mhurhangee/ep-ind-claims huggingface dataset:
A method for operating a gas turbine during transient operation; the gas turbine comprising a compressor with variable inlet guide vanes, a combustor, a turbine, a controller, measurement devices, actuators (41,...,49), inlet air supply channels (17,...,19) and supply channels (11,...,13) for fuel gas, and/or liquid fuel, and/ or supply channels (14,...,16) for water and/or steam, wherein the controller 10 determines command values for an inlet air mass flow m ̇ air, k CMD, and at least one of: - fuel mass flow m ̇ fuel, i CMD, and - water and/or steam mass flow m ̇ w / s, j CMD, characterized in that at least one command value is dynamically compensated in order to compensate differences in the system dynamics of the supply systems and to thereby synchronize the resulting changes in fuel mass flow m ̇ fuel, i CMBST, water and/or steam mass flow m ̇ w / s, j CMBST, and/ or combustion air mass flow m ̇ air CMBST entering the combustor, so that fuel to air ratio stays within a combustible limit; each supply system comprising supply channels, actuators and control elements. - fuel mass flow m ̇ fuel, i CMD, and - water and/or steam mass flow m ̇ w / s, j CMD,
X-ray source having a housing in which a target is provided that can emit X-rays when being bombarded with an electron beam, characterized in that an aerogel is used as the target material, in that the aerogel is fixed on a metal foil made of a light metal or a plurality of light metals, wherein the metal foil has holes which are bridged by the target material, wherein for example the target material can be made of a light metal.
A communications system, wherein the communications system comprises an access network, AN, device (130, 170, 190, 202) and user equipment (120, 140, 160, 180, 201), UE, wherein the AN device (130, 170, 190, 202) is configured to receive a base key sent by a key management device in a core network, wherein the base key is a key generated from two-way authentication between the UE (120, 140, 160, 180, 201) and the core network, or the base key is a key derived from the key generated from the two-way authentication based on a derivation rule that is defined in advance in a communication protocol; the AN device (130, 170, 190, 202) and the UE (120, 140, 160, 180, 201) are both configured to process the base key according to a preset rule to generate (S304, S305) an air interface protection key; the UE (120, 140, 160, 180, 201) is further configured to: protect a target field in an uplink protocol data unit PDU by using the air interface protection key, and send the uplink protocol data unit with the protected target field to the AN device (130, 170, 190, 202), wherein the target field comprises information used to identify a session between the UE (120, 140, 160, 180, 201) and a target node, and data of the session between the target node and the UE (120, 140, 160, 180, 201) needs to pass through the AN device (130, 170, 190, 202) during transmission; and the AN is configured to: receive the uplink protocol data unit, and parse the target field in the uplink protocol data unit by using the air interface protection key, wherein the AN device (130, 170, 190, 202) is configured to: protect a target field in a downlink protocol data unit by using the air interface protection key, and send the downlink protocol data unit with the protected target field to the UE (120, 140, 160, 180, 201); and the UE (120, 140, 160, 180, 201) is configured to: receive the downlink protocol data unit, and parse the target field in the downlink protocol data unit by using the air interface protection key, wherein the protecting the target field in the downlink protocol data unit, PDU, by using the air interface protection key is: protecting the target field in the downlink protocol data unit by using the air interface protection key according to a rule defined in an air interface policy obtained in advance, wherein a use rule of a key is defined in the air interface policy; and the parsing the target field in the downlink protocol data unit by using the air interface protection key is: parsing the target field in the downlink protocol data unit by using the air interface protection key according to the rule defined in the air interface policy obtained in advance.
A delivery system for placement of a leadless pacemaker device in a human heart, the delivery system comprising: - a catheter device for insertion into the human body, the catheter device comprising a lumen and a distal end to be inserted into the human body; - a leadless pacemaker device configured to provide HIS bundle pacing, the pacemaker device being received within the lumen in the vicinity of the distal end of the catheter device; and - a first mapping electrode (11, 23, 260) and a second mapping electrode (12, 24, 260) arranged in the vicinity of the distal end of the catheter device for sensing, in a mapping mode, a mapping signal vector in between the first mapping electrode (11, 23, 260) and the second mapping electrode (12, 24, 260), the mapping signal vector representing an electrogram of cardiac activity, and characterized in that the catheter device comprises a window for exposing the second mapping electrode. - a catheter device for insertion into the human body, the catheter device comprising a lumen and a distal end to be inserted into the human body; - a leadless pacemaker device configured to provide HIS bundle pacing, the pacemaker device being received within the lumen in the vicinity of the distal end of the catheter device; and - a first mapping electrode (11, 23, 260) and a second mapping electrode (12, 24, 260) arranged in the vicinity of the distal end of the catheter device for sensing, in a mapping mode, a mapping signal vector in between the first mapping electrode (11, 23, 260) and the second mapping electrode (12, 24, 260), the mapping signal vector representing an electrogram of cardiac activity, and
A through-hole electrode substrate (100; 200; 300; 400) comprising: a glass substrate (102; 202; 302; 402) including a through-hole (104; 204; 304; 404) extending from a first aperture (104a; 204a; 304a; 404a) of a first surface (102a; 202a; 302a; 402a) to a second aperture (104b; 204b; 304b; 404b) of a second surface (102b; 202b; 302b; 402b), an area of the second aperture (104b; 204b; 304b; 404b) being larger than that of the first aperture (104a; 204a; 304a; 404a), the through-hole (104; 204; 304; 404) having a minimum aperture part (104c; 204c; 304c; 404c) between the first aperture (104a; 204a; 304a; 404a) and the second aperture (104b; 204b; 304b; 404b), wherein an area of the minimum aperture part (104c; 204c; 304c; 404c) in a planar view is smallest among a plurality of areas of the through-hole (104; 204; 304; 404) in a planar view; a filler (105; 205; 305; 405) arranged within the through-hole (104; 204; 304; 404); wherein at least a part of a side wall of the through-hole (104; 204; 304; 404) in a cross-sectional view includes a curve having an inflection point (104d; 204d; 304d; 404d), wherein the curve has the inflection point (104d; 204d; 304d; 404d) between the second aperture (104b; 204b; 304b; 404b) and the minimum aperture part (104c; 204c; 304c; 404c), and wherein the through-hole electrode substrate (100; 200; 300; 400) further comprises at least one gas discharge member (106, 108; 206, 208; 306, 308; 406, 408) contacting the filler (105; 205; 305; 405) exposed to one of the first surface (102a; 202a; 302a; 402a) and the second surface (102b; 202b; 302b; 402b). a glass substrate (102; 202; 302; 402) including a through-hole (104; 204; 304; 404) extending from a first aperture (104a; 204a; 304a; 404a) of a first surface (102a; 202a; 302a; 402a) to a second aperture (104b; 204b; 304b; 404b) of a second surface (102b; 202b; 302b; 402b), an area of the second aperture (104b; 204b; 304b; 404b) being larger than that of the first aperture (104a; 204a; 304a; 404a), the through-hole (104; 204; 304; 404) having a minimum aperture part (104c; 204c; 304c; 404c) between the first aperture (104a; 204a; 304a; 404a) and the second aperture (104b; 204b; 304b; 404b), wherein an area of the minimum aperture part (104c; 204c; 304c; 404c) in a planar view is smallest among a plurality of areas of the through-hole (104; 204; 304; 404) in a planar view; a filler (105; 205; 305; 405) arranged within the through-hole (104; 204; 304; 404); wherein at least a part of a side wall of the through-hole (104; 204; 304; 404) in a cross-sectional view includes a curve having an inflection point (104d; 204d; 304d; 404d), wherein the curve has the inflection point (104d; 204d; 304d; 404d) between the second aperture (104b; 204b; 304b; 404b) and the minimum aperture part (104c; 204c; 304c; 404c), and wherein the through-hole electrode substrate (100; 200; 300; 400) further comprises at least one gas discharge member (106, 108; 206, 208; 306, 308; 406, 408) contacting the filler (105; 205; 305; 405) exposed to one of the first surface (102a; 202a; 302a; 402a) and the second surface (102b; 202b; 302b; 402b).
A hybrid vehicle comprising an engine, a generator capable of generating electric power from mechanical power received from the engine, a battery for storing the electric power generated by the generator, and an electric motor capable of outputting mechanical traction power from the electric power supplied from the battery and the generator, the hybrid vehicle further comprising: a voltage converter for boosting a voltage of the battery and supplying the boosted voltage to the electric motor; a selector for selecting a first mode or a second mode for the boosting operation of the voltage converter; and a controller for switching an upper limit of voltage boosted by the voltage converter from a first upper limit in the first mode to a second upper limit which is lower than the first upper limit when the second mode is selected by the selector, characterized in that the controller is configured to switch the upper limit of voltage boosted by the voltage converter from the second upper limit to the first upper limit when a state of charge of the battery drops below a threshold. a voltage converter for boosting a voltage of the battery and supplying the boosted voltage to the electric motor; a selector for selecting a first mode or a second mode for the boosting operation of the voltage converter; and a controller for switching an upper limit of voltage boosted by the voltage converter from a first upper limit in the first mode to a second upper limit which is lower than the first upper limit when the second mode is selected by the selector, characterized in that the controller is configured to switch the upper limit of voltage boosted by the voltage converter from the second upper limit to the first upper limit when a state of charge of the battery drops below a threshold.
A dishwasher comprising a sump, a filter housing coupled to an upper portion of the sump, and a filter coupled to a central portion of the filter housing, wherein the filter housing comprises: a filter coupling portion having the filter coupled thereto; a peripheral portion arranged outside the filter coupling portion and provided with a recovery hole frame (341, 343, 345, 347), wherein a recovery hole (331, 333, 335) arranged to allow wash water to pass therethrough is formed inside the recovery hole frame; and characterized in that the filter housing further comprises an inclined rib formed at a lower surface of the peripheral portion to be inclined downward, wherein the inclined rib extends inclinedly downward from a first side of the recovery hole frame (341, 343, 345, 347). a filter coupling portion having the filter coupled thereto; a peripheral portion arranged outside the filter coupling portion and provided with a recovery hole frame (341, 343, 345, 347), wherein a recovery hole (331, 333, 335) arranged to allow wash water to pass therethrough is formed inside the recovery hole frame; and characterized in that the filter housing further comprises an inclined rib formed at a lower surface of the peripheral portion to be inclined downward, wherein the inclined rib extends inclinedly downward from a first side of the recovery hole frame (341, 343, 345, 347).
A fluid layer for use in a method for returning an injured, inflamed or surgically repaired mucosal tissue surface in the ear, nose or throat to a normal state, which method comprises: a) applying to such tissue surface a fluid layer containing a mixture of chitosan and an oxidized polysaccharide containing aldehyde groups capable of promoting rapid crosslinking of the chitosan, the chitosan and oxidized polysaccharide being present in amounts sufficient to form a protective gel layer in situ, and b) allowing the mixture to form a protective gel layer in situ. a) applying to such tissue surface a fluid layer containing a mixture of chitosan and an oxidized polysaccharide containing aldehyde groups capable of promoting rapid crosslinking of the chitosan, the chitosan and oxidized polysaccharide being present in amounts sufficient to form a protective gel layer in situ, and b) allowing the mixture to form a protective gel layer in situ.
A method performed by a network node, (110, 130) for planning radio resources for transmissions, the method comprising: establishing that a wireless device is fixed, wherein fixed comprises always being served by the same one or more access points, obtaining a configuration, which configuration comprises an identity of the wireless device and associated parameters to be used for transmissions between the network node and the wireless device, which parameters comprises: an identity of the one or more access points serving the wireless device, and any one or more out of: time and periodicity, for transmissions between the network node and the wireless device, based on the configuration, planning radio resources available in the network node for upcoming transmissions between the network node and any wireless device (120, 122). establishing that a wireless device is fixed, wherein fixed comprises always being served by the same one or more access points, obtaining a configuration, which configuration comprises an identity of the wireless device and associated parameters to be used for transmissions between the network node and the wireless device, which parameters comprises: an identity of the one or more access points serving the wireless device, and any one or more out of: time and periodicity, for transmissions between the network node and the wireless device, based on the configuration, planning radio resources available in the network node for upcoming transmissions between the network node and any wireless device (120, 122).
A method of determining relative ratio of NOx to NH 3 in exhaust gases, the method comprising the steps of: a) Providing an exhaust system for an agricultural vehicle, the exhaust system comprising: an upstream NOx sensor; a downstream NOx sensor; a first catalyst; an urea injector; and an exhaust control unit; b) Measuring a first NOx level at the upstream NOx sensor; c) Administering a first predetermined dose of NH 3 to the exhaust system; d) Measuring a second NOx level at the downstream NOx sensor; e) Administering a second predetermined dose of NH 3 to the exhaust system; f) Measuring a third NOx level at the downstream NOx sensor; g) Calculating the difference between the second NOx level and the third NOx level; h) Comparing the difference to a lookup table to determine the relative ratio of NH 3 and NOx. a) Providing an exhaust system for an agricultural vehicle, the exhaust system comprising: an upstream NOx sensor; a downstream NOx sensor; a first catalyst; an urea injector; and an exhaust control unit; an upstream NOx sensor; a downstream NOx sensor; a first catalyst; an urea injector; and an exhaust control unit; b) Measuring a first NOx level at the upstream NOx sensor; c) Administering a first predetermined dose of NH 3 to the exhaust system; d) Measuring a second NOx level at the downstream NOx sensor; e) Administering a second predetermined dose of NH 3 to the exhaust system; f) Measuring a third NOx level at the downstream NOx sensor; g) Calculating the difference between the second NOx level and the third NOx level; h) Comparing the difference to a lookup table to determine the relative ratio of NH 3 and NOx.
An apparatus, comprising: a protective headgear; an actuator element integrated within the protective headgear; a sensor element attached on an inner surface of the protective headgear; a processor element electronically coupled to the actuator element and the sensor element, wherein the processor element is configured to: cause the actuator element to generate a first ultrasonic wave, wherein the first ultrasonic wave is propagated in the protective headgear; receive a first output generated from the sensor element in response to the first ultrasonic wave generated by the actuator element, calculate an output difference by comparing the first output with a pre-determined value; determine whether the output difference satisfies a pre-determined threshold; and in response to determining that the output difference does not satisfy the pre-determined threshold, trigger a warning. a protective headgear; an actuator element integrated within the protective headgear; a sensor element attached on an inner surface of the protective headgear; a processor element electronically coupled to the actuator element and the sensor element, wherein the processor element is configured to: cause the actuator element to generate a first ultrasonic wave, wherein the first ultrasonic wave is propagated in the protective headgear; receive a first output generated from the sensor element in response to the first ultrasonic wave generated by the actuator element, calculate an output difference by comparing the first output with a pre-determined value; determine whether the output difference satisfies a pre-determined threshold; and in response to determining that the output difference does not satisfy the pre-determined threshold, trigger a warning. cause the actuator element to generate a first ultrasonic wave, wherein the first ultrasonic wave is propagated in the protective headgear; receive a first output generated from the sensor element in response to the first ultrasonic wave generated by the actuator element, calculate an output difference by comparing the first output with a pre-determined value; determine whether the output difference satisfies a pre-determined threshold; and in response to determining that the output difference does not satisfy the pre-determined threshold, trigger a warning.
Radiator cover comprising: - a front panel for covering a radiator on the front side; - a cover panel for covering the radiator on the upper side; - a supporting structure composed of bar elements (12, 13, 15) for supporting the front panel and the cover panel; and - elastic intermediate elements which are mounted between the rear side of the front panel and the surface of the supporting structure that faces the front panel, characterized in that the elastic intermediate elements take the form of rubber elements, in particular foam rubber strips. - a front panel for covering a radiator on the front side; - a cover panel for covering the radiator on the upper side; - a supporting structure composed of bar elements (12, 13, 15) for supporting the front panel and the cover panel; and - elastic intermediate elements which are mounted between the rear side of the front panel and the surface of the supporting structure that faces the front panel,
A charge-transporting varnish characterized by comprising a charge-transporting material containing fluorine atoms, a charge-transporting material not containing fluorine atoms, a dopant material composed of a heteropolyacid, and an organic solvent, wherein the charge-transporting material containing fluorine atoms is a polymer having a weight-average molecular weight of from 1,000 to 200,000 which is obtained by condensation of a triarylamine compound with a fluorine atom-containing arylaldehyde compound and a carbonyl group-bearing fluorene derivative, and the charge-transporting material not containing fluorine atoms is an oligoaniline compound.
A virtual reality device, comprising: one or more sensors configured to track a pose of the virtual reality device and to detect a motion of the virtual reality device in one or more dimensions; a pose prediction machine configured to predict a future pose of the virtual reality device at a future time by extrapolating the detected motion forward from a current time to the future time with constraints selected from one or more of: biomechanical constraints, environmental constraints; a communications machine configured to send to a remote computer a request for a virtual image having a perspective corresponding to the future pose of the virtual reality device and to receive from the remote computer the virtual image; a late stage reprojection machine configured to adjust the virtual image to an adjusted virtual image having an updated perspective corresponding to an updated tracked pose of the virtual reality device; and a virtual reality display configured to display the adjusted virtual image; wherein the virtual reality device is configured to display an image having a set resolution, and wherein the virtual image is oversized relative to the set resolution, and characterised in that an amount of oversizing in a first dimension of the virtual image is proportional to a speed of the detected motion in the first dimension, and wherein an amount of oversizing in a second dimension of the virtual image is independently proportional to a speed of the detected motion in the second dimension. one or more sensors configured to track a pose of the virtual reality device and to detect a motion of the virtual reality device in one or more dimensions; a pose prediction machine configured to predict a future pose of the virtual reality device at a future time by extrapolating the detected motion forward from a current time to the future time with constraints selected from one or more of: biomechanical constraints, environmental constraints; a communications machine configured to send to a remote computer a request for a virtual image having a perspective corresponding to the future pose of the virtual reality device and to receive from the remote computer the virtual image; a late stage reprojection machine configured to adjust the virtual image to an adjusted virtual image having an updated perspective corresponding to an updated tracked pose of the virtual reality device; and a virtual reality display configured to display the adjusted virtual image; wherein the virtual reality device is configured to display an image having a set resolution, and wherein the virtual image is oversized relative to the set resolution, and characterised in that an amount of oversizing in a first dimension of the virtual image is proportional to a speed of the detected motion in the first dimension, and wherein an amount of oversizing in a second dimension of the virtual image is independently proportional to a speed of the detected motion in the second dimension.