mhurhangee/patent-ind-claim-en huggingface dataset:
A method for preparing compound 1, comprising the following steps: wherein the molar ratio of compound 3-2 and NaNO 2 is 1:1 to 1:2; wherein a reaction solvent used in preparation of compound 3-3 from compound 3-2 is selected from methanol/water, ethanol/water, isopropanol/water or acetic acid/water; wherein the volume ratio of water and methanol, ethanol, isopropanol or acetic acid is 1:1 to 1:3; wherein the weight ratio of the compound 3-2 and H 2 O is 1:1 to 1:3. molar ratio of compound 3-2 and NaNO 2 is 1:1 to 1:2; wherein a reaction solvent used in preparation of compound 3-3 from compound 3-2 is selected from methanol/water, ethanol/water, isopropanol/water or acetic acid/water; wherein the volume ratio of water and methanol, ethanol, isopropanol or acetic acid is 1:1 to 1:3; wherein the weight ratio of the compound 3-2 and H 2 O is 1:1 to 1:3.
A downhole optical communications system, configured to be provided at a downhole location in use, for communicating between the downhole location and an uphole location, such as a surface location, wherein the downhole optical communications system comprises: a downhole optical transmitter configured to emit an uplink optical signal for transmission over an optical transmission channel between the downhole optical transmitter and the uphole location; wherein the downhole transmitter is an electrical component that is operable to emit light in order to form the optical signals for transmission; the downhole optical transmitter is configured to produce a measureable response dependent on a downlink optical signal incident on the electrical component , the downlink optical signal received from the optical transmission channel; and the downhole optical communications system is configured to determine data represented by the received downlink optical signal from the measurable response produced by the electrical component of the downhole optical transmitter . a downhole optical transmitter configured to emit an uplink optical signal for transmission over an optical transmission channel between the downhole optical transmitter and the uphole location; wherein the downhole transmitter is an electrical component that is operable to emit light in order to form the optical signals for transmission; the downhole optical transmitter is configured to produce a measureable response dependent on a downlink optical signal incident on the electrical component , the downlink optical signal received from the optical transmission channel; and the downhole optical communications system is configured to determine data represented by the received downlink optical signal from the measurable response produced by the electrical component of the downhole optical transmitter .
A user equipment comprising: a receiver configured to detect a Physical Downlink Control Channel, PDCCH, and a channel measurement unit configured to perform a measurement for computing a Channel Quality Indicator, CQI, value, wherein the receiver detects the PDCCH with Downlink Control Information, DCI, with a Cyclic Redundancy Check, CRC, scrambled by a Radio Network Temporary Identifier, RNTI, according to a DCI format 1C on a serving cell, characterized in that Z in a case that the receiver does not successively detect the PDCCH over a predetermined number of subframes in an ON/OFF cell for which the ON state is configured, the channel measurement unit (i) assumes that a base station does not perform downlink transmission in a specific subframe and (ii) does not use the specific subframe for Channel State Information, CSI, measurement. a receiver configured to detect a Physical Downlink Control Channel, PDCCH, and a channel measurement unit configured to perform a measurement for computing a Channel Quality Indicator, CQI, value, wherein the receiver detects the PDCCH with Downlink Control Information, DCI, with a Cyclic Redundancy Check, CRC, scrambled by a Radio Network Temporary Identifier, RNTI, according to a DCI format 1C on a serving cell, characterized in that Z in a case that the receiver does not successively detect the PDCCH over a predetermined number of subframes in an ON/OFF cell for which the ON state is configured, the channel measurement unit (i) assumes that a base station does not perform downlink transmission in a specific subframe and (ii) does not use the specific subframe for Channel State Information, CSI, measurement.
Baking module of a linear tunnel oven for bakery, Viennese pastry and similar products , including a baking chamber comprising a hearth, in the form of a conveyor belt , which is movable and permeable to a gaseous heat-transfer fluid, a vault , and heating means in the vault and in the hearth for baking or prebaking said products , which rest on the conveyor belt either directly or indirectly through a suitable baking support such as a plate, a net or a baking mold, the heating means in the hearth comprising a plurality of holes for blowing the gaseous heat-transfer fluid under said conveyor belt , said baking module being characterized in that said conveyor belt is movable above, and rests on, a sliding surface comprising openings for the passing through of said heat-transfer fluid, this sliding surface being movable between at least two positions, among which a so-called convection position, where said openings of the sliding surface coincide with the blowing holes of the heating means in the hearth for letting the heat-transfer fluid pass, and at least one second so-called radiating position, in which said openings are offset with respect to these blowing holes , the sliding surface forming a screen for the heat-transfer fluid blown through the blowing holes .
A method of making a phosphono paraffin, comprising: mixing a (i) haloparaffin having one or more secondary halogen moieties, (ii) a phosphite, and (iii) sodium iodide, potassium iodide or potassium bromide, or sodium iodide and potassium iodide or potassium bromide, to form a reaction mixture; and heating the reaction mixture to form a phosphono paraffin. mixing a (i) haloparaffin having one or more secondary halogen moieties, (ii) a phosphite, and (iii) sodium iodide, potassium iodide or potassium bromide, or sodium iodide and potassium iodide or potassium bromide, to form a reaction mixture; and heating the reaction mixture to form a phosphono paraffin.
A mammography device comprising: a device body movable in a vertical axis direction and rotatable around a first horizontal axis (Z) so as to photograph an object to be inspected by a craniocaudal view and a mediolateral oblique view; a generator fixed to one end portion of the device body and adapted to irradiate the object with an X-ray; a support part 140,16-0) for the object to be inspected including a detector fixed to the other end portion of the device body and facing the generator ; a first moving unit adapted to move the device body in the vertical axis direction; a rotating unit adapted to rotate the device body around the first horizontal axis; and a controller adapted to control the first moving unit and the rotating unit, characterized in that : the controller is adapted to perform a control so that the rotating unit can rotate the device body and the first moving unit can move the device body together with the rotation of the device body such that the center of an upper surface of the support part for the object to be inspected may be maintained at an initial position when the device body rotates. a device body movable in a vertical axis direction and rotatable around a first horizontal axis (Z) so as to photograph an object to be inspected by a craniocaudal view and a mediolateral oblique view; a generator fixed to one end portion of the device body and adapted to irradiate the object with an X-ray; a support part 140,16-0) for the object to be inspected including a detector fixed to the other end portion of the device body and facing the generator ; a first moving unit adapted to move the device body in the vertical axis direction; a rotating unit adapted to rotate the device body around the first horizontal axis; and a controller adapted to control the first moving unit and the rotating unit, characterized in that : the controller is adapted to perform a control so that the rotating unit can rotate the device body and the first moving unit can move the device body together with the rotation of the device body such that the center of an upper surface of the support part for the object to be inspected may be maintained at an initial position when the device body rotates.
A method of non-contact liquid printing using a print head, the print head comprising: a perforate plate or membrane comprising at least one ejection element including an outlet configured to eject a bulk flow (F) of printing liquid (L) out of the print head; and a bending mode actuator responsive by bending to an applied field and arranged to vibrate the at least one ejection element in order to eject the bulk flow (F), wherein a region of an external surface of the perforate plate or membrane extends laterally of a longitudinal axis (Z) of the at least one ejection element and is adapted to retain a layer of liquid over the outlet , the method comprising: controlling the bending mode actuator to vibrate at a higher frequency in order to cause the liquid to flow through the at least one ejection element and to be expelled from the outlet so as to spread the liquid outwardly of the outlet at said region to provide the retained layer of the liquid over the outlet ; providing a printing liquid (L) to the at least one ejection element ; and controlling the bending mode actuator to vibrate at a lower frequency in order to vibrate the at least one ejection element to eject the bulk flow (F) of the printing liquid (L) through the retained layer of liquid. a perforate plate or membrane comprising at least one ejection element including an outlet configured to eject a bulk flow (F) of printing liquid (L) out of the print head; and a bending mode actuator responsive by bending to an applied field and arranged to vibrate the at least one ejection element in order to eject the bulk flow (F), wherein a region of an external surface of the perforate plate or membrane extends laterally of a longitudinal axis (Z) of the at least one ejection element and is adapted to retain a layer of liquid over the outlet , the method comprising: controlling the bending mode actuator to vibrate at a higher frequency in order to cause the liquid to flow through the at least one ejection element and to be expelled from the outlet so as to spread the liquid outwardly of the outlet at said region to provide the retained layer of the liquid over the outlet ; providing a printing liquid (L) to the at least one ejection element ; and controlling the bending mode actuator to vibrate at a lower frequency in order to vibrate the at least one ejection element to eject the bulk flow (F) of the printing liquid (L) through the retained layer of liquid. controlling the bending mode actuator to vibrate at a higher frequency in order to cause the liquid to flow through the at least one ejection element and to be expelled from the outlet so as to spread the liquid outwardly of the outlet at said region to provide the retained layer of the liquid over the outlet ; providing a printing liquid (L) to the at least one ejection element ; and controlling the bending mode actuator to vibrate at a lower frequency in order to vibrate the at least one ejection element to eject the bulk flow (F) of the printing liquid (L) through the retained layer of liquid.
A guidewire comprising: (a) a tubular member including a proximal end and a distal end, the distal end including a coiled wire portion ; (b) a tip including a tip member associated with the distal end of the tubular member and a core wire fixed to the tip member , the core wire extending proximally from the tip member within the distal end of the tubular member; and (c) an inner shaft (100, 100', 100", 100''') extending along and displaceable longitudinally within the tubular member, the inner shaft engaging telescopically so as to be slidable over the core wire, thereby varying an overlap between the inner shaft and the coiled wire portion , characterized in that the inner shaft is configured to frictionally engage the core wire so that longitudinal motion of the inner shaft in a proximal direction within the tubular member core wire generates a corresponding proximal displacement of the tip , and wherein, when sufficient longitudinal force is applied in a proximal direction to overcome the frictional engagement, the inner shaft moves telescopically so as to be slidable over the core wire . (a) a tubular member including a proximal end and a distal end, the distal end including a coiled wire portion ; (b) a tip including a tip member associated with the distal end of the tubular member and a core wire fixed to the tip member , the core wire extending proximally from the tip member within the distal end of the tubular member; and (c) an inner shaft (100, 100', 100", 100''') extending along and displaceable longitudinally within the tubular member, the inner shaft engaging telescopically so as to be slidable over the core wire, thereby varying an overlap between the inner shaft and the coiled wire portion ,
A method of evaluating downhole cuttings entrained in a downhole fluid in a borehole intersecting an earth formation, the method comprising: conveying at least one acoustic sensor in the borehole ; using the at least one acoustic sensor to produce information indicative of a parameter of interest relating to downhole cuttings in the borehole reflecting an emitted acoustic wave; and processing the information using at least one processor to estimate the parameter of interest; wherein the parameter of interest comprises at least one of: i) average particle size of the downhole cuttings ; ii) distribution of particle sizes; and iii) quantitative indicator of shape of the downhole cuttings . conveying at least one acoustic sensor in the borehole ; using the at least one acoustic sensor to produce information indicative of a parameter of interest relating to downhole cuttings in the borehole reflecting an emitted acoustic wave; and processing the information using at least one processor to estimate the parameter of interest; wherein the parameter of interest comprises at least one of: i) average particle size of the downhole cuttings ; ii) distribution of particle sizes; and iii) quantitative indicator of shape of the downhole cuttings .
A method for the at least largely isobaric metering of liquid plastics components to a mixing head, in which the components are metered to the mixing head by means of a line system for liquids that has at least one positive displacement pump and at least one shut-off member, wherein the actual liquid pressure in the line system is ascertained by means of a pressure measuring device in order to compensate for leakage losses in the line system and, when the shut-off member is closed, said pressure is adjusted to a target pressure value by actuating the positive displacement pump , and wherein the delivery loss rate (Qv) of the positive displacement pump which occurs so as to maintain the target pressure value when the shut-off member is closed is added to a target delivery rate (Qs) in order to compensate for the leakage loss that occurs at the target pressure value in question.
Inward gas injector for direct injection of a gaseous fuel into a combustion chamber of an internal combustion engine or a fuel cell, comprising a housing or injector body having a hollow nozzle for containing a gas under pressure and ended by a nozzle head , said nozzle head having a valve seat communicating with the exterior by an exit having at least one exit channel and a gas diffusion angle, a mobile valve member connected to a needle actuated by a coil concentric with the hollow part of the nozzle , said needle being therefore able to slide within the nozzle , said valve member cooperating with the valve seat to open or close the valve, and guiding means for guiding the sliding of the needle in the nozzle, said guiding means comprising a first contact portion between the needle and a bushing of the nozzle, and a second contact portion between the needle and the nozzle at the level of a portion of the coil , so that the clearance between the needle and the nozzle at said first contact portion is 4 to 8 times lower than the clearance between the needle and the nozzle at said second contact portion , a first longitudinal sealing of the valve being ensured by the valve member contacting the valve seat , characterised in that a second radial sealing of the valve is ensured by a plurality of orifices or needle slots made in a portion of the needle , said portion of the needle being hollow and containing the gas under pressure, said plurality of orifices or needle slots cooperating with a plurality of slots made in the bushing , so that, when the valve member is in contact with the valve seat , the orifices , the needle slots respectively, do not match the bushing slots , leading to a radial sealing and when the valve member is not in contact with the valve seat , at least part of the orifices , the needle slots respectively, do match the bushing slots , leading to a flow of gas to the exterior of the injector through a channel connecting the bushing slots and the exit of the nozzle head .
A method for operating a voice command interface configured to control a media playback device arranged in a vehicle, the method comprising: receiving at a media playback device, an instruction from a user, the instruction indicative of a user command requesting an outcome; determining whether the outcome will be recognizable by the user of the media playback device in a predetermined period of time after receiving the instruction ; and upon determining that the outcome will not be recognizable by the user of the media playback device in the predetermined period of time, playing an audio cue before the predetermined period of time elapses, wherein the outcome is playback of a media content item, and wherein the determining includes: determining an attribute of the media content item; and when the attribute does not meet a threshold , determining that the media content item will not be recognized by the user of the media playback device in the predetermined period of time. receiving at a media playback device, an instruction from a user, the instruction indicative of a user command requesting an outcome; determining whether the outcome will be recognizable by the user of the media playback device in a predetermined period of time after receiving the instruction ; and upon determining that the outcome will not be recognizable by the user of the media playback device in the predetermined period of time, playing an audio cue before the predetermined period of time elapses, wherein the outcome is playback of a media content item, and wherein the determining includes: determining an attribute of the media content item; and when the attribute does not meet a threshold , determining that the media content item will not be recognized by the user of the media playback device in the predetermined period of time.
Transparent swimming pool cover profile with at least one longitudinal channel and with at least one longitudinal attachment groove on a longitudinal side , wherein the longitudinal channel is at least partially arranged above the longitudinal attachment groove , wherein at least one lower side of the longitudinal channel directed towards the longitudinal attachment groove and/or at least one upper wall of the longitudinal attachment groove is at least partially opaque, characterized in that the opaque portion of the swimming pool cover profile viewed from below does not exceed 40 %.
A power control unit adapted to be mounted on a vehicle for controlling electric power used for driving the vehicle, the power control unit comprising: a casing including a top where an opening is formed, a terminal block placed in said casing , and arranged opposite to said opening , and a substrate placed in said casing , and on which an electronic component is mounted, said terminal block having a first wall arranged between said substrate and said opening , and extending towards said top at a circumference of an aperture of said opening , and characterized in that said substrate is arranged at a side opposite to said top relative to said terminal block , in that said terminal block further includes a second wall , said second wall and said first wall extending in opposite directions, in that the power control unit is formed such as the opening forms communication between an outside of said casing and a space within said casing in which said substrate is placed, in that said terminal block further includes a joint to which a bus bar is fastened, in that said first wall extends from said joint upwards in a perpendicular direction, and in that said second wall extends from said joint downwards in the perpendicular direction, in a direction where said substrate is not present. a casing including a top where an opening is formed, a terminal block placed in said casing , and arranged opposite to said opening , and a substrate placed in said casing , and on which an electronic component is mounted, said terminal block having a first wall arranged between said substrate and said opening , and extending towards said top at a circumference of an aperture of said opening , and characterized in that said substrate is arranged at a side opposite to said top relative to said terminal block , in that said terminal block further includes a second wall , said second wall and said first wall extending in opposite directions, in that the power control unit is formed such as the opening forms communication between an outside of said casing and a space within said casing in which said substrate is placed, in that said terminal block further includes a joint to which a bus bar is fastened, in that said first wall extends from said joint upwards in a perpendicular direction, and in that said second wall extends from said joint downwards in the perpendicular direction, in a direction where said substrate is not present.