mhurhangee/ep-ind-claims huggingface dataset:
Back-mounted battery pack with a battery pack housing, 1.1: wherein an arrangement of rechargeable battery cells is accommodated in the battery pack housing, 1.2: and the arrangement of rechargeable battery cells is designed with a common electric connection, 1.3: to which is connected a line to an external electric load in a working implement, 1.4: and the battery pack housing comprises a carrying device composed of at least one back plate and at least one shoulder belt (16, 18), 1.5 wherein the back plate is designed with an upper shoulder section and a lower back section, 1.6: and a shoulder belt (16, 18) is fixed with an upper end in the upper shoulder section of the back plate and with a lower end in the region of the lower back section of the back plate, characterised in that 1.7: the line (5, 5', 5", 5"') is routed into the carrying device through an opening in the back plate, 1.8: the line (5, 5', 5", 5"') is routed from the opening in the back plate to an outer edge of the carrying device 1.9: and routed onwards along at least a sub-section of the outer edge of the carrying device, 1.10: and the line (5, 5', 5", 5"') is releasably fixed to the outer edge of the carrying device with at least one fastening element in the region of the sub-section. 1.1: wherein an arrangement of rechargeable battery cells is accommodated in the battery pack housing, 1.2: and the arrangement of rechargeable battery cells is designed with a common electric connection, 1.3: to which is connected a line to an external electric load in a working implement, 1.4: and the battery pack housing comprises a carrying device composed of at least one back plate and at least one shoulder belt (16, 18), 1.5 wherein the back plate is designed with an upper shoulder section and a lower back section, 1.6: and a shoulder belt (16, 18) is fixed with an upper end in the upper shoulder section of the back plate and with a lower end in the region of the lower back section of the back plate, characterised in that 1.7: the line (5, 5', 5", 5"') is routed into the carrying device through an opening in the back plate, 1.8: the line (5, 5', 5", 5"') is routed from the opening in the back plate to an outer edge of the carrying device 1.9: and routed onwards along at least a sub-section of the outer edge of the carrying device, 1.10: and the line (5, 5', 5", 5"') is releasably fixed to the outer edge of the carrying device with at least one fastening element in the region of the sub-section.
A method comprising the steps of: receiving a first set of data from an inertial navigational device, wherein the first set of data comprises at least one of sensor data, motion data, location data and non-location-data, and wherein the first set of data is real-time output from the inertial navigational device; receiving a second set of data from a secondary source, wherein the second set of data comprises at least one of sensor data, motion data, and location data; and generating an update message based on comparing the first set of data against the second set of data in order to improve location accuracy of the inertial navigational device, the method being characterised in that: the inertial navigational device is a portable inertial navigation device of a user coupled with a communication device; and the step of generating the update message comprises implementing a correlation algorithm against a motion history of the portable inertial navigational device. receiving a first set of data from an inertial navigational device, wherein the first set of data comprises at least one of sensor data, motion data, location data and non-location-data, and wherein the first set of data is real-time output from the inertial navigational device; receiving a second set of data from a secondary source, wherein the second set of data comprises at least one of sensor data, motion data, and location data; and generating an update message based on comparing the first set of data against the second set of data in order to improve location accuracy of the inertial navigational device, the method being characterised in that: the inertial navigational device is a portable inertial navigation device of a user coupled with a communication device; and the step of generating the update message comprises implementing a correlation algorithm against a motion history of the portable inertial navigational device. the inertial navigational device is a portable inertial navigation device of a user coupled with a communication device; and the step of generating the update message comprises implementing a correlation algorithm against a motion history of the portable inertial navigational device.
Multi-functional water outlet fitting for selectively dispensing non-potable water and filtered drinking water, which water outlet fitting comprises a fitting body having at least one water inlet (4a, 4b); a first outlet, which points away from the fitting body, for non-potable water; a second outlet, which branches off from the fitting body, for filtered drinking water; and a filter-receiving space for a filter cartridge serving as drinking water filter, through which water is able to flow and which is in water-conducting communication with the second outlet, there being provided on the fitting body a valve insert having a valve for controlling a flow of non-potable water out of the first outlet, and the fitting body having a first water pathway from the valve to the first outlet, wherein the filter-receiving space is formed by a filter housing which is arranged at the end of the second outlet remote from the fitting body, and the filter housing has a downward-facing base in which there is formed a mouth opening from which the filtered drinking water can be dispensed, the fitting body has a second water pathway from the water inlet to the second outlet, with the valve being bypassed, and wherein between the second outlet and the filter housing there is arranged a closure valve for blocking and enabling discharge of filtered water, characterised in that between the second outlet and the filter housing there is arranged a non-return valve having a blocking element which is held in an open position by a filter cartridge installed in the filter housing, in which open position a water pathway from the second outlet to the filter housing is unblocked, and which in the absence of a filter cartridge is moved into a closed position under the action of a closing spring or the water pressure, in which closed position the water pathway between the second outlet and the filter housing is blocked. the filter-receiving space is formed by a filter housing which is arranged at the end of the second outlet remote from the fitting body, and the filter housing has a downward-facing base in which there is formed a mouth opening from which the filtered drinking water can be dispensed, the fitting body has a second water pathway from the water inlet to the second outlet, with the valve being bypassed, and wherein between the second outlet and the filter housing there is arranged a closure valve for blocking and enabling discharge of filtered water,
Compressor arrangement for compressing a volume flow of a compressible medium from an initial pressure to a final pressure which is higher than the initial pressure, comprising • a multi-stage first compressor for compressing a first partial volume flow of the compressible medium from the initial pressure to the final pressure with at least one upstream first compressor stage and at least one downstream second compressor stage, • wherein each compressor stage (11, 12) has a media inlet (111, 121) for drawing in the medium and a media outlet (112, 122) for discharging the medium, and • wherein the media outlet of a first compressor stage is connected to the media inlet of the downstream next second compressor stage by an intermediate chamber and an intermediate pressure of the first partial volume flow is respectively established in each intermediate chamber, characterized in that the first compressor is a two-stage piston compressor, and a second compressor is provided with at least one compressor stage, which has a media inlet and a media outlet, for compressing a second partial volume flow of the medium to an intermediate pressure of the first partial volume flow, wherein at least one media outlet of the second compressor is connected to an intermediate chamber of the first compressor. • a multi-stage first compressor for compressing a first partial volume flow of the compressible medium from the initial pressure to the final pressure with at least one upstream first compressor stage and at least one downstream second compressor stage, • wherein each compressor stage (11, 12) has a media inlet (111, 121) for drawing in the medium and a media outlet (112, 122) for discharging the medium, and • wherein the media outlet of a first compressor stage is connected to the media inlet of the downstream next second compressor stage by an intermediate chamber and an intermediate pressure of the first partial volume flow is respectively established in each intermediate chamber,
A modular chiller system comprising: a switching and pumping module; one or more drycooler modules; and one or more chiller modules, the switching and pumping module comprising: a first set of water connections configured to be hydraulically connected to a cold water inlet and a warm water outlet of a cooling unit in the data center, a first set of water, power and signal interfaces configured to connect a plurality of chiller modules, and a second set of water, power and signal interfaces configured to connect a plurality of dry cooler modules, the switching and pumping module being configured to connect hydraulically in parallel one or more dry cooler modules and one or more chiller modules. a switching and pumping module; one or more drycooler modules; and one or more chiller modules, the switching and pumping module comprising: a first set of water connections configured to be hydraulically connected to a cold water inlet and a warm water outlet of a cooling unit in the data center, a first set of water, power and signal interfaces configured to connect a plurality of chiller modules, and a second set of water, power and signal interfaces configured to connect a plurality of dry cooler modules, a first set of water connections configured to be hydraulically connected to a cold water inlet and a warm water outlet of a cooling unit in the data center, a first set of water, power and signal interfaces configured to connect a plurality of chiller modules, and a second set of water, power and signal interfaces configured to connect a plurality of dry cooler modules, the switching and pumping module being configured to connect hydraulically in parallel one or more dry cooler modules and one or more chiller modules.
An exhaust gas heater for an exhaust system of an internal combustion engine, comprising a carrier arrangement and a heating conductor arrangement supported on the carrier arrangement and having at least one heating conductor (14, 16), through which current flows, wherein the at least one heating conductor (14, 16) is supported with respect to the carrier arrangement by at least one connecting element, which is elongate in the direction of a connecting element longitudinal axis, characterized in that at least one length compensation arrangement having a first length compensation element, which has a first supporting surface providing a wedge formation, and a second length compensation element, which has a second supporting surface supported on the first supporting surface and providing a counter-wedge formation, is provided in association with at least one connecting element, wherein the first length compensation element and the second length compensation element (46, 48) have different coefficients of thermal expansion than one another.
A mapping device for analyzing body tissue, comprising: an elongate shaft having a proximal section and a distal section; a generally planar electrode assembly having a first side surface and a second side surface coupled to the distal section of the elongate shaft, the electrode assembly having a collapsed configuration and an expanded configuration; wherein the electrode assembly includes a plurality of splines including a central mid spline and a plurality of electrodes disposed on at least some of the plurality of splines; and wherein the mapping device further comprises a plurality of inflatable pockets disposed on the generally planar second side surface of the electrode assembly, wherein the pockets are separated by a plurality of seams to allow the electrode assembly to curve into a desired orientation. an elongate shaft having a proximal section and a distal section; a generally planar electrode assembly having a first side surface and a second side surface coupled to the distal section of the elongate shaft, the electrode assembly having a collapsed configuration and an expanded configuration; wherein the electrode assembly includes a plurality of splines including a central mid spline and a plurality of electrodes disposed on at least some of the plurality of splines; and wherein the mapping device further comprises a plurality of inflatable pockets disposed on the generally planar second side surface of the electrode assembly, wherein the pockets are separated by a plurality of seams to allow the electrode assembly to curve into a desired orientation.
A method for constructing a model of the thermal breakpoint of a kerosene fraction, comprising: measuring a thermal breakpoint for a plurality of kerosene fractions; measuring one or more of a sulfur content, a nitrogen content, an aromatics content, and an API gravity for the plurality of kerosene fractions; analyzing the plurality of kerosene fractions, using Fourier transform ion cyclotron resonance mass spectrometry, to determine weights for a plurality of compositional groups within each kerosene fraction; and constructing a model for correlating a thermal breakpoint of a kerosene fraction with a) the one or more of a sulfur content, a nitrogen content, an aromatics content, and an API gravity for a kerosene fraction, and b) weights for a plurality of compositional groups in a kerosene fraction, the model being constructed based on the measured thermal breakpoints for the plurality of kerosene fractions, the measured values for the one or more of a sulfur content, a nitrogen content, an aromatics content, and an API gravity for the plurality of kerosene fractions, and the determined weights for the plurality of compositional groups for the plurality of kerosene fractions. measuring a thermal breakpoint for a plurality of kerosene fractions; measuring one or more of a sulfur content, a nitrogen content, an aromatics content, and an API gravity for the plurality of kerosene fractions; analyzing the plurality of kerosene fractions, using Fourier transform ion cyclotron resonance mass spectrometry, to determine weights for a plurality of compositional groups within each kerosene fraction; and constructing a model for correlating a thermal breakpoint of a kerosene fraction with a) the one or more of a sulfur content, a nitrogen content, an aromatics content, and an API gravity for a kerosene fraction, and b) weights for a plurality of compositional groups in a kerosene fraction, the model being constructed based on the measured thermal breakpoints for the plurality of kerosene fractions, the measured values for the one or more of a sulfur content, a nitrogen content, an aromatics content, and an API gravity for the plurality of kerosene fractions, and the determined weights for the plurality of compositional groups for the plurality of kerosene fractions.
Harvesting machine for processing harvested material, with at least one conditioning unit which includes at least two cooperating, preferably approximately roll-shaped conditioning rotors (5, 6) for the conditioning of harvested material, wherein the conditioning rotors (5, 6) are supported to be adjustable in distance to one another and can be driven by a drive device in a manner adapted to one another, characterized in that the drive device comprises a belt drive, wherein a first belt couples a first conditioning rotor with an intermediate pulley, which, via a second belt, drives the second conditioning rotor, wherein the mentioned intermediate pulley comprises two belt engagement portions (11a, 11b) arranged next to one another for the first and second belts (9, 10) and the first belt and the second belt revolve in parallel planes, which are spaced from one another.
Motor vehicle body structure comprising a front unit extending in front of a passenger compartment portion of said motor vehicle and in which a fuel tank is to be arranged, said front unit comprising a first and a second side member (3, 4), each first and second side member (3, 4) being a hollow profile oriented along the longitudinal axis of said vehicle and having at least two opposing longitudinal walls (33, 34; 43, 44), an external longitudinal wall (34, 44) and an internal longitudinal wall (33, 43) respectively, extending towards respective front ends (31, 41) of said first and second side members (3, 4) connected to each other by a first front end crossmember of said front unit, so as to define in front of said front unit a deformable zone able to be irreversibly compressed along the longitudinal axis to absorb impact energy, said body structure being characterized in that it comprises a second front end crossmember connecting said first and second side members (3, 4), arranged between said passenger compartment portion and said first front end crossmember, so as to delimit, in a rear part (32, 42) of said first and second side members (3, 4), a compartment extending between said passenger compartment portion and said second front end crossmember, for housing said fuel tank, the rear part (32, 42) of each side member of said first and second side members (3, 4) being provided with at least one external reinforcing element (14, 15, 16) laterally attached to at least one of said opposing longitudinal walls of the rear part of said side member and at least one internal reinforcing element inserted inside the rear part of said side member.
A process for producing a water-soluble, hydrolysis-stable, polymerizable polymer, comprising a) a step of copolymerizing a mixture comprising (i) a first copolymerizable monomer comprising at least one optionally protected carboxylic acid group and a first ethylenically unsaturated moiety, and (ii) a second copolymerizable monomer comprising one or more optionally protected primary and/or secondary amino groups and a second ethylenically unsaturated moiety, for obtaining an amino group containing copolymer; b) a step of coupling to the amino group containing copolymer a compound having a polymerizable moiety and a functional group reactive with an amino group of repeating units derived from the second copolymerizable monomer in the amino group containing copolymer obtained in the first step, wherein the optionally protected amino group is deprotected, so that polymerizable pendant groups are linked to the backbone by hydrolysis-stable linking groups, and, optionally, a step of deprotecting the protected carboxylic acid group after step (a) or step (b), for obtaining a polymerizable polymer. a) a step of copolymerizing a mixture comprising (i) a first copolymerizable monomer comprising at least one optionally protected carboxylic acid group and a first ethylenically unsaturated moiety, and (ii) a second copolymerizable monomer comprising one or more optionally protected primary and/or secondary amino groups and a second ethylenically unsaturated moiety, for obtaining an amino group containing copolymer; (i) a first copolymerizable monomer comprising at least one optionally protected carboxylic acid group and a first ethylenically unsaturated moiety, and (ii) a second copolymerizable monomer comprising one or more optionally protected primary and/or secondary amino groups and a second ethylenically unsaturated moiety, b) a step of coupling to the amino group containing copolymer a compound having a polymerizable moiety and a functional group reactive with an amino group of repeating units derived from the second copolymerizable monomer in the amino group containing copolymer obtained in the first step, wherein the optionally protected amino group is deprotected, so that polymerizable pendant groups are linked to the backbone by hydrolysis-stable linking groups,
A device for performing tissue transplantation within an eye comprising: (a) a hollow handle portion configured to convey a fluid therein; and (b) an injector portion fluidically coupled to the handle portion and defining an internal channel via which the fluid is conveyed, the injector portion comprising: a substantially flat shaped tip (408, 1008, 1108, 1208) that defines an aperture (410, 1010, 1110, 1210) connected to the internal channel of the injector portion and configured to enshroud a tissue for transplantation, wherein the tissue is held in place within the aperture (410, 1010, 1110, 1210) when a vacuum pressure is applied to the tissue via the fluid, and wherein the tissue is injected into the eye when an injection pressure that is opposite in direction to the vacuum pressure is applied to the tissue via the fluid, wherein: the tip (408, 1008, 1108, 1208) is tapered, characterised in that: the aperture (410, 1010, 1110, 1210) is between an upper and lower portion of the tip (408, 1008, 1108, 1208), wherein the lower portion of the tip extends past the upper portion and the lower portion of the tip (408, 1008, 1108, 1208) has a rounded edge. (a) a hollow handle portion configured to convey a fluid therein; and (b) an injector portion fluidically coupled to the handle portion and defining an internal channel via which the fluid is conveyed, the injector portion comprising: a substantially flat shaped tip (408, 1008, 1108, 1208) that defines an aperture (410, 1010, 1110, 1210) connected to the internal channel of the injector portion and configured to enshroud a tissue for transplantation, wherein the tissue is held in place within the aperture (410, 1010, 1110, 1210) when a vacuum pressure is applied to the tissue via the fluid, and wherein the tissue is injected into the eye when an injection pressure that is opposite in direction to the vacuum pressure is applied to the tissue via the fluid,
A method for manufacturing a magnetoelastic torque sensing device, the method comprising the steps of: forming an initial magnetically conditioned region at a first location on a magnetoelastic element using a DC magnetic field source, the method characterized by: measuring magnetic fields produced by various angular portions of the initial magnetically conditioned region; calculating adjustment factors of the magnetic field source based on the measured magnetic fields and an angular position of the magnetoelastic element; and using the calculated adjustment factors to form a final magnetically conditioned region at the first location on the magnetoelastic element. measuring magnetic fields produced by various angular portions of the initial magnetically conditioned region; calculating adjustment factors of the magnetic field source based on the measured magnetic fields and an angular position of the magnetoelastic element; and using the calculated adjustment factors to form a final magnetically conditioned region at the first location on the magnetoelastic element.