mhurhangee/ep-ind-claims huggingface dataset:
An electroconductive paste composition comprising: metallic particles; an inorganic reaction system; and an organic vehicle; wherein the inorganic reaction system for the electroconductive paste composition comprises a lead containing matrix forming composition and a tellurium oxide additive, wherein the lead containing composition is between 5-95 wt. % of the inorganic reaction system, and the tellurium oxide additive is between 5-95 wt. % of the inorganic reaction system; wherein the following paste is disclaimed: a paste comprising: 85 wt. % (based on the paste) of silver particles; an inorganic reaction system comprising 3.1 wt. % (based on the paste) of lead containing glass frit containing overall 57.55 % PbO (based on the inorganic reaction system); 0.375 wt. % (based on the paste) tellurium dioxide additive; and 1-15 wt. % (based on the paste) of an organic vehicle. metallic particles; an inorganic reaction system; and an organic vehicle; wherein the inorganic reaction system for the electroconductive paste composition comprises a lead containing matrix forming composition and a tellurium oxide additive, wherein the lead containing composition is between 5-95 wt. % of the inorganic reaction system, and the tellurium oxide additive is between 5-95 wt. % of the inorganic reaction system; wherein the following paste is disclaimed: a paste comprising: 85 wt. % (based on the paste) of silver particles; an inorganic reaction system comprising 3.1 wt. % (based on the paste) of lead containing glass frit containing overall 57.55 % PbO (based on the inorganic reaction system); 0.375 wt. % (based on the paste) tellurium dioxide additive; and 1-15 wt. % (based on the paste) of an organic vehicle. 85 wt. % (based on the paste) of silver particles; an inorganic reaction system comprising 3.1 wt. % (based on the paste) of lead containing glass frit containing overall 57.55 % PbO (based on the inorganic reaction system); 0.375 wt. % (based on the paste) tellurium dioxide additive; and 1-15 wt. % (based on the paste) of an organic vehicle.
Coating for a cutting tool, with an anti-abrasion protection layer, which has a metallic crystalline structure, with a cover layer, which has a metallic crystalline structure, with a separation layer, which is applied at least to a section of the anti-abrasion protection layer and is arranged between the anti-abrasion protection layer and the cover layer and which reduces the adhesion of the cover layer on the anti-abrasion protection layer, characterised in that the separation layer is an oxide layer with at least one metal of a subgroup of the chemical periodic table of elements, and that the separation layer is of non-stoichiometric composition.
A method for determining a flight path for an aircraft system, the method being performed by a system (1000, 1100) comprising a processor (1001, 1101) and a memory (1003, 1103) containing instructions executable by said processor (1001, 1101), the method further comprising: analysing an intensity map relating to a three dimensional space, wherein the intensity map comprises an array of voxels, each voxel defining a volume in the three dimensional space; determining a probability of an encounter for a preferred flight path between a start point and an end point via one or more voxels in the three dimensional space, based on traffic intensity values of the one or more voxels along the preferred flight path; and selecting the preferred flight path if the probability of encounter is less than a first threshold value, characterised in that each voxel has a related traffic intensity value based on historical flight data through that voxel. analysing an intensity map relating to a three dimensional space, wherein the intensity map comprises an array of voxels, each voxel defining a volume in the three dimensional space; determining a probability of an encounter for a preferred flight path between a start point and an end point via one or more voxels in the three dimensional space, based on traffic intensity values of the one or more voxels along the preferred flight path; and selecting the preferred flight path if the probability of encounter is less than a first threshold value, characterised in that each voxel has a related traffic intensity value based on historical flight data through that voxel.
A high-purity silicon carbide single crystal substrate, at least comprising a silicon carbide single crystal substrate surface layer and a silicon carbide single crystal substrate main body layer; an intrinsic point defect concentration of the silicon carbide single crystal substrate surface layer is smaller than an intrinsic point defect concentration of the silicon carbide single crystal substrate main body layer; wherein the intrinsic point defect concentration of the silicon carbide single crystal substrate surface layer at room temperature is not higher than 1×10 13 cm -3, and the intrinsic point defect concentration of the silicon carbide single crystal substrate main body layer is 1×10 14 cm -3 to 1×10 16 cm -3; and the silicon carbide single crystal substrate main body layer has such an intrinsic point defect concentration that the silicon carbide single crystal substrate has a semi-insulation property.
A process for producing reclaimed water, comprising the operations of: in a mode of producing reclaimed water, putting ozone generated by an ozone generator into raw water to subject the raw water to ozone treatment; injecting a flocculant into the raw water after the ozone treatment; filtering the raw water by a separation membrane after the ozone treatment and the injection of the flocculant; intermittently setting a cleaning mode to put a larger quantity of cleaning ozone than in the mode of producing reclaimed water into the raw water so as to intermittently increase the concentration of a dissolved ozone, thereby cleaning the filtration membrane, wherein the method includes the further step of measuring a transmembrane pressure of a pressure difference between an upstream side and a downstream side of the separation membrane, and in the case where an increasing speed of the transmembrane pressure exceeds a predetermined value, the cleaning ozone is put into the raw water thereby to intermittently increase the concentration of the dissolved ozone. in a mode of producing reclaimed water, putting ozone generated by an ozone generator into raw water to subject the raw water to ozone treatment; injecting a flocculant into the raw water after the ozone treatment; filtering the raw water by a separation membrane after the ozone treatment and the injection of the flocculant; intermittently setting a cleaning mode to put a larger quantity of cleaning ozone than in the mode of producing reclaimed water into the raw water so as to intermittently increase the concentration of a dissolved ozone, thereby cleaning the filtration membrane,
A thermocouple temperature sensor (100, 200) comprising: a thermocouple having first and second conductors connected at a junction; a resistance temperature device having a first conductor and a second conductor, the first conductor of the resistance temperature device connected to the first conductor of the thermocouple; a first external conductor connected to the second conductor of the thermocouple, wherein the first external conductor is configured as a voltage sense conductor for the resistance temperature device and a voltage sense conductor for the thermocouple; a second external conductor connected to the first conductor of the thermocouple and the resistance temperature device, wherein the second external conductor is configured to conduct current that passes through the resistance temperature device, while configured as a voltage sense conductor for the thermocouple; and a third external conductor connected to the second conductor of the resistance temperature device, wherein the third external conductor is configured to conduct current that passes through the second conductor for the resistance temperature device. a thermocouple having first and second conductors connected at a junction; a resistance temperature device having a first conductor and a second conductor, the first conductor of the resistance temperature device connected to the first conductor of the thermocouple; a first external conductor connected to the second conductor of the thermocouple, wherein the first external conductor is configured as a voltage sense conductor for the resistance temperature device and a voltage sense conductor for the thermocouple; a second external conductor connected to the first conductor of the thermocouple and the resistance temperature device, wherein the second external conductor is configured to conduct current that passes through the resistance temperature device, while configured as a voltage sense conductor for the thermocouple; and a third external conductor connected to the second conductor of the resistance temperature device, wherein the third external conductor is configured to conduct current that passes through the second conductor for the resistance temperature device.
A DC current estimation method based on DC bus voltage comprising the following steps: outputting a DC bus voltage V 0 of a motor controller in a test environment, and calibrating a loss power P loss ( V 0) under said DC bus voltage V 0; calibrating and measuring a switch loss power P sw ( V 0) of the power module of said motor controller; calculating an AC current-related loss power P iacloss ( V 0) based on said loss power P loss ( V 0) and said switch loss power P sw ( V 0); in the actual operation environment of said motor and motor controller, obtaining an actual DC bus voltage V dc, and calculating a current switch loss power P sw ′ V dc; calculating a current loss power P loss ′ V dc based on the current switch loss power P sw ′ V dc and the AC current-related loss power P iacloss ( V 0); and calculating a current DC power P dc based on said current loss power P loss ( V dc) and a current AC power P ac, and then calculating a DC current i dc according to said DC bus voltage V dc. outputting a DC bus voltage V 0 of a motor controller in a test environment, and calibrating a loss power P loss ( V 0) under said DC bus voltage V 0; calibrating and measuring a switch loss power P sw ( V 0) of the power module of said motor controller; calculating an AC current-related loss power P iacloss ( V 0) based on said loss power P loss ( V 0) and said switch loss power P sw ( V 0); in the actual operation environment of said motor and motor controller, obtaining an actual DC bus voltage V dc, and calculating a current switch loss power P sw ′ V dc; calculating a current loss power P loss ′ V dc based on the current switch loss power P sw ′ V dc and the AC current-related loss power P iacloss ( V 0); and calculating a current DC power P dc based on said current loss power P loss ( V dc) and a current AC power P ac, and then calculating a DC current i dc according to said DC bus voltage V dc.
Device for fastening a suspension shock absorber rod of a front wheel of a motor vehicle, said fastening device comprising a structural element of cylindrical shape having a fastening side intended to be fastened to a vertical lateral wall delimiting a front upper bodyshell structure of said motor vehicle, said structural element having an axial opening intended to have said shock absorber rod passing through it, said device being characterized in that it comprises a substantially flat docking surface preserved on the external surface of said structural element and extending radially around said axial opening, said docking surface being extended on the side opposite said fastening side by three facets (154a, 154b, 154c) that are inclined in the direction of the axis of said structural element, said three inclined facets being made up of flat surfaces that are inclined with respect to a horizontal plane, in the continuity of which surfaces is formed a dropped edge at the periphery of said structural element, said docking surface being delimited laterally by ribs (156a, 156b) that are oriented in the transverse direction of the vehicle when said structural element is fastened to said vertical lateral wall, the dropped edge delimiting the open side of the structural element.
A dispenser device for dispensing a fluid or powder composition, the dispenser device including a dispenser head provided with a dispenser opening, an air expeller for generating a flow of air while the device is being actuated, and at least one reservoir that contains a single dose of composition, said reservoir including an air inlet that is connected to said air expeller, and a composition outlet that is connected to said dispenser opening, said reservoir being mounted in removable manner on said air expeller such that, after the device has been actuated, the empty reservoir can be removed from said air expeller and replaced with a new full reservoir, said air expeller being adapted to return to its rest position so as to make a new actuation possible with said new full reservoir, said air inlet being closed by a first closure element and said composition outlet being closed by a second closure element, said device including a mechanical opening system (61, 62) that co-operates with said first and second closure elements (40, 50) so as to expel each closure element mechanically from its respective closed position while the device is being actuated, the device being characterized in that said mechanical opening system comprises a first rod that is secured to said air expeller and a second rod that is secured to said dispenser head, each of said first and second rods (61, 62) co-operating with a respective closure element (40, 50) during actuation, so as to expel it mechanically from its closed position.
A transport refrigeration unit for regulating the temperature of an enclosed volume, the transport refrigeration unit comprising: a refrigeration module for coupling to said enclosed volume, said refrigeration module including: a supply port for output of air to said enclosed volume at a supply temperature; a return port for return of air from said enclosed volume to the refrigeration module at a return temperature; at least one component configured to operate in a first cooling mode and a power savings mode; characterised by: a controller configured to change a length of a subsequent interval for said at least one component in said power savings mode based on at least one previous interval of said at least one component in said power savings mode, the subsequent interval having a different length than the previous interval, wherein the controller is configured to set the subsequent interval in said power savings mode less than said previous interval when said supply temperature is above a prescribed threshold after exiting the previous interval in said power savings mode and to set said subsequent interval in said power savings mode greater than said previous interval when said supply temperature is below said prescribed temperature after exiting the previous interval in said power savings mode. a refrigeration module for coupling to said enclosed volume, said refrigeration module including: a supply port for output of air to said enclosed volume at a supply temperature; a return port for return of air from said enclosed volume to the refrigeration module at a return temperature; at least one component configured to operate in a first cooling mode and a power savings mode; a supply port for output of air to said enclosed volume at a supply temperature; a return port for return of air from said enclosed volume to the refrigeration module at a return temperature; at least one component configured to operate in a first cooling mode and a power savings mode; characterised by: a controller configured to change a length of a subsequent interval for said at least one component in said power savings mode based on at least one previous interval of said at least one component in said power savings mode, the subsequent interval having a different length than the previous interval, wherein the controller is configured to set the subsequent interval in said power savings mode less than said previous interval when said supply temperature is above a prescribed threshold after exiting the previous interval in said power savings mode and to set said subsequent interval in said power savings mode greater than said previous interval when said supply temperature is below said prescribed temperature after exiting the previous interval in said power savings mode.
Pump arrangement, in particular magnetic clutch pump arrangement, having an interior space formed by a pump casing of the pump arrangement, having a containment can which has a central longitudinal axis and which hermetically seals off a chamber surrounded by said containment can with respect to the interior space formed by the pump casing, having an impeller shaft which can be driven in rotation about an axis of rotation, having an impeller which is arranged on one end of the impeller shaft, having an inner rotor arranged on the other end of the impeller shaft, having an outer rotor which is arranged on a drive shaft and which interacts with the inner rotor, wherein the containment can has a base with at least one bead which projects into the chamber, characterized in that the at least one bead is arranged with a radial spacing to the central longitudinal axis of the containment can, wherein the ratio of inner radius (r is) of the containment can to spacing (A Sa) of bead outer edge and central longitudinal axis of the containment can lies in a range from 1.3 to 1.6.
A temperature sensor comprising: - a mineral-insulated supply line; - a bottomed metal tube with a bottom end part and an open end part, the open end part is connected mechanically to the mineral-insulated supply line; - a temperature sensing element contained in said bottomed metal tube, a wire connection mechanically and electrically couples the temperature sensing element to the mineral-insulated supply line; and wherein, the temperature sensing element is secured in a support structure, characterized in that, the support structure is arranged in the bottomed metal tube such that due to difference in thermal expansion of the bottomed metal tube and wire connection in response to temperature changes the support structure moves in the bottom end part in axial direction of the bottomed metal tube. - a mineral-insulated supply line; - a bottomed metal tube with a bottom end part and an open end part, the open end part is connected mechanically to the mineral-insulated supply line; - a temperature sensing element contained in said bottomed metal tube, a wire connection mechanically and electrically couples the temperature sensing element to the mineral-insulated supply line; and wherein,
A metal lift-off method comprising: a. immersing a cassette of wafers in a working fluid in an immersion tank, the immersion tank having opposing first and second sidewalls and a bottom; b. directing working fluid streams from primary fluid spray jets positioned along at least one sidewall of the immersion tank, such that the working fluid stream flows over surfaces of the wafers in the cassette while immersed in the working fluid, the primary fluid spray jets spraying working fluid streams across the wafer surfaces; c. simultaneously to directing working fluid streams from primary fluid spray jets, raising and lowering the wafers within the cassette of wafers in the immersion tank through the primary fluid spray jets; and d. directing working fluid streams from secondary fluid spray jets positioned at the bottom of the immersion tank such that working fluid streams in an upward direction relative to the bottom of the immersion tank, the secondary fluid spray jets spraying in an upward direction. a. immersing a cassette of wafers in a working fluid in an immersion tank, the immersion tank having opposing first and second sidewalls and a bottom; b. directing working fluid streams from primary fluid spray jets positioned along at least one sidewall of the immersion tank, such that the working fluid stream flows over surfaces of the wafers in the cassette while immersed in the working fluid, the primary fluid spray jets spraying working fluid streams across the wafer surfaces; c. simultaneously to directing working fluid streams from primary fluid spray jets, raising and lowering the wafers within the cassette of wafers in the immersion tank through the primary fluid spray jets; and d. directing working fluid streams from secondary fluid spray jets positioned at the bottom of the immersion tank such that working fluid streams in an upward direction relative to the bottom of the immersion tank, the secondary fluid spray jets spraying in an upward direction.
An automated antibiotic susceptibility testing quality control component, comprising: a frame including a plurality of wells; at least one clip attached to the frame, and a means of identifying the component as an AST QC test by an automated system, characterised in that the AST QC component further comprises at least one microbial isolate in at least one of the plurality of wells, and wherein the at least one clip includes at least one clip that interacts with a reagent cartridge. a frame including a plurality of wells; at least one clip attached to the frame, and a means of identifying the component as an AST QC test by an automated system, characterised in that the AST QC component further comprises at least one microbial isolate in at least one of the plurality of wells, and wherein the at least one clip includes at least one clip that interacts with a reagent cartridge.
An on-vehicle circuit unit comprising: a first conductor that is a power supply line; a second conductor that is a ground line; and a dielectric that is disposed between the first conductor and the second conductor, wherein the dielectric is disposed between first ends of the first conductor and the second conductor and second ends of the first conductor and the second conductor in a longitudinal direction; characterized in that the dielectric is provided at least at one portion between the first ends of the first conductor and the second conductor and the second ends of the first conductor and the second conductor in the longitudinal direction, and the first conductor and the second conductor include a first portion where the dielectric is interposed between the first ends of the first conductor and the second conductor and the second ends of the first conductor and the second conductor in the longitudinal direction and a second portion where the dielectric is not interposed between the first ends of the first conductor and the second conductor and the second ends of the first conductor and the second conductor in the longitudinal direction. a first conductor that is a power supply line; a second conductor that is a ground line; and a dielectric that is disposed between the first conductor and the second conductor, wherein the dielectric is disposed between first ends of the first conductor and the second conductor and second ends of the first conductor and the second conductor in a longitudinal direction; characterized in that the dielectric is provided at least at one portion between the first ends of the first conductor and the second conductor and the second ends of the first conductor and the second conductor in the longitudinal direction, and the first conductor and the second conductor include a first portion where the dielectric is interposed between the first ends of the first conductor and the second conductor and the second ends of the first conductor and the second conductor in the longitudinal direction and a second portion where the dielectric is not interposed between the first ends of the first conductor and the second conductor and the second ends of the first conductor and the second conductor in the longitudinal direction.