mhurhangee/ep-ind-claims huggingface dataset:
A method (400, 500) for establishing a bidirectional satellite communication session, the method comprising: determining, by an access node, a time difference that has elapsed between a current time and a timestamp of locally-stored ephemeris data; determining, by the access node, that the time difference exceeds an ephemeris data validity time threshold; in response to determining that the time difference exceeds the ephemeris data validity time threshold, accessing (415, 515), by the access node, initialization data to tune an antenna to a geosynchronous satellite, wherein the initialization data is stored locally by the access node; using (420, 520), by the access node, the initialization data to point and tune the antenna to the geosynchronous satellite; receiving (425, 525), by the access node, ephemeris data from the geosynchronous satellite, wherein the ephemeris data is indicative of orbital locations of satellites that are part of a non-geosynchronous satellite constellation; using (435, 535), by the access node, the ephemeris data from the geosynchronous satellite to point and tune the antenna to a satellite of the non-geosynchronous satellite constellation; and establishing (440, 540), by the access node, the bidirectional satellite communication session with the satellite of the non-geosynchronous satellite constellation. determining, by an access node, a time difference that has elapsed between a current time and a timestamp of locally-stored ephemeris data; determining, by the access node, that the time difference exceeds an ephemeris data validity time threshold; in response to determining that the time difference exceeds the ephemeris data validity time threshold, accessing (415, 515), by the access node, initialization data to tune an antenna to a geosynchronous satellite, wherein the initialization data is stored locally by the access node; using (420, 520), by the access node, the initialization data to point and tune the antenna to the geosynchronous satellite; receiving (425, 525), by the access node, ephemeris data from the geosynchronous satellite, wherein the ephemeris data is indicative of orbital locations of satellites that are part of a non-geosynchronous satellite constellation; using (435, 535), by the access node, the ephemeris data from the geosynchronous satellite to point and tune the antenna to a satellite of the non-geosynchronous satellite constellation; and establishing (440, 540), by the access node, the bidirectional satellite communication session with the satellite of the non-geosynchronous satellite constellation.
A rechargeable battery (100, 200, 300) comprising: an electrode assembly comprising positive and negative electrodes (11, 12) at both sides of a separator, wherein the positive and negative electrodes (11, 12) are wound together with the separator; a case housing the electrode assembly therein; a cap plate sealing an opening at one side of the case; an electrode terminal (41, 42, 341) in a terminal hole (311, 312) of the cap plate; and a lead tab (51, 52, 251) coupling the electrode terminal (41, 42, 341) and the electrode assembly in the case comprising a connection portion defining a first fastening hole and a second fastening hole, wherein the electrode terminal (41, 42, 341) comprises: an inner terminal plate formed at an inner side of the cap plate, and a main coupling protrusion and a first auxiliary coupling protrusion protruding from the inner terminal plate, and wherein the main coupling protrusion is coupled to the connection portion of the lead tab (51, 52, 251) via the first fastening hole, and the first auxiliary coupling protrusion is coupled to the connection portion of the lead tab (51, 52, 251) via the second fastening hole. an electrode assembly comprising positive and negative electrodes (11, 12) at both sides of a separator, wherein the positive and negative electrodes (11, 12) are wound together with the separator; a case housing the electrode assembly therein; a cap plate sealing an opening at one side of the case; an electrode terminal (41, 42, 341) in a terminal hole (311, 312) of the cap plate; and a lead tab (51, 52, 251) coupling the electrode terminal (41, 42, 341) and the electrode assembly in the case comprising a connection portion defining a first fastening hole and a second fastening hole, wherein the electrode terminal (41, 42, 341) comprises: an inner terminal plate formed at an inner side of the cap plate, and a main coupling protrusion and a first auxiliary coupling protrusion protruding from the inner terminal plate, and wherein the main coupling protrusion is coupled to the connection portion of the lead tab (51, 52, 251) via the first fastening hole, and the first auxiliary coupling protrusion is coupled to the connection portion of the lead tab (51, 52, 251) via the second fastening hole. an inner terminal plate formed at an inner side of the cap plate, and a main coupling protrusion and a first auxiliary coupling protrusion protruding from the inner terminal plate, and wherein the main coupling protrusion is coupled to the connection portion of the lead tab (51, 52, 251) via the first fastening hole, and the first auxiliary coupling protrusion is coupled to the connection portion of the lead tab (51, 52, 251) via the second fastening hole.
A clamping device (2000, 3000) for clamping a tool or work piece, the clamping device comprising: a main body having a stepped bore extending from a back end to a front end thereof, the stepped bore having a fastening area (2100X5) located proximate the back end, a front-end axial abutment surface axially facing the back end and a central axial abutment surface axially facing the back end and located axially between the fastening area (2100X5) and the front end axial abutment surface, the central axial abutment surface being located radially outward relative to the front-end axial abutment surface; a collet held in the clamping device (2000, 3000); a centering sleeve disposed in the stepped bore, the centering sleeve extending axially between a centering sleeve first axial end and a centering sleeve second axial end; and a guide sleeve disposed in the stepped bore and partially in the centering sleeve, the guide sleeve extending axially between a guide sleeve first axial end and a guide sleeve second axial end; a locking member removably disposed in the fastening area (2100X5), characterized by the locking member having a tapered abutment surface formed thereon and facing the front end of the main body; the centering sleeve being axially retained by and between the tapered abutment surface and the central axial abutment surface; and the guide sleeve being axially retained by the tapered abutment surface and the central axial abutment surface. a main body having a stepped bore extending from a back end to a front end thereof, the stepped bore having a fastening area (2100X5) located proximate the back end, a front-end axial abutment surface axially facing the back end and a central axial abutment surface axially facing the back end and located axially between the fastening area (2100X5) and the front end axial abutment surface, the central axial abutment surface being located radially outward relative to the front-end axial abutment surface; a collet held in the clamping device (2000, 3000); a centering sleeve disposed in the stepped bore, the centering sleeve extending axially between a centering sleeve first axial end and a centering sleeve second axial end; and a guide sleeve disposed in the stepped bore and partially in the centering sleeve, the guide sleeve extending axially between a guide sleeve first axial end and a guide sleeve second axial end; a locking member removably disposed in the fastening area (2100X5), characterized by the locking member having a tapered abutment surface formed thereon and facing the front end of the main body; the centering sleeve being axially retained by and between the tapered abutment surface and the central axial abutment surface; and the guide sleeve being axially retained by the tapered abutment surface and the central axial abutment surface.
A device for automatically setting a tool offset value of a machine tool, the device comprising: a tool shape acquiring means (4; 41) for acquiring shape data of a tool mounted on a tool post viewed in a direction orthogonal to a movement plane of the tool post; an offset value computing means for computing a temporary tool offset value from the acquired shape data of the tool and from an edge correction number of the tool which is used by a machining program; a tool setter and an advancing/retreating device configured to advance/retreat the tool setter between a retreat position and an advance position within a displacement region of an edge of the tool; an edge detecting means for bringing the edge of the tool into contact with a contact sensor of the tool setter located at the advance position using the temporary tool offset value computed by the offset value computing means by displacing the edge of the tool up to a position proximate to the contact sensor at a high speed and then displacing the tool post at such a low speed that the tool can be immediately stopped; and an offset value setting means for obtaining a tool offset value from a position of the tool post when the edge is detected and setting the obtained tool offset value for a numerical control device. a tool shape acquiring means (4; 41) for acquiring shape data of a tool mounted on a tool post viewed in a direction orthogonal to a movement plane of the tool post; an offset value computing means for computing a temporary tool offset value from the acquired shape data of the tool and from an edge correction number of the tool which is used by a machining program; a tool setter and an advancing/retreating device configured to advance/retreat the tool setter between a retreat position and an advance position within a displacement region of an edge of the tool; an edge detecting means for bringing the edge of the tool into contact with a contact sensor of the tool setter located at the advance position using the temporary tool offset value computed by the offset value computing means by displacing the edge of the tool up to a position proximate to the contact sensor at a high speed and then displacing the tool post at such a low speed that the tool can be immediately stopped; and an offset value setting means for obtaining a tool offset value from a position of the tool post when the edge is detected and setting the obtained tool offset value for a numerical control device.
Method for producing a chassis component, comprising a housing which is connected to a structural component by means of a weld, a receiving opening being made in the structural component, and the housing being pushed into the receiving opening, a housing-side face and a structural component-side face being in contact, characterized in that at least one of the two faces which are in contact is formed as an oblique face (41; 31; 47) in comparison with the other one of the two faces, with the result that there is a linear contact between the two faces before the weld, the receiving opening in the structural component being configured with an undersize in comparison with the housing geometry which is pushed into the receiving opening.
An atmosphere controller for automatically controlling contributions of sensorial perceptible stimulus means depending on data contained in an atmosphere setting, the sensorial perceptible stimulus means comprising at least one of a lighting means, a sound creation means and a scent generator means, the atmosphere controller comprising: - a reader interface adapted to connect with a data input means for reading input data from a data carrier containing said input data, the input data comprising a reference to certain atmosphere settings; - processing means programmed to process the data contained in a specific atmosphere setting and to generate control signals for controlling the sensorial perceptible stimulus means depending on the processed data; and - transmitting means adapted for transmitting the control signals to the sensorial perceptible stimulus means connected with the atmosphere controller.; characterized in that the reader interface is adapted to read input data from a plurality of data carriers each comprising input data comprising a reference to certain atmosphere settings, and the atmosphere controller further comprises: - an internet interface adapted to send said combined input data read from the plurality of data carriers to an internet service and to receive the specific atmosphere setting from the internet service, wherein the specific atmosphere setting is mapped to the combined input data. - a reader interface adapted to connect with a data input means for reading input data from a data carrier containing said input data, the input data comprising a reference to certain atmosphere settings; - processing means programmed to process the data contained in a specific atmosphere setting and to generate control signals for controlling the sensorial perceptible stimulus means depending on the processed data; and - transmitting means adapted for transmitting the control signals to the sensorial perceptible stimulus means connected with the atmosphere controller.; - an internet interface adapted to send said combined input data read from the plurality of data carriers to an internet service and to receive the specific atmosphere setting from the internet service, wherein the specific atmosphere setting is mapped to the combined input data.
Coupler element for an ultrasonic flowmeter, which has a platform with a support surface (3, 3') on which a piezoelement is applied and wherein said platform is an integral part of the coupler element, characterized in that the platform has a tub-shaped cavity with a comprehensive peripheral edge and a tub floor, wherein the surface of the peripheral edge of the platform facing towards the piezoelement forms the support surface (3, 3') for the piezoelement, wherein said support surface (3, 3') has a height in relation to the tub floor and wherein the tub-shaped cavity is at least partially filled with glue.
Cushion mat for integration into an automotive seat, comprising: a. a set of springs each spring extending across the cushion mat; b. connectors, connecting the springs with each other to form the cushion mat; and c. at least one deflection stopper arranged for limiting the deflection of the cushion mat, when a predetermined deflection value is exceeded; characterized in that d. the deflection stopper comprises a flexible cable; and e. has a length (L 1) that is longer than the length (L 0) of joint points of the deflection stopper to one of the springs or to any other element of the cushion mat. a. a set of springs each spring extending across the cushion mat; b. connectors, connecting the springs with each other to form the cushion mat; and c. at least one deflection stopper arranged for limiting the deflection of the cushion mat, when a predetermined deflection value is exceeded; characterized in that d. the deflection stopper comprises a flexible cable; and e. has a length (L 1) that is longer than the length (L 0) of joint points of the deflection stopper to one of the springs or to any other element of the cushion mat.
An air compressor (101, 201), comprising: a compression mechanism having a shell having a pump chamber, wherein the shell is formed therethrough with an intake port of the pump chamber, and wherein the compression mechanism is configured for compressing intake air introduced through the intake port and discharging the compressed air; and a rear housing provided on an end of the shell, the rear housing having a plate portion and a cylindrical intake chamber portion formed integrally with each other, wherein intake air is introduced into the compression mechanism through the intake chamber portion, the intake chamber portion having an inlet for the intake air and an outlet connected to the intake port of the pump chamber of the shell of the compression mechanism, wherein the intake chamber portion is integrated with the compression mechanism, the intake chamber portion has therein a partition wall extending in the direction from the inlet toward the outlet to form plural flow passages (51, 52) in the intake chamber portion, and the plural flow passages (51, 52) have different flow path lengths and connect between the inlet and the outlet. a compression mechanism having a shell having a pump chamber, wherein the shell is formed therethrough with an intake port of the pump chamber, and wherein the compression mechanism is configured for compressing intake air introduced through the intake port and discharging the compressed air; and a rear housing provided on an end of the shell, the rear housing having a plate portion and a cylindrical intake chamber portion formed integrally with each other, wherein intake air is introduced into the compression mechanism through the intake chamber portion, the intake chamber portion having an inlet for the intake air and an outlet connected to the intake port of the pump chamber of the shell of the compression mechanism, wherein the intake chamber portion is integrated with the compression mechanism, the intake chamber portion has therein a partition wall extending in the direction from the inlet toward the outlet to form plural flow passages (51, 52) in the intake chamber portion, and the plural flow passages (51, 52) have different flow path lengths and connect between the inlet and the outlet.
Use of a light guide body as a transparent glazing element, wherein the light guide body has at least one light entry surface and at least one light emitting surface, and the ratio of the light emitting surface to the light entry surface is at least 4, it has a haze, measured according to ASTM D1003, of less than 4%, the light guide body consists of at least one transparent thermoplastic or thermoelastic plastic and comprises titanium dioxide particles with an average particle size of 150 - 500 nm as embedded light scattering means in a concentration of 0.1 - 10 wt.ppm, expressed in terms of the weight of the light guide body and the transparent glazing element can be used as a flat light by switching on at least one light source fitted on one of the light entry surfaces of the light guide body.
Digital integrated circuit comprising a logic array (120, 520) comprising a functional logic block (101, 501), a logic unit (102, 512) for detecting transient errors affecting the functional logic block (101, 501), an input FIFO memory for supplying the functional logic block (101, 501) with samples, an output FIFO memory for receiving samples output from the functional logic block (101, 501), a buffer memory that is supplied with samples by the input FIFO memory, and a logic control unit that is able to control read access to the input FIFO memory and write access to the output FIFO memory and that is configured, when an error is detected by the transient-error-detecting logic unit (102, 512), to reset the transient-error-detecting logic unit (102, 512) and the functional logic block (101, 501) to suspend write access to the output FIFO memory and to switch the input of the functional logic block (101, 501) to the output of the buffer memory.
A recombinant influenza hemagglutinin polypeptide, comprising the amino acid sequence of residues 2-566 of SEQ ID NO: 2 or residues 2-568 of SEQ ID NO: 1.
An apparatus, comprising: a clamp including a first arm and a second arm, the first arm and the second arm configured to exert opposing forces to maintain a target tissue disposed between the first arm and the second arm; a first electrode head coupled to the first arm, the first electrode head including a first electrically insulating contact surface, a first electrode and a first cooling unit, the first contact surface configured to contact a first portion of the target tissue, the first cooling unit configured to maintain the first portion of the target tissue at a first target temperature; and a second electrode head coupled to the second arm, the second electrode head including a second electrically insulating contact surface, a second electrode and a second cooling unit, the second contact surface configured to contact a second portion of the target tissue, the second cooling unit configured to maintain the second portion of the target tissue at a second target temperature, characterized in that the first electrode and the second electrode collectively configured to deliver a DC voltage pulse waveform configured to irreversibly electroporate the target tissue with no direct current transfer between the electrodes. a clamp including a first arm and a second arm, the first arm and the second arm configured to exert opposing forces to maintain a target tissue disposed between the first arm and the second arm; a first electrode head coupled to the first arm, the first electrode head including a first electrically insulating contact surface, a first electrode and a first cooling unit, the first contact surface configured to contact a first portion of the target tissue, the first cooling unit configured to maintain the first portion of the target tissue at a first target temperature; and a second electrode head coupled to the second arm, the second electrode head including a second electrically insulating contact surface, a second electrode and a second cooling unit, the second contact surface configured to contact a second portion of the target tissue, the second cooling unit configured to maintain the second portion of the target tissue at a second target temperature, characterized in that the first electrode and the second electrode collectively configured to deliver a DC voltage pulse waveform configured to irreversibly electroporate the target tissue with no direct current transfer between the electrodes.