mhurhangee/ep-ind-claims huggingface dataset:
An inserter for an intrauterine system, comprising - a handle having a longitudinal opening at its first end, said opening having a longitudinal axis parallel to the longitudinal axis of the inserter, a first end and a second end, - a movable slider arranged in said longitudinal opening and having a first end and a second end, - a movable plunger, - an insertion tube arranged around the plunger having a first end and a second end, with its second end attached to the slider, - locking means for reversibly locking the intrauterine system in relation to the plunger via a removal string of the intrauterine system, said locking means being attached to the plunger and being controllable at least by a part or an extension of the slider and/or of the insertion tube or of the handle, characterized in that the inserter further comprises movement means, which comprise a rotation part arranged to rotate around a rotation axis that is perpendicular to the longitudinal axis of the inserter, the rotation part being arranged in functional connection with the plunger and with the slider, such that the movement of the slider generates simultaneous movement of the plunger and of the insertion tube along the longitudinal axis of the inserter, in opposite directions. - a handle having a longitudinal opening at its first end, said opening having a longitudinal axis parallel to the longitudinal axis of the inserter, a first end and a second end, - a movable slider arranged in said longitudinal opening and having a first end and a second end, - a movable plunger, - an insertion tube arranged around the plunger having a first end and a second end, with its second end attached to the slider, - locking means for reversibly locking the intrauterine system in relation to the plunger via a removal string of the intrauterine system, said locking means being attached to the plunger and being controllable at least by a part or an extension of the slider and/or of the insertion tube or of the handle, characterized in that the inserter further comprises movement means, which comprise a rotation part arranged to rotate around a rotation axis that is perpendicular to the longitudinal axis of the inserter, the rotation part being arranged in functional connection with the plunger and with the slider, such that the movement of the slider generates simultaneous movement of the plunger and of the insertion tube along the longitudinal axis of the inserter, in opposite directions.
A transparent substrate having a glazing function, provided with a thin-film multilayer coating that acts on solar radiation, characterized in that the coating comprises at least two absorbent functional layers each flanked by two transparent layers comprising a dielectric material, the functional layers being based on a metal belonging to the group consisting of: niobium, tantalum, molybdenum and zirconium.
A multi-chamber hollow profile with an outer wall, which comprises a plurality of fire protection material chambers, which are completely or partially filled with fire protection material (20, 20a, 20b), and at least one receiving hollow chamber, for use in fire protection structures, particularly in fire-resistant frames for fire protection elements, for example as an insert or sliding insert in a fire-resistant glazing frame, characterized in that the at least one receiving hollow chamber: • is arranged in the interior of the multi-chamber hollow profile, • is completely or predominantly surrounded by the plurality of fire protection material chambers; • has at least one end face which is arranged in the area of the end faces of the multi-chamber hollow profile, so that the at least one receiving hollow chamber is accessible from outside the multi-chamber hollow profile; and is separated from the plurality of fire protection material chambers completely or predominantly surrounding it by a wall which is at least largely impermeable to the fire protection material (20, 20a, 20b), and wherein the wall of the at least one receiving hollow chamber and the walls (18, 18a, 18b) of the plurality of fire protection material chambers extend parallel to the main axis of the multi-chamber hollow profile and end faces of the at least one receiving hollow chamber extend substantially parallel to end faces of the plurality of fire protection material chambers. • is arranged in the interior of the multi-chamber hollow profile, • is completely or predominantly surrounded by the plurality of fire protection material chambers; • has at least one end face which is arranged in the area of the end faces of the multi-chamber hollow profile, so that the at least one receiving hollow chamber is accessible from outside the multi-chamber hollow profile; and is separated from the plurality of fire protection material chambers completely or predominantly surrounding it by a wall which is at least largely impermeable to the fire protection material (20, 20a, 20b), and wherein the wall of the at least one receiving hollow chamber and the walls (18, 18a, 18b) of the plurality of fire protection material chambers extend parallel to the main axis of the multi-chamber hollow profile and end faces of the at least one receiving hollow chamber extend substantially parallel to end faces of the plurality of fire protection material chambers.
A method of performing a vector frequency compress instruction in a computer processor, comprising: fetching the vector frequency compress instruction that includes a source operand and a destination operand, wherein the source operand specifies a single source vector register that includes a plurality of source data elements including one or more runs of source data elements equal to a compression value, wherein the destination operand identifies a destination vector register and wherein each of the one or more runs of source data elements equal to a compression value are to be compressed in the destination vector register as a compression value and run length pair; decoding the fetched vector frequency compress instruction; and executing the decoded vector frequency compress instruction causing, for each source data element, a value to be copied into the destination vector register to indicate that source data element's value wherein the one or more runs of one or more source data elements equal to a compression value are encoded in the destination vector register as the compression value followed by a run length for that run, wherein the executing the decoded vector frequency compress instruction further causes determining the compression value by reading a mask; and wherein the executing the decoded vector frequency compress instruction further causes a value to be written in a used element indicator to indicate which elements in the destination vector register were written during compression. fetching the vector frequency compress instruction that includes a source operand and a destination operand, wherein the source operand specifies a single source vector register that includes a plurality of source data elements including one or more runs of source data elements equal to a compression value, wherein the destination operand identifies a destination vector register and wherein each of the one or more runs of source data elements equal to a compression value are to be compressed in the destination vector register as a compression value and run length pair; decoding the fetched vector frequency compress instruction; and executing the decoded vector frequency compress instruction causing, for each source data element, a value to be copied into the destination vector register to indicate that source data element's value wherein the one or more runs of one or more source data elements equal to a compression value are encoded in the destination vector register as the compression value followed by a run length for that run, wherein the executing the decoded vector frequency compress instruction further causes determining the compression value by reading a mask; and wherein the executing the decoded vector frequency compress instruction further causes a value to be written in a used element indicator to indicate which elements in the destination vector register were written during compression.
A method comprising: receiving, at a sensor optimizer, a first request from a processor for sensor data from a first sensor element, the first request for sensor data identifying a first set of data stream parameters; receiving, at the sensor optimizer, a second request for sensor data from the first sensor element, the second request identifying a second set of data stream parameters that are different from the first set of data stream parameters; requesting, by the sensor optimizer, a source data stream from the first sensor element, using a source set of parameters based on the first set of data stream parameters and the second set of data stream parameters; creating, by the sensor optimizer, a first sensor data stream from the source data stream, wherein the first sensor data stream conforms to the first set of data stream parameters; creating, by the sensor optimizer, a second sensor data stream from the source data stream, wherein the second sensor data stream conforms with the second set of data stream parameters; and concurrently communicating the first sensor data stream and the second sensor data stream to the processor; and wherein the first request for sensor data comprises a request for calibrated data; wherein the first sensor data stream conforms to the first set of data stream parameters and comprises the calibrated data. receiving, at a sensor optimizer, a first request from a processor for sensor data from a first sensor element, the first request for sensor data identifying a first set of data stream parameters; receiving, at the sensor optimizer, a second request for sensor data from the first sensor element, the second request identifying a second set of data stream parameters that are different from the first set of data stream parameters; requesting, by the sensor optimizer, a source data stream from the first sensor element, using a source set of parameters based on the first set of data stream parameters and the second set of data stream parameters; creating, by the sensor optimizer, a first sensor data stream from the source data stream, wherein the first sensor data stream conforms to the first set of data stream parameters; creating, by the sensor optimizer, a second sensor data stream from the source data stream, wherein the second sensor data stream conforms with the second set of data stream parameters; and concurrently communicating the first sensor data stream and the second sensor data stream to the processor; and wherein the first request for sensor data comprises a request for calibrated data; wherein the first sensor data stream conforms to the first set of data stream parameters and comprises the calibrated data.
Optical pumping device comprising: - a fiber-based optical source emitting a controlled radiation beam with a very high transverse mode quality at a wavelength shorter than 1000 nm; - at least one element made of an amplifying material; - means for introducing pumping light into said doped amplifying material element; and - means for cooling said amplifying material, characterized in that the pumping light is emitted by the fiber-based optical source with an average power higher than 2 W and a mode quality characterized by an M2<5, in that the element made of an amplifying material is a long crystal doped with a rare-earth dopant chosen from ytterbium, thulium, erbium, or anyone of the combinations of these rare earths and in that the fiber-based source has an emission spectrum lying in a band between 970 and 985 nm. - a fiber-based optical source emitting a controlled radiation beam with a very high transverse mode quality at a wavelength shorter than 1000 nm; - at least one element made of an amplifying material; - means for introducing pumping light into said doped amplifying material element; and - means for cooling said amplifying material,
A converter, comprising: a conversion part configured to convert regenerated electric power supplied via a driving part of a motor into alternating current electric power, and supply the alternating current electric power to a power supply via an electric power line; characterized in that the converter comprises a breakage detection part (66, 67) configured to detect a breakage of the electric power line transmitting the alternating current electric power based on a result of a d-q transformation of an alternating electric current flowing through the electric power line. a conversion part configured to convert regenerated electric power supplied via a driving part of a motor into alternating current electric power, and supply the alternating current electric power to a power supply via an electric power line; characterized in that the converter comprises a breakage detection part (66, 67) configured to detect a breakage of the electric power line transmitting the alternating current electric power based on a result of a d-q transformation of an alternating electric current flowing through the electric power line.
A method in a system having a head mounted display, HMD, device comprising: rendering a first texture (122, 322); determining a first velocity field (128, 328) having a pixel velocity for at least a subset of pixels of the first texture; determining a motion vector for the HMD device; determining a second velocity field (132, 330) comprising a per-pixel velocity representation of the motion vector for the HMD device; combining the first velocity field and the second velocity field to generate a third velocity field; rendering a second texture (140, 334) based on the first texture and the third velocity field; and providing the second texture for display at the HMD device. rendering a first texture (122, 322); determining a first velocity field (128, 328) having a pixel velocity for at least a subset of pixels of the first texture; determining a motion vector for the HMD device; determining a second velocity field (132, 330) comprising a per-pixel velocity representation of the motion vector for the HMD device; combining the first velocity field and the second velocity field to generate a third velocity field; rendering a second texture (140, 334) based on the first texture and the third velocity field; and providing the second texture for display at the HMD device.
A method of estimating a frequency response of a wireless channel in a wireless communication system, comprising: obtaining at least two groups of received pilot symbols for at least two different sets of pilot subbands, where a pilot subband is a subband used for pilot transmission, one group of received pilot symbols for each set of pilot subbands, wherein each of the at least two sets of pilot subbands is used for pilot transmission in a different symbol period; obtaining at least two initial frequency response estimates based on the at least two groups of received pilot symbols, one initial frequency response estimate for each group of received pilot symbols (612, 614); deriving an overall channel impulse response estimate based on the at least two initial frequency response estimates, wherein the overall channel impulse response estimate comprises more taps than the number of pilot subbands in each of the at least two sets of pilot subbands (616, 618, 620, 622); and deriving an overall frequency response estimate for the wireless channel based on the overall channel impulse response estimate (624,626). obtaining at least two groups of received pilot symbols for at least two different sets of pilot subbands, where a pilot subband is a subband used for pilot transmission, one group of received pilot symbols for each set of pilot subbands, wherein each of the at least two sets of pilot subbands is used for pilot transmission in a different symbol period; obtaining at least two initial frequency response estimates based on the at least two groups of received pilot symbols, one initial frequency response estimate for each group of received pilot symbols (612, 614); deriving an overall channel impulse response estimate based on the at least two initial frequency response estimates, wherein the overall channel impulse response estimate comprises more taps than the number of pilot subbands in each of the at least two sets of pilot subbands (616, 618, 620, 622); and deriving an overall frequency response estimate for the wireless channel based on the overall channel impulse response estimate (624,626).
A computer-implemented method comprising: defining a plurality of vertices (42, 44) along a polyline representative of a road segment such that the polyline comprises one or more edges, wherein each edge extends between a pair of neighboring vertices; for each vertex along the polyline, spatially searching to identify all probe points (54, Q) within a region about a respective vertex, each probe point associated with a location and a heading at which a GPS system or a navigation system was moving upon capture of the respective probe point by the GPS system or the navigation system; and for each probe point identified within the region about a respective vertex, determining whether the probe point satisfies a projection criteria in order for the probe point to be projected onto the edge or one of the neighboring vertices between which the edge extends. defining a plurality of vertices (42, 44) along a polyline representative of a road segment such that the polyline comprises one or more edges, wherein each edge extends between a pair of neighboring vertices; for each vertex along the polyline, spatially searching to identify all probe points (54, Q) within a region about a respective vertex, each probe point associated with a location and a heading at which a GPS system or a navigation system was moving upon capture of the respective probe point by the GPS system or the navigation system; and for each probe point identified within the region about a respective vertex, determining whether the probe point satisfies a projection criteria in order for the probe point to be projected onto the edge or one of the neighboring vertices between which the edge extends.
Bearing system for a drive turbine of a rotary atomizer for the application of a paint, with a) a rotatable turbine shaft for receiving a bell cup which is used for spraying off the paint, and b) a radial bearing for rotatably supporting the turbine shaft, wherein the radial bearing comprises at least one foil bearing (12, 12.1, 12.2), c) a compressed air turbine with a rotatable turbine wheel for driving the turbine shaft, d) a drive air supply (7, 8) for supplying drive air for driving the turbine wheel, and e) an exhaust air guide for discharging the expanded drive air from the compressed air turbine, characterized in f) that the drive air supply of the compressed air turbine branches off a part of the drive air and conducts it through the foil bearing (12, 12.1, 12.2), and/or g) the exhaust air guide of the compressed air turbine guides the expanded drive air at least partially through the foil bearing (12, 12.1, 12.2). b) a radial bearing for rotatably supporting the turbine shaft, wherein the radial bearing comprises at least one foil bearing (12, 12.1, 12.2), c) a compressed air turbine with a rotatable turbine wheel for driving the turbine shaft, d) a drive air supply (7, 8) for supplying drive air for driving the turbine wheel, and e) an exhaust air guide for discharging the expanded drive air from the compressed air turbine, f) that the drive air supply of the compressed air turbine branches off a part of the drive air and conducts it through the foil bearing (12, 12.1, 12.2), and/or g) the exhaust air guide of the compressed air turbine guides the expanded drive air at least partially through the foil bearing (12, 12.1, 12.2).
A machining center, comprising a holding arm which is rotatable about an axis of rotation, and a machining unit (2, 3) which includes a bearing portion and a turret head, wherein the bearing portion is pivotally mounted on the holding arm about a pivot axis and the turret head is rotatably mounted on the bearing portion about a turret axis which in a surface parallel to both axes (9, 10) extends at an angle β greater than 0° to the pivot axis, characterized in that the bearing portion is pivotally mounted about the pivot axis on an outside of the holding arm, and the axis of rotation and the pivot axis extend at an angle α to each other, which is at least 45° and less than 90°, in a plane parallel to both axes (6, 9).
A binder composition for paint formulations comprising a stable aqueous dispersion of polymer particles comprising from 30 to 90 weight percent structural units of vinyl acetate, from 0.1 to 5 weight percent structural units of a phosphorus acid monomer or a salt thereof, and from 5 to 60 weight percent structural units of vinyl ester of a branched carboxylic acid monomer characterized by the following formula: where R 1 and R 2 are each independently C 1 -C 10 -alkyl.
Root crop harvester in the form of a potato harvesting machine, which is provided with a lifting device from which a mixture comprising both the crop as well as clods, haulm and similar admixtures can be moved into the region of downstream screening belts where the mixture lying on one of the feed belts arrives at a sorting zone and the crop can be sorted in this sorting zone by means of a separating device disposed above the feed belt and acting on the mixture transversely to the feed direction thereof so that two stripper belts (8, 9) circulating in the same direction in a stripping direction (7, 7') come into contact with the crop by means of respective stripper elements (10, 10'; 11, 11'), feed it in two adjacently disposed stripping planes (12, 13) to a downstream sorting belt and thereby enable respective admixtures remaining on the feed belt as debris to be discharged in a guiding direction offset from the stripping direction (7, 7') by preferably 90°, a feed run from the feed belt to the sorting belt and in particular to a picking table being configured without drop stages, characterised in that the at least two stripper belts (8', 9') are of differing lengths.