mhurhangee/patent-ind-claim-en huggingface dataset:
A pit pump to be used within a pit containing drilling fluid for use with drilling operations performed by a drilling system , the pit pump comprising: a pump portion with an inlet , an outlet , and a pump impeller for pumping drilling fluid from the inlet to the outlet; an electric drive motor in driving engagement with the pump impeller to drive the pump impeller, the electric drive motor includes a motor housing ; a cooling liquid inlet in the motor housing through which a cooling liquid can be input for cooling the electric drive motor; and a cooling liquid outlet in the motor housing through which cooling liquid can be output after cooling the electric drive motor; characterized in that the electric drive motor is reversible whereby a rotation direction of the impeller can be reversed and a flow of fluid through the pump portion can be reversed. a pump portion with an inlet , an outlet , and a pump impeller for pumping drilling fluid from the inlet to the outlet; an electric drive motor in driving engagement with the pump impeller to drive the pump impeller, the electric drive motor includes a motor housing ; a cooling liquid inlet in the motor housing through which a cooling liquid can be input for cooling the electric drive motor; and a cooling liquid outlet in the motor housing through which cooling liquid can be output after cooling the electric drive motor; characterized in that the electric drive motor is reversible whereby a rotation direction of the impeller can be reversed and a flow of fluid through the pump portion can be reversed.
A method performed by a wireless communication device in a third generation partnership project, 3GPP, narrowband Internet-of-Things, NB-IoT, wireless communication network , the method being performed during an inactivity period of an extended discontinuous reception, eDRX, cycle, the method comprising an activation procedure that comprises: - calculating , in a time reference frame inherent to the wireless communication device , an earliest point in time and a latest point in time for obtaining a narrowband master information block, MIB-NB, transmitted by a network node in a narrowband physical broadcast channel, NPBCH , during a single NPBCH transmission time interval , - activating , at a point in time between the calculated earliest point in time and latest point in time , radio receiver circuitry in the wireless communication device , - receiving at least one radio subframe comprising the NPBCH , - decoding the received at least one radio subframe, by which decoding the MIB-NB is obtained, - reading , from the MIB-NB, a system frame number, SFN, the method further comprising a communication procedure that comprises: - activating the wireless communication device according to the eDRX cycle, and - communicating , in a designated time interval as determined by the SFN, with the network node . - calculating , in a time reference frame inherent to the wireless communication device , an earliest point in time and a latest point in time for obtaining a narrowband master information block, MIB-NB, transmitted by a network node in a narrowband physical broadcast channel, NPBCH , during a single NPBCH transmission time interval , - activating , at a point in time between the calculated earliest point in time and latest point in time , radio receiver circuitry in the wireless communication device , - receiving at least one radio subframe comprising the NPBCH , - decoding the received at least one radio subframe, by which decoding the MIB-NB is obtained, - reading , from the MIB-NB, a system frame number, SFN, the method further comprising a communication procedure that comprises: - activating the wireless communication device according to the eDRX cycle, and - communicating , in a designated time interval as determined by the SFN, with the network node .
A catalyst comprising an active phase constituted solely by palladium, and a porous alumina support, in which: • the palladium content in the catalyst is in the range of 0.0025% to 1% by weight with respect to the total weight of the catalyst; • at least 80% by weight of the palladium is distributed in a crust at the periphery of the porous support, the thickness of said crust being in the range of 125 to 225 μm as measured using a Castaing microprobe; • the metallic dispersion D of the palladium is less than 20%; • the specific surface area of the porous support is in the range of 70 to 160 m 2 /g as measured by nitrogen physisorption; • the average size of the palladium particles is in the range of 4 to 10 nm as deduced from metallic dispersion measurements of the particles. • the palladium content in the catalyst is in the range of 0.0025% to 1% by weight with respect to the total weight of the catalyst; • at least 80% by weight of the palladium is distributed in a crust at the periphery of the porous support, the thickness of said crust being in the range of 125 to 225 μm as measured using a Castaing microprobe; • the metallic dispersion D of the palladium is less than 20%; • the specific surface area of the porous support is in the range of 70 to 160 m 2 /g as measured by nitrogen physisorption; • the average size of the palladium particles is in the range of 4 to 10 nm as deduced from metallic dispersion measurements of the particles.
A molten metal processing device for a casting wheel on a casting mill, comprising: a casting wheel that includes a band configured to confine the molten metal in a channel of the casting wheel , an assembly mounted on the casting wheel , including, at least one vibrational energy source configured to supply vibrational energy to the molten metal in the casting wheel while the molten metal in the casting wheel is cooled, and a support device holding said at least one vibrational energy source , characterized in that the support device includes a housing comprising a cooling channel for transport of a cooling medium therethrough, and in that the at least one vibrational energy source is configured to supply the vibrational energy to the molten metal in the casting wheel through the cooling medium. a casting wheel that includes a band configured to confine the molten metal in a channel of the casting wheel , an assembly mounted on the casting wheel , including, at least one vibrational energy source configured to supply vibrational energy to the molten metal in the casting wheel while the molten metal in the casting wheel is cooled, and a support device holding said at least one vibrational energy source , characterized in that the support device includes a housing comprising a cooling channel for transport of a cooling medium therethrough, and in that the at least one vibrational energy source is configured to supply the vibrational energy to the molten metal in the casting wheel through the cooling medium.
One or more computer-readable media having stored thereon computer-executable instructions for causing a computing system, when programmed thereby, to perform video processing operations, the video processing operations comprising: adding to encoded video content custom data indicating a nominal range of samples of the encoded video content as video content type for input video to encoding, the samples of the encoded video content representing an intensity of brightness or an intensity of a color component of a pixel and having a sample depth that indicates an available range of values representing the samples of the encoded video content, wherein the nominal range is a range of values, within the available range for the sample depth of the samples of the encoded video content, for the video content type, and wherein the custom data indicates one of multiple possible options for the nominal range, the multiple possible options for the nominal range including: full range characterized by values from 0 ... 2 n -1 for samples of bit depth n ; and a limited range characterized by values in a sub-range of the full range; and outputting the custom data and the encoded video content. full range characterized by values from 0 ... 2 n -1 for samples of bit depth n ; and a limited range characterized by values in a sub-range of the full range; and outputting the custom data and the encoded video content.
Method for maintaining a plant comprising the following operations performed by at least one processor: a) extracting events from a given ontology (O) representing knowledge (BG) about the plant equipment and plant properties and about the states of the plant equipment at given points of time along with an event if a failure occurs, b) obtaining defined failure and non-failure classes describing under which condition failure occurs and no failure is expected, c) assigning at least one of the events (E) to each failure class by identifying failure and non-failure events from all extracted events, d) applying inductive logic programming (ILP) by feeding the inductive logic programming with the failure and non-failure events, whereby the inductive logic programming generates a set of class expressions whereby each class expression (CE) describes under which condition a failure of its failure class occurs, wherein each class expression is combined with predictive accuracy which indicates the proportion of covered failure and non-failure class events by said class expression, and e) outputting, by the at least one processor accessing an output device, at least one failure class and predictive failure occurrence to a user and initiating maintenance measures for the maintenance of the plant when the plant equipment enters into another state than said states and if the other state matches at least one class expression of the generated set of class expressions and if the predictive accuracy surpasses a pre-determined threshold. a) extracting events from a given ontology (O) representing knowledge (BG) about the plant equipment and plant properties and about the states of the plant equipment at given points of time along with an event if a failure occurs, b) obtaining defined failure and non-failure classes describing under which condition failure occurs and no failure is expected, c) assigning at least one of the events (E) to each failure class by identifying failure and non-failure events from all extracted events, d) applying inductive logic programming (ILP) by feeding the inductive logic programming with the failure and non-failure events, whereby the inductive logic programming generates a set of class expressions whereby each class expression (CE) describes under which condition a failure of its failure class occurs, wherein each class expression is combined with predictive accuracy which indicates the proportion of covered failure and non-failure class events by said class expression, and e) outputting, by the at least one processor accessing an output device, at least one failure class and predictive failure occurrence to a user and initiating maintenance measures for the maintenance of the plant when the plant equipment enters into another state than said states and if the other state matches at least one class expression of the generated set of class expressions and if the predictive accuracy surpasses a pre-determined threshold.
A loudspeaker , comprising: an acoustic radiator that emits front-side acoustic radiation from its front side, and emits rear-side acoustic radiation from its rear side; a structure configured for wearing the loudspeaker on the head of a wearer, wherein the acoustic radiator is held near but not covering an ear of the user when the loudspeaker is worn on the user's head; a housing that directs the front-side acoustic radiation and the rear-side acoustic radiation; and a plurality of sound-emitting vents in the housing, where a distance between vents, that are configured to contribute the most to acoustic radiation at any particular frequency, defines an effective length of a loudspeaker dipole; the vents comprise a front vent comprising an opening in the housing, a first rear vent formed by an opening covered by a resistive screen, and an other rear vent , comprising an opening; wherein a first loudspeaker dipole is defined by the front vent and the first rear vent , and a second longer loudspeaker dipole is defined by the front vent and the other rear vent ; wherein the first rear vent , comprising a resistive screen is closer than the other rear vent to the first front vent ; and wherein the front vent is covered by a resistive screen. an acoustic radiator that emits front-side acoustic radiation from its front side, and emits rear-side acoustic radiation from its rear side; a structure configured for wearing the loudspeaker on the head of a wearer, wherein the acoustic radiator is held near but not covering an ear of the user when the loudspeaker is worn on the user's head; a housing that directs the front-side acoustic radiation and the rear-side acoustic radiation; and a plurality of sound-emitting vents in the housing, where a distance between vents, that are configured to contribute the most to acoustic radiation at any particular frequency, defines an effective length of a loudspeaker dipole; the vents comprise a front vent comprising an opening in the housing, a first rear vent formed by an opening covered by a resistive screen, and an other rear vent , comprising an opening; wherein a first loudspeaker dipole is defined by the front vent and the first rear vent , and a second longer loudspeaker dipole is defined by the front vent and the other rear vent ; wherein the first rear vent , comprising a resistive screen is closer than the other rear vent to the first front vent ; and wherein the front vent is covered by a resistive screen.
An iron-based sintered alloy that is suitable for sliding components in pairs, the iron-based sintered alloy having a composition comprising, in terms of percent by mass, Ti: 18.4 to 24.6%, Mo: 2.8 to 6.6%, C: 4.7 to 7.0%, Cr: 7.5 to 10.0%, Ni: 4.5 to 6.5%, Co: 1.5 to 4.5%, Al: 0.6 to 1.0%, the balance being Fe and unavoidable impurities, wherein the alloy has a structure in which hard particles are dispersed in an island shape in a matrix, characterized in that the hard particles are formed from a carbide consisting of a TiC powder and a metal powder including a Mo metal powder, the iron-based sintered allow is manufactured by mixing material powders consisting of TiC, Mo, Ni, Cr, Co, Al and Fe, an area ratio of the hard particles is within a constant range, a maximum circle equivalent diameter of the hard particles is 40 μm to 10 μm and a standard deviation of the maximum circle equivalent diameter of the hard particles is 6 μm to 4 μm. wherein the alloy has a structure in which hard particles are dispersed in an island shape in a matrix, characterized in that the hard particles are formed from a carbide consisting of a TiC powder and a metal powder including a Mo metal powder, the iron-based sintered allow is manufactured by mixing material powders consisting of TiC, Mo, Ni, Cr, Co, Al and Fe, an area ratio of the hard particles is within a constant range, a maximum circle equivalent diameter of the hard particles is 40 μm to 10 μm and a standard deviation of the maximum circle equivalent diameter of the hard particles is 6 μm to 4 μm.
An applicator for treating one or more vaginal tissues, comprising: a tapered, insertion portion comprising one or more dispensing openings ; a body disposed adjacent the insertion portion comprising a reservoir in fluid communication with the one or more dispensing openings , wherein the reservoir stores greater than 10g to about 200g of a vaginal care composition. a tapered, insertion portion comprising one or more dispensing openings ; a body disposed adjacent the insertion portion comprising a reservoir in fluid communication with the one or more dispensing openings , wherein the reservoir stores greater than 10g to about 200g of a vaginal care composition.
A method for forming a printing layer on a touch screen panel, the method consisting of: applying ink onto a transfer substrate film to form the printing layer ; forming a transfer film by forming an adhesive film layer on an upper portion of the transfer substrate film such that the printing layer is buried; removing a predetermined area of the transfer film to define a view area; attaching the transfer film to a cover window substrate such that the adhesive film layer contacts the cover window substrate ; and removing the transfer substrate film and fabricating the touch screen panel by attaching the printing layer to the cover window substrate through a medium of the adhesive film layer , wherein the printing layer is formed at an edge of the transfer substrate film , and an area where the printing layer is not formed is removed from the transfer film , which forms a view area in the cover window substrate . applying ink onto a transfer substrate film to form the printing layer ; forming a transfer film by forming an adhesive film layer on an upper portion of the transfer substrate film such that the printing layer is buried; removing a predetermined area of the transfer film to define a view area; attaching the transfer film to a cover window substrate such that the adhesive film layer contacts the cover window substrate ; and removing the transfer substrate film and fabricating the touch screen panel by attaching the printing layer to the cover window substrate through a medium of the adhesive film layer , wherein the printing layer is formed at an edge of the transfer substrate film , and an area where the printing layer is not formed is removed from the transfer film , which forms a view area in the cover window substrate .
A pressure boosting device for increasing the pressure of a fluid flowing through a conduit , with at least one booster pump , a control device which controls the booster pump , as well as at least one pressure sensor which is arranged at the exit side of the booster pump and is connected to the control device, wherein the control device is designed in a manner such that at least in one operating region it controls the booster pump in such a manner in a start-stop operation, that its switches off the booster pump when reaching an upper pressure limit value and switches it on when reaching a lower pressure limit value), characterised in that the control device is designed in a manner such that in the start-stop operation, it automatically adapts at least one pressure control parameter (P 1 , P 2 ) of the control device on the basis of the temporal course of at least one pressure value (P) detected by the pressure sensor.
An electric motor, comprising: a stator ; a rotor axially supported to a rotational shaft in such a configuration as to rotate relative to the stator , the rotor made of a base face portion as a rotational portion of the rotor fixed to the rotational shaft is adapted to be cooled by a cooling medium (L) arranged to be discharged at the base face portion of said rotor ; a cooling medium storing portion stored in a closed space base portion disposed at the bottom part of the stator side , and a cooling medium channel for leading the cooling medium (L) from the cooling medium storing portion to the base face portion of the rotor , wherein a discharge port for discharging the cooling medium (L) of the cooling medium channel is disposed close to and perpendicular to the base face portion of the rotational portion of the rotor and said discharge port formed into a protrusion fitted with a tip end portion is arranged for discharging the cooling medium (L).
A sensor apparatus, comprising: a sensor port; a thin-walled tubular housing coupled to the sensor port and comprising a crimping portion, a base portion, and a step feature that is formed in the housing, the step feature partitioning the crimping portion from the base portion; sensor components disposed within the interior of the base portion of the housing; and an electrical connector coupled to the housing and comprising leads electrically coupled to the sensor components and a connector flange, wherein a rim of the crimping portion of the housing is crimped onto the connector flange such that the electrical connector is retained in the housing; wherein the step feature includes a plurality of protrusions formed on an interior surface of the housing corresponding to a plurality of recesses in the connector flange of the electrical connector. a sensor port; a thin-walled tubular housing coupled to the sensor port and comprising a crimping portion, a base portion, and a step feature that is formed in the housing, the step feature partitioning the crimping portion from the base portion; sensor components disposed within the interior of the base portion of the housing; and an electrical connector coupled to the housing and comprising leads electrically coupled to the sensor components and a connector flange, wherein a rim of the crimping portion of the housing is crimped onto the connector flange such that the electrical connector is retained in the housing; wherein the step feature includes a plurality of protrusions formed on an interior surface of the housing corresponding to a plurality of recesses in the connector flange of the electrical connector.
A method of controlling the injection of hydraulic fluid into a high-pressure diaphragm compressor comprising a hydraulic system, the method comprising: - measuring a representation of pressure in a high-pressure part of the hydraulic system of the diaphragm compressor , and - maintaining a desired pressure in the high-pressure part of the hydraulic system by adding hydraulic fluid to the high-pressure part of the hydraulic system under the control of a controller on the basis of said measuring of pressure, wherein the amount of hydraulic fluid added is determined by the controller based on said measuring of pressure, and the determined amount of hydraulic fluid is established and injected to the high-pressure part via an injection assembly . - measuring a representation of pressure in a high-pressure part of the hydraulic system of the diaphragm compressor , and - maintaining a desired pressure in the high-pressure part of the hydraulic system by adding hydraulic fluid to the high-pressure part of the hydraulic system under the control of a controller on the basis of said measuring of pressure,
A cocktail composition comprising at least one recombinant bacteriophage constructed from LMA4, comprising: (i) an indicator gene, and (ii) an exogenous promoter controlling transcription of the indicator gene, inserted into a late gene region of the bacteriophage genome; wherein the indicator gene is not contiguous with a gene encoding a structural bacteriophage protein and does not yield a fusion protein, and wherein expression of the indicator gene results in an indicator protein product, and wherein the recombinant bacteriophage specifically infects Listeria spp. (i) an indicator gene, and (ii) an exogenous promoter controlling transcription of the indicator gene, inserted into a late gene region of the bacteriophage genome; wherein the indicator gene is not contiguous with a gene encoding a structural bacteriophage protein and does not yield a fusion protein, and wherein expression of the indicator gene results in an indicator protein product, and wherein the recombinant bacteriophage specifically infects Listeria spp. inserted into a late gene region of the bacteriophage genome; wherein the indicator gene is not contiguous with a gene encoding a structural bacteriophage protein and does not yield a fusion protein, and wherein expression of the indicator gene results in an indicator protein product, and wherein the recombinant bacteriophage specifically infects Listeria spp.