mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a papermaking process containing a press section with at least one press nip comprising simultaneously performing the following steps: a. providing a press media for said papermaking process conveying and supporting the paper sheet through the press nip and providing the voids to accept the water that is pressed from the wet paper sheet that has a Mean Flow Pore size that is less than the MFP size of a press media that was originally supplied to said papermaking process; b. adding an effective amount of one or more press sheet dewatering additives to said papermaking process prior to the last press nip of said papermaking process; c. providing a sheet moisture ratio of a paper sheet entering a press nip of said press section to between about 2 to about 9; and d. applying an optimum rate of pressure development at one or more press nips of said papermaking process, so that said steps a, b, c, and d either: result in the production of a paper sheet having greater sheet smoothness as measured according to TAPPI Test Method T 555 om-99 using the Parker Print Surf device without the reduction in paper solids exiting the press section that would be expected from performing a, c, and d, alone or in combination with one another; or result in the production of a paper sheet having greater sheet smoothness as measured according to TAPPI Test Method T 555 om-99 using the Parker Print Surf device with an increase in solids content of said paper sheet exiting the press section. a. providing a press media for said papermaking process conveying and supporting the paper sheet through the press nip and providing the voids to accept the water that is pressed from the wet paper sheet that has a Mean Flow Pore size that is less than the MFP size of a press media that was originally supplied to said papermaking process; b. adding an effective amount of one or more press sheet dewatering additives to said papermaking process prior to the last press nip of said papermaking process; c. providing a sheet moisture ratio of a paper sheet entering a press nip of said press section to between about 2 to about 9; and d. applying an optimum rate of pressure development at one or more press nips of said papermaking process, so that said steps a, b, c, and d either: result in the production of a paper sheet having greater sheet smoothness as measured according to TAPPI Test Method T 555 om-99 using the Parker Print Surf device without the reduction in paper solids exiting the press section that would be expected from performing a, c, and d, alone or in combination with one another; or result in the production of a paper sheet having greater sheet smoothness as measured according to TAPPI Test Method T 555 om-99 using the Parker Print Surf device with an increase in solids content of said paper sheet exiting the press section.
Component forming at least one inductor, the component comprising: - at least one structure made of a magnetically conductive material; - a portion of printed circuit board assembled with the structure, and containing at least one electrically conductive track; and - at least one bus bar secured on the portion of printed circuit board, the bus bar and the electrically conductive track of the portion of printed circuit board being placed relative to one another and directly connected, such as to form an electrically conductive element cooperating with the structure made of magnetically conductive material, in order to form the inductor; the bus bar being formed by at least two sections (30; 30a, 30b) used successively by current circulating in this bus bar. - at least one structure made of a magnetically conductive material; - a portion of printed circuit board assembled with the structure, and containing at least one electrically conductive track; and - at least one bus bar secured on the portion of printed circuit board, the bus bar and the electrically conductive track of the portion of printed circuit board being placed relative to one another and directly connected, such as to form an electrically conductive element cooperating with the structure made of magnetically conductive material, in order to form the inductor;
An apparatus (100; 300) for a base station serving a cell of a wireless communication system, wherein the base station may be coupled to an antenna system (101; 310) operable to provide a first antenna directivity pattern for a first region of the cell and a second antenna directivity pattern for a second region of the cell, wherein the first region and the second region of the cell both have the same cell identifier information dispensing with handovers between the first and second region of the cell, the apparatus (100; 300) comprising: a transceiver operable to transmit or receive a first signal to or from a mobile terminal associated to the cell via the first antenna directivity pattern and operable to transmit or receive a second signal to or from said mobile terminal via the second antenna directivity pattern; and a classifier operable to classify the mobile terminal, based on a wireless channel evaluation using the first and the second signal, as to whether the mobile terminal may be associated to the first region of the cell or whether the mobile terminal may be associated to the second region of the cell. a transceiver operable to transmit or receive a first signal to or from a mobile terminal associated to the cell via the first antenna directivity pattern and operable to transmit or receive a second signal to or from said mobile terminal via the second antenna directivity pattern; and a classifier operable to classify the mobile terminal, based on a wireless channel evaluation using the first and the second signal, as to whether the mobile terminal may be associated to the first region of the cell or whether the mobile terminal may be associated to the second region of the cell.
A method for performing a marine seismic survey in a body of water, comprising providing a plurality of seismic autonomous underwater vehicles, AUVs, each of the plurality of AUVs including an acoustic emitter and an acoustic receiver; deploying a first group of the plurality of seismic AUVs (201; 311, 312; 411; 511; 611) into the body of water and guiding the first group of seismic AUVs to a first plurality of seabed positions in at least one deployment line by using a first guidance system; deploying a second group of the plurality of seismic AUVs (203; 312, 313; 413; 513; 613) into the body of water, wherein the acoustic receiver of each of the second group (203; 312, 313; 413; 513) of AUVs is configured to receive acoustic signals emitted by the previously landed seismic AUVs; and guiding each of the second group (203; 312, 313; 413; 513; 613) of seismic AUVs to a second plurality of seabed positions in said at least one deployment line by using their respective acoustic receiver, based on acoustic signals emitted by the acoustic emitters of the first group of seismic AUVs after landing on the seabed; the method being characterised in that each acoustic receiver comprises a phased array receiver. providing a plurality of seismic autonomous underwater vehicles, AUVs, each of the plurality of AUVs including an acoustic emitter and an acoustic receiver; deploying a first group of the plurality of seismic AUVs (201; 311, 312; 411; 511; 611) into the body of water and guiding the first group of seismic AUVs to a first plurality of seabed positions in at least one deployment line by using a first guidance system; deploying a second group of the plurality of seismic AUVs (203; 312, 313; 413; 513; 613) into the body of water, wherein the acoustic receiver of each of the second group (203; 312, 313; 413; 513) of AUVs is configured to receive acoustic signals emitted by the previously landed seismic AUVs; and guiding each of the second group (203; 312, 313; 413; 513; 613) of seismic AUVs to a second plurality of seabed positions in said at least one deployment line by using their respective acoustic receiver, based on acoustic signals emitted by the acoustic emitters of the first group of seismic AUVs after landing on the seabed; the method being characterised in that each acoustic receiver comprises a phased array receiver.
An installation for molding a curd and serum mixture, the installation comprising: - a supplying device allowing to collect and distribute a volume of curd and serum to be molded, the supplying device comprising a hopper converging towards a lower distribution base provided with distribution openings, - molds inside which the curd and serum mixture is intended to be poured, and - a distribution plate pierced with orifices directly above which the molds are disposed during the molding, the supplying device being movable horizontally with respect to the distribution plate in a direction of displacement, the installation being characterized in that the supplying device comprises a connection plate disposed at least in part around the base of the hopper and arranged to be in contact with the distribution plate during the molding of the curd and serum mixture in the molds, the installation being characterized in that it further comprises an exhaust system to guide an air flow expelled by a mold during its filling towards at least one adjacent mold and downstream relative to the direction of displacement of the supplying device. - a supplying device allowing to collect and distribute a volume of curd and serum to be molded, the supplying device comprising a hopper converging towards a lower distribution base provided with distribution openings, - molds inside which the curd and serum mixture is intended to be poured, and - a distribution plate pierced with orifices directly above which the molds are disposed during the molding, the supplying device being movable horizontally with respect to the distribution plate in a direction of displacement,
System (100, 200) for cleaning workpieces (102, 104, 106, 202, 204, 206), having at least one cleaning station (210, 212, 214) which has a cleaning device (218, 240) which is configured for the application of a cleaning fluid (116, 132) to a workpiece (104, 106, 204), having a device (152, 252) for detecting initial soiling (S 1) of workpieces fed to the at least one cleaning station (210, 212, 214), before the cleaning, having a device (154, 254) for detecting residual soiling (S 2) of workpieces after the cleaning in the at least one cleaning station, and having a computer (170, 270) which is connected to the device (152, 252) for detecting initial soiling (S 1) and to the device (154, 252) for detecting residual soiling (S 2), characterized in that the device (152, 252) for detecting initial soiling (S 1) and the device (154, 254) for detecting residual soiling determines a dirt particle load in a test volume by a measuring device of a cleaning fluid which is circulated for rinsing a workpiece (104, 108, 204, 208) in a cleaning section (110, 210, 114, 214), wherein the computer (170, 270) determines a system malfunction from continuous comparison of the initial soiling (S 1) of workpieces with a first threshold value (S 1S) and from continuous comparison with the residual soiling (S 2) of workpieces with a second threshold value (S 2S), if the continuously determined residual soiling (S 2) for successive workpieces (108, 208) remains essentially the same and continuously exceeds the second threshold value (S 2S) with an essentially constant absolute value (ΔS 2S).
Process for identifying by mass spectrometry imaging a molecule of interest in a sample of interest selected from a biological tissue and a biological liquid, wherein: i) A spatial arrangement of a plurality of ions in the sample of interest from MSI data of said ions in said sample is analyzed for determining morphometric features defining geometrical shapes and mathematical dimensions associated with these geometrical shapes and/or texture features defining an arrangement of geometrical shapes with each other associated with said ions in said sample; ii) Morphometric and/or texture features associated with the plurality of ions in said sample of interest are compared with morphometric and/or texture data associated with a plurality of ions in a reference sample; iii) At least one characteristic ion of the sample is identified, which presents different morphometric and/or texture features compared to the ones it has in the reference sample; iv) The molecule corresponding to said ion identified in step iii) is identified. i) A spatial arrangement of a plurality of ions in the sample of interest from MSI data of said ions in said sample is analyzed for determining morphometric features defining geometrical shapes and mathematical dimensions associated with these geometrical shapes and/or texture features defining an arrangement of geometrical shapes with each other associated with said ions in said sample; ii) Morphometric and/or texture features associated with the plurality of ions in said sample of interest are compared with morphometric and/or texture data associated with a plurality of ions in a reference sample; iii) At least one characteristic ion of the sample is identified, which presents different morphometric and/or texture features compared to the ones it has in the reference sample; iv) The molecule corresponding to said ion identified in step iii) is identified.
A method for reduction of memory artifacts in a blanket during printing, comprising: making a first transfer of ink comprising particles dispersed in a carrier fluid from a photoconductor to a blanket in contact with the photoconductor, the blanket to cycle along a path, and the first transfer occurring at a first arc of the blanket path; making a second transfer of the ink from the blanket to a media in contact with the blanket, the second transfer occurring at a second arc of the blanket path; and characterized by utilizing a heat source located adjacent to a third arc of the blanket path to heat an external surface of the blanket, the heating to occur following the second transfer of the ink to evaporate remaining carrier fluid on the blanket. making a first transfer of ink comprising particles dispersed in a carrier fluid from a photoconductor to a blanket in contact with the photoconductor, the blanket to cycle along a path, and the first transfer occurring at a first arc of the blanket path; making a second transfer of the ink from the blanket to a media in contact with the blanket, the second transfer occurring at a second arc of the blanket path; and characterized by utilizing a heat source located adjacent to a third arc of the blanket path to heat an external surface of the blanket, the heating to occur following the second transfer of the ink to evaporate remaining carrier fluid on the blanket.
A bottle cap that is detachably attached to a bottle mouth of a bottle, the bottle cap comprising: a top plate part that covers an opening of the bottle mouth; a side wall part of a hollow cylinder that vertically extends from a rim of the top plate part, and is screwed to the bottle mouth; an inner cylinder part of a hollow cylinder that vertically extends in a space surrounded by the side wall part from an inner surface of the top plate part and forms a circular space with the side wall part; four cylinder projection parts that project from an outer surface of the top plate part; and an external wall part of a square tube that surrounds an outside of the side wall part, includes an inside surface that contacts an outer circumference surface of the side wall part, and includes four right-angled corner parts, wherein each of projection positions of the four projection parts is overlapped with a set position of the circular space, and each of axis centers of the four projection parts is set on a straight line connecting a center of the top plate part and the four right-angled corner parts characterized in that the four cylinder projection parts include a diameter having a same dimension as a width of the circular space in a radial direction, so that the cylinder projection parts of a lower bottle cap may be inserted in the annular space of an upper bottle cap when the bottle caps are stacked in axial direction. a top plate part that covers an opening of the bottle mouth; a side wall part of a hollow cylinder that vertically extends from a rim of the top plate part, and is screwed to the bottle mouth; an inner cylinder part of a hollow cylinder that vertically extends in a space surrounded by the side wall part from an inner surface of the top plate part and forms a circular space with the side wall part; four cylinder projection parts that project from an outer surface of the top plate part; and an external wall part of a square tube that surrounds an outside of the side wall part, includes an inside surface that contacts an outer circumference surface of the side wall part, and includes four right-angled corner parts, wherein each of projection positions of the four projection parts is overlapped with a set position of the circular space, and each of axis centers of the four projection parts is set on a straight line connecting a center of the top plate part and the four right-angled corner parts characterized in that the four cylinder projection parts include a diameter having a same dimension as a width of the circular space in a radial direction, so that the cylinder projection parts of a lower bottle cap may be inserted in the annular space of an upper bottle cap when the bottle caps are stacked in axial direction.
Soil working roller for a soil processing machine comprising a roller body, rotatable about a roller axis of rotation, with a support structure for rotatable mounting of the roller body and with a support sheath supported radially outwardly on the support structure, further comprising a working sheath, which contacts a support sheath outer side and provides a working exterior of the soil working roller, with a plurality of working sheath segments, following one another in the circumferential direction, wherein each working sheath segment has a segment shell, characterized in that on each segment shell on a segment shell inner side facing the support sheath outer side of the support sheath or/and supported at the support sheath outer side, a plurality of radially inwardly projecting fastening means are fixedly arranged, and that a fastening means through opening is provided in the support sheath in association with each fastening means fixedly arranged on one of the segment shells, and that each fastening means engaging through a fastening means through opening projects on a support sheath inner side of the support sheath for fixing to the roller body.
A computer-implemented method comprising: receiving, from each of one or more autonomous vehicles within a fleet of autonomous vehicles, an autonomously generated information report relating to driving conditions within an environment of the autonomous vehicle along with autonomously collected sensor data collected by the autonomous vehicle from the environment; validating some of the information reports based at least in part on the sensor data, wherein validating a given one of the information reports received from the one or more autonomous vehicles comprises validating the given information report using the sensor data collected by the one of the one or more autonomous vehicles and received along with the given information report; combining validated information reports into a driving information map; periodically filtering the driving information map to remove outdated information reports; and providing portions of the driving information map to autonomous vehicles within the fleet of autonomous vehicles. receiving, from each of one or more autonomous vehicles within a fleet of autonomous vehicles, an autonomously generated information report relating to driving conditions within an environment of the autonomous vehicle along with autonomously collected sensor data collected by the autonomous vehicle from the environment; validating some of the information reports based at least in part on the sensor data, wherein validating a given one of the information reports received from the one or more autonomous vehicles comprises validating the given information report using the sensor data collected by the one of the one or more autonomous vehicles and received along with the given information report; combining validated information reports into a driving information map; periodically filtering the driving information map to remove outdated information reports; and providing portions of the driving information map to autonomous vehicles within the fleet of autonomous vehicles.
Elementary structure for a linear infrastructure of guided systems, said elementary structure being intended to be arranged adjacently to another similar elementary structure, comprising: - a prefabricated slab having an upper surface, a lower surface and four lateral edges, said slab being configured to receive, on the upper surface, rails for a railway-guided system and/or running planes for a tyre-guided system, - an envelope arranged and fastened by a mechanical assembly or by adhesive bonding at least below the lower surface of the slab, the envelope being made of a polyurethane material. - a prefabricated slab having an upper surface, a lower surface and four lateral edges, said slab being configured to receive, on the upper surface, rails for a railway-guided system and/or running planes for a tyre-guided system, - an envelope arranged and fastened by a mechanical assembly or by adhesive bonding at least below the lower surface of the slab, the envelope being made of a polyurethane material.
A feed-water distributing system for a nuclear power plant, comprising at least two feed-water distributers which are arranged within a reactor pressure vessel, wherein each feed-water distributer • has exactly one annular main body with an inner channel, • has at least one fill socket which is fluidically connected to the inner channel via at least one fill opening, and • has a plurality of outlet nozzles which are fluidically connected to the inner channel, and each of the fill sockets of one feed-water distributer is fluidically connected to each outlet nozzle of said feed-water distributer. • has exactly one annular main body with an inner channel, • has at least one fill socket which is fluidically connected to the inner channel via at least one fill opening, and • has a plurality of outlet nozzles which are fluidically connected to the inner channel,
A compound of formula wherein: R1 is a group -NR a R b or -OR a and R2 is -NH 2, -NHCOR c, -NHCONHR c, -NHSO 2 R c, -C = CR d or R d wherein R a, R b, R c and R d, the same or different, are each independently hydrogen or a group optionally further substituted, selected from straight or branched C 1 -C 6 alkyl, C 2 -C 6 alkenyl or C 2 -C 6 alkynyl, C 3 -C 6 cycloalkyl, cycloalkyl C 1 -C 6 alkyl, heterocyclyl,,heterocyclyl C 1 -C 6 alkyl, aryl, aryl C 1 -C 6 alkyl, heteroaryl and heteroaryl C 1 -C 6 alkyl, or R a and R b, taken together with the nitrogen atom to which they are bonded, may form an optionally substituted 3 to 7 membered heterocyclyl or heteroaryl, optionally containing one additional heteroatom orheteroatomic group selected from S, O, N or NH, and pharmaceutically acceptable salts thereof. R1 is a group -NR a R b or -OR a and R2 is -NH 2, -NHCOR c, -NHCONHR c, -NHSO 2 R c, -C = CR d or R d wherein R a, R b, R c and R d, the same or different, are each independently hydrogen or a group optionally further substituted, selected from straight or branched C 1 -C 6 alkyl, C 2 -C 6 alkenyl or C 2 -C 6 alkynyl, C 3 -C 6 cycloalkyl, cycloalkyl C 1 -C 6 alkyl, heterocyclyl,,heterocyclyl C 1 -C 6 alkyl, aryl, aryl C 1 -C 6 alkyl, heteroaryl and heteroaryl C 1 -C 6 alkyl, or R a and R b, taken together with the nitrogen atom to which they are bonded, may form an optionally substituted 3 to 7 membered heterocyclyl or heteroaryl, optionally containing one additional heteroatom orheteroatomic group selected from S, O, N or NH, and pharmaceutically acceptable salts thereof.