mhurhangee/ep-ind-claims huggingface dataset:
Line element for a liquid-cooled component of an internal combustion engine, with a supply line for supplying coolant to the component and a discharge line for discharging coolant from the component, wherein the component has an internal coolant path which has an inlet which can be connected to the supply line in a fluid-conducting manner, and an outlet which can be connected to the discharge line in a fluid-conducting manner, and wherein the supply line is also connected to the discharge line in a fluid-conducting manner via a bypass connection (14, 15, 16), characterized in that the component is a bearing housing of a compressor for compressing air and for conducting air to the internal combustion engine.
A network node for providing network access to wireless devices in a coverage area, the network node comprising: a processor; and one or more antennas in a transceiver configured to use a plurality of beam sets N, each of the plurality of beam sets comprising a plurality of beams K transmitting simultaneously, and each of the plurality of beam sets transmitting during a designated time only; the processor in communication with the transceiver being configured to, for each beam set, broadcast acquisition information during a corresponding one of a periodic plurality X of beam frames, wherein the acquisition information is broadcast one beam set at a time, wherein the periodic plurality X of beam frames are within a periodic plurality Y of subframes, and wherein a subframe of the periodic plurality Y of subframes is partitioned into the periodic plurality X of beam frames, the periodic plurality X of beam frames occurring with a first periodicity and the periodic plurality Y of subframes occurring with a second periodicity. a processor; and one or more antennas in a transceiver configured to use a plurality of beam sets N, each of the plurality of beam sets comprising a plurality of beams K transmitting simultaneously, and each of the plurality of beam sets transmitting during a designated time only; the processor in communication with the transceiver being configured to, for each beam set, broadcast acquisition information during a corresponding one of a periodic plurality X of beam frames, wherein the acquisition information is broadcast one beam set at a time, wherein the periodic plurality X of beam frames are within a periodic plurality Y of subframes, and wherein a subframe of the periodic plurality Y of subframes is partitioned into the periodic plurality X of beam frames, the periodic plurality X of beam frames occurring with a first periodicity and the periodic plurality Y of subframes occurring with a second periodicity.
Method for manufacturing an optical device for a household appliance, comprising the following steps: a) providing a substrate of translucent glass; b) contactlessly printing the substrate with an optical structure comprising a plurality of lenticular optical elements, characterized in that a surface of the substrate provided in step a) is subjected to a surface treatment prior to application of the optical structure according to step b), in which the surface is cleaned, activated by introducing the substrate in an O 3 chamber for some time, and provided with a hydrophobic surface coating by depositing fluorosilanes on the surface by a CVD technique.
A method for monitoring components in an exhaust aftertreatment system (EATS) comprising, in order from upstream to downstream, a diesel oxidation catalyst, a diesel particulate filter, and a selective catalytic reduction catalyst, the method comprising: measuring a first 02 level at a first location between the DOC and the DPF; measuring a second O2 level at a second location downstream of the SCR; measuring a first NOx level at the first location; measuring a second NOx level at the second location; calculating SCR efficiency based on the first and second NOx levels; and determining whether the DOC, the DPF, and the SCR are functioning properly based on whether the first O2 level is within a first O2 target, whether the second O2 level is within a second O2 target, and whether SCR efficiency is within an SCR efficiency target. measuring a first 02 level at a first location between the DOC and the DPF; measuring a second O2 level at a second location downstream of the SCR; measuring a first NOx level at the first location; measuring a second NOx level at the second location; calculating SCR efficiency based on the first and second NOx levels; and determining whether the DOC, the DPF, and the SCR are functioning properly based on whether the first O2 level is within a first O2 target, whether the second O2 level is within a second O2 target, and whether SCR efficiency is within an SCR efficiency target. whether the first O2 level is within a first O2 target, whether the second O2 level is within a second O2 target, and whether SCR efficiency is within an SCR efficiency target.
Valve, with a valve housing, in which a primary channel, a secondary channel and an overflow opening arranged between the primary channel and the secondary channel are arranged, wherein the overflow opening is framed by a valve seat on the side facing the secondary channel, with a valve member arranged in the valve housing, which by performing a working movement in the axial direction of the imaginary main axis relative to the valve seat is movable between a closed position abutting the valve seat, in which the valve member covers the overflow opening with a closing surface arranged on its front side, and at least one open position raised above the valve seat, wherein the valve member with a compensation surface oriented opposite to the closing surface and designed at least essentially equal to the closing surface limits a compensating chamber connected at least in the closed position with the primary channel, which moreover is limited by an end surface of a support body opposite the compensation surface, characterised in that the support body with sealing dips into a rear guide recess of the valve member and in this guide recess with the end surface arranged on it limits the compensating chamber, wherein the valve member and the support body are displaceable relative to each other in the axial direction of the main axis, and that the support body has a support surface opposite the end surface, with which it is supported or supportable on a mating support surface fixed relative to the housing, wherein it is movable on all sides relative to the mating support surface transversely to the axial direction of the main axis.
A system for separating pieces having a second density from granular material, including a separation tank (2a - d) comprising: - a first side wall provided with a tank outlet, - a bottom, - a pipe defining a channel (3a-c) for allowing a slurry of water, a floating material having a first density, which is less than the second density, granular material and the pieces having the second density, to flow into the separation tank (2a-d), wherein the pipe has a pipe outlet spaced apart from the tank outlet in a horizontal and vertical direction, and the tank outlet is arranged above the pipe outlet in a vertical direction, - a separation chamber (8a-c) including the tank outlet and arranged in liquid communication with the pipe outlet, and - a trap for collecting pieces having the second density, arranged at the bottom of the tank, wherein the pipe outlet is positioned in a lower third of the separation tank (2a-d), and the pipe outlet is facing the bottom of the separation tank so that the slurry flows through the pipe outlet towards the bottom in a substantially vertical direction to cause a turbulent flow of the slurry in the separation tank (2a-d). - a first side wall provided with a tank outlet, - a bottom, - a pipe defining a channel (3a-c) for allowing a slurry of water, a floating material having a first density, which is less than the second density, granular material and the pieces having the second density, to flow into the separation tank (2a-d), wherein the pipe has a pipe outlet spaced apart from the tank outlet in a horizontal and vertical direction, and the tank outlet is arranged above the pipe outlet in a vertical direction, - a separation chamber (8a-c) including the tank outlet and arranged in liquid communication with the pipe outlet, and - a trap for collecting pieces having the second density, arranged at the bottom of the tank, wherein the pipe outlet is positioned in a lower third of the separation tank (2a-d), and the pipe outlet is facing the bottom of the separation tank so that the slurry flows through the pipe outlet towards the bottom in a substantially vertical direction to cause a turbulent flow of the slurry in the separation tank (2a-d). - a trap for collecting pieces having the second density, arranged at the bottom of the tank, wherein the pipe outlet is positioned in a lower third of the separation tank (2a-d), and the pipe outlet is facing the bottom of the separation tank so that the slurry flows through the pipe outlet towards the bottom in a substantially vertical direction to cause a turbulent flow of the slurry in the separation tank (2a-d).
A method of wireless communications, comprising: determining, by a device, a peak to average ratio value for a portion of a wireless transmission associated with a first time slot; determining, by the device, a power variation metric for a second time slot, the power variation metric indicating a maximum power variation between an input signal to a power amplifier of the device for the first time slot and an input signal to the power amplifier of the device for the second time slot, and the first time slot preceding the second time slot; selecting, by the device, a bias value for the second time slot based on the PAR value associated with the first time slot and the power variation metric for the second time slot; and causing, by the device, a voltage to be applied to the power amplifier of the device based on the bias value as part of transmitting the portion of the wireless transmission. determining, by a device, a peak to average ratio value for a portion of a wireless transmission associated with a first time slot; determining, by the device, a power variation metric for a second time slot, the power variation metric indicating a maximum power variation between an input signal to a power amplifier of the device for the first time slot and an input signal to the power amplifier of the device for the second time slot, and the first time slot preceding the second time slot; the power variation metric indicating a maximum power variation between an input signal to a power amplifier of the device for the first time slot and an input signal to the power amplifier of the device for the second time slot, and the first time slot preceding the second time slot; selecting, by the device, a bias value for the second time slot based on the PAR value associated with the first time slot and the power variation metric for the second time slot; and causing, by the device, a voltage to be applied to the power amplifier of the device based on the bias value as part of transmitting the portion of the wireless transmission.
Heat exchanger, in particular an charge-air cooler, comprising at least one header box that has a plate, wherein at least one tube approximately perpendicular to the plate engages a rim hole that projects out of the plate and surrounds a tube end, wherein the rim hole has a quasi-rectangular cross-section matched to the outer circumference of the tube, characterized in that a wall thickness of the rim hole is reduced in at least one corner region, in particular by tool forming, relative to a narrow side and a wide side.
Method for avoiding a collision of a load of a crane with an obstacle, wherein the load is moved along a trajectory, wherein a height profile is acquired at least along the trajectory by means of at least two sensors for distance measurement, characterised in that signals of the sensors are sent via at least two communication channels to a controller with at least two operating systems (9, 10), of which at least one has a safety program in a secure region, wherein an obstacle along the trajectory is identified on the basis of the height profile.
A method for determining a location of a vehicle, the method comprising: acquiring a two-dimensional image, 2D-image using a vehicle-based camera, said image depicting a portion of the vehicle surroundings; classifying a plurality of pixels in said image such that each classified pixel belong to one class out of a predetermined set of classes, thereby forming a classified 2D-image, wherein said classification is performed by means of a learning algorithm; determining an initial estimated vehicle location; defining a plurality of possible vehicle locations based on the initial estimated vehicle location; accessing a pre-stored three dimensional map, 3D-map, comprising a plurality of geometric objects, each geometric object belonging to one class out of said predetermined set of classes; matching the classified 2D-image with the 3D-map, by comparing a classification of a geometric object in the 3D-map, for a possible vehicle location, with a classification of a corresponding at least one pixel in the classified 2D-image; wherein matching comprises projecting at least one classified pixel of said 2D-image onto a geometric object in said 3D-map, and comparing the classification of the geometric object with the classification of the projected at least one pixel in the classified 2D-image; determining a matching score for at least one possible vehicle location based on a plurality of matched pixels of said 2D-image; and determining a vehicle location based on the score of the at least one possible vehicle location. acquiring a two-dimensional image, 2D-image using a vehicle-based camera, said image depicting a portion of the vehicle surroundings; classifying a plurality of pixels in said image such that each classified pixel belong to one class out of a predetermined set of classes, thereby forming a classified 2D-image, wherein said classification is performed by means of a learning algorithm; determining an initial estimated vehicle location; defining a plurality of possible vehicle locations based on the initial estimated vehicle location; accessing a pre-stored three dimensional map, 3D-map, comprising a plurality of geometric objects, each geometric object belonging to one class out of said predetermined set of classes; matching the classified 2D-image with the 3D-map, by comparing a classification of a geometric object in the 3D-map, for a possible vehicle location, with a classification of a corresponding at least one pixel in the classified 2D-image; wherein matching comprises projecting at least one classified pixel of said 2D-image onto a geometric object in said 3D-map, and comparing the classification of the geometric object with the classification of the projected at least one pixel in the classified 2D-image; determining a matching score for at least one possible vehicle location based on a plurality of matched pixels of said 2D-image; and determining a vehicle location based on the score of the at least one possible vehicle location.
An electronic building automation device, comprising: - a processor circuit configured to - monitor the building automation device, and - determine a need for servicing of the building automation device, characterized by the following features: - a servicing beacon arranged to transmit a localizing beacon signal, the servicing beacon being selectively activatable by the processor circuit, the localizing beacon signal comprising a servicing request identifier indicating the servicing beacon as a building automation device in need of servicing, wherein the servicing beacon is configured to have a first mode in which the servicing beacon transmits a first localizing beacon signal, the first localizing beacon signal not comprising the servicing request identifier, the servicing beacon in the first mode being part of a localization beacon network, and a second mode in which the servicing beacon transmits a second localizing beacon signal, the second localizing beacon signal comprising the servicing request identifier indicating the beacon as a building automation device in need of servicing, wherein the processor circuit is further configured to - switch the servicing beacon from the first mode to second mode if the building automation device determined a need for servicing. - a processor circuit configured to - monitor the building automation device, and - determine a need for servicing of the building automation device, characterized by the following features: - monitor the building automation device, and - determine a need for servicing of the building automation device, characterized by the following features: - a servicing beacon arranged to transmit a localizing beacon signal, the servicing beacon being selectively activatable by the processor circuit, the localizing beacon signal comprising a servicing request identifier indicating the servicing beacon as a building automation device in need of servicing, wherein the servicing beacon is configured to have a first mode in which the servicing beacon transmits a first localizing beacon signal, the first localizing beacon signal not comprising the servicing request identifier, the servicing beacon in the first mode being part of a localization beacon network, and a second mode in which the servicing beacon transmits a second localizing beacon signal, the second localizing beacon signal comprising the servicing request identifier indicating the beacon as a building automation device in need of servicing, wherein the processor circuit is further configured to - switch the servicing beacon from the first mode to second mode if the building automation device determined a need for servicing.
Method of automatic flushing of a pressure sewer system consisting of a pressure main and at least two house connecting pressure pipes, each house connecting pressure pipe connecting to the pressure main a respective pump sump for wastewater fitted with sensors for measuring the wastewater level in the respective pump sump wherein each house connecting pressure pipe or pump sump is equipped with a pump for transferring wastewater via the respective house connecting pressure pipe into the pressure main; each pump is interconnected with an electronic control unit fitted with inputs for analysing data from the sensors, outputs for the control of the pump, at least one processor, at least one database allowing at least one software module to be deposited, and at least one communication interface for wire and/or wireless communication, wherein the activation of the pumps for the withdrawal of wastewater from the respective pump sump is executed in a synchronized manner wherein a temporary controlled change in an instantaneous flow rate (Q i) and an instantaneous pressure (P i) is generated at least in a segment of the pressure main, wherein the instantaneous flow rate (Q i) during the controlled change corresponds to a required flushing flow rate of the pressure main for required flushing a majority of waste sediments in the relating segment of pressure main and the instantaneous pressure (P i) during the controlled change does not exceed a nominal pressure (P n) of the pressure main, whereby the withdrawal of wastewater from the pump sumps is executed according to data concerning the wastewater level in the pump sumps and according to the order of the house connecting pressure pipes inlets into the pressure main.
A method for simulating a quantum system, comprising: obtaining, by one or more classical processors, a first Hamiltonian describing the quantum system, wherein the Hamiltonian is written in a plane wave basis comprising N plane wave basis vectors; applying, by the one or more classical processors, a discrete Fourier transform to the first Hamiltonian to generate a second Hamiltonian written in a plane wave dual basis, wherein the second Hamiltonian comprises a number of terms that scales at most quadratically with N; mapping, by the one or more classical processors, the second Hamiltonian to a qubit Hamiltonian; and simulating, by quantum computing hardware comprising a plurality of qubits and one or more control devices, the quantum system using the qubit Hamiltonian. obtaining, by one or more classical processors, a first Hamiltonian describing the quantum system, wherein the Hamiltonian is written in a plane wave basis comprising N plane wave basis vectors; applying, by the one or more classical processors, a discrete Fourier transform to the first Hamiltonian to generate a second Hamiltonian written in a plane wave dual basis, wherein the second Hamiltonian comprises a number of terms that scales at most quadratically with N; mapping, by the one or more classical processors, the second Hamiltonian to a qubit Hamiltonian; and simulating, by quantum computing hardware comprising a plurality of qubits and one or more control devices, the quantum system using the qubit Hamiltonian.
A method for in vitro evaluating the epidermal homeostasis of the skin of a subject, comprising differential analysis of the expression of the genes ESRRA, CBX3, TRIO, TCRB, PRRG2, ICP22BP, GPX3, GBA, BPGM, SMT3H2, LGALS2, DOC1 and GSN in response to a physical or chemical challenge of the stratum corneum.
A buckle for securing at least one band, wherein the buckle has at least one buckle basic body and at least one clamping web, which is mounted on the buckle basic body so as to be displaceable in at least one displacement direction and which is for securely clamping the band guided around the clamping web, and the clamping web has at least one clamping web basic body, displaceably mounted on the buckle basic body, and a clamping leg, which projects beyond the clamping web basic body and which is for contacting of the band guided around the clamping web, characterized in that to provide the displaceability of the clamping web relative to the buckle basic body, the clamping web basic body has a cutout, which is elongated viewed in a longitudinal section parallel to the displacement direction, through which a bearing pin arranged on the buckle basic body is guided.