mhurhangee/ep-ind-claims huggingface dataset:
A radio frequency identification tag (20, 50) comprising: a loop antenna that includes: a first conductive portion having a length and width that substantially exceed a thickness of the first conductive portion, wherein the length and width of the first conductive portion substantially lie in a first plane; and a second conductive portion having a length and width that substantially exceed a thickness of the second conductive portion, wherein the length and width of the second conductive portion substantially lie in a second plane that is substantially parallel to the first plane, the second conductive portion being electrically coupled to the first conductive portion; and a radio frequency identification circuit electrically connected to the loop antenna, so that when a current is excited through the loop antenna, the current flows through the first conductive portion and the second conductive portion in a current loop that lies in a third plane that is substantially perpendicular to the first plane and the second plane, characterized in that at least a portion of the first conductive portion forms a tuning element for tuning an impedance of the loop antenna. a loop antenna that includes: a first conductive portion having a length and width that substantially exceed a thickness of the first conductive portion, wherein the length and width of the first conductive portion substantially lie in a first plane; and a second conductive portion having a length and width that substantially exceed a thickness of the second conductive portion, wherein the length and width of the second conductive portion substantially lie in a second plane that is substantially parallel to the first plane, the second conductive portion being electrically coupled to the first conductive portion; and a first conductive portion having a length and width that substantially exceed a thickness of the first conductive portion, wherein the length and width of the first conductive portion substantially lie in a first plane; and a second conductive portion having a length and width that substantially exceed a thickness of the second conductive portion, wherein the length and width of the second conductive portion substantially lie in a second plane that is substantially parallel to the first plane, the second conductive portion being electrically coupled to the first conductive portion; and a radio frequency identification circuit electrically connected to the loop antenna, so that when a current is excited through the loop antenna, the current flows through the first conductive portion and the second conductive portion in a current loop that lies in a third plane that is substantially perpendicular to the first plane and the second plane,
A connecting rod cut in a predetermined length by shearing work and provided with a rotation transmitting portion having a non-circular cross section at least at each of both ends, wherein: at least one end is provided with, from a first tip-end side, a small-diameter column portion having a diameter smaller than a diameter of the rotation transmitting portion, a tapered portion provided continuously from the small-diameter column portion and gradually increasing in diameter, and wherein the rotation transmitting portion is provided continuously from the tapered portion, and the other end is provided with, from a second tip-end side, a fall-out preventing portion allowed to abut on an opening rim of a hole in which to insert the rotation transmitting portion, a tapered portion provided continuously from the fall-out preventing portion and gradually increasing in diameter with distances from the second tip end, and wherein the rotation transmitting portion is provided continuously from the tapered portion. at least one end is provided with, from a first tip-end side, a small-diameter column portion having a diameter smaller than a diameter of the rotation transmitting portion, a tapered portion provided continuously from the small-diameter column portion and gradually increasing in diameter, and wherein the rotation transmitting portion is provided continuously from the tapered portion, and a small-diameter column portion having a diameter smaller than a diameter of the rotation transmitting portion, a tapered portion provided continuously from the small-diameter column portion and gradually increasing in diameter, and wherein the rotation transmitting portion is provided continuously from the tapered portion, and the other end is provided with, from a second tip-end side, a fall-out preventing portion allowed to abut on an opening rim of a hole in which to insert the rotation transmitting portion, a tapered portion provided continuously from the fall-out preventing portion and gradually increasing in diameter with distances from the second tip end, and wherein the rotation transmitting portion is provided continuously from the tapered portion. a fall-out preventing portion allowed to abut on an opening rim of a hole in which to insert the rotation transmitting portion, a tapered portion provided continuously from the fall-out preventing portion and gradually increasing in diameter with distances from the second tip end, and wherein the rotation transmitting portion is provided continuously from the tapered portion.
Apparatus for analysing luminescing specimens by spectrometry, wherein the apparatus comprises: - a particle beam source that is embodied to produce a primary particle beam (104, 201, 301, 601) directed at the specimen (103, 203, 303, 502, 603) in such a way that the primary particle beam is incident on the specimen and luminescence photons are released from the specimen (103, 203, 303, 502, 603) on account of the interaction between the primary particle beam (104, 201, 301, 601) and specimen material; - a multiplicity of light-receiving elements (202, 302, 602) that are embodied to capture the luminescence photons released by the specimen (103, 203, 303, 502, 603), wherein each light-receiving element (202, 302, 602) is assigned to a certain solid angle range and it captures the luminescence photons emitted in this solid angle range (204, 304) such that luminescence photons that move in different solid angle ranges are distinguished and detected separately from one another; - guiding elements (307, 401, 501) that are embodied to forward captured luminescence photons to an evaluation unit, wherein an evaluation unit is assigned to each light-receiving element; - an analysis system (107, 207) that comprises a plurality of evaluation units and that is embodied in such a way that luminescence photons captured by each light-receiving element (202, 302, 602) are spectrally analysed separately from one another. - a particle beam source that is embodied to produce a primary particle beam (104, 201, 301, 601) directed at the specimen (103, 203, 303, 502, 603) in such a way that the primary particle beam is incident on the specimen and luminescence photons are released from the specimen (103, 203, 303, 502, 603) on account of the interaction between the primary particle beam (104, 201, 301, 601) and specimen material; - a multiplicity of light-receiving elements (202, 302, 602) that are embodied to capture the luminescence photons released by the specimen (103, 203, 303, 502, 603), wherein each light-receiving element (202, 302, 602) is assigned to a certain solid angle range and it captures the luminescence photons emitted in this solid angle range (204, 304) such that luminescence photons that move in different solid angle ranges are distinguished and detected separately from one another; - guiding elements (307, 401, 501) that are embodied to forward captured luminescence photons to an evaluation unit, wherein an evaluation unit is assigned to each light-receiving element; - an analysis system (107, 207) that comprises a plurality of evaluation units and that is embodied in such a way that luminescence photons captured by each light-receiving element (202, 302, 602) are spectrally analysed separately from one another.
An eye-tracked head-mounted display, comprising: a micro-display for generating an image to be viewed by a user, the micro-display having a display optical path and an exit pupil associated therewith; a first plane located at the micro-display and a second plane located at the exit pupil; an image sensor configured to receive reflected optical radiation from the second plane reflected from a user's eye, the image sensor having a sensor optical path associated therewith; an illumination source for generating optical radiation and configured to illuminate the second plane to effect illumination of the user's eye, the illumination source having an illumination optical path associated therewith; and display optics comprising a freeform optical prism disposed in optical communication with 1) the micro-display along the display optical path, 2) the illumination source along the illumination optical path, and 3) the image sensor along the sensor optical path, the freeform optical prism having a selected surface closest to the micro-display and the image sensor, the freeform optical prism located relative to the micro-display and image sensor such that the display and image sensor optical paths impinge upon differing respective portions of the selected surface, the freeform optical prism positioned to receive radiation from the illumination source and transmit the radiation to the second plane. a micro-display for generating an image to be viewed by a user, the micro-display having a display optical path and an exit pupil associated therewith; a first plane located at the micro-display and a second plane located at the exit pupil; an image sensor configured to receive reflected optical radiation from the second plane reflected from a user's eye, the image sensor having a sensor optical path associated therewith; an illumination source for generating optical radiation and configured to illuminate the second plane to effect illumination of the user's eye, the illumination source having an illumination optical path associated therewith; and display optics comprising a freeform optical prism disposed in optical communication with 1) the micro-display along the display optical path, 2) the illumination source along the illumination optical path, and 3) the image sensor along the sensor optical path, the freeform optical prism having a selected surface closest to the micro-display and the image sensor, the freeform optical prism located relative to the micro-display and image sensor such that the display and image sensor optical paths impinge upon differing respective portions of the selected surface, the freeform optical prism positioned to receive radiation from the illumination source and transmit the radiation to the second plane.
A cleaning device to wipe a surface to be cleaned with a cleaning sheet which is attached as covering a cleaning surface being a lower face of a base body, comprising: a cleaning device body which includes a cleaning head and a base body attached as covering a lower face of the cleaning head; and a handle portion which is attached to a face at the opposite side to the lower face of the cleaning head, wherein the lower face of the base body includes a wave-like corrugated surface portion of which cross-section in a direction perpendicular to a predetermined direction along which cleaning is performed with the cleaning device body in a planar view is wave-shaped as having a ridge portion and a valley portion arranged alternately and continuously; the valley portion of the wave-like corrugated surface portion includes an oblique valley portion of which an end part is opened to a side portion of the base body facing to the predetermined direction as being extended obliquely against the predetermined direction; the wave-like corrugated surface portion is arranged as a part of a corrugated surface extended in a watering manner over an entire surface of the base body; and the corrugated surface extended in a watering manner is a corrugated surface extended over the entire surface of the base body as being circle-shaped or rhomboid-shaped. a cleaning device body which includes a cleaning head and a base body attached as covering a lower face of the cleaning head; and a handle portion which is attached to a face at the opposite side to the lower face of the cleaning head, wherein the lower face of the base body includes a wave-like corrugated surface portion of which cross-section in a direction perpendicular to a predetermined direction along which cleaning is performed with the cleaning device body in a planar view is wave-shaped as having a ridge portion and a valley portion arranged alternately and continuously; the valley portion of the wave-like corrugated surface portion includes an oblique valley portion of which an end part is opened to a side portion of the base body facing to the predetermined direction as being extended obliquely against the predetermined direction; the wave-like corrugated surface portion is arranged as a part of a corrugated surface extended in a watering manner over an entire surface of the base body; and the corrugated surface extended in a watering manner is a corrugated surface extended over the entire surface of the base body as being circle-shaped or rhomboid-shaped.
A system (100;300) for providing respiratory therapy to a patient comprising: a nebulizer (110;310) having a nebulizer outlet port (112;312), the nebulizer operable to generate an aerosolized medicament and pass the aerosolized medicament through the nebulizer outlet port; an adaptor (130;330) having an adaptor body (132;332), a nebulizer coupling port (134;334), and an adaptor outlet port (136;336), the nebulizer coupling port of the adaptor configured to be coupled to the nebulizer outlet port of the nebulizer; and a nasal cannula (150;350) configured to provide a flow of breathing gas from a breathing gas source to the patient, the nasal cannula comprising at least one nasal prong (158;160) and an attachment device positioned adjacent the at least one nasal prong, the attachment device configured to secure the adaptor outlet port adjacent an outlet of the at least one nasal prong, wherein the attachment device is configured to position the adaptor outlet port directly below a nare of the patient when the nasal cannula is secured to the patient. a nebulizer (110;310) having a nebulizer outlet port (112;312), the nebulizer operable to generate an aerosolized medicament and pass the aerosolized medicament through the nebulizer outlet port; an adaptor (130;330) having an adaptor body (132;332), a nebulizer coupling port (134;334), and an adaptor outlet port (136;336), the nebulizer coupling port of the adaptor configured to be coupled to the nebulizer outlet port of the nebulizer; and a nasal cannula (150;350) configured to provide a flow of breathing gas from a breathing gas source to the patient, the nasal cannula comprising at least one nasal prong (158;160) and an attachment device positioned adjacent the at least one nasal prong, the attachment device configured to secure the adaptor outlet port adjacent an outlet of the at least one nasal prong, wherein the attachment device is configured to position the adaptor outlet port directly below a nare of the patient when the nasal cannula is secured to the patient.
A method of monitoring a flow meter, the method characterized by the steps of: capturing a substantially continuous flow meter output into a pre-error memory, with the substantially continuous flow meter output overwriting an oldest flow meter output stored in the pre-error memory; detecting a predetermined start triggering condition in the substantially continuous flow meter output; transferring a pre-error memory data into an error log when the predetermined start triggering condition is detected; and capturing the substantially continuous flow meter output in the error log after the predetermined start triggering condition is detected; detecting a predetermined end triggering condition in the substantially continuous flow meter output; and reverting to capturing the substantially continuous flow meter output into the pre-error memory after the predetermined end triggering condition is detected, wherein the error log stores pre-error data and post-error data, with the post-error data comprising all flow meter output generated between the predetermined start triggering condition and the predetermined end triggering condition. capturing a substantially continuous flow meter output into a pre-error memory, with the substantially continuous flow meter output overwriting an oldest flow meter output stored in the pre-error memory; detecting a predetermined start triggering condition in the substantially continuous flow meter output; transferring a pre-error memory data into an error log when the predetermined start triggering condition is detected; and capturing the substantially continuous flow meter output in the error log after the predetermined start triggering condition is detected; detecting a predetermined end triggering condition in the substantially continuous flow meter output; and reverting to capturing the substantially continuous flow meter output into the pre-error memory after the predetermined end triggering condition is detected, wherein the error log stores pre-error data and post-error data, with the post-error data comprising all flow meter output generated between the predetermined start triggering condition and the predetermined end triggering condition.
An ink circulation device for an ink jet head comprising: a first ink storage unit that stores ink to be supplied to an ink jet head; a second ink storage unit that stores ink to be returned from the ink jet head; a pump that operates according to an electric signal to transport the ink from the second ink storage unit to the first ink storage unit; and a first pressure sensor configured to detect an internal pressure of the first ink storage unit; characterized in that the ink circulation device further comprises: a filter between the pump and the first ink storage unit; a second pressure sensor configured to detect an internal pressure between the pump and the filter; and a drive circuit configured to generate the electric signal according to a pressure difference between the internal pressure detected by the second pressure sensor and the internal pressure detected by the first pressure sensor. a first ink storage unit that stores ink to be supplied to an ink jet head; a second ink storage unit that stores ink to be returned from the ink jet head; a pump that operates according to an electric signal to transport the ink from the second ink storage unit to the first ink storage unit; and a first pressure sensor configured to detect an internal pressure of the first ink storage unit; characterized in that the ink circulation device further comprises: a filter between the pump and the first ink storage unit; a second pressure sensor configured to detect an internal pressure between the pump and the filter; and a drive circuit configured to generate the electric signal according to a pressure difference between the internal pressure detected by the second pressure sensor and the internal pressure detected by the first pressure sensor. a filter between the pump and the first ink storage unit; a second pressure sensor configured to detect an internal pressure between the pump and the filter; and a drive circuit configured to generate the electric signal according to a pressure difference between the internal pressure detected by the second pressure sensor and the internal pressure detected by the first pressure sensor.
A gateway, arranged for providing cloud connectivity to a network of communicatively interconnected network nodes (6, 7), said gateway comprising: - a backend function; - a plurality of frontend devices, for deployment in said network, said frontend devices communicatively connect to said backend function, wherein each frontend device comprises a transceiver (41, 43) for exchanging messages between a network node (6, 7) in said network of communicatively interconnected network nodes (6,7) and said backend function; wherein said backend function is common to said plurality of frontend devices and arranged in a at least one server of a plurality of operatively connected servers and configured for processing of said messages for exchange thereof with said cloud; and wherein one or more different instances of a network stack are implemented by said backend function and are shared between different frontend devices of said plurality of frontend devices, wherein said instances belong to a same or different networks. - a backend function; - a plurality of frontend devices, for deployment in said network, said frontend devices communicatively connect to said backend function, wherein each frontend device comprises a transceiver (41, 43) for exchanging messages between a network node (6, 7) in said network of communicatively interconnected network nodes (6,7) and said backend function; wherein said backend function is common to said plurality of frontend devices and arranged in a at least one server of a plurality of operatively connected servers and configured for processing of said messages for exchange thereof with said cloud; and wherein one or more different instances of a network stack are implemented by said backend function and are shared between different frontend devices of said plurality of frontend devices, wherein said instances belong to a same or different networks.
A method for wireless communications by a user equipment, comprising: determining a precoding resource block group size for the UE to use for sounding reference signal transmission, wherein the SRS transmission is allocated over a bandwidth including one or more PRGs and wherein each of the one or more PRGs includes one or more precoding resource blocks (PRBs); and transmitting the SRS transmission to a base station in accordance with the determination, wherein each PRG is associated with a different precoder and wherein the same precoder is used for the SRS transmission within a respective PRG. determining a precoding resource block group size for the UE to use for sounding reference signal transmission, wherein the SRS transmission is allocated over a bandwidth including one or more PRGs and wherein each of the one or more PRGs includes one or more precoding resource blocks (PRBs); and transmitting the SRS transmission to a base station in accordance with the determination, wherein each PRG is associated with a different precoder and wherein the same precoder is used for the SRS transmission within a respective PRG.
Method for determining a driving range of a motor vehicle, comprising the steps of: - receiving extra-vehicle data, wherein the extra-vehicle data comprise at least one weather parameter value; - determining a vehicle-dependent parameter value depending on the extra-vehicle data; - determining the driving range of the motor vehicle depending on the vehicle-dependent parameter value, wherein - the extra-vehicle data are obtained from multiple additional motor vehicles; characterised in that the received extra-vehicle data are verified using a confidence estimation before the vehicle-dependent parameter value is determined, wherein the confidence estimation takes into account a travel time for the multiple additional motor vehicles and/or a minimum number of the multiple additional motor vehicles. - receiving extra-vehicle data, wherein the extra-vehicle data comprise at least one weather parameter value; - determining a vehicle-dependent parameter value depending on the extra-vehicle data; - determining the driving range of the motor vehicle depending on the vehicle-dependent parameter value, wherein - the extra-vehicle data are obtained from multiple additional motor vehicles;