mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method of inferring stratigraphy over a volume of seismic information, the method being implemented in a computer system that includes one or more physical processors, the method comprising: obtaining seismic information related to a subsurface volume, the seismic information including amplitude information indexed by ( i ) a two-dimensional position in a surface plane of the subsurface volume, and ( ii ) a metric related to seismic depth of the subsurface volume; and determining a warping function for the seismic information that re-indexes the amplitude information to ( i ) a two-dimensional position in the surface plane of the subsurface volume, and ( ii ) a metric related to relative geologic age; the method being characterized in that it further includes the steps of: obtaining a flat stratigraphic volume in which flat, horizontally layered horizons have been defined, wherein obtaining the flat stratigraphic volume comprises defining the flat stratigraphic volume without reliance on acquired or synthesized seismic information; and applying an inverse of the warping function to the flat stratigraphic volume to generate a proxy stratigraphic volume that is usable in subsequent analysis as a proxy for the obtained seismic information related to the subsurface volume, wherein: the horizons defined in the flat stratigraphic volume are defined in the flat stratigraphic volume with a regular spatial frequency; and the regular spatial frequency is greater than a spatial frequency of horizons that are resolvable within the obtained seismic information. obtaining seismic information related to a subsurface volume, the seismic information including amplitude information indexed by ( i ) a two-dimensional position in a surface plane of the subsurface volume, and ( ii ) a metric related to seismic depth of the subsurface volume; and determining a warping function for the seismic information that re-indexes the amplitude information to ( i ) a two-dimensional position in the surface plane of the subsurface volume, and ( ii ) a metric related to relative geologic age; obtaining a flat stratigraphic volume in which flat, horizontally layered horizons have been defined, wherein obtaining the flat stratigraphic volume comprises defining the flat stratigraphic volume without reliance on acquired or synthesized seismic information; and applying an inverse of the warping function to the flat stratigraphic volume to generate a proxy stratigraphic volume that is usable in subsequent analysis as a proxy for the obtained seismic information related to the subsurface volume, wherein: the horizons defined in the flat stratigraphic volume are defined in the flat stratigraphic volume with a regular spatial frequency; and the regular spatial frequency is greater than a spatial frequency of horizons that are resolvable within the obtained seismic information. the horizons defined in the flat stratigraphic volume are defined in the flat stratigraphic volume with a regular spatial frequency; and the regular spatial frequency is greater than a spatial frequency of horizons that are resolvable within the obtained seismic information.
Method for producing a vulcanizing mould for vehicle tyres , wherein the vulcanizing mould has radially on the inside cast mould surfaces of a mould material with mould projections for forming cuts in the tread profile of the vehicle tyre to be manufactured, characterized in that , for forming a mould projection , a core of a metal of higher strength than the mould material is provided and is at least partially coated with the mould material during the casting of the mould surfaces .
A method of imaging an implant placed into a human body , comprising: - reading (S2), with a reader external to said body , information related to said implant and recorded in a memory embedded in said implant , - adapting (S3), according to said read information , at least one imaging parameter of an imaging device external to said body , - imaging (S4), by said imaging device with said adapted imaging parameter(s) , said implant . - reading (S2), with a reader external to said body , information related to said implant and recorded in a memory embedded in said implant , - adapting (S3), according to said read information , at least one imaging parameter of an imaging device external to said body , - imaging (S4), by said imaging device with said adapted imaging parameter(s) , said implant .
A process for preparing a solidified electrode material comprising lithium, a metal and phosphate and having an olivine crystalline structure, wherein the metal comprises at least one of iron and manganese, the process comprising: in a first step, providing a liquid bath comprising the electrode material in a melted state; in a subsequent step, introducing a precursor of the electrode material into said liquid bath comprising the electrode material in a melted state; and withdrawing a portion of liquid from said liquid bath and inducing solidification of said portion. in a first step, providing a liquid bath comprising the electrode material in a melted state; in a subsequent step, introducing a precursor of the electrode material into said liquid bath comprising the electrode material in a melted state; and
A process for preparing a pharmaceutical formulation comprising Asp B28 human insulin, protamine, Zn ++ , a buffer, an isotonicity agent, a phenolic compound, and salt, wherein the weight ratio of dissolved to crystalline Asp B28 human insulin is 30:70, wherein said process comprises the following steps : • Preparing Solution I by dissolving 2.50 g disodium phosphate dihydrate and 0.88 g sodium chloride in water for injection, then 1.24 g phenol, 8 g glycerol and 4.6 g sodium hydroxide 2N is added during mixing and water is added to 450 ml. • Solution II is prepared by dissolving 0.88 g sodium chloride, 1.24 g phenol and 4 g glycerol in water, then 0.64 g protamine sulphate in solution is added to the solution while mixing and 7.5 g of AspB 28 human insulin dissolved in water by adding to it 3.4 g 2 N hydrochloric acid and 1.04 g zinc chloride solution (4 mg/ml) was added to the solution while mixing, and finally water ad 500 ml is added. • The Solutions I and II are mixed and the pH of the suspension is, if necessary, readjusted to approx. 7.2 by adding sodium hydroxide or hydrochloric acid, and finally water ad 1000 ml is added. • The resulting suspension is now allowed to crystallise. • Solution III is prepared by dissolving 0.62 g phenol, 3.54 g of metacresol and 16 g of glycerol, and water is added to 900 ml. • Solution III and the crystallization mixture are mixed and the pH of the suspension is, if necessary, readjusted to 7.2 by adding sodium hydroxide or hydrochloric acid, and finally water ad 2000 ml was added. • Preparing Solution I by dissolving 2.50 g disodium phosphate dihydrate and 0.88 g sodium chloride in water for injection, then 1.24 g phenol, 8 g glycerol and 4.6 g sodium hydroxide 2N is added during mixing and water is added to 450 ml. • Solution II is prepared by dissolving 0.88 g sodium chloride, 1.24 g phenol and 4 g glycerol in water, then 0.64 g protamine sulphate in solution is added to the solution while mixing and 7.5 g of AspB 28 human insulin dissolved in water by adding to it 3.4 g 2 N hydrochloric acid and 1.04 g zinc chloride solution (4 mg/ml) was added to the solution while mixing, and finally water ad 500 ml is added. • The Solutions I and II are mixed and the pH of the suspension is, if necessary, readjusted to approx. 7.2 by adding sodium hydroxide or hydrochloric acid, and finally water ad 1000 ml is added. • The resulting suspension is now allowed to crystallise. • Solution III is prepared by dissolving 0.62 g phenol, 3.54 g of metacresol and 16 g of glycerol, and water is added to 900 ml. • Solution III and the crystallization mixture are mixed and the pH of the suspension is, if necessary, readjusted to 7.2 by adding sodium hydroxide or hydrochloric acid, and finally water ad 2000 ml was added.
A turboexpander and driven turbomachine system comprising: a turboexpander configured for expanding a first fluid and comprising at least one expander stage with one expander impeller; at least a first set of moveable inlet guide vanes at the inlet of said at least one expander stage; a driven turbomachine configured for processing a second fluid, different from the first fluid, and comprising at least one turbomachine impeller; a second set of moveable inlet guide vanes at the inlet of said turbomachine impeller; a mechanical transmission between said turboexpander and said driven turbomachine ; wherein said first set of moveable inlet guide vanes are controlled for maximizing power generated by said turboexpander ; and a controller connected to said second set of moveable inlet guide vanes and configured for controlling the second set of moveable inlet guide vanes to adjust the rotary speed of said turbomachine and said driven turboexpander; wherein said controller is configured for receiving information on said rotary speed and controlling said second set of moveable inlet guide vanes to adjust said rotary speed at a desired speed value, wherein said controller is configured for maintaining said rotary speed within a range around a constant speed value. a turboexpander configured for expanding a first fluid and comprising at least one expander stage with one expander impeller; at least a first set of moveable inlet guide vanes at the inlet of said at least one expander stage; a driven turbomachine configured for processing a second fluid, different from the first fluid, and comprising at least one turbomachine impeller; a second set of moveable inlet guide vanes at the inlet of said turbomachine impeller; a mechanical transmission between said turboexpander and said driven turbomachine ; wherein said first set of moveable inlet guide vanes are controlled for maximizing power generated by said turboexpander ; and a controller connected to said second set of moveable inlet guide vanes and configured for controlling the second set of moveable inlet guide vanes to adjust the rotary speed of said turbomachine and said driven turboexpander; wherein said controller is configured for receiving information on said rotary speed and controlling said second set of moveable inlet guide vanes to adjust said rotary speed at a desired speed value, wherein said controller is configured for maintaining said rotary speed within a range around a constant speed value.
A method of operating a refuse collection vehicle to collect refuse from a refuse container , the method comprising: positioning the refuse collection vehicle with respect to a refuse container to be emptied; and manually engaging a switch to initiate a dump cycle to be performed by the refuse collection vehicle on the refuse container , the dump cycle including: engaging the refuse container with a portion (104 ) of the vehicle ; lifting the engaged refuse container to a dump position; and moving the refuse container to release contents of the refuse container into a hopper (104 ) of the refuse collection vehicle ; wherein the dump cycle continues to completion as long as the switch remains manually engaged; characterized in that the switch is energized in electronic response to data from at least one sensor positioned on the refuse collection vehicle , the data indicating that the refuse container is in a position to be engaged by the refuse collection vehicle . positioning the refuse collection vehicle with respect to a refuse container to be emptied; and manually engaging a switch to initiate a dump cycle to be performed by the refuse collection vehicle on the refuse container , the dump cycle including: engaging the refuse container with a portion (104 ) of the vehicle ; lifting the engaged refuse container to a dump position; and moving the refuse container to release contents of the refuse container into a hopper (104 ) of the refuse collection vehicle ; engaging the refuse container with a portion (104 ) of the vehicle ; lifting the engaged refuse container to a dump position; and moving the refuse container to release contents of the refuse container into a hopper (104 ) of the refuse collection vehicle ; wherein the dump cycle continues to completion as long as the switch remains manually engaged; characterized in that the switch is energized in electronic response to data from at least one sensor positioned on the refuse collection vehicle , the data indicating that the refuse container is in a position to be engaged by the refuse collection vehicle .
A method of a user equipment, UE, the method comprising: initiating a first initial registration procedure by sending a first registration request message to a core network apparatus , wherein the first registration request message includes a first subscription concealed identifier, SUCI, and wherein the first SUCI is generated by concealing a subscription permanent identifier, SUPI; starting a first timer and a second timer in a case where the first registration request message is sent; starting a third timer in a case where the first timer expires; and initiating a second initial registration procedure by sending a second registration request message to the core network apparatus in a case where the third timer expires, wherein the second registration request message includes the first SUCI in a case where the second timer is running, wherein the second registration request message includes a second SUCI in a case where the second timer expires, wherein the second SUCI is generated by concealing the SUPI, and wherein the second SUCI is different from the first SUCI. initiating a first initial registration procedure by sending a first registration request message to a core network apparatus , wherein the first registration request message includes a first subscription concealed identifier, SUCI, and wherein the first SUCI is generated by concealing a subscription permanent identifier, SUPI; starting a first timer and a second timer in a case where the first registration request message is sent; starting a third timer in a case where the first timer expires; and initiating a second initial registration procedure by sending a second registration request message to the core network apparatus in a case where the third timer expires, wherein the second registration request message includes the first SUCI in a case where the second timer is running, wherein the second registration request message includes a second SUCI in a case where the second timer expires, wherein the second SUCI is generated by concealing the SUPI, and wherein the second SUCI is different from the first SUCI.
Spunbonded fabric material which is at least partially formed by cercle-segmented multicomponent fibers having at least a first plastic component and a second plastic component , wherein the multicomponent fibers feature a circular cross section, and wherein a proportion of multicomponent fibers in which the circle segments are connected to one another at inner segment limits of the multicomponent fibers along their length extension (L) amounts to at least 70 %, preferably at least to 80 %, and wherein the spunbonded fabric material is thermally solidified, wherein with a longitudinal proportion of the multicomponent fibers of at most 50 %, preferably at most 30 %, further preferably at most 20 %, the circle segments of the multicomponent fibers are split from one another, and wherein the first plastic component and the second plastic component consist of a polypropylene.
A power plant controller being arranged to control produced power from a wind power plant being connected to an electrical grid , the wind power plant comprises at least a plurality of wind turbine generators , wherein the power plant controller , in the event of receiving a signal indicative of a predefined event in the wind power plant, is configured to - control an actual amount of negative active power from the wind power plant so that the produced power, from the wind power plant to the electric grid , is a negative amount of active power, wherein the negative amount of active power is limited by the power plant controller to a first active power limit, and wherein a reactive power reference is limited to a first reactive power limit, and wherein if the negative amount of active power exceeds a second active power limit the reactive power reference is limited to a second reactive power limit wherein the first active power limit and/or second active power limit are/is set according to losses in the wind power plant thereby limiting the losses. - control an actual amount of negative active power from the wind power plant so that the produced power, from the wind power plant to the electric grid , is a negative amount of active power, wherein the negative amount of active power is limited by the power plant controller to a first active power limit, and wherein a reactive power reference is limited to a first reactive power limit, and wherein if the negative amount of active power exceeds a second active power limit the reactive power reference is limited to a second reactive power limit
A video decoding method, comprising: determining whether to apply a first filter to a reference pixel value of a current block based on an intra prediction mode of the current block and a size of the current block; when it is determined to apply the first filter to the reference pixel value of the current block, deriving an intra prediction value of the current block using the filtered reference pixel value and the intra prediction mode of the current block; and determining whether to apply a second filter to the intra prediction value of the current block based on an intra prediction mode of the current block, for thereby producing a filtered intra prediction value, wherein when the intra prediction mode of the current block is a vertical mode, the filtered intra prediction value is generated by applying the second filter only when the intra prediction value is positioned in a leftmost row of the current block, wherein the vertical mode uses exclusively at least one of reference pixel values located at the uppermost boundary of the current block. determining whether to apply a first filter to a reference pixel value of a current block based on an intra prediction mode of the current block and a size of the current block; when it is determined to apply the first filter to the reference pixel value of the current block, deriving an intra prediction value of the current block using the filtered reference pixel value and the intra prediction mode of the current block; and determining whether to apply a second filter to the intra prediction value of the current block based on an intra prediction mode of the current block, for thereby producing a filtered intra prediction value, wherein when the intra prediction mode of the current block is a vertical mode, the filtered intra prediction value is generated by applying the second filter only when the intra prediction value is positioned in a leftmost row of the current block, wherein the vertical mode uses exclusively at least one of reference pixel values located at the uppermost boundary of the current block.
A transmission mechanism of an air compressor , the air compressor comprising: a base including a first positioning orifice and a second positioning orifice separated from the first positioning orifice , a drive gear inserted through the first positioning orifice and mounted on a center of an end of a motor , and a bearing accommodated in the second positioning orifice , wherein the bearing is comprised of an external ring , an internal ring , and multiple balls defined between the internal ring and the external ring ; a cylinder connected on the base and including an air storage seat communicating on the cylinder ; and the transmission mechanism driving a piston to reciprocately move in the cylinder , thus compressing air; wherein the transmission mechanism including a torque gear and a central orifice defined on the torque gear , wherein the central orifice has screw threads formed therein, and the transmission mechanism further includes a connection rod extending from the torque gear , wherein the central orifice of the torque gear corresponds to the internal ring of the bearing in the second positioning orifice of the base , and a screw bolt is screwed with the central orifice after being inserted through the internal ring of the bearing and the torque gear , thus connecting the transmission mechanism automatedly. a base including a first positioning orifice and a second positioning orifice separated from the first positioning orifice , a drive gear inserted through the first positioning orifice and mounted on a center of an end of a motor , and a bearing accommodated in the second positioning orifice , wherein the bearing is comprised of an external ring , an internal ring , and multiple balls defined between the internal ring and the external ring ; a cylinder connected on the base and including an air storage seat communicating on the cylinder ; and the transmission mechanism driving a piston to reciprocately move in the cylinder , thus compressing air; wherein the transmission mechanism including a torque gear and a central orifice defined on the torque gear , wherein the central orifice has screw threads formed therein, and the transmission mechanism further includes a connection rod extending from the torque gear , wherein the central orifice of the torque gear corresponds to the internal ring of the bearing in the second positioning orifice of the base , and a screw bolt is screwed with the central orifice after being inserted through the internal ring of the bearing and the torque gear , thus connecting the transmission mechanism automatedly.
A compound having formula: or a pharmaceutically acceptable salt thereof, wherein: R 3 is L 4 -R w is and R 7 is or R 3 is L 4 -R w is and R 7 is or
A mobile terminal apparatus configured to communicate with a first radio base station forming a first cell and a second radio base station forming a second cell, the mobile terminal apparatus comprising: a receiving section configured to receive, from the first radio base station, information about a transmission power difference in decibels, dB, between a transmission power of a downlink signal and transmission power of a CSI-RS, Channel State Information Reference Signal, in the second cell; a generating section configured to use the information as a basis to generate a CQI, Channel Quality Indicator, used for transmission of the downlink signal in the second cell; and a transmission section configured to transmit the CQI by using a PUCCH, Physical Uplink Control Channel, in the second cell. a receiving section configured to receive, from the first radio base station, information about a transmission power difference in decibels, dB, between a transmission power of a downlink signal and transmission power of a CSI-RS, Channel State Information Reference Signal, in the second cell; a generating section configured to use the information as a basis to generate a CQI, Channel Quality Indicator, used for transmission of the downlink signal in the second cell; and a transmission section configured to transmit the CQI by using a PUCCH, Physical Uplink Control Channel, in the second cell.