mhurhangee/ep-ind-claims huggingface dataset:
A dental abutment, comprising: a head portion located at an upper end of the abutment and constructed to support a prosthetic tooth replacement and soft tissue adjacent the head portion; an anti-rotation feature located at a lower end of the abutment and constructed to mate with a dental implant; and a fillet in the form of an arcuate recess in a transition region between the head portion and the anti-rotation feature, the fillet having a closed perimeter and forming a concavity at least partly in one of the anti-rotation feature and the head portion. a head portion located at an upper end of the abutment and constructed to support a prosthetic tooth replacement and soft tissue adjacent the head portion; an anti-rotation feature located at a lower end of the abutment and constructed to mate with a dental implant; and a fillet in the form of an arcuate recess in a transition region between the head portion and the anti-rotation feature, the fillet having a closed perimeter and forming a concavity at least partly in one of the anti-rotation feature and the head portion.
A receiver, comprising a photodetector, a first amplifier, a second amplifier, and a controller, wherein the photodetector is coupled to the first amplifier, the first amplifier is coupled to the second amplifier, and the first amplifier and the second amplifier are separately coupled to the controller; the controller is configured to control a gain of the first amplifier and a gain of the second amplifier based on a preset arrival time of an optical signal and a gain intensity corresponding to the optical signal; the photodetector is configured to receive the optical signal and convert the optical signal into a current signal; the first amplifier is configured to convert the current signal into a first voltage signal based on the gain of the first amplifier; and the second amplifier is configured to convert the first voltage signal into a second voltage signal based on the gain of the second amplifier. the controller is configured to control a gain of the first amplifier and a gain of the second amplifier based on a preset arrival time of an optical signal and a gain intensity corresponding to the optical signal; the photodetector is configured to receive the optical signal and convert the optical signal into a current signal; the first amplifier is configured to convert the current signal into a first voltage signal based on the gain of the first amplifier; and the second amplifier is configured to convert the first voltage signal into a second voltage signal based on the gain of the second amplifier.
Device of lighting and/or signal lights of a motor vehicle, ready to illuminate a zone extending around the vehicle, comprising at least the first two sources of light white respectively associated with at least with the first and second modules of lighting and/or signal lights turnings, ready respectively to generate beams of light following of the determined directions, a control unit ready to command the rotation and the luminous intensity of the first and second revolving modules, characterized in that each one of the first and second revolving modules present a first face and a second face opposed to the first: the first face comprising a reflective surface ready to direct the beam of light emitted by the first white source of light worms the aforementioned zone and the second face supporting a reason; the aforementioned control unit commanding at least an asynchronous cycle of rotation and at least a synchronous cycle of rotation of the first and second revolving modules (51, 52), for one limited duration, following a detection of a control signal, to direct their first faces worms the aforementioned zone by a succession of at least two rotations of at least 180° in a direction then in the other of each revolving module (51, 52) with a luminous intensity of the first sources of light white constant according to time.
A catheter assembly, comprising: a catheter adapter, comprising: a body, comprising a distal end, a proximal end, and a lumen extending through the distal end and the proximal end; and a side port extending outwardly from the body and disposed between the distal end and the proximal end, wherein the side port comprises an outer opening; a valve disposed within the side port, wherein the valve comprises a channel extending through the valve; a cannula fixed within the side port and disposed within the channel, wherein the cannula comprises a plurality of openings, wherein the valve comprises: i) a position in which the plurality of openings are positioned within the valve, and ii) a compressed position in which the valve is positioned below the plurality of openings to expose the plurality of openings from within the valve, wherein the cannula comprises a blunt, closed end, and wherein the blunt, closed end of the cannula seals an end of the channel when the valve is in the position in which the plurality of openings are positioned within the valve; and a catheter extending distally from the distal end of the body. a catheter adapter, comprising: a body, comprising a distal end, a proximal end, and a lumen extending through the distal end and the proximal end; and a side port extending outwardly from the body and disposed between the distal end and the proximal end, wherein the side port comprises an outer opening; a body, comprising a distal end, a proximal end, and a lumen extending through the distal end and the proximal end; and a side port extending outwardly from the body and disposed between the distal end and the proximal end, wherein the side port comprises an outer opening; a valve disposed within the side port, wherein the valve comprises a channel extending through the valve; a cannula fixed within the side port and disposed within the channel, wherein the cannula comprises a plurality of openings, wherein the valve comprises: i) a position in which the plurality of openings are positioned within the valve, and ii) a compressed position in which the valve is positioned below the plurality of openings to expose the plurality of openings from within the valve, wherein the cannula comprises a blunt, closed end, and wherein the blunt, closed end of the cannula seals an end of the channel when the valve is in the position in which the plurality of openings are positioned within the valve; and a catheter extending distally from the distal end of the body.
A method for diagnosing in a subject Acute Kidney Injury, or diagnosing in a subject delayed graft function of a transplanted kidney, which method comprises the steps of a) analysing a urine sample obtained from a subject to determine the level of a biomarker selected from cadmium or copper or zinc; and b) comparing the level of the biomarker in the sample to a reference level of the biomarker that is characteristic of a healthy subject, eg a subject having normal renal function; wherein an elevated level of the biomarker in the sample relative to the reference level is indicative of Acute Kidney Injury or delayed graft function of a transplanted kidney. a) analysing a urine sample obtained from a subject to determine the level of a biomarker selected from cadmium or copper or zinc; and b) comparing the level of the biomarker in the sample to a reference level of the biomarker that is characteristic of a healthy subject, eg a subject having normal renal function;
Pharmaceutical, dietary or nutraceutical composition containing at least a salt of S-adenosyl methionine combined with physiologically acceptable excipients, wherein said composition is in form of orosoluble tablet and said physiologically acceptable excipients comprise light magnesium oxide.
A method, comprising: receiving at an auto-deployment server a notification message from a Trivial File Transfer Protocol, TFTP, server, wherein the notification message carries a temporary IP address and a name of a basic configuration file provided by a Dynamic Host Configuration Protocol, DHCP, server to a device; obtaining the basic configuration file from stored basic configuration files and obtaining a Media Access Control, MAC, address of the device according to the basic configuration file and the temporary IP address; obtaining a baseline startup configuration file of the device according to the MAC address; deploying the baseline startup configuration file to the device. receiving at an auto-deployment server a notification message from a Trivial File Transfer Protocol, TFTP, server, wherein the notification message carries a temporary IP address and a name of a basic configuration file provided by a Dynamic Host Configuration Protocol, DHCP, server to a device; obtaining the basic configuration file from stored basic configuration files and obtaining a Media Access Control, MAC, address of the device according to the basic configuration file and the temporary IP address; obtaining a baseline startup configuration file of the device according to the MAC address; deploying the baseline startup configuration file to the device.
Method for monitoring an electrical storage facility, which has two or more storage units electrically connected in series, wherein the storage units are discharged by a predefined amount as part of a respective balancing procedure, if a voltage value indicating the electrical voltage applied thereto in each case exceeds a predefined voltage threshold, wherein the balancing procedures are observed over an observation time period and a warning signal (Sw) is generated if the observed balancing procedures affect the storage units unevenly beyond a predefined amount, characterised in that the warning signal (Sw) is generated if no balancing procedures have been observed for one or more storage units at the end of the observation time period.
An air preparation device (1; 1 ') for motor vehicles, having at least one first compressed air port (2.1) and a second compressed air port (2.2) and a first air preparation component (3.1) and a second air preparation component (3.2; 3.2'), the first air preparation component (3.1) having at least one first solenoid valve, a second solenoid valve and a third solenoid valve, a first air drier cartridge (4.1), a first main non-return valve (5.1), a first regeneration non-return valve (6.1), a first regeneration throttle (7.1) and a first inlet valve (9.1), the second air preparation component (3.2; 3.2') having at least one second air drier cartridge (4.2), a second main non-return valve (5.2), a second regeneration non-return valve (6.2), a second regeneration throttle (7.2) and a second inlet valve (9.2; 9.2'), the first solenoid valve and the second solenoid valve being provided to control the first air preparation component (3.1), a control line being provided in such a manner that the second air preparation component (3.2; 3.2') is connected to the third solenoid valve of the first air preparation component (3.1), characterised in that the second solenoid valve is arranged in such a manner that an input (MV2a) of the second solenoid valve is connected to a second pneumatic circuit output (10.2), and the output (MV2b) of the second solenoid valve is connected to the first regeneration non-return valve (6.1) and to a control input (9.1c) of the first inlet valve (9.1). the first air preparation component (3.1) having at least one first solenoid valve, a second solenoid valve and a third solenoid valve, a first air drier cartridge (4.1), a first main non-return valve (5.1), a first regeneration non-return valve (6.1), a first regeneration throttle (7.1) and a first inlet valve (9.1), the second air preparation component (3.2; 3.2') having at least one second air drier cartridge (4.2), a second main non-return valve (5.2), a second regeneration non-return valve (6.2), a second regeneration throttle (7.2) and a second inlet valve (9.2; 9.2'), the first solenoid valve and the second solenoid valve being provided to control the first air preparation component (3.1), a control line being provided in such a manner that the second air preparation component (3.2; 3.2') is connected to the third solenoid valve of the first air preparation component (3.1), characterised in that the second solenoid valve is arranged in such a manner that an input (MV2a) of the second solenoid valve is connected to a second pneumatic circuit output (10.2), and the output (MV2b) of the second solenoid valve is connected to the first regeneration non-return valve (6.1) and to a control input (9.1c) of the first inlet valve (9.1).
A method for managing the mobility of a mobile network operating in a Proxy Mobile IP (PMIP) environment comprising at least one attachment point and one access router, said mobile network comprising a mobile terminal (102, 204) communicating with at least one user device (202_1), said method comprising the following steps: - establishing an IP-in-IP communication tunnel between said at least one attachment point and access router allowing data to be exchanged between said mobile terminal and a corresponding node of said PMIP environment, said communication tunnel assigning a Home Network Prefix to said mobile terminal; - dividing the assigned Home Network Prefix into a first section in order to form a Home Address (HoA) for said mobile terminal (102, 204) and into one or more other sections for generating one or more prefixes (PI, P2), one of said prefixes defining a Mobile Network Prefix assigned to said mobile terminal (102, 204); and - advertising the generated Mobile Network Prefix to said at least one user device (202_1) so as to allow data (516, 612) to be exchanged between said at least one user device (202_1) and said corresponding node via said IP-in-IP communication tunnel. - establishing an IP-in-IP communication tunnel between said at least one attachment point and access router allowing data to be exchanged between said mobile terminal and a corresponding node of said PMIP environment, said communication tunnel assigning a Home Network Prefix to said mobile terminal; - dividing the assigned Home Network Prefix into a first section in order to form a Home Address (HoA) for said mobile terminal (102, 204) and into one or more other sections for generating one or more prefixes (PI, P2), one of said prefixes defining a Mobile Network Prefix assigned to said mobile terminal (102, 204); and - advertising the generated Mobile Network Prefix to said at least one user device (202_1) so as to allow data (516, 612) to be exchanged between said at least one user device (202_1) and said corresponding node via said IP-in-IP communication tunnel.
A rotor comprising: a rotor body for rotation about the central axis of a shaft; a plurality of permanent magnets spaced circumferentially about said rotor body; and a containment band positioned radially outwardly of said permanent magnets, said containment band having a containment band coefficient of thermal expansion, and said permanent magnets having a permanent magnet coefficient of thermal expansion, taken parallel to a magnetic alignment, and characterized in that a ratio of said containment band coefficient of thermal expansion to the permanent magnet coefficient of thermal expansion is less than or equal to 1.15 and greater than or equal to 0.9, wherein a thickness of said containment band taken in a radial direction, and a ratio of said thickness to a diameter of said rotor is between.00375 and.040, and said rotor being configured for use in a machine that is configured to operate at a speed range of between 12,000 and 30,000 RPM, and wherein said containment band material is 15-5 precipitation hardened stainless steel. a rotor body for rotation about the central axis of a shaft; a plurality of permanent magnets spaced circumferentially about said rotor body; and a containment band positioned radially outwardly of said permanent magnets, said containment band having a containment band coefficient of thermal expansion, and said permanent magnets having a permanent magnet coefficient of thermal expansion, taken parallel to a magnetic alignment, and characterized in that a ratio of said containment band coefficient of thermal expansion to the permanent magnet coefficient of thermal expansion is less than or equal to 1.15 and greater than or equal to 0.9, wherein a thickness of said containment band taken in a radial direction, and a ratio of said thickness to a diameter of said rotor is between.00375 and.040, and said rotor being configured for use in a machine that is configured to operate at a speed range of between 12,000 and 30,000 RPM, and wherein said containment band material is 15-5 precipitation hardened stainless steel.
Method for evaluating a deviation from at least one region of a lambda characteristic curve of a two-point lambda probe arranged in an exhaust duct of an internal combustion engine from at least one reference value which is extracted from a reference lambda characteristic curve, wherein the deviation from at least one reference value of the reference lambda characteristic curve is determined after a characteristic curve deviation from the reference lambda characteristic curve is corrected when lambda = 1, wherein in order to determine the deviation on the basis of a value pair on the reference lambda characteristic curve a change in the composition of the air/fuel mixture fed to the internal combustion engine takes place up to lambda = 1, and in that the actual value of lambda is concluded on the basis of the change in the composition of the air/fuel mixture, characterized in that in order to assess the deviation at least one threshold is predefined which forms a criterion for the differentiation between a tolerable and a non-tolerable correction requirement, that the at least one threshold delineates a plausibility range from a range outside the plausibility range, in that the deviation is compared with the threshold, wherein the deviation within the plausibility range is assessed as a tolerable correction requirement and the deviation outside the plausibility range is assessed as a non-tolerable correction requirement, in that when there is a tolerable correction requirement the deviation is corrected, and in that when a non-tolerable correction requirement is detected a different reaction is triggered.
A connector, comprising: a terminal metal fitting to which a core wire exposed portion (We1a) of a core wire of a terminal of a wire (We) is physically and electrically connected; a housing inside which the terminal metal fitting and the terminal of the wire (We) are housed and from which the wire (We) is drawn outside the housing from inside the housing; and a wire holding member that holds, inside the housing, the terminal of the wire (We), wherein the wire holding member has fixed portions fixed to a fixing portion inside the housing, and a holding portion that is formed with a semi-cylindrical shape, and holds the terminal of the wire (We) so that the terminal of the wire (We) does not move relatively to the housing when the fixed portions are fixed to the fixing portion, and wherein the ends of the respective fixed portions on the free end side are fitted to the fixing portion, along a direction perpendicular to the cylinder axis direction of the holding portion. a terminal metal fitting to which a core wire exposed portion (We1a) of a core wire of a terminal of a wire (We) is physically and electrically connected; a housing inside which the terminal metal fitting and the terminal of the wire (We) are housed and from which the wire (We) is drawn outside the housing from inside the housing; and a wire holding member that holds, inside the housing, the terminal of the wire (We), wherein the wire holding member has fixed portions fixed to a fixing portion inside the housing, and a holding portion that is formed with a semi-cylindrical shape, and holds the terminal of the wire (We) so that the terminal of the wire (We) does not move relatively to the housing when the fixed portions are fixed to the fixing portion, and wherein the ends of the respective fixed portions on the free end side are fitted to the fixing portion, along a direction perpendicular to the cylinder axis direction of the holding portion.
A terminal, comprising: a transmitting/receiving section configured to monitor downlink control channel candidates in a first, predetermined frequency band out of a plurality of frequency bands; and the transmitting/receiving section further configured to receive downlink control information in the first frequency band; and a control section configured to perform a control to change the first predetermined frequency band to a second frequency band of the plurality of predetermined frequency bands, in which the downlink control channel candidates are monitored, based on the downlink control information received on the first, predetermined frequency band; characterized in that the control section is further configured to perform the control in accordance with a predetermined timer; the transmittinq/receivinq section is further configured to receive downlink control information in the second frequency band, and to receive and transmit data based on the downlink control information received in the first, predetermined frequency band and the downlink control information received in the second frequency band; wherein, when the predetermined timer expires, the control section is configured to set the frequency band in which the downlink control channel candidates are monitored to the first, predetermined frequency band; and wherein the second frequency band is wider than the first frequency band. a transmitting/receiving section configured to monitor downlink control channel candidates in a first, predetermined frequency band out of a plurality of frequency bands; and the transmitting/receiving section further configured to receive downlink control information in the first frequency band; and a control section configured to perform a control to change the first predetermined frequency band to a second frequency band of the plurality of predetermined frequency bands, in which the downlink control channel candidates are monitored, based on the downlink control information received on the first, predetermined frequency band; characterized in that the control section is further configured to perform the control in accordance with a predetermined timer; the transmittinq/receivinq section is further configured to receive downlink control information in the second frequency band, and to receive and transmit data based on the downlink control information received in the first, predetermined frequency band and the downlink control information received in the second frequency band; wherein, when the predetermined timer expires, the control section is configured to set the frequency band in which the downlink control channel candidates are monitored to the first, predetermined frequency band; and wherein the second frequency band is wider than the first frequency band.