mhurhangee/ep-ind-claims huggingface dataset:
An agricultural vehicle with a tyre pressure replenishing unit as well as a control unit for adjusting the tyre pressure of the vehicle as a function of sensor-detected operating parameters of the vehicle, wherein the control unit can be operated in different operating modes which can be selected by an operator wherein, by selecting one of the operating modes, the tyre pressure can be adjusted on the basis of a control strategy associated with that operating mode, characterized in that the vehicle is provided with means (12, 13, 15, 16) for detecting a chassis efficiency and a traction coefficient and the control unit can be operated in at least one operating mode in which the control unit adjusts the tyre pressure with the aim of higher efficiency of the vehicle, or in an operating mode in which the control unit adjusts the tyre pressure with the aim of higher traction of the vehicle.
Device for cutting of at least one solid body portion, in particular a wafer, from a donor substrate, in particular an ingot, at least comprising a housing with a receiving space for receiving at least one multi-layer arrangement, consisting of at least one donor substrate and one receiving layer arranged or generated thereon, and an loading device for the contactless loading of the multi-layer arrangement for generating crack conducting stresses in the multi-layer arrangement, characterized in that the loading device comprises a plurality of feed means (16, 18, 20) for feeding the fluid substance, in particular liquid nitrogen, wherein the fluid substance can be sprayed into the receiving space in the form of a mist through at least one of the feed means (16, 18, 20), wherein preferably at least one of the feed means is configured or operable in such manner that a crack initiation can be caused by means of said feed means, wherein the receiving layer has a coefficient of thermal expansion that differs from the coefficient of thermal expansion of the donor substrate by at least one order of magnitude, wherein stresses are created in the solid body by the thermal loading of the receiving layer in such manner that the stresses initiate a crack in the solid body, by which the solid body portion is separated from the solid body.
A dove-shaped building block, comprising: a block body that has a regular polygon configuration having a top surface, a bottom surface opposite to the top surface, and a plurality of side surfaces vertically connecting the top surface and the bottom surface; the number of the side surfaces of the block body is even and not less than six; each one of said side surfaces being alternately provided with either one dovetailed recess or one dovetailed projection; that is, when one said side surface is provided with one said dovetailed projection, then the other two said side surfaces neighboring that one said side surface are provided with one said dovetailed recess; in addition, when one said side surface is provided with one said dovetailed recess, then the other two said side surfaces neighboring that one said side surface are provided with one said dovetailed projection; wherein, when assembling a plurality of said block bodies, one of the dovetailed projections of one of the block bodies is received in and retained by one of the dovetailed recesses of the other one of the block bodies in such a manner that, the assembled block bodies are connected in a horizontal manner; characterized in that, a thickness of an outer end-surface of the dovetailed projection not only is approximately equal to a width of the outer end-surface of the dovetailed projection, but also is approximately equal to a width of an inner surface of the dovetailed recess; that is, said outer end-surface of the dovetailed projection is shaped like a square; therefore, when assembling a plurality of said block bodies, one said block body can be turned in a 90-degree manner so as to have its dovetailed projection to vertically engage the corresponding dovetailed recess of another one said block body in a 90-degree cross manner.
A fiber reinforced polymer material lid for a vault comprising an unsaturated polyester thermosetting resin matrix, glass fiber reinforcement, an inorganic filler and an UV inhibitor manufactured in a sheet molding process, wherein the glass fiber reinforcement is positioned within the unsaturated polyester thermosetting resin matrix below a flat uppermost surface, the uppermost surface comprises a textured surface created by a pattern of features at different depths in a mold surface creating slight protrusions extending into the uppermost surface to push glass fibers of the material away from the uppermost surface, wherein a resin rich surface layer above individual glass fibers of the glass fiber reinforced polymer material is created by the glass fibers being pushed away from the uppermost surface during molding. created by a pattern of features at different depths in a mold surface creating slight protrusions extending into the uppermost surface to push glass fibers of the material away from the uppermost surface,
A method executed at a network node (112,108) for Diameter-based steering of mobile device network access, the method comprising: receiving a Diameter message associated with a mobile device; determining, based on the Diameter message and in dependence on one or more steering and/or screening rules in a steering and/or screening rules database, whether the mobile device should be steered to access a radio access network or a radio access network type that is different from a radio access network or radio access network type currently supporting network access of the mobile device; and in response to determining that the mobile device should access the different radio access network or radio access network type, steering the mobile device to access the different radio access network or radio access network type by sending a cancel location request, CLR, message to a mobility management entity, MME, node of the network currently supporting the network access of the mobile device, the CLR message causing the mobile device to detach from the radio access network or radio access network type currently supporting network access of the mobile device, and sending a universal subscriber identity module, USIM, application toolkit, USAT, message to the mobile device to update preferred roaming network information on the mobile device steering the mobile device to attach to the different radio access network or radio access network type; wherein the network node is a Diameter signaling router, DSR, node or a policy and charging rules function, PCRF, node. receiving a Diameter message associated with a mobile device; determining, based on the Diameter message and in dependence on one or more steering and/or screening rules in a steering and/or screening rules database, whether the mobile device should be steered to access a radio access network or a radio access network type that is different from a radio access network or radio access network type currently supporting network access of the mobile device; and in response to determining that the mobile device should access the different radio access network or radio access network type, steering the mobile device to access the different radio access network or radio access network type by sending a cancel location request, CLR, message to a mobility management entity, MME, node of the network currently supporting the network access of the mobile device, the CLR message causing the mobile device to detach from the radio access network or radio access network type currently supporting network access of the mobile device, and sending a universal subscriber identity module, USIM, application toolkit, USAT, message to the mobile device to update preferred roaming network information on the mobile device steering the mobile device to attach to the different radio access network or radio access network type; wherein the network node is a Diameter signaling router, DSR, node or a policy and charging rules function, PCRF, node.
Method for fixing a gain or attenuation factor (G; ATT) for an amplifying or attenuating element during transmission of a sequence of synchronisation data symbols with the following method steps: - detection of a signal level (S 1) of a received signal at the input of the amplifying or attenuating element, - identification of a beginning of transmission (t 2) of the sequence of synchronisation data symbols on the basis of the detected signal level (S 1) of the received signal and - signalling of a time interval for the fixing of the gain or attenuation factor (G; ATT) beginning with the identified beginning of transmission (t 2) of the sequence of synchronisation data symbols, wherein a difference in the signal level of the received signal (S 1) detected at the input of the amplifying or attenuating element determined from the beginning (t 2) of the time interval for fixing the gain or attenuation factor (G; ATT) is compared with a second threshold value (SW 2) in order to identify an invalid signal level, and the fixing of the gain or attenuation factor (G; ATT) is cancelled for a set first period of time (τ 1) as soon as the determined difference in the signal level exceeds the second threshold value (SW 2). - detection of a signal level (S 1) of a received signal at the input of the amplifying or attenuating element, - identification of a beginning of transmission (t 2) of the sequence of synchronisation data symbols on the basis of the detected signal level (S 1) of the received signal and - signalling of a time interval for the fixing of the gain or attenuation factor (G; ATT) beginning with the identified beginning of transmission (t 2) of the sequence of synchronisation data symbols,
A cardio-pulmonary resuscitation device, comprising: a chest compression mechanism structured to administer chest compressions and active decompressions to a chest of a patient, the chest of the patient having a resting chest height; a processor configured to: determine a maximum zero-position of the CPR device; determine an initial zero-position of the CPR device for at least one of the chest compressions and active decompressions to be administered to the chest of the patient; detect a change in the resting chest height; in response to the detected change in resting chest height, automatically adjust the zero-position of the CPR device up to a maximum zero-position for the CPR device and administer chest compressions and active decompressions to the chest of the patient based on the adjusted zero-position; and in response to the detected change in resting chest height while administering active decompressions to the chest of the patient, cause the chest compression mechanism to lift the chest of the patient up to a maximum uplift based on the adjusted zero-position. a chest compression mechanism structured to administer chest compressions and active decompressions to a chest of a patient, the chest of the patient having a resting chest height; a processor configured to: determine a maximum zero-position of the CPR device; determine an initial zero-position of the CPR device for at least one of the chest compressions and active decompressions to be administered to the chest of the patient; detect a change in the resting chest height; in response to the detected change in resting chest height, automatically adjust the zero-position of the CPR device up to a maximum zero-position for the CPR device and administer chest compressions and active decompressions to the chest of the patient based on the adjusted zero-position; and in response to the detected change in resting chest height while administering active decompressions to the chest of the patient, cause the chest compression mechanism to lift the chest of the patient up to a maximum uplift based on the adjusted zero-position. determine a maximum zero-position of the CPR device; determine an initial zero-position of the CPR device for at least one of the chest compressions and active decompressions to be administered to the chest of the patient; detect a change in the resting chest height; in response to the detected change in resting chest height, automatically adjust the zero-position of the CPR device up to a maximum zero-position for the CPR device and administer chest compressions and active decompressions to the chest of the patient based on the adjusted zero-position; and in response to the detected change in resting chest height while administering active decompressions to the chest of the patient, cause the chest compression mechanism to lift the chest of the patient up to a maximum uplift based on the adjusted zero-position.
A method for manufacturing composite particles, the method comprising: a spraying step of centrifugally spraying a slurry for composite particles for dry molding used for manufacturing an electrode for an electrochemical device using an atomizer, the slurry comprising an electrode active material, a solvent, and a binder; and a drying step of drying the slurry centrifugally sprayed in the spraying step, wherein the atomizer includes: a nozzle part dropping the slurry at a linear velocity of equal to or more than 50 m/min; and a rotary disk centrifugally spraying the slurry to be dropped from the nozzle part, wherein the rotary disk includes a plurality of grooves stretching in a radiation direction at least in a periphery part of a surface on which the slurry is sprayed. a spraying step of centrifugally spraying a slurry for composite particles for dry molding used for manufacturing an electrode for an electrochemical device using an atomizer, the slurry comprising an electrode active material, a solvent, and a binder; and a drying step of drying the slurry centrifugally sprayed in the spraying step, wherein the atomizer includes: a nozzle part dropping the slurry at a linear velocity of equal to or more than 50 m/min; and a rotary disk centrifugally spraying the slurry to be dropped from the nozzle part, a nozzle part dropping the slurry at a linear velocity of equal to or more than 50 m/min; and a rotary disk centrifugally spraying the slurry to be dropped from the nozzle part, wherein the rotary disk includes a plurality of grooves stretching in a radiation direction at least in a periphery part of a surface on which the slurry is sprayed.
A swivel tool for use in a wellbore comprising: a tool body; a mandrel which is axially moveable relative to the tool body; and a lock member moveable between a first condition in which the mandrel is rotatably movable relative to the tool body and a second condition in which the mandrel and the tool body are rotationally coupled; characterised in that the lock member is configured to move between the first condition and second condition in response to a mechanical axial force and rotational force on the swivel tool. a tool body; a mandrel which is axially moveable relative to the tool body; and a lock member moveable between a first condition in which the mandrel is rotatably movable relative to the tool body and a second condition in which the mandrel and the tool body are rotationally coupled; characterised in that the lock member is configured to move between the first condition and second condition in response to a mechanical axial force and rotational force on the swivel tool.
An electromechanical drive comprising: - an electrical machine (101 a, 101 b), - a gearbox (102a, 102b) having a first shaft connected to the electrical machine and a second shaft for driving an actuator, the gearbox being capable of providing selectable transmission ratios each being a ratio of a rotational speed of the first shaft to a rotational speed of the second shaft, - an electrical power converter for converting voltage of an external electrical system to voltage suitable for the electrical machine, characterized in that the electrical power converter comprises: - a controller (105a, 105b) for selecting one of the selectable transmission ratios at least partly on the basis of a) first data related to a torque-speed operating point of the second shaft when driving the actuator and b) second data related to functional properties of at least the electrical machine, and - a signal output (106a, 106b) for delivering, to the gearbox, a control signal so as to set the gearbox to operate at the selected one of the selectable transmission ratios. - an electrical machine (101 a, 101 b), - a gearbox (102a, 102b) having a first shaft connected to the electrical machine and a second shaft for driving an actuator, the gearbox being capable of providing selectable transmission ratios each being a ratio of a rotational speed of the first shaft to a rotational speed of the second shaft, - an electrical power converter for converting voltage of an external electrical system to voltage suitable for the electrical machine, - a controller (105a, 105b) for selecting one of the selectable transmission ratios at least partly on the basis of a) first data related to a torque-speed operating point of the second shaft when driving the actuator and b) second data related to functional properties of at least the electrical machine, and - a signal output (106a, 106b) for delivering, to the gearbox, a control signal so as to set the gearbox to operate at the selected one of the selectable transmission ratios.
Device for the connection of a front element to a side part of a movable furniture part, in particular a drawer, with at least two mounting units (14a, 14b) lying one above the other in the vertical direction of the front element and of which an upper mounting unit has a retaining projection with retaining section attachable to the inner side of the front element and in the attached state extending away from the inner side towards the side part, and with a catch device for the retaining projection attachable to the side part, wherein the catch device has a main body with a front and a rear, and a catch hook pivotably mounted on the main body, preloaded by a spring device, between a basic position and a clamped position, wherein the catch hook has a clamping face which faces the rear of the main body and engages behind the retaining section of the retaining projection in the clamped position, clamping the front element to the side part, wherein the catch hook has an actuating face, inclined relative to the clamping face and adjoining it via an apex facing the front of the main body, and lying in the basic position in the insertion path of the retaining projection, wherein the catch hook is biased via the spring device into the basic position in such a way that the retaining section of the retaining projection, during the insertion process, is able to strike against the actuating face and can press the catch hook, against the force of the spring device, out of the basic position and, after the retaining section has passed the apex and reached the area of the clamping face, is able though the force of the spring device to swivel the catch hook back in the direction of the basic position, in order to act with the clamping face on the retaining section, and wherein the catch hook is in the form of a single-arm lever, pivotably mounted on a stationary pivot axis located on the main body between the basic position and the clamped position, wherein the pivot axis is located in the area between the actuating face and the clamping face, characterised in that the spring device for preloading the catch hook into the basic position acts directly on a long side of the catch hook which is located opposite a long side equipped with the actuating face and the clamping face, or that the spring device for preloading the catch hook into the basic position acts indirectly on the catch hook via a force application lever, wherein the force application lever is hinged to the catch hook via a connecting hinge.
A gas diffusion layer for a fuel battery comprising: a porous member containing conductive particles, conductive fibers and a polymer resin as main components, wherein carbon black, graphite or activated carbon is used as material for the conductive particles, carbon nanotubes are used as conductive fibers, and polytetrafluoroethylene (PTFE), tetrafluoroethylene-hexafluoropropylene copolymer, polyvinylidene fluoride (PVDF), tetrafluoroethylene-ethylene copolymer (ETFE), polychlorotrifluoroethylene (PCTFE) or polyfluoroethylene-perfluoroalkyl vinyl ether copolymer is used as material for the polymer resin; and wherein an amount of the conductive fibers in the porous member is larger than an amount of the conductive particles, an aggregate of the conductive fibers is formed inside the porous member, the diameter of the aggregate being 1 to 20 μm, an area ratio of the aggregate in any cross-section of the porous member calculated from an area ratio of the aggregate to a total cross-sectional area is 0.5% or more and 8% or less when determined by the method indicated in the description, a cumulative pore volume of the porous member is 1.0 mL/g or more and 1.7 mL/g or less, and a peak of pore size distribution is 0.05 μm or more and 0.5 μm or less when determined by the method indicated in the description. a porous member containing conductive particles, conductive fibers and a polymer resin as main components, wherein carbon black, graphite or activated carbon is used as material for the conductive particles, carbon nanotubes are used as conductive fibers, and polytetrafluoroethylene (PTFE), tetrafluoroethylene-hexafluoropropylene copolymer, polyvinylidene fluoride (PVDF), tetrafluoroethylene-ethylene copolymer (ETFE), polychlorotrifluoroethylene (PCTFE) or polyfluoroethylene-perfluoroalkyl vinyl ether copolymer is used as material for the polymer resin; and wherein an amount of the conductive fibers in the porous member is larger than an amount of the conductive particles, an aggregate of the conductive fibers is formed inside the porous member, the diameter of the aggregate being 1 to 20 μm, an area ratio of the aggregate in any cross-section of the porous member calculated from an area ratio of the aggregate to a total cross-sectional area is 0.5% or more and 8% or less when determined by the method indicated in the description, a cumulative pore volume of the porous member is 1.0 mL/g or more and 1.7 mL/g or less, and a peak of pore size distribution is 0.05 μm or more and 0.5 μm or less when determined by the method indicated in the description.
A gas turbine engine de-icing system comprising: a heat exchanger; a coolant loop in fluid communication with the heat exchanger and configured to circulate a heat transfer fluid; an engine oil loop in fluid communication with the heat exchanger and configured to transfer heat to the heat transfer fluid; and characterized in that the system further comprises a gas turbine engine inlet structure having at least one fan inlet guide vane, a spray bar disposed at least partially in at least one fan inlet guide vane, the spray bar is in fluid communication with the coolant loop, the spray bar configured to spray the heat transfer fluid onto an inner surface of the at least one fan inlet guide vane to de-ice the fan inlet guide vane. a heat exchanger; a coolant loop in fluid communication with the heat exchanger and configured to circulate a heat transfer fluid; an engine oil loop in fluid communication with the heat exchanger and configured to transfer heat to the heat transfer fluid; and characterized in that the system further comprises a gas turbine engine inlet structure having at least one fan inlet guide vane, a spray bar disposed at least partially in at least one fan inlet guide vane, the spray bar is in fluid communication with the coolant loop, the spray bar configured to spray the heat transfer fluid onto an inner surface of the at least one fan inlet guide vane to de-ice the fan inlet guide vane.