mhurhangee/ep-ind-claims huggingface dataset:
A vehicle body structure member molded by a die, the vehicle body structure member comprising: a general portion constituting a main part of the vehicle body structure member; ribs provided in a standing manner from the general portion; and thickened portions (93, 94, 96) provided in a standing manner from the general portion, each of the thickened portions (93, 94, 96) being thicker than each of the ribs, wherein the vehicle body structure member is disposed along a vehicle front-rear direction; the vehicle body structure member has an arch shape curving along a vehicle up-down direction or curving along a vehicle width direction; and the thickened portions (93, 94, 96) are provided in a bending portion on a large curvature side in the vehicle body structure member such that the thickened portions (93, 94, 96) are adjacent to each other, and wherein the thickened portions (93, 94) are ejector pin seats and are provided in adjacent manner along a curved portion being the bending portion on a large curvature side in the vehicle body structure member. a general portion constituting a main part of the vehicle body structure member; ribs provided in a standing manner from the general portion; and thickened portions (93, 94, 96) provided in a standing manner from the general portion, each of the thickened portions (93, 94, 96) being thicker than each of the ribs, wherein the vehicle body structure member is disposed along a vehicle front-rear direction; the vehicle body structure member has an arch shape curving along a vehicle up-down direction or curving along a vehicle width direction; and the thickened portions (93, 94, 96) are provided in a bending portion on a large curvature side in the vehicle body structure member such that the thickened portions (93, 94, 96) are adjacent to each other, and wherein the thickened portions (93, 94) are ejector pin seats and are provided in adjacent manner along a curved portion being the bending portion on a large curvature side in the vehicle body structure member.
A DC motor for driving components of a motor vehicle comprising a housing which radially surrounds a stator and a rotor of the DC motor and which is produced from an electrically conductive material, a bearing shield which axially bounds the DC motor and out of the centre of which a drive shaft of the DC motor projects, and out of which two connection contacts for supplying voltage to the DC motor project, wherein the bearing shield is produced from an electrically non-conductive material, a printed circuit board on which electronic components (56, 58) for interference-suppression are arranged and which has a central opening through which the drive shaft of the DC motor projects and which has two plug-through openings through which the connection contacts of the DC motor project, and means for producing an earth connection of the printed circuit board characterized in that as means for producing the earth connection of the printed circuit board, a metal sheet is arranged axially between the printed circuit board having the electronic components (56, 58) for interference-suppression and the bearing shield, said metal sheet having a first contact element (20; 22) for connection to the housing and having a second contact element for connection to conductor paths of the printed circuit board.
Pipe connection kit consisting of a pipe connection element and at least one adapter piece (15, 16, 56), each made of a thermoplastic material, wherein the pipe connetion element has a base body comprising at least two connetion sleeves (2, 3, 4) with an axis, with each of the connection sleeves (2, 3, 4) having a respective free end and a circular cross-sectional shape, wherein the at least one adapter piece (15, 16, 56) has a spigot end (19, 20, 57) adapted to the connection sleeve (2, 3, 4) and a sleeve (21, 22, 59) for receiving a line (17, 18, 60, 17', 18'), wherein the spigot end (19, 20, 57) of the adapter piece (15, 16, 56) has means for holding at least one seal (42, 43) to provide sealing between the connection sleeve (2, 3, 4) and the respective spigot end (19, 20, 57) of the at least one adapter piece (15, 16, 56), characterised in that the spigot end (19, 20, 57) of the respective adapter piece (15, 16, 56) has at least one pair of locking pins arranged diametrically opposite one another, the locking pins having a radius R62 that corresponds to the distance of their respective end from the axis, and that the respective connection sleeve (2, 3, 4) has locking openings (63, 63') adapted to the locking pins, the locking openings (63, 63') being engaged by the locking pins, that an insertion groove runs from the free end of the connection sleeve (2, 3, 4) to the respective locking opening (63, 63'), that the radius R61 of the respective insertion groove at the free end of the connection sleeve (2, 3, 4) in relation to the radius R62 of the locking pin extending relative to the axis is such that R61 >= R62, that the radius r61 of the respective insertion groove at the locking opening (63, 63') in relation to the radius R62 of the respective locking pin is such that r61 < R62, that the connection sleeve (2, 3, 4) is deformable slightly ovally by the locking pins when inserting the adapter piece (15, 16, 56), and that the connection sleeve (2, 3, 4) is elastically deformable back into its circular cross-sectional shape as soon as the locking pins have engaged the respective locking openings (63, 63').
A method for purifying a polypeptide from a composition comprising the polypeptide and one or more contaminants, said method comprising a) loading the composition onto a mixed mode, an anion exchange, a hydrophobic interaction, or an affinity chromatography material in at 20-times the dynamic binding capacity of the chromatography material for the polypeptide using a loading buffer, wherein the partition coefficient of the chromatography material for the polypeptide is greater than 30, b) eluting the polypeptide from the chromatography material under conditions wherein the one or more contaminants remain bound to the chromatography material using an elution buffer, wherein the elution buffer has a conductivity less than the conductivity of the loading buffer and c) pooling fractions comprising the polypeptide in the chromatography effluent from steps a) and b). a) loading the composition onto a mixed mode, an anion exchange, a hydrophobic interaction, or an affinity chromatography material in at 20-times the dynamic binding capacity of the chromatography material for the polypeptide using a loading buffer, wherein the partition coefficient of the chromatography material for the polypeptide is greater than 30, b) eluting the polypeptide from the chromatography material under conditions wherein the one or more contaminants remain bound to the chromatography material using an elution buffer, wherein the elution buffer has a conductivity less than the conductivity of the loading buffer and c) pooling fractions comprising the polypeptide in the chromatography effluent from steps a) and b).
A method for vicarious polarimetric calibration of a remote sensor, comprising: receiving at the sensor solar radiation reflected from a plurality of reflective mirrors, wherein each of the plurality of mirrors has a known reflectance ρ p for a parallel component of radiation that is different from and greater than a known reflectance ρ s for a perpendicular component of radiation whereby reflected radiation from each of the plurality of mirrors is polarized; determining, for each of the plurality of reflective mirrors, the degree of linear polarization and the angle of linear polarization of the reflected radiation received at the sensor; calculating the degree of linear polarization and the angle of linear polarization for each of the plurality of mirrors from the known reflectance components of the respective mirror and the elevation and azimuth of the source of radiation and the remote sensor, the degree of linear polarization 'DOLP' being calculated as DOLP = ( ρ s - ρ p)/( ρ s + ρ p); and determining, for each of the plurality of reflective mirrors, a polarimetric validation metric based on comparing the calculated degree of linear polarization and the angle of linear polarization with the determined degree of linear polarization and the angle of linear polarization of the reflected radiation. receiving at the sensor solar radiation reflected from a plurality of reflective mirrors, wherein each of the plurality of mirrors has a known reflectance ρ p for a parallel component of radiation that is different from and greater than a known reflectance ρ s for a perpendicular component of radiation whereby reflected radiation from each of the plurality of mirrors is polarized; determining, for each of the plurality of reflective mirrors, the degree of linear polarization and the angle of linear polarization of the reflected radiation received at the sensor; calculating the degree of linear polarization and the angle of linear polarization for each of the plurality of mirrors from the known reflectance components of the respective mirror and the elevation and azimuth of the source of radiation and the remote sensor, the degree of linear polarization 'DOLP' being calculated as DOLP = ( ρ s - ρ p)/( ρ s + ρ p); and determining, for each of the plurality of reflective mirrors, a polarimetric validation metric based on comparing the calculated degree of linear polarization and the angle of linear polarization with the determined degree of linear polarization and the angle of linear polarization of the reflected radiation.
A system for body tissue ablation, the system comprising: a generator, configured to generate an ablation signal and to provide the ablation signal to an ablation probe that is in contact with tissue; an irrigation module, configured to deliver irrigation fluid to the ablation probe, for applying the irrigation fluid in a vicinity of the tissue while the ablation signal is applied to the tissue; and a processor, configured to: receive from the ablation probe signals indicative of an estimated instantaneous contact force that is exerted by the ablation probe against the tissue; characterized in that the processor is further configured to: control the irrigation module to adapt a flow rate of the irrigation fluid responsively to the estimated instantaneous contact force by commanding the irrigation module to increase or decrease the flow rate responsively to a respective estimated increase or decrease in the instantaneous contact force; and wherein if the instantaneous contact force increases, the processor is configured to direct the irrigation module to increase the flow rate so that a rate of heat removal by irrigation matches an increase in deposited heat due to an increase in instantaneous contact force. a generator, configured to generate an ablation signal and to provide the ablation signal to an ablation probe that is in contact with tissue; an irrigation module, configured to deliver irrigation fluid to the ablation probe, for applying the irrigation fluid in a vicinity of the tissue while the ablation signal is applied to the tissue; and a processor, configured to: receive from the ablation probe signals indicative of an estimated instantaneous contact force that is exerted by the ablation probe against the tissue; characterized in that the processor is further configured to: control the irrigation module to adapt a flow rate of the irrigation fluid responsively to the estimated instantaneous contact force by commanding the irrigation module to increase or decrease the flow rate responsively to a respective estimated increase or decrease in the instantaneous contact force; and wherein if the instantaneous contact force increases, the processor is configured to direct the irrigation module to increase the flow rate so that a rate of heat removal by irrigation matches an increase in deposited heat due to an increase in instantaneous contact force. control the irrigation module to adapt a flow rate of the irrigation fluid responsively to the estimated instantaneous contact force by commanding the irrigation module to increase or decrease the flow rate responsively to a respective estimated increase or decrease in the instantaneous contact force; and wherein if the instantaneous contact force increases, the processor is configured to direct the irrigation module to increase the flow rate so that a rate of heat removal by irrigation matches an increase in deposited heat due to an increase in instantaneous contact force.
A system for treating food products, comprising: - at least one machine comprising: a first container for treating a food product; at least one temperature sensor adapted to detect a temperature inside the container; a processing and control unit, operatively connected to the at least one sensor to receive the temperature detected and comprising a module for receiving and transmitting at least the temperature detected; characterised in that comprises:- a plurality of processing nodes defining an information write module configured to write to a distributed architecture database of the distributed ledger type information indicating at least the temperature received from the receiving and transmitting module; - a memory containing data which indicate temperature intervals conforming to one or more standards according to HACCP procedures; wherein the processing and control unit is configured to extract one or more temperature intervals from the set of temperature intervals, chosen as a function of the state and settings of the machine for treating food products, and to check whether the temperature received from the at least one temperature sensor falls within the one or more intervals extracted and, if the temperature is outside the one or more intervals extracted, to generate an alarm message. - at least one machine comprising: a first container for treating a food product; at least one temperature sensor adapted to detect a temperature inside the container; a processing and control unit, operatively connected to the at least one sensor to receive the temperature detected and comprising a module for receiving and transmitting at least the temperature detected; characterised in that comprises:- a plurality of processing nodes defining an information write module configured to write to a distributed architecture database of the distributed ledger type information indicating at least the temperature received from the receiving and transmitting module; a first container for treating a food product; at least one temperature sensor adapted to detect a temperature inside the container; a processing and control unit, operatively connected to the at least one sensor to receive the temperature detected and comprising a module for receiving and transmitting at least the temperature detected; characterised in that comprises:- a plurality of processing nodes defining an information write module configured to write to a distributed architecture database of the distributed ledger type information indicating at least the temperature received from the receiving and transmitting module; - a memory containing data which indicate temperature intervals conforming to one or more standards according to HACCP procedures;
A method to display mobile device contexts, the method comprising: displaying a first context in a user interface of a mobile device based on first device platform information, the first context including a first arrangement of a) information, b) graphics, and c) application icons that are associated with the first device platform information, wherein device platform information includes information that is detected by the mobile device; determining that second device platform information received after the first device platform information corresponds to a second context, the second context being different from the first context and including a second arrangement of a) information, b) graphics, and c) application icons that are associated with the second device platform information; determining a first weight for the first context based on the second device platform information matching first rules specifying conditions when to display the first context; determining a second weight for the second context based on the second device platform information matching second rules specifying conditions when to display the second context; displaying the second context in the user interface replacing the first context without prompting a user of the mobile device based on the second weight being greater than the first weight. displaying a first context in a user interface of a mobile device based on first device platform information, the first context including a first arrangement of a) information, b) graphics, and c) application icons that are associated with the first device platform information, wherein device platform information includes information that is detected by the mobile device; determining that second device platform information received after the first device platform information corresponds to a second context, the second context being different from the first context and including a second arrangement of a) information, b) graphics, and c) application icons that are associated with the second device platform information; determining a first weight for the first context based on the second device platform information matching first rules specifying conditions when to display the first context; determining a second weight for the second context based on the second device platform information matching second rules specifying conditions when to display the second context; displaying the second context in the user interface replacing the first context without prompting a user of the mobile device based on the second weight being greater than the first weight.
An absorptive dressing for applying to a wound bed including a smooth muscle fistula in a negative pressure treatment system, the absorptive dressing comprising: a wound-side layer comprising a first foam adapted to be placed directly against the wound bed and to contact smooth muscle without causing substantial cellular disruption or damage in the negative pressure environment, the first foam comprising an ester-based material comprising pores with a width of about 0.1μm to about 50μm; and an intermediate layer adjacent the wound-side layer and comprising a second foam having pores larger than the pores of the wound-side layer, to direct a flow of wound fluid from the wound bed; and an occlusive layer adjacent the intermediate layer and opposite the wound-side layer, the occlusive layer having an opening. a wound-side layer comprising a first foam adapted to be placed directly against the wound bed and to contact smooth muscle without causing substantial cellular disruption or damage in the negative pressure environment, the first foam comprising an ester-based material comprising pores with a width of about 0.1μm to about 50μm; and an intermediate layer adjacent the wound-side layer and comprising a second foam having pores larger than the pores of the wound-side layer, to direct a flow of wound fluid from the wound bed; and
Uniflow-scavenged, opposed-piston engine having first and second rotatable crankshafts (32, 30), one or more cylinders each with a first piston interconnected by a first connecting rod (40, 50) with the first crankshaft and a second piston opposing the first piston and interconnected by a second connecting rod (40, 50) with the second crankshaft, a first rocking journal bearing situated between the first piston and the first connecting rod and including a plurality of sets of bearing surfaces (J 1,J 1 '; J 2,J 2 '), a second rocking journal bearing situated between the second piston and the second connecting rod and including a plurality of sets of opposed bearing surfaces (J 1,J 1 '; J 2,J 2 '), each rocking journal bearing having a respective load transfer point at which a compressive load transfer occurs from one set of bearing surfaces to another set of opposed bearing surfaces during successive cycles of engine operation, wherein: the first crankshaft is positioned so as to lead the second crankshaft during engine operation by a crank angle x; characterized in that: the load transfer point of the first rocking journal bearing being selected such that a load transfer from one set of opposed bearing surfaces to the another occurs during each cycle closely preceding the occurrence of a cyclic peak load; and, the load transfer point of the second rocking journal bearing being selected such that a load transfer from one set of opposed bearing surfaces to the another occurs during each cycle closely preceding the occurrence of the cyclic peak load to the same degree as the first rocking journal. the first crankshaft is positioned so as to lead the second crankshaft during engine operation by a crank angle x; characterized in that: the load transfer point of the first rocking journal bearing being selected such that a load transfer from one set of opposed bearing surfaces to the another occurs during each cycle closely preceding the occurrence of a cyclic peak load; and, the load transfer point of the second rocking journal bearing being selected such that a load transfer from one set of opposed bearing surfaces to the another occurs during each cycle closely preceding the occurrence of the cyclic peak load to the same degree as the first rocking journal. the load transfer point of the first rocking journal bearing being selected such that a load transfer from one set of opposed bearing surfaces to the another occurs during each cycle closely preceding the occurrence of a cyclic peak load; and, the load transfer point of the second rocking journal bearing being selected such that a load transfer from one set of opposed bearing surfaces to the another occurs during each cycle closely preceding the occurrence of the cyclic peak load to the same degree as the first rocking journal.
Operating device, in particular for an electronic household appliance, comprising: a cover plate having a user side facing toward a user, and an inner side facing away from the user, the cover plate defining an operating section and being configured to be at least partially elastically deformable and/or movable in this operating section; a carrier plate, which is arranged on a side of the cover plate facing away from the user side and at a distance from this plate; a sensor, which is provided on the carrier plate and is configured and arranged in such a way that it can detect a distance variation from the inner side of the cover plate in the region of the operating section of the cover plate; and a geometrically stable light guide element, which extends in a region outside the operating section of the cover plate from the cover plate to the carrier plate and is supported on one side against the carrier plate and on the other side against the cover plate, the cover plate comprising a signal section, which is configured to be at least partially light-transmissive, in the region of the light guide element. a cover plate having a user side facing toward a user, and an inner side facing away from the user, the cover plate defining an operating section and being configured to be at least partially elastically deformable and/or movable in this operating section; a carrier plate, which is arranged on a side of the cover plate facing away from the user side and at a distance from this plate; a sensor, which is provided on the carrier plate and is configured and arranged in such a way that it can detect a distance variation from the inner side of the cover plate in the region of the operating section of the cover plate; and a geometrically stable light guide element, which extends in a region outside the operating section of the cover plate from the cover plate to the carrier plate and is supported on one side against the carrier plate and on the other side against the cover plate, the cover plate comprising a signal section, which is configured to be at least partially light-transmissive, in the region of the light guide element.