mhurhangee/patent-ind-claim-en huggingface dataset:
A sensor system, comprising: a first magnetic field sensing element and a magnet, the first magnetic field sensing element comprising first and second segments wherein the first and second segments are positioned, with respect to the magnet, at locations of opposite magnetic field bias, with respect to a sensing direction of the segments, provided by the magnet; and a processing module configured to receive signals from the first and second segments and further configured to combine the signals from the first and second segments to compensate for positional misalignment of the first magnetic field sensing element with respect to a magnetic field provided by the magnet; characterized in that the misalignment is due to the first and second segments being located at substantially non-equal distances from the center of the magnetic field. a first magnetic field sensing element and a magnet, the first magnetic field sensing element comprising first and second segments wherein the first and second segments are positioned, with respect to the magnet, at locations of opposite magnetic field bias, with respect to a sensing direction of the segments, provided by the magnet; and a processing module configured to receive signals from the first and second segments and further configured to combine the signals from the first and second segments to compensate for positional misalignment of the first magnetic field sensing element with respect to a magnetic field provided by the magnet; characterized in that the misalignment is due to the first and second segments being located at substantially non-equal distances from the center of the magnetic field.
A computer-implemented method for training a machine learning algorithm, the method comprising: receiving a first input multichannel audio signal, generating , using the machine learning algorithm, an intermediate audio signal based on the first input multichannel audio signal, wherein the intermediate audio signal comprises one or more audio objects, and wherein each of the audio objects comprises an audio track and position metadata, rendering the intermediate audio signal into a first output multichannel audio signal, and improving the machine learning algorithm based on a difference between the first input multichannel audio signal and the first output multichannel audio signal. receiving a first input multichannel audio signal, generating , using the machine learning algorithm, an intermediate audio signal based on the first input multichannel audio signal, wherein the intermediate audio signal comprises one or more audio objects, and wherein each of the audio objects comprises an audio track and position metadata, rendering the intermediate audio signal into a first output multichannel audio signal, and improving the machine learning algorithm based on a difference between the first input multichannel audio signal and the first output multichannel audio signal.
Thermoplastic moulding composition M consisting of: (A) 1 to 100 wt%, especially 2 to 80 wt%, of an antimicrobially active polymer component A, comprising (A1) 0.2 to 25 wt%, based on the total mass of polymer component A, of polyguanidine as component A1, and (A2) 75-99.8 wt%, based on the total mass of polymer component A, of polymer A2, comprising at least one functional group which is able to react with A1, the polymer A2 being a copolymer of: A21: maleic anhydride, maleimide and/or (meth)acrylic acid, and A22: one or more of the monomers styrene, acrylonitrile, (meth)acrylate, and A23: optionally one or more further monomers copolymerizable with A21 and A22; (B) 0 to 99 wt%, especially 20 to 98 wt%, of a further thermoplastic polymer component B; and (C) 0 to 40 wt%, especially 0.2 to 15 wt%, of one or more additives or auxiliaries as component C; where the sum total of the wt% of components A, B and C together is 100 wt%. (A) 1 to 100 wt%, especially 2 to 80 wt%, of an antimicrobially active polymer component A, comprising (A1) 0.2 to 25 wt%, based on the total mass of polymer component A, of polyguanidine as component A1, and (A2) 75-99.8 wt%, based on the total mass of polymer component A, of polymer A2, comprising at least one functional group which is able to react with A1, the polymer A2 being a copolymer of: A21: maleic anhydride, maleimide and/or (meth)acrylic acid, and A22: one or more of the monomers styrene, acrylonitrile, (meth)acrylate, and A23: optionally one or more further monomers copolymerizable with A21 and A22; (A1) 0.2 to 25 wt%, based on the total mass of polymer component A, of polyguanidine as component A1, and (A2) 75-99.8 wt%, based on the total mass of polymer component A, of polymer A2, comprising at least one functional group which is able to react with A1, the polymer A2 being a copolymer of: A21: maleic anhydride, maleimide and/or (meth)acrylic acid, and A22: one or more of the monomers styrene, acrylonitrile, (meth)acrylate, and A23: optionally one or more further monomers copolymerizable with A21 and A22; A21: maleic anhydride, maleimide and/or (meth)acrylic acid, and A22: one or more of the monomers styrene, acrylonitrile, (meth)acrylate, and A23: optionally one or more further monomers copolymerizable with A21 and A22; (B) 0 to 99 wt%, especially 20 to 98 wt%, of a further thermoplastic polymer component B; and (C) 0 to 40 wt%, especially 0.2 to 15 wt%, of one or more additives or auxiliaries as component C;
A synchronizer for a gear transmission, comprising a synchronizer body which is associated with a transmission shaft, a first and a second synchronizer ring which are associated with a first and a second transmission gear , respectively, and can synchronize the rotational speeds of the synchronizer body and the corresponding transmission gear during a shifting operation, a sliding sleeve which is non-rotatably arranged on the synchronizer body and can be shifted from a neutral position in opposite directions into a first and a second shifting position in order to non-rotatably couple the first and, respectively, the second transmission gear with the synchronizer body , and at least one thrust piece which is shiftably arranged on the synchronizer body and can exert an axial compressive force on the corresponding synchronizer ring during a shifting operating, wherein an elastic actuating element is provided, which is active between the sliding sleeve and the thrust piece , characterized in that a detent recess for the neutral position as well as a release contour are provided on the sliding sleeve , wherein the release contour can cooperate with the actuating element such that when the sliding sleeve is shifted for being engaged with one of the transmission gears , the thrust piece is urged away from the corresponding synchronizer ring , and wherein the release contour has an axial length which is not more than twice the idle stroke of the sliding sleeve between the neutral position and the position in which the corresponding synchronizer ring presses against a friction surface associated with it.
A biodegradable laminate comprising: an aliphatic polyester-based resin layer; a bonding layer; and a polyvinyl alcohol-based resin layer laminated on at least one surface of the aliphatic polyester-based resin layer with the bonding layer therebetween, wherein the aliphatic polyester-based resin layer includes an aliphatic polyester-based resin composition containing an aliphatic polyester-based resin (A) including a repeating unit derived from an aliphatic diol and a repeating unit derived from an aliphatic dicarboxylic acid as main constituent units, a polyhydroxyalkanoate (B) including a 3-hydroxybutyrate unit as a main constituent unit, and an inorganic filler (C), and wherein the ratio of a succinic acid unit to all dicarboxylic acid is from 5% by mol to 100% by mole.
Method for amplification of a single copy DNA target nucleic acid from one single living eucaryotic cell of human, animal or plant origin, comprising the steps of a) transfering a liquid sample with a first volume comprising the single living eucaryotic cell into a a well of a microtiter plate, b) adding to said well a PCR reaction buffer with a second volume, whereas said second volume is at least 2x as large as said first volume and the final volume does not exceed 25 μl, said buffer comprising at least one pair of amplification primers, a thermostable DNA polymerase and dNTPs, c) incubating said well for at least 30 seconds to not more than 15 minutes at at least 90°C, thereby lysing the living cell in the PCR reaction buffer without any prior addition of a specific lysis step reagent and activating the activity of said thermostable DNA polymerase, d) amplifying said target by means of a polymerase chain reaction with a thermostable DNA dependent DNA polymerase without performance of an intermediate purification step, wherein steps a) to d) are performed within the same reaction vessel. a) transfering a liquid sample with a first volume comprising the single living eucaryotic cell into a a well of a microtiter plate, b) adding to said well a PCR reaction buffer with a second volume, whereas said second volume is at least 2x as large as said first volume and the final volume does not exceed 25 μl, said buffer comprising at least one pair of amplification primers, a thermostable DNA polymerase and dNTPs, c) incubating said well for at least 30 seconds to not more than 15 minutes at at least 90°C, thereby lysing the living cell in the PCR reaction buffer without any prior addition of a specific lysis step reagent and activating the activity of said thermostable DNA polymerase, d) amplifying said target by means of a polymerase chain reaction with a thermostable DNA dependent DNA polymerase without performance of an intermediate purification step,
Composite comprising at least one reinforcing element exhibiting a surface comprising an alloy of copper and zinc, said reinforcing element being embedded in an elastomeric composition based on at least a diene elastomer, a reinforcing filler, a sulfur crosslinking system and a phenol/aldehyde resin based: - on at least one aromatic polyphenol comprising at least one aromatic nucleus bearing at least two hydroxyl functions in the meta position with respect to each other, the two positions ortho to at least one of the hydroxyl functions being unsubstituted, and - on at least one dialdehyde compound comprising two aldehyde functions, in which the content of phenol/aldehyde resin is less than 10 phr, preferably less than 6 phr. - on at least one aromatic polyphenol comprising at least one aromatic nucleus bearing at least two hydroxyl functions in the meta position with respect to each other, the two positions ortho to at least one of the hydroxyl functions being unsubstituted, and - on at least one dialdehyde compound comprising two aldehyde functions,
An apparatus comprising: a network interface ; at least one processor to: establish communication with a network terminal access point, TAP , of a first network , each node of the first network having an internet protocol, IP, address; establish communication with at least one node of a second network , at least one node in the second network corresponding to a node in the first network ; receive a first packet and a second packet from the network TAP of the first network , each packet comprising a source IP address indicating a respective node in the first network from where each packet originates; and launch each the first packet and the second packet from a respective node in the second network that corresponds to the source IP address of each packet , characterized in that respective IP addresses of corresponding nodes in the first and second network are equal and the received packets comprise a timestamp and are launched in a sequence according to the timestamp of each packet , wherein an internal clock of a node in the first network is synchronized with an internal clock of a node in the second network . establish communication with a network terminal access point, TAP , of a first network , each node of the first network having an internet protocol, IP, address; establish communication with at least one node of a second network , at least one node in the second network corresponding to a node in the first network ; receive a first packet and a second packet from the network TAP of the first network , each packet comprising a source IP address indicating a respective node in the first network from where each packet originates; and launch each the first packet and the second packet from a respective node in the second network that corresponds to the source IP address of each packet , characterized in that respective IP addresses of corresponding nodes in the first and second network are equal and the received packets comprise a timestamp and are launched in a sequence according to the timestamp of each packet , wherein an internal clock of a node in the first network is synchronized with an internal clock of a node in the second network .
Method for determining a vehicle position of a vehicle (F) having at least one sensor unit , comprising the steps of: (a) capturing (S1) sensor data from a driving surface driven on by the vehicle (F) by means of the at least one sensor unit of the vehicle; (b) extracting (S2) surface features of the driving surface from the captured sensor data or from occupancy grids computed on the basis of the sensor data; (bb) transmitting the captured sensor data or the extracted surface features via a wireless interface of the vehicle to a backend server (BES); (c) determining (S3) the current vehicle position of the vehicle (F) on the basis of the extracted surface features by means of a feature map, wherein the extracted surface features of the driving surface are compared with surface features taken from the feature map in order to determine the current vehicle position of the vehicle (F), characterized in that the surface features comprise surface markings and general edge information, wherein the general edge information comprises information about edges from: delineator posts, crash barriers, houses, tunnels and bridges. (a) capturing (S1) sensor data from a driving surface driven on by the vehicle (F) by means of the at least one sensor unit of the vehicle; (b) extracting (S2) surface features of the driving surface from the captured sensor data or from occupancy grids computed on the basis of the sensor data; (bb) transmitting the captured sensor data or the extracted surface features via a wireless interface of the vehicle to a backend server (BES); (c) determining (S3) the current vehicle position of the vehicle (F) on the basis of the extracted surface features by means of a feature map, wherein the extracted surface features of the driving surface are compared with surface features taken from the feature map in order to determine the current vehicle position of the vehicle (F),
Method for manufacturing inductively heatable aerosol-forming rods , the method comprising the steps of: - supplying a first substrate web and a second substrate web separately to a continuous multiple-stage rod-forming process, the multiple-stage rod-forming process including at least a first and a subsequent second stage ; - supplying a continuous susceptor profile to the rod-forming process such as to pass through at least the second stage ; - passing the first and second substrate web separately through the first stage , thereby separately pre-gathering the first and second substrate web in a transverse direction with respect to a respective transport direction of the first and second substrate web through the first stage ; and - passing the susceptor profile and the pre-gathered first and second substrate web through the second stage , thereby jointly gathering the pre-gathered first and second substrate web into a rod shape around the susceptor profile , wherein the susceptor profile is longitudinally guided along at least an upstream section of the second stage . - supplying a first substrate web and a second substrate web separately to a continuous multiple-stage rod-forming process, the multiple-stage rod-forming process including at least a first and a subsequent second stage ; - supplying a continuous susceptor profile to the rod-forming process such as to pass through at least the second stage ; - passing the first and second substrate web separately through the first stage , thereby separately pre-gathering the first and second substrate web in a transverse direction with respect to a respective transport direction of the first and second substrate web through the first stage ; and - passing the susceptor profile and the pre-gathered first and second substrate web through the second stage , thereby jointly gathering the pre-gathered first and second substrate web into a rod shape around the susceptor profile , wherein the susceptor profile is longitudinally guided along at least an upstream section of the second stage .
A distraction apparatus for use with a lateral distractor strap , the distraction apparatus comprising a beam a wheel bracket coupled to a first end region of the beam a brake coupled to the wheel bracket , at least one wheel coupled to the wheel bracket , and an extension bar that extends and retracts relative to the beam and is positioned over the brake , the at least one wheel guiding movement of the extension bar relative to the beam during extension and retraction, the lateral distractor strap hanging downwardly from a first end of the extension bar , wherein application of a downward force to the lateral distractor strap forces the extension bar against the brake to prevent the extension bar from extending or retracting relative to the beam until the downward force is removed. a beam a wheel bracket coupled to a first end region of the beam a brake coupled to the wheel bracket , at least one wheel coupled to the wheel bracket , and an extension bar that extends and retracts relative to the beam and is positioned over the brake , the at least one wheel guiding movement of the extension bar relative to the beam during extension and retraction, the lateral distractor strap hanging downwardly from a first end of the extension bar , wherein application of a downward force to the lateral distractor strap forces the extension bar against the brake to prevent the extension bar from extending or retracting relative to the beam until the downward force is removed.
Industrial truck with a working hydraulics system which is supplied with pressure medium by way of a hydraulic pump , wherein the hydraulic pump is driven by an electric pump motor , characterized in that the electric pump motor has a stator with at least three phase windings for generating a rotary field and a rotor consisting of a magnetically soft material of high permeability, wherein the rotor has poles with a low magnetic reluctance in the orientation of the poles , wherein the electric pump motor is configured as a synchronous reluctance machine, and wherein the rotor has axial laminations , the open radial cut edges of which form the poles .
Sheet metal shelf , in particular shelf or drawer shelf, comprising two metal sheets spaced apart in parallel, and at least one reinforcing profile arranged between the two metal sheets and having at least two parallel-spaced profile legs , wherein one profile leg is adhered to one metal sheet by means of a double-sided adhesive tape strip , which extends in the profile direction of the reinforcing profile , and the other profile leg is either adhered to the other metal sheet also by means of a double-sided adhesive tape strip , which extends in the profile direction of the reinforcing profile , or is welded to the other metal sheet . two metal sheets spaced apart in parallel, and at least one reinforcing profile arranged between the two metal sheets and having at least two parallel-spaced profile legs , wherein one profile leg is adhered to one metal sheet by means of a double-sided adhesive tape strip , which extends in the profile direction of the reinforcing profile , and the other profile leg is either adhered to the other metal sheet also by means of a double-sided adhesive tape strip , which extends in the profile direction of the reinforcing profile , or is welded to the other metal sheet .
Vent cutter positioned in a processing line comprising grooves , wherein the vent cutter is provided with wheels that are guided in said grooves to drive respective parts of the vent cutter that are connected to said wheels up-and-down, wherein a rotatable cutter with at least a forward cutting edge for cutting tissue around a vent of poultry is drivingly connected to a first wheel , a centering pin inside the cutter with a thickened end portion for insertion into the vent prior to cutting is drivingly connected to a second wheel , and a clamping sleeve inside of the cutter and surrounding the centering pin is drivingly connected to a third wheel , wherein the grooves vary in height so as to effect that the respective parts of the vent cutter that connect to said wheels are concertedly, albeit in their own phasing, movable up-and-down and arranged to first introduce the centering pin with the thickened end portion into the vent , and then to progress the cutter until it is introduced into the poultry whilst the centering pin with the thickened end portion has remained in place of the vent of the suspended poultry , and then to advance the clamping sleeve after rotating the cutter for clamping the cut loose tissue between the clamping sleeve and the thickened end portion of the centering pin , and finally to retract the centering pin and the clamping sleeve while still clamping said tissue for severing the vent from the poultry , characterized in that the grooves are arranged to provide that the clamping sleeve is movable to a position with respect to the cutter in which the clamping sleeve shields the vent cutter from further cutting the poultry's tissue.
An airbag assembly comprising: a flexible housing ; an inflatable airbag cushion disposed within the flexible housing in a compressed configuration; an inflator to supply inflation gas to the inflatable airbag cushion , the inflator at least partially disposed within the flexible housing ; a mounting plate coupled to the flexible housing , the mounting plate comprising an attachment point to couple the airbag assembly to a reaction surface of a vehicle; characterized by a plurality of tabs wherein a first end of each tab couples to the airbag cushion and a second end of each tab extends through an aperture of the mounting plate whereby the second end of each tab is configured to one of: extend through the aperture of the mounting plate and to be disposed between the mounting plate and a portion of the housing ; and extend through the aperture of the mounting plate and an aperture of the housing and to be disposed between the housing and the reaction surface . a flexible housing ; an inflatable airbag cushion disposed within the flexible housing in a compressed configuration; an inflator to supply inflation gas to the inflatable airbag cushion , the inflator at least partially disposed within the flexible housing ; a mounting plate coupled to the flexible housing , the mounting plate comprising an attachment point to couple the airbag assembly to a reaction surface of a vehicle; characterized by a plurality of tabs wherein a first end of each tab couples to the airbag cushion and a second end of each tab extends through an aperture of the mounting plate whereby the second end of each tab is configured to one of: extend through the aperture of the mounting plate and to be disposed between the mounting plate and a portion of the housing ; and extend through the aperture of the mounting plate and an aperture of the housing and to be disposed between the housing and the reaction surface . extend through the aperture of the mounting plate and to be disposed between the mounting plate and a portion of the housing ; and extend through the aperture of the mounting plate and an aperture of the housing and to be disposed between the housing and the reaction surface .