mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a vibrating wire gauge of a system, the method being characterized by: estimating the resonant frequency of a vibrating wire of the vibrating wire gauge, said estimating comprising: digitizing a response of the vibrating wire that has been excited; performing a transform on the digitized response to generate a frequency spectrum; and determining a resonant frequency of the response using a spectral peak location estimation algorithm on the frequency spectrum generated from the transform of the digitized response. digitizing a response of the vibrating wire that has been excited; performing a transform on the digitized response to generate a frequency spectrum; and determining a resonant frequency of the response using a spectral peak location estimation algorithm on the frequency spectrum generated from the transform of the digitized response.
A three-phase rotary electric machine system comprising: a rotor; and a stator including first windings to be used during both of a low speed drive and a high speed drive, second windings to be used only during the low speed drive, and a plurality of slots (33a, 33b, 33c) provided per pole per phase, wherein two of the first windings are wound to be superimposed on each other by being inserted in a same slot, characterized in that, the first windings and the second windings are distributively wound on different slots (33a, 33b, 33c) in the slots per pole per phase, in each of the slots, either the first windings having the same phase or the second windings having the same phase are disposed, and in slots having the same pole and the same phase, the first windings are disposed in outside slots on opposite sides, and the second windings are disposed in slots between every two outside slots where the first windings are disposed. a rotor; and a stator including first windings to be used during both of a low speed drive and a high speed drive, second windings to be used only during the low speed drive, and a plurality of slots (33a, 33b, 33c) provided per pole per phase, wherein two of the first windings are wound to be superimposed on each other by being inserted in a same slot, characterized in that, the first windings and the second windings are distributively wound on different slots (33a, 33b, 33c) in the slots per pole per phase, in each of the slots, either the first windings having the same phase or the second windings having the same phase are disposed, and in slots having the same pole and the same phase, the first windings are disposed in outside slots on opposite sides, and the second windings are disposed in slots between every two outside slots where the first windings are disposed.
System comprising a first and a second node (2 1, 2 2) of a linear cellular network, wherein the nodes (2 1, 2 2) are spaced apart from each other with a mutual spacing, which mutual spacing defines a communication section (s), each node (2 1, 2 2) having at least one antenna (11, 12, 18, 19) for wirelessly communicating with a user terminal located in the communication section (s) between the first and the second node (2 1, 2 2), wherein both nodes (2 1, 2 2) are configured to communicate over a communication channel having a plurality of channel resources (CR i), wherein a processor of the system is configured to apply a space-time or space-frequency block coding scheme on data to be communicated to the user terminal to generate a first and a second block code representation (r 1, r 2) of the same data, wherein the first node (2 1) is configured to communicate the first block code representation (r 1) of the data to the user terminal in one of the channel resources (CR i) and the second node (2 2) is configured to communicate the second block code representation (r 2) of the data to the user terminal in the same channel resource (CR i), wherein the first node (2 1) comprises a first and a second directional antenna (11, 18), which are directed in substantially opposite directions (d L, d R), wherein data can be independently communicated over both antennas (11, 18) in the same channel resource (CR i), and wherein the first directional antenna of the first node (2 1) is configured to communicate the first block code representation (r 1) of data and the second directional antenna of the first node (2 1) is configured to communicate the second block code representation (r 2) of data.
A turbine system, comprising: a transition duct having an inlet, an outlet, and a passage extending between the inlet and the outlet and defining a longitudinal axis, a radial axis, and a tangential axis, the outlet of the transition duct offset from the inlet along the longitudinal axis and the tangential axis; and a turbine section connected to the transition duct, the turbine section comprising a plurality of shroud blocks at least partially defining a hot gas path, a plurality of buckets at least partially disposed in the hot gas path, and a plurality of nozzles at least partially disposed in the hot gas path, characterized in that at least a shroud block is formed from a ceramic matrix composite, the shroud block having cooling passages defined therein in a generally serpentine configuration, the cooling passages being in fluid communication with a steam source for flowing steam therethrough. a transition duct having an inlet, an outlet, and a passage extending between the inlet and the outlet and defining a longitudinal axis, a radial axis, and a tangential axis, the outlet of the transition duct offset from the inlet along the longitudinal axis and the tangential axis; and a turbine section connected to the transition duct, the turbine section comprising a plurality of shroud blocks at least partially defining a hot gas path, a plurality of buckets at least partially disposed in the hot gas path, and a plurality of nozzles at least partially disposed in the hot gas path, characterized in that at least a shroud block is formed from a ceramic matrix composite, the shroud block having cooling passages defined therein in a generally serpentine configuration, the cooling passages being in fluid communication with a steam source for flowing steam therethrough.
Method for making intraosseous dental implantations including the steps of supplying a layer of powder material intended to form the implantation and applying a sintering laser beam to said powder material to form a layer of the implantation and repeating several times the two above operations by depositing each time a further layer of powder material over the preceding layer already treated with the laser beam to form the implantation, characterized in that the used powder material is titanium powder and in that the laser beam is applied to the titanium powder layers so as to form cavities on a surface of the implantation, which are designed to be colonized by the patient's bone, said cavities consisting of a network of micro-cavities with characteristic dimension between 70 and 200 microns and macro-cavities with dimension between 200 and 800 microns, interconnected by micropores.
A microelectromechanical pressure sensor structure that comprises a planar base (71; 81) and a side wall layer (73; 83) and a diaphragm plate (76; 86), wherein the diaphragm plate includes a first planar material layer; the side wall layer (73; 83) is electrically insulating and forms side walls that extend circumferentially away from the planar base (71; 81) to a top surface of the side wall layer; the planar base (71; 81) is attached to the side wall layer (71; 83) and the side wall layer is attached to the first planar material layer of the diaphragm plate (76; 86) to form a hermetically closed gap in a reference pressure; a part of the first planar material layer of the diaphragm plate (76; 86) that extends over the gap provides a diaphragm; the top surface of the side wall layer (73; 83) comprises at least one isolation area that is not covered by the first planar material layer of the diaphragm plate; the microelectromechanical pressure sensor structure characterized in that the isolation area is at least partly covered with a layer of electrically insulating material (84; 84); the layer of electrically insulating material does not extend to the area of the diaphragm; the thickness of the layer of electrically insulating material on the isolation area is at least equal to the thickness of the first planar material layer of the diaphragm plate. the diaphragm plate includes a first planar material layer; the side wall layer (73; 83) is electrically insulating and forms side walls that extend circumferentially away from the planar base (71; 81) to a top surface of the side wall layer; the planar base (71; 81) is attached to the side wall layer (71; 83) and the side wall layer is attached to the first planar material layer of the diaphragm plate (76; 86) to form a hermetically closed gap in a reference pressure; a part of the first planar material layer of the diaphragm plate (76; 86) that extends over the gap provides a diaphragm; the top surface of the side wall layer (73; 83) comprises at least one isolation area that is not covered by the first planar material layer of the diaphragm plate; the microelectromechanical pressure sensor structure characterized in that the isolation area is at least partly covered with a layer of electrically insulating material (84; 84); the layer of electrically insulating material does not extend to the area of the diaphragm; the thickness of the layer of electrically insulating material on the isolation area is at least equal to the thickness of the first planar material layer of the diaphragm plate.
An apparatus comprising: an access network interface operative to: request access authorization from an access network access point AP,; send a secure neighbor discovery, SeND, - neighbor solicitation, NS, to the AP after a public-private key pair has been generated in response to receiving access authorization from the AP; and receive a signed user location information, ULI, from the AP in response to the SeND-NS; a processor operative to generate the public-private key pair to be used to generate a cryptographically generated address, CGA, upon receiving the access authorization; and a 3GPP network interface operative to send the signed ULI to one of a 3GPP mobility controller or an emergency service wherein the SeND-NS comprises the CGA and the public key of the public-private key pair, and wherein the signed ULI binds the CGA and an access-network-location identifier. an access network interface operative to: request access authorization from an access network access point AP,; send a secure neighbor discovery, SeND, - neighbor solicitation, NS, to the AP after a public-private key pair has been generated in response to receiving access authorization from the AP; and receive a signed user location information, ULI, from the AP in response to the SeND-NS; request access authorization from an access network access point AP,; send a secure neighbor discovery, SeND, - neighbor solicitation, NS, to the AP after a public-private key pair has been generated in response to receiving access authorization from the AP; and receive a signed user location information, ULI, from the AP in response to the SeND-NS; a processor operative to generate the public-private key pair to be used to generate a cryptographically generated address, CGA, upon receiving the access authorization; and a 3GPP network interface operative to send the signed ULI to one of a 3GPP mobility controller or an emergency service wherein the SeND-NS comprises the CGA and the public key of the public-private key pair, and wherein the signed ULI binds the CGA and an access-network-location identifier.
A system, comprising: a medical probe configured to be inserted into a cavity of an organ of a patient; a position and direction sensor in the medical probe operating in a sensor coordinate system; a camera in a distal edge of the medical probe operating in a sensor coordinate system; and a processor configured to: receive, from an imaging system operating in an image coordinate system, a three-dimensional image of the cavity comprising open space and organ tissue; receive, from the medical probe, signals indicating positions and respective directions of the distal edge of the medical probe inside the cavity; receive, from the camera of the probe, respective visualized locations inside the cavity; register the image coordinate system with the sensor coordinate system so as to identify one or more voxels in the three-dimensional image at the visualized locations; and when the identified voxels have density values in the received three-dimensional image that do not correspond to the open space, to update the density values of the identified voxels to correspond to the open space. a medical probe configured to be inserted into a cavity of an organ of a patient; a position and direction sensor in the medical probe operating in a sensor coordinate system; a camera in a distal edge of the medical probe operating in a sensor coordinate system; and a processor configured to: receive, from an imaging system operating in an image coordinate system, a three-dimensional image of the cavity comprising open space and organ tissue; receive, from the medical probe, signals indicating positions and respective directions of the distal edge of the medical probe inside the cavity; receive, from the camera of the probe, respective visualized locations inside the cavity; register the image coordinate system with the sensor coordinate system so as to identify one or more voxels in the three-dimensional image at the visualized locations; and when the identified voxels have density values in the received three-dimensional image that do not correspond to the open space, to update the density values of the identified voxels to correspond to the open space. receive, from an imaging system operating in an image coordinate system, a three-dimensional image of the cavity comprising open space and organ tissue; receive, from the medical probe, signals indicating positions and respective directions of the distal edge of the medical probe inside the cavity; receive, from the camera of the probe, respective visualized locations inside the cavity; register the image coordinate system with the sensor coordinate system so as to identify one or more voxels in the three-dimensional image at the visualized locations; and when the identified voxels have density values in the received three-dimensional image that do not correspond to the open space, to update the density values of the identified voxels to correspond to the open space.
An RFID device comprising: - a device body having a first surface; - an RFID antenna embedded in the device body and having a coupling portion (16, 18; 19); and - a switch module mounted to the device body at a position corresponding to the coupling portion (16, 18; 19), the switch module including: an actuation portion provided on the first surface; an integrated circuit configured to perform RFID communications; and a switching portion configured to couple the integrated circuit to the RFID antenna via the coupling portion (16, 18; 19) upon actuation of the actuation portion by a user, characterized in that: - the switch module further comprises a coupling antenna; - the coupling portion is formed by one or more coupling sections of the RFID antenna surrounding at least in part the coupling antenna, and - the switching portion is configured to inductively couple the integrated circuit to the RFID antenna by electrically connecting the integrated circuit to the coupling antenna upon actuation of the actuation portion. - a device body having a first surface; - an RFID antenna embedded in the device body and having a coupling portion (16, 18; 19); and - a switch module mounted to the device body at a position corresponding to the coupling portion (16, 18; 19), the switch module including: an actuation portion provided on the first surface; an integrated circuit configured to perform RFID communications; and a switching portion configured to couple the integrated circuit to the RFID antenna via the coupling portion (16, 18; 19) upon actuation of the actuation portion by a user, characterized in that: - the switch module further comprises a coupling antenna; - the coupling portion is formed by one or more coupling sections of the RFID antenna surrounding at least in part the coupling antenna, and - the switching portion is configured to inductively couple the integrated circuit to the RFID antenna by electrically connecting the integrated circuit to the coupling antenna upon actuation of the actuation portion. an actuation portion provided on the first surface; an integrated circuit configured to perform RFID communications; and a switching portion configured to couple the integrated circuit to the RFID antenna via the coupling portion (16, 18; 19) upon actuation of the actuation portion by a user, characterized in that: - the switch module further comprises a coupling antenna; - the coupling portion is formed by one or more coupling sections of the RFID antenna surrounding at least in part the coupling antenna, and - the switching portion is configured to inductively couple the integrated circuit to the RFID antenna by electrically connecting the integrated circuit to the coupling antenna upon actuation of the actuation portion. - the switch module further comprises a coupling antenna; - the coupling portion is formed by one or more coupling sections of the RFID antenna surrounding at least in part the coupling antenna, and - the switching portion is configured to inductively couple the integrated circuit to the RFID antenna by electrically connecting the integrated circuit to the coupling antenna upon actuation of the actuation portion.
A high humidity gas turbine equipment comprising: a turbine driven by combustion gas; a compressor, which compresses air; a humidifier, which brings the air compressed by the compressor into contact with feed water to humidify the air; a regenerative heat exchanger, which causes the air humidified by the humidifier to be heated by exhaust gas from the turbine; a combustor, which burns the air heated by the regenerative heat exchanger and fuel to generate the combustion gas, which drive the turbine; a deaerating equipment including a deaerating section, to which the feed water used in the humidifier for humidification of air and the makeup water to the humidifier are supplied and which deaerates the feed water and the makeup water with steam, a water storage tank, in which the feed water deaerated in the deaerating section and the makeup water are stored, and a steam generating section, which causes the feed water and the makeup water in the water storage tank to be heated by the exhaust gas from the turbine to evaporate and supplies the steam to the deaerating section; and a feed water supply pipe, through which the feed water and the makeup water in the water storage tank are supplied to the humidifier. a turbine driven by combustion gas; a compressor, which compresses air; a humidifier, which brings the air compressed by the compressor into contact with feed water to humidify the air; a regenerative heat exchanger, which causes the air humidified by the humidifier to be heated by exhaust gas from the turbine; a combustor, which burns the air heated by the regenerative heat exchanger and fuel to generate the combustion gas, which drive the turbine; a deaerating equipment including a deaerating section, to which the feed water used in the humidifier for humidification of air and the makeup water to the humidifier are supplied and which deaerates the feed water and the makeup water with steam, a water storage tank, in which the feed water deaerated in the deaerating section and the makeup water are stored, and a steam generating section, which causes the feed water and the makeup water in the water storage tank to be heated by the exhaust gas from the turbine to evaporate and supplies the steam to the deaerating section; and a feed water supply pipe, through which the feed water and the makeup water in the water storage tank are supplied to the humidifier.
A product which comprises a nozzle (200, 410), and a retaining cap of a plasma arc torch and a cooling structure defining a cooling channel through which cooling fluid can flow between said nozzle (200, 410) and said retaining cap, the cooling structure being disposed in at least one of the nozzle and the retaining cap, characterized in that the cooling structure comprises a portion having a curvilinear surface, the cooling structure comprising: a concave curvilinear portion defining at least a portion of said cooling channel, a convex curvilinear portion for promoting fluid flow into the concave curvilinear portion, and a tangential connection portion disposed between the convex and the concave curvilinear portions, wherein the surface of the curvilinear portions is configured without sharp angles and wherein the shaped surface includes a toroidal portion, so as to provide a fluid flow path that prevents or reduces fluid stagnation.
A method for handling a timer for triggering a Regular buffer status report in a user equipment of a wireless communication system, the method comprising: starting a timer used for triggering a Regular BSR; and characterized by avoiding expiration of the timer used for triggering the Regular BSR by restarting the timer in the transmission time interval for which a semi-persistent scheduling uplink grant has been configured with no reception of uplink grant allocation sent on a physical downlink control channel (PDCCH) in said TTI, wherein semi-persistent scheduling is used to periodically allocate transmission resources to the UE. starting a timer used for triggering a Regular BSR; and characterized by avoiding expiration of the timer used for triggering the Regular BSR by restarting the timer in the transmission time interval for which a semi-persistent scheduling uplink grant has been configured with no reception of uplink grant allocation sent on a physical downlink control channel (PDCCH) in said TTI, wherein semi-persistent scheduling is used to periodically allocate transmission resources to the UE.
A body of an impact unit, wherein the body is an elongated hollow piece comprising a first end and a second end and is provided with an inner space inside which operable elements of an impact unit are mountable; the body comprises at least two body parts arranged successively in an axial direction of the body; each of the body parts comprise axial connecting surfaces; and between the at least two successive body parts is an axial connecting joint wherein connecting surfaces of the body parts facing towards each other are pressed towards each other by means of several fastening screws; characterized in that the connecting joint comprises fastening screws, which are slanted relative to the axial direction of the body.