the RAN base station. initiate a cell search of the RAN to decode a limited set of system information, SI; randomly select a preamble/sequence from a set of predefined preamble/sequences, and transmit the selected preamble/sequence to a RAN base station transceiver, wherein the preamble/sequence indicates a request for additional SI, wherein the preamble/sequence transmission triggers the additional SI associated with an identifier, wherein the identifier is a cell radio network temporary identifier, C-RNTI, dedicated to the UE; monitor for transmission of the additional SI in the RAN; and decode the additional SI, wherein the additional SI is specific to the UE relative to other UEs operating in the RAN, and the UE is thereafter able to communicate with the RAN base station.
A delivery system for an invertible device comprising: a delivery catheter; a pusher catheter (30, 110) slidably disposed within said delivery catheter; a positioning mechanism releasably connecting an invertible device to said delivery system; characterized in that said invertible device has at least one circumferential preformed fold separating a distal portion from a portion proximal of said distal portion; wherein during advancement of said invertible device out of said delivery catheter, said positioning mechanism initiates inversion of said invertible device by preventing further advancement of a distal portion of said invertible device and allowing said portion proximal of said distal portion to invert into said distal portion. a delivery catheter; a pusher catheter (30, 110) slidably disposed within said delivery catheter; a positioning mechanism releasably connecting an invertible device to said delivery system; characterized in that said invertible device has at least one circumferential preformed fold separating a distal portion from a portion proximal of said distal portion; wherein during advancement of said invertible device out of said delivery catheter, said positioning mechanism initiates inversion of said invertible device by preventing further advancement of a distal portion of said invertible device and allowing said portion proximal of said distal portion to invert into said distal portion.
A label applicator system for transferring labels from a web to items moving on a rotary item transport, comprising: a supply reel for supplying the web with the labels thereon; a take-up reel for taking up the web after transfer of the label from the web to the item, the supply and take-up reels being vertically oriented; a movable label applicator head; a rotary table for moving the items along a path defined by rotation of the table and for rotating the items relative to an axis of the items; and a control system, wherein the label applicator head is movable toward and away from the item and wherein the item is rotated to apply the label to the item as it moves past the applicator head, characterized in that it comprises a dancer arm associated with each of the supply reel and the take-up reel, the dancer arms being gravity weighted linear slides with an attached idler roller to provide tension to the web at the supply and take-up reel ends. a supply reel for supplying the web with the labels thereon; a take-up reel for taking up the web after transfer of the label from the web to the item, the supply and take-up reels being vertically oriented; a movable label applicator head; a rotary table for moving the items along a path defined by rotation of the table and for rotating the items relative to an axis of the items; and a control system, wherein the label applicator head is movable toward and away from the item and wherein the item is rotated to apply the label to the item as it moves past the applicator head, characterized in that it comprises a dancer arm associated with each of the supply reel and the take-up reel, the dancer arms being gravity weighted linear slides with an attached idler roller to provide tension to the web at the supply and take-up reel ends.
n automatic analyzer comprising a plurality of cuvettes; a sampling mechanism (2, 4) for dispensing a sample and a reagent into a cuvette; means for ultrasonically stirring and mixing the reaction solution formed by said sample and reagent in the cuvette; means for measuring the reaction solution; means for washing the cuvette with a detergent and ultrasonically stirring the detergent in the cuvette; and a control device for controlling the steps of reaction, measurement and washing, characterized in that the control device is arranged to control the automatic analyzer so that the same ultrasonic stirring means is used for mixing the reaction solution and for washing the cuvette. a plurality of cuvettes; a sampling mechanism (2, 4) for dispensing a sample and a reagent into a cuvette; means for ultrasonically stirring and mixing the reaction solution formed by said sample and reagent in the cuvette; means for measuring the reaction solution; means for washing the cuvette with a detergent and ultrasonically stirring the detergent in the cuvette; and a control device for controlling the steps of reaction, measurement and washing,
An ester for a refrigerator oil and of mixed alcohols and mixed monocarboxylic acids, wherein said mixed alcohols consist of dipentaerythritol and tripentaerythritol in a mass ratio of 90/10 to 99.7/0.3; wherein said mixed monocarboxylic acids consist of n-pentanoic acid and 2-methyl butanoic acid in a mass ratio of 50/50 to 80/20; and wherein said ester has a kinematic viscosity of 50 to 150 mm 2 /s at 40°C. wherein said mixed alcohols consist of dipentaerythritol and tripentaerythritol in a mass ratio of 90/10 to 99.7/0.3; wherein said mixed monocarboxylic acids consist of n-pentanoic acid and 2-methyl butanoic acid in a mass ratio of 50/50 to 80/20; and wherein said ester has a kinematic viscosity of 50 to 150 mm 2 /s at 40°C.
A subsea equipment assembly comprising: a first component having an axis, a second component, and an anti-vibration bracket; wherein the anti-vibration bracket is attached to the first component and the second component, and in use the first component is caused to vibrate at least in a radial direction relative to the axis; wherein the anti-vibration bracket comprises a plate portion, and the plate portion extends at least radially away from the first component and comprises an attachment region located a radial distance away from the first component, the second component being attached to the attachment region; wherein the anti-vibration bracket comprises an array of slots, at least some of the slots of the array of slots are located between the first component and the attachment region, and wherein the plate portion comprises an edge having a complementary shape to an outer surface of the first component, wherein the position of the edge and the attachment region is fixed with respect to one another; characterized in that the edge includes a plurality of notches, each notch provided to accommodate a foot secured to the first component. a first component having an axis, a second component, and an anti-vibration bracket; wherein the anti-vibration bracket is attached to the first component and the second component, and in use the first component is caused to vibrate at least in a radial direction relative to the axis; wherein the anti-vibration bracket comprises a plate portion, and the plate portion extends at least radially away from the first component and comprises an attachment region located a radial distance away from the first component, the second component being attached to the attachment region; wherein the anti-vibration bracket comprises an array of slots, at least some of the slots of the array of slots are located between the first component and the attachment region, and wherein the plate portion comprises an edge having a complementary shape to an outer surface of the first component, wherein the position of the edge and the attachment region is fixed with respect to one another; characterized in that the edge includes a plurality of notches, each notch provided to accommodate a foot secured to the first component.
A laser wavelength monitoring apparatus, comprising two optical receivers (5a, 5b), further comprising a filter, wherein the filter comprises: two translucent bodies, wherein each of the translucent bodies has a first plane, a second plane that forms a wedge angle with the first plane, and a third plane that intersects with both the first plane and the second plane, wherein the first planes of the two translucent bodies are parallel to each other, and the second planes of the two translucent bodies are parallel to each other; a beam splitting film, wherein the beam splitting film has a fixed split ratio, is configured to divide an incident laser light by ratio, and is first plated on the first plane 10 of one of the translucent bodies, and the first plane of the other translucent body is then bonded to the beam splitting film; characterized by: two reflective films, respectively combined with the second planes of the two translucent bodies; the beam splitting film and the two reflective films ensure that stable parallel interference resonance can be formed in the filter; and the two reflective films of the filter respectively face a transmit port of a laser and a pipe orifice of an incident port of a transmit fiber, and the two third planes of the filter respectively face receive ports of the two optical receivers. two translucent bodies, wherein each of the translucent bodies has a first plane, a second plane that forms a wedge angle with the first plane, and a third plane that intersects with both the first plane and the second plane, wherein the first planes of the two translucent bodies are parallel to each other, and the second planes of the two translucent bodies are parallel to each other; a beam splitting film, wherein the beam splitting film has a fixed split ratio, is configured to divide an incident laser light by ratio, and is first plated on the first plane 10 of one of the translucent bodies, and the first plane of the other translucent body is then bonded to the beam splitting film; characterized by: two reflective films, respectively combined with the second planes of the two translucent bodies; the beam splitting film and the two reflective films ensure that stable parallel interference resonance can be formed in the filter; and the two reflective films of the filter respectively face a transmit port of a laser and a pipe orifice of an incident port of a transmit fiber, and the two third planes of the filter respectively face receive ports of the two optical receivers. two reflective films, respectively combined with the second planes of the two translucent bodies; the beam splitting film and the two reflective films ensure that stable parallel interference resonance can be formed in the filter; and the two reflective films of the filter respectively face a transmit port of a laser and a pipe orifice of an incident port of a transmit fiber, and the two third planes of the filter respectively face receive ports of the two optical receivers.
An optical connector comprising: a connecting structure; an optical receiver located within the connecting structure; an optical transmitter located within the connecting structure; a heat sink located within the connecting structure, wherein the heat sink is configured to conduct heat away from the optical receiver and the optical transmitter and the optical receiver and the optical transmitter are thermally connected to the heat sink; and a dielectric structure connected to the connecting structure, wherein the heat sink is held by the dielectric structure in the connecting structure, wherein the heat sink further comprises at least one hole (638, 639, 640, 642) configured to facilitate the horizontal position adjustment of the heat sink. a connecting structure; an optical receiver located within the connecting structure; an optical transmitter located within the connecting structure; a heat sink located within the connecting structure, wherein the heat sink is configured to conduct heat away from the optical receiver and the optical transmitter and the optical receiver and the optical transmitter are thermally connected to the heat sink; and a dielectric structure connected to the connecting structure, wherein the heat sink is held by the dielectric structure in the connecting structure, wherein the heat sink further comprises at least one hole (638, 639, 640, 642) configured to facilitate the horizontal position adjustment of the heat sink.
A lighting system, comprising an operating device (70, 80) for at least one light-emitting diode, an LED module, which is connected to the operating device (70, 80), a source (2; 60, 61), which is set up to provide a DC supply voltage, a DC bus, which connects the operating device (70, 80) and the source (2; 60, 61), an operating circuit, a receiving unit (30, 90) for receiving digital light control signals according to a predefined protocol, preferably according to the DALI standard, and a modulator (4; 66) for modulating the control signals (42, 44) onto the DC supply voltage, characterized in that the modulator (4; 66) carries out the modulation of the control signals (42, 44) onto the DC supply voltage depending on the current level of the digital light control signals received by the receiving unit (30, 90), that the operating circuit is set up to receive the DC supply voltage and to provide an LED current for the at least one light-emitting diode, wherein the operating circuit comprises: A PLC demodulator, which is set up, to read out the DC supply voltage modulated control signals (42, 44) and to modulate a signal onto the DC supply voltage, an integrated semi-conductor circuit, which is set up, to receive the control signals (42, 44) read-out by the PLC demodulator and to control the operating circuit depending on the control signals (42, 44) read-out, wherein the PLC demodulator is set up, depending on the diagnosis of an operating state and/or depending on an output signal of a sensor to modulate the signal onto the DC supply voltage. A PLC demodulator, which is set up, to read out the DC supply voltage modulated control signals (42, 44) and to modulate a signal onto the DC supply voltage, an integrated semi-conductor circuit, which is set up, to receive the control signals (42, 44) read-out by the PLC demodulator and to control the operating circuit depending on the control signals (42, 44) read-out, wherein the PLC demodulator is set up, depending on the diagnosis of an operating state and/or depending on an output signal of a sensor to modulate the signal onto the DC supply voltage.
An unknown-water detection apparatus, wherein unknown water is rainwater or groundwater that flows into a wastewater pipeline, comprising: a processor, a memory, a feature amount extraction section that extracts, from acoustic data including a water flowing sound, an acoustic feature amount pattern indicating a temporal change in an acoustic feature amount; and an unknown-water prediction section that predicts presence or absence of unknown water from an acoustic feature amount pattern of target acoustic data for prediction by utilizing a machine learning model that learned an acoustic feature amount pattern extracted from data including one or both of acoustic data including a water flowing sound during no-rainfall time and acoustic data of a water flowing sound under a condition different from the no-rainfall time, wherein the acoustic feature amount pattern indicates a temporal change in the acoustic feature amount with respect to day of week and time slot, characterized in that the acoustic data under the condition different from the no-rainfall time is at least one of acoustic data during rainfall time, acoustic data of a water flowing sound when another flowing water from outside is introduced into flowing water during no-rainfall time, and acoustic data of a water flowing sound due to groundwater or storm surge. a processor, a memory, a feature amount extraction section that extracts, from acoustic data including a water flowing sound, an acoustic feature amount pattern indicating a temporal change in an acoustic feature amount; and an unknown-water prediction section that predicts presence or absence of unknown water from an acoustic feature amount pattern of target acoustic data for prediction by utilizing a machine learning model that learned an acoustic feature amount pattern extracted from data including one or both of acoustic data including a water flowing sound during no-rainfall time and acoustic data of a water flowing sound under a condition different from the no-rainfall time, wherein the acoustic feature amount pattern indicates a temporal change in the acoustic feature amount with respect to day of week and time slot, characterized in that the acoustic data under the condition different from the no-rainfall time is at least one of acoustic data during rainfall time, acoustic data of a water flowing sound when another flowing water from outside is introduced into flowing water during no-rainfall time, and acoustic data of a water flowing sound due to groundwater or storm surge.
A device for imaging the iridocorneal angle of an eye, said device comprising: at least two optical imaging systems, the systems oriented to image at least two different zones of the iridocorneal angle; characterized in coupled to each system, at least one sensor area (220, 221) for capturing image information corresponding to that system; coupled to the at least one sensor area (220, 221), means for generating individual images of the different zones of the iridocorneal angle, with each zone corresponding to one of the systems; and coupled to the generating means, means for fabricating a composite image of a wide field of the iridocorneal angle from the individual images. at least two optical imaging systems, the systems oriented to image at least two different zones of the iridocorneal angle; characterized in coupled to each system, at least one sensor area (220, 221) for capturing image information corresponding to that system; coupled to the at least one sensor area (220, 221), means for generating individual images of the different zones of the iridocorneal angle, with each zone corresponding to one of the systems; and coupled to the generating means, means for fabricating a composite image of a wide field of the iridocorneal angle from the individual images.