mhurhangee/ep-ind-claims huggingface dataset:
A computing device configured to search multiple data stores, the computing device having a processor and implementing a schema for querying a data store described by the schema, the schema being stored as a data structure on one or more computer-storage media accessible by the processor, wherein the schema complies with a schema format according to which it comprises: - at least one property reference (216, 400) describing at least one property of the data store, wherein the property reference includes contextual information to describe the property, and wherein the property reference references a second schema for static information to describe the property, - at least one property description (214, 300) describing at least one other property of the data store, wherein the property description includes both static information and contextual information to describe the other property, - at least one item type description (218, 500) describing an item type for one or more items within the data store, wherein the item type description indicates the item type and lists one or more properties for the item type, and - at least one kind description (220, 600) describing a kind for one or more items within the data store, wherein the kind description indicates the kind and lists one or more properties for the kind, wherein the static information of said at least one property description is usable by at least one other schema for at least one other data store of the multiple data stores to describe the other property for the other data store, wherein the contextual information is specific to the schema, and wherein the schema is aggregated with the at least one other schema to enable simultaneous searching of the multiple data stores, wherein said at least one other schema complies with said schema format and wherein the aggregated schema comprises an aggregated property description containing the static information defined by one of the schemas and the contextual information defined by both schemas. - at least one property reference (216, 400) describing at least one property of the data store, wherein the property reference includes contextual information to describe the property, and wherein the property reference references a second schema for static information to describe the property, - at least one property description (214, 300) describing at least one other property of the data store, wherein the property description includes both static information and contextual information to describe the other property, - at least one item type description (218, 500) describing an item type for one or more items within the data store, wherein the item type description indicates the item type and lists one or more properties for the item type, and - at least one kind description (220, 600) describing a kind for one or more items within the data store, wherein the kind description indicates the kind and lists one or more properties for the kind,
A composition for use in a method of selectively killing a target cell, comprising a) a guide RNA that is capable of hybridizing with a target sequence in the genome of the target cell, wherein the target sequence is specific to the target cell; b) a Cas protein; and c) a polynucleotide encoding a suicide gene; wherein the Cas protein is capable of facilitating the integration of the suicide gene into the target sequence in the genome of the target cell. a) a guide RNA that is capable of hybridizing with a target sequence in the genome of the target cell, wherein the target sequence is specific to the target cell; b) a Cas protein; and c) a polynucleotide encoding a suicide gene; wherein the Cas protein is capable of facilitating the integration of the suicide gene into the target sequence in the genome of the target cell.
A streak tube comprising: a container having an entrance plate and an output plate; a photocathode disposed in the container and configured to emit electrons according to light to be measured, the light having been incident through the entrance plate; an electron focusing system forming an axially symmetric electron lens for focusing the electrons emitted from the photocathode, toward the output plate; a sweep electrode disposed in the container and configured to sweep the electrons focused by the electron focusing system, in a sweep direction along the output plate; and an additional electrode (9;109) disposed between the entrance plate and the output plate; characterised in that the additional electrode (9; 109) forms a one-dimensional electron lens for focusing the electrons in the sweep direction. a container having an entrance plate and an output plate; a photocathode disposed in the container and configured to emit electrons according to light to be measured, the light having been incident through the entrance plate; an electron focusing system forming an axially symmetric electron lens for focusing the electrons emitted from the photocathode, toward the output plate; a sweep electrode disposed in the container and configured to sweep the electrons focused by the electron focusing system, in a sweep direction along the output plate; and an additional electrode (9;109) disposed between the entrance plate and the output plate;
A method for non-invasive determination of oxygen saturation of blood within a deep vascular structure of a human or animal patient comprising placing on skin of the patient in a vicinity of the deep vascular structure of interest emitter and receiver elements of a light oximeter device, wherein optimal location of said elements is achieved through matching of a plethysmography trace obtained from the oximeter device to known plethysmography characteristics of the deep vascular structure of interest, wherein the emitter element emits light at two wavelengths, one in the range of from about 1045nm to about 1055nm, and one in the range of from about 1085nm to about 1095nm, and wherein oxygen saturation is determined by a central processing unit from a ratio of light absorbed at these two wavelengths by haemoglobin in blood within the vascular structure of interest.
Method implemented by computer for modelling flows of fluids within a subterranean porous medium traversed by at least one well with a view to the exploitation of the said medium, carried out by injecting one of the said fluids into the said medium via at least one of the said wells, and/or by producing one of the said fluids present in the said medium by means of at least one of the said wells, in which method a first flow simulator is used making it possible to simulate the flow of the fluids within the porous medium on the basis of numerical productivity indices linking pressures of fluids to flowrates of fluids, and a second flow simulator is used to simulate the flow of the fluids in the surroundings of the well on the basis of boundary conditions, characterized in that: a- the flows of fluids within the medium are simulated by means of the first simulator over a time interval defined between times T 0 and T 1, and updated boundary conditions for the second simulator are deduced through a linear interpolation of the results of the first simulator between the times T 0 and T 1; b- the flows of fluids in the surroundings of the well are simulated by means of the second simulator over the same time interval, using the updated boundary conditions, and updated numerical productivity indices for the first simulator are deduced by comparing flowrates calculated by the first simulator and flowrates calculated by the second simulator; and c- the flows of fluids within the porous medium during a time period between T 0 and T n, where T n > T 1, are modelled by repeating steps a and b, for successive time intervals lying between T 0 and T n. a- the flows of fluids within the medium are simulated by means of the first simulator over a time interval defined between times T 0 and T 1, and updated boundary conditions for the second simulator are deduced through a linear interpolation of the results of the first simulator between the times T 0 and T 1; b- the flows of fluids in the surroundings of the well are simulated by means of the second simulator over the same time interval, using the updated boundary conditions, and updated numerical productivity indices for the first simulator are deduced by comparing flowrates calculated by the first simulator and flowrates calculated by the second simulator; and c- the flows of fluids within the porous medium during a time period between T 0 and T n, where T n > T 1, are modelled by repeating steps a and b, for successive time intervals lying between T 0 and T n.
An aqueous formulation for the topical treatment of skin conditions, comprising: a) 2-30 parts by weight undissolved borax particles; b) 0.01-10 parts by weight undissolved sulphur particles; and c) 20-95 parts by weight water, wherein the ratio of undissolved borax particles to undissolved sulphur particles is in the range of 20:1 to 1.5:1 at 20 °C. a) 2-30 parts by weight undissolved borax particles; b) 0.01-10 parts by weight undissolved sulphur particles; and c) 20-95 parts by weight water, wherein the ratio of undissolved borax particles to undissolved sulphur particles is in the range of 20:1 to 1.5:1 at 20 °C.
A joint for connecting a first arm to a second arm of a shower door frame; the joint comprising: a tapered hook connectable to the first arm; a tapered aperture which is formed in a bracket connectable to the second arm; a fastener connectable to the second arm; wherein the tapered hook comprises a notch; such that the tapered hook is arranged to mate with the tapered aperture, and the fastener is arranged to mate with the notch; wherein the tapered aperture is defined by an inner surface, such that in use, the tapered hook contacts at least part of the inner surface when the tapered hook mates with the tapered aperture; wherein the inner surface comprises at least one projection; characterized in that the at least one projection comprises at least one deformable projection.
A method of allocating by a small cell a Resource Block, RB, to a transmission between the small cell and a User Equipment, UE, the method comprising the steps of: a) generating a value; b) associating the value with the Resource Block, RB; and c) allocating the RB to the transmission between the small cell and the UE, the method characterized in that the value is generated using a quasi-random, low-discrepancy, number generator in order to reduce the level of co-tier interference. a) generating a value; b) associating the value with the Resource Block, RB; and c) allocating the RB to the transmission between the small cell and the UE, the method characterized in that the value is generated using a quasi-random, low-discrepancy, number generator in order to reduce the level of co-tier interference.
A mobile node, MN (501, 700), comprising: • an antenna (110, 410) comprising a proximate end, a distal end, and a midpoint; • a first feed coupled to the antenna between the proximate end and the midpoint; • a second feed coupled to the antenna between the distal end and the midpoint; ▪ a main feed coupled to a signal source of the MN; • a first switch (130, 430) configured to toggle between coupling the first feed to the main feed and coupling the second feed to the main feed; and • a controller configured to: ∘ receive a power reflection threshold value for a specified transmission signal and/or signal type from a lookup table of the MN; ∘ toggle the first switch if reflected power from the antenna exceeds the power reflection threshold value. • an antenna (110, 410) comprising a proximate end, a distal end, and a midpoint; • a first feed coupled to the antenna between the proximate end and the midpoint; • a second feed coupled to the antenna between the distal end and the midpoint; ▪ a main feed coupled to a signal source of the MN; • a first switch (130, 430) configured to toggle between coupling the first feed to the main feed and coupling the second feed to the main feed; and • a controller configured to: ∘ receive a power reflection threshold value for a specified transmission signal and/or signal type from a lookup table of the MN; ∘ toggle the first switch if reflected power from the antenna exceeds the power reflection threshold value. ∘ receive a power reflection threshold value for a specified transmission signal and/or signal type from a lookup table of the MN; ∘ toggle the first switch if reflected power from the antenna exceeds the power reflection threshold value.
A method for controlling a processor to detect a sleep state from a measured flow of breathable gas, the method of the processor comprising: determining a plurality of respiratory characteristics from a measure of respiratory flow; detecting a state from potential sleep states comprising a Non-REM sleep state and a REM sleep state, the detecting of the state being based on the determined respiratory characteristics by assessing the determined respiratory characteristics with a plurality of thresholds; and indicating the detected state, characterised in that: the plurality of respiratory characteristics from which the sleep state is detected includes a set of two or more of (a) expiratory peak flow variation derived from a plurality of breaths, (b) a ratio of an expiratory peak flow location and expiratory time, wherein the expiratory peak flow location is a time taken to reach expiratory peak flow from beginning of expiration, (c) an expiratory peak flow location variation derived from a plurality of breaths, (d) an area of an expiratory peak flow, (e) an area of an expiratory peak flow variation, (f) a time from expiratory peak flow to inspiration start, (g) a time since last confirmed breath variability, (h) a high breath frequency period, and (i) inspiratory time variability. determining a plurality of respiratory characteristics from a measure of respiratory flow; detecting a state from potential sleep states comprising a Non-REM sleep state and a REM sleep state, the detecting of the state being based on the determined respiratory characteristics by assessing the determined respiratory characteristics with a plurality of thresholds; and indicating the detected state, characterised in that: the plurality of respiratory characteristics from which the sleep state is detected includes a set of two or more of (a) expiratory peak flow variation derived from a plurality of breaths, (b) a ratio of an expiratory peak flow location and expiratory time, wherein the expiratory peak flow location is a time taken to reach expiratory peak flow from beginning of expiration, (c) an expiratory peak flow location variation derived from a plurality of breaths, (d) an area of an expiratory peak flow, (e) an area of an expiratory peak flow variation, (f) a time from expiratory peak flow to inspiration start, (g) a time since last confirmed breath variability, (h) a high breath frequency period, and (i) inspiratory time variability.
An electromagnetic surgical ablation system, comprising: a generator module configured to provide radiofrequency surgical energy; a processor operably coupled to the generator module; a database in operable communication with the processor and adapted to store probe parameters corresponding to respective ones of a plurality of antenna probes, wherein the probe parameters include ablation pattern topology including a wireframe model of the antenna probe and an ablation pattern associated therewith; and a user interface operably coupled to the processor and configured to: display a probe image of an antenna probe including an antenna probe ablation pattern corresponding with the radiating field of the antenna probe; receive a shape selection user input; and enable the user to graphically view various ablation pattern topologies stored within the database, and thereby choose an appropriate antenna probe for a surgical procedure. a generator module configured to provide radiofrequency surgical energy; a processor operably coupled to the generator module; a database in operable communication with the processor and adapted to store probe parameters corresponding to respective ones of a plurality of antenna probes, wherein the probe parameters include ablation pattern topology including a wireframe model of the antenna probe and an ablation pattern associated therewith; and a user interface operably coupled to the processor and configured to: display a probe image of an antenna probe including an antenna probe ablation pattern corresponding with the radiating field of the antenna probe; receive a shape selection user input; and enable the user to graphically view various ablation pattern topologies stored within the database, and thereby choose an appropriate antenna probe for a surgical procedure. display a probe image of an antenna probe including an antenna probe ablation pattern corresponding with the radiating field of the antenna probe; receive a shape selection user input; and enable the user to graphically view various ablation pattern topologies stored within the database, and thereby choose an appropriate antenna probe for a surgical procedure.
Method for producing a coil for an electric machine, in particular an electric motor, wherein a fixed insulating body is arranged in a winding machine, at least one coil wire having a fixed insulating coating is subsequently wound over the insulating body to form a winding, wherein the coil wire is contacted in regions with the insulating body, wherein the sum total of the surface area or areas where the coil wire contacts the insulating body forms a first contact surface between the coil wire and the insulating body after the winding, characterized in that after the winding, only the solid insulating body, at least in the region of the first contact surface, is softened thermally or chemically for a predeterminable period of time in order to positively enlarge the first contact surface in relation to a second contact surface between the coil wire and the insulating body, and the coating of the coil wire and the insulating body are pressed together at least temporarily during this predeterminable period of time.
An image forming method for forming an image on a recording medium using a plurality of color materials, comprising the steps of: allowing specification of a monochrome mode to form the image; when the monochrome mode is specified (S2, yes), performing image processing including the process of converting a multilevel luminance signal corresponding to the image to be formed to multilevel density signals corresponding to the respective color materials used to form the image; and forming the image on the recording medium in accordance with the multilevel density signals, characterized in that in the image processing step, the multilevel luminance signal is converted to the multilevel density signals using a look-up table such that, over the entire range of luminance of the multilevel luminance signal, the image processing step generates a density signal for a color material of a black color that increases monotonically from low density range to high density range, an output multi-level density signal of a chromatic color that increases monotonically from low density range to high density range, and the density signal for the color material of the black color is higher than the density signal for a color material of any chromatic color (C, M, Y) across the entire range of the luminance signal. allowing specification of a monochrome mode to form the image; when the monochrome mode is specified (S2, yes), performing image processing including the process of converting a multilevel luminance signal corresponding to the image to be formed to multilevel density signals corresponding to the respective color materials used to form the image; and forming the image on the recording medium in accordance with the multilevel density signals, characterized in that in the image processing step, the multilevel luminance signal is converted to the multilevel density signals using a look-up table such that, over the entire range of luminance of the multilevel luminance signal, the image processing step generates a density signal for a color material of a black color that increases monotonically from low density range to high density range, an output multi-level density signal of a chromatic color that increases monotonically from low density range to high density range, and the density signal for the color material of the black color is higher than the density signal for a color material of any chromatic color (C, M, Y) across the entire range of the luminance signal.
A method for evaluating the integrity of a forward osmosis, FO-, membrane of a FO-device in a dialysis solution generation apparatus, the FO-membrane separating a feed side and a draw side of the FO device, the FO-device comprising a feed inlet port (Ein) and a feed outlet port (Eout) in fluid communication with the feed side, and a draw inlet port (Lin) and a draw outlet port (Lout) in fluid communication with the draw side; the method comprising: providing a flow of feed solution at the feed side via the feed inlet port (Ein); providing a flow of draw solution at the draw side via the draw inlet port (Lin), at an osmotic pressure at the draw side that is higher than an osmotic pressure at the feed side, whereby water is extracted from the feed side to the draw side to dilute the draw solution; stopping flow via the draw inlet port (Lin), flow via the feed inlet port (Ein) and flow via the feed outlet port (Eout); whereby water continues to be extracted from the feed side to the draw side, until a transmembrane pressure, TMP, between the draw side and the feed side has reached a maximum value; monitoring one or more pressures indicative of the TMP; and evaluating the integrity of the FO-membrane based on a monitored one or more parameters including the one or more pressures indicative of the TMP. providing a flow of feed solution at the feed side via the feed inlet port (Ein); providing a flow of draw solution at the draw side via the draw inlet port (Lin), at an osmotic pressure at the draw side that is higher than an osmotic pressure at the feed side, whereby water is extracted from the feed side to the draw side to dilute the draw solution; stopping flow via the draw inlet port (Lin), flow via the feed inlet port (Ein) and flow via the feed outlet port (Eout); whereby water continues to be extracted from the feed side to the draw side, until a transmembrane pressure, TMP, between the draw side and the feed side has reached a maximum value; monitoring one or more pressures indicative of the TMP; and evaluating the integrity of the FO-membrane based on a monitored one or more parameters including the one or more pressures indicative of the TMP.
A method for receiving control information at a user equipment, UE, in a wireless communication system, the method comprising: attempting to decode a set of enhanced physical downlink control channel, EPDCCH, candidates at each of aggregation levels of a aggregation levels set, characterized by, the aggregation levels set is set differently according to the number of Resource Elements, REs, for the EPDCCH in a physical resource block, PRB, pair that includes four enhanced control channel elements, ECCEs, for the decoding attempt. attempting to decode a set of enhanced physical downlink control channel, EPDCCH, candidates at each of aggregation levels of a aggregation levels set, characterized by, the aggregation levels set is set differently according to the number of Resource Elements, REs, for the EPDCCH in a physical resource block, PRB, pair that includes four enhanced control channel elements, ECCEs, for the decoding attempt.