mhurhangee/ep-ind-claims huggingface dataset:
Internal combustion engine having a fuel tank, having a tank ventilation line and having a Venturi nozzle which is provided in a fluid-conducting component, wherein the Venturi nozzle has an inflow channel, an opening-in point which adjoins the inflow channel in a downstream direction and which has a fluidic connection to the tank ventilation line, and an outflow channel which adjoins the opening-in point in a downstream direction, wherein an outflow section of the Venturi nozzle downstream of the opening-in point is surrounded by the component such that a detection chamber is formed around the outflow section, characterized in that the detection chamber has at least one inlet opening via which the detection chamber can be charged with pressure, and in that at least one pressure sensor for monitoring the pressure in the detection chamber is provided.
A method for using saliva to measure hydration of a human or animal subject, the method comprising: inserting a first end of a sensor into a handheld saliva testing device; receiving saliva from the subject on a second end of the sensor by contacting the second end of the sensor with the subject's tongue or mouth; moving the saliva from the second end of the sensor through at least one microfluidic channel on the sensor to the first end of the sensor; processing the saliva with the handheld saliva testing device to provide initial saliva data related to the hydration of the human or animal subject; transmitting the initial saliva data from the handheld saliva testing device to a computer processor; and processing the initial saliva data with the computer processor to provide final measurement data describing the hydration of the human or animal subject. inserting a first end of a sensor into a handheld saliva testing device; receiving saliva from the subject on a second end of the sensor by contacting the second end of the sensor with the subject's tongue or mouth; moving the saliva from the second end of the sensor through at least one microfluidic channel on the sensor to the first end of the sensor; processing the saliva with the handheld saliva testing device to provide initial saliva data related to the hydration of the human or animal subject; transmitting the initial saliva data from the handheld saliva testing device to a computer processor; and processing the initial saliva data with the computer processor to provide final measurement data describing the hydration of the human or animal subject.
An adjustable centering tool for use in pipes of varying inner diameter, the centering tool being provided with a number of identical and steplessly adjustable, radially protruding wings having guiding lugs and chamfered end faces (2"), and with a cylindrical tool body having its outer circumference fitted with longitudinal grooves having sloped terminations for cooperation with the guiding lugs, characterized in that the wings are retainable by an upper lock mandrel with a safety pin and a lower lock mandrel with a safety nut.
Connected building block having six bricks (B1 to B6) or eight bricks (B1 to B6) and a at least one alignment device (AV1 to AV4) for aligning said bricks (B1 to B6), said at least six bricks (B1 to B6) are aligned so that the surface normals (FN1 to FN6) of surfaces for building on are directed in at least six directions (x, y, z, -x, -y, -z) that are different from one another, said surfaces for building on are provided with at least one stud (N1 to N8) or with a plurality of studs (N1 to N8), wherein the bricks (B1 to B6) comprise at least one hollow cylinder (HZ1 to HZ3) located within a hollow space that is delimited by side walls (2 to 8) of the brick (B1 to B6), wherein the bricks (B1 to B6) of the connected building block (V1 to V3) have a width of 15.8 millimeter or of 31.7 millimeter within a range of plus or minus one millimeter, characterized in that, at least one hollow cylinder of said bricks (B1 to B6) is mechanically engaged with one respective end of the at least one alignment device (AV1 to AV4) by way of force fitting, and in that there is a gap (S1 to S4) or wherein there is no gap between each of the end of the alignment device (AV1 to AV4) and the bottom of said hollow cylinder respectively in which the end engages.
System having a first food-slicing machine, in particular a high-performance slicer, for slicing blocks of food into slices of food, the first food-slicing machine having a first feed module (1.2) for feeding the blocks of food, a first slicing module (1.3) for slicing the blocks of food, a first transporting belt (1.4) for transporting the fed blocks of food from the first feed module (1.2) to the first slicing module (1.3), and a first longitudinal member (1.5) for spacing the first slicing module (1.3) apart from the first feed module (1.2), the system having a second food-slicing machine, in particular a high-performance slicer, for slicing blocks of food into slices of food, the second food-slicing machine having a second feed module (2.2) for feeding the blocks of food, a second slicing module (2.3) for slicing the blocks of food, a second transporting belt (2.4) for transporting the fed blocks of food from the second feed module (2.2) to the second slicing module (2.3), and a second longitudinal member (2.5) for spacing the second slicing module (2.3) apart from the second feed module (2.2), wherein the first feed module (1.2) and the second feed module (2.2) are identical and the first slicing module (1.3) and the second slicing module (2.3) are identical, characterized in that the first transporting belt (1.4) and the second transporting belt (2.4) are of different lengths and the first longitudinal member (1.5) and the second longitudinal member (2.5) are of different lengths for spacing the first feed module (1.2) apart from the first slicing module (1.3) and the second feed module (2.2) apart from the second slicing module (2.3) to different extents. the system having a second food-slicing machine, in particular a high-performance slicer, for slicing blocks of food into slices of food, the second food-slicing machine having a second feed module (2.2) for feeding the blocks of food, a second slicing module (2.3) for slicing the blocks of food, a second transporting belt (2.4) for transporting the fed blocks of food from the second feed module (2.2) to the second slicing module (2.3), and a second longitudinal member (2.5) for spacing the second slicing module (2.3) apart from the second feed module (2.2), wherein the first feed module (1.2) and the second feed module (2.2) are identical and the first slicing module (1.3) and the second slicing module (2.3) are identical, characterized in that the first transporting belt (1.4) and the second transporting belt (2.4) are of different lengths and the first longitudinal member (1.5) and the second longitudinal member (2.5) are of different lengths for spacing the first feed module (1.2) apart from the first slicing module (1.3) and the second feed module (2.2) apart from the second slicing module (2.3) to different extents.
A system comprising: circuitry configured to acquire a result of a measurement by a terminal device; and control switching an operation mode of a base station of a small cell partially or wholly overlapping a macro cell between a first mode and a second mode based on the result of the measurement, the second mode being a mode that consumes less power than the first mode, characterized in that the result of the measurement includes a result of a measurement in the small cell and the result of the measurement includes a result of a measurement of one or more cells other than the small cell, and the circuitry is configured to determine a handover destination of the terminal device connected to the base station of the small cell upon determining to switch the operation mode of the base station from the first mode to the second mode. circuitry configured to acquire a result of a measurement by a terminal device; and control switching an operation mode of a base station of a small cell partially or wholly overlapping a macro cell between a first mode and a second mode based on the result of the measurement, the second mode being a mode that consumes less power than the first mode, characterized in that the result of the measurement includes a result of a measurement in the small cell and the result of the measurement includes a result of a measurement of one or more cells other than the small cell, and the circuitry is configured to determine a handover destination of the terminal device connected to the base station of the small cell upon determining to switch the operation mode of the base station from the first mode to the second mode.
A high-temperature heat pump for heating a fluid to a temperature level up to 150°C, said pump being operated in the transcritical range with carbon dioxide as coolant, comprising an evaporator, at least one inner heat exchanger, a compressor, one or more gas coolers (2, 3) connected in series, a coolant collector, and a coolant injection valve, wherein the inlet of the coolant collector is connected via a control valve and via the first inner heat exchanger to the exit of the series connection of the gas coolers (2, 3), and the outlet of the coolant collector is connected to the relief valve, and a further application-based inner heat exchanger, which is used to heat the carbon dioxide by means of hot water prior to entry into the compressor, is connected on the coolant side between the outlet of the first inner heat exchanger and the inlet of the compressor, characterised in that the water-side inlet of the second inner heat exchanger is connected via at least one control valve to the water-side outlet of the gas cooler, of which the coolant-side outlet is connected to the first inner heat exchanger.
A computer-implemented method, comprising: receiving (203, 505) a uniform resource locator, URL; tokenizing (205, 510) the URL to reduce the URL into a plurality of components; identifying (206, 515) one or more human-engineered features of the URL; computing a vector representation of the URL using a first neural network to identify (207, 520) one or more deep learned features of the URL; concatenating (208, 525) the one or more human-engineered features of the URL to the one or more deep learned features of the URL, resulting in a concatenated vector representation; computing (209, 530), by inputting the concatenated vector representation of the URL to a URL classifier, a phish classification score, the URL classifier being a second neural network; and in response to determining that the phish classification score exceeds a first phish classification threshold, causing a cybersecurity server to perform a first action. receiving (203, 505) a uniform resource locator, URL; tokenizing (205, 510) the URL to reduce the URL into a plurality of components; identifying (206, 515) one or more human-engineered features of the URL; computing a vector representation of the URL using a first neural network to identify (207, 520) one or more deep learned features of the URL; concatenating (208, 525) the one or more human-engineered features of the URL to the one or more deep learned features of the URL, resulting in a concatenated vector representation; computing (209, 530), by inputting the concatenated vector representation of the URL to a URL classifier, a phish classification score, the URL classifier being a second neural network; and in response to determining that the phish classification score exceeds a first phish classification threshold, causing a cybersecurity server to perform a first action.
Dental tool handle with an elongated, ergonomically designed handle body, one end area of which has formed thereon a coupling attachment to which a respective tool can be detachably fastened, wherein the coupling attachment comprises a threaded recess and is provided on at least one outer surface with a structure designed in the form of an outer polygon, which is engageable in a form-fit and rotation-secured manner with a tool, characterized in that the coupling attachment is provided on its outer surface with an axial securing device designed in the form of a locking recess.
Projectile, comprising a projectile body and explosive disposed therein, wherein the projectile has a cylindrical part and an ogive, wherein the projectile body is designed and/or the explosive is disposed or distributed such that on ignition of the explosive a radial speed profile of the fragments produced by the projectile body breaking up results at least in segments with the radial speed (v r) increasing from front to rear when viewed in the longitudinal direction of the projectile, characterized in that a decrease in the density of the body of the projectile from front to rear along the longitudinal axis of the projectile is applied at least to the cylindrical part of the projectile lying near the ogive.
Insert for a support of a motor vehicle, said insert comprising a head from which extends an elongate body along a longitudinal axis Z, the insert is configured to vary, by pivoting the insert about the longitudinal axis Z, between a locked state in which the head and an abutment (5a, 5b), borne by the elongate body, are intended to cooperate with an axial locking element (6c, 6b) borne by the support so as to inhibit a translational movement of the insert with respect to said support along the longitudinal axis Z, and an unlocked state in which the elongate body of the insert is able to be inserted into an opening of the support or removed from the opening of the support, the insert comprises a first rotation-locking element (7a, 7b) mounted on the head and configured so as to inhibit the rotation of the insert about the longitudinal axis Z, by cooperation with a second rotation-locking element borne by the support, when the insert is in the locked state, characterized in that the head comprises an axial stop element (8a, 8b) configured so as to cooperate with the abutment (5a, 5b) in order to axially lock the support between the abutment (5a, 5b) and said axial stop element (8a, 8b), and in that the stop element (8a, 8b) is formed in a projecting manner from a surface of the head bearing the first locking element (7a, 7b), said stop element (8a, 8b) being configured so as to interpose, in the locked state, a free space between said surface of the head and the support so as to allow access to the first locking element (7a, 7b).
Delta-sigma digital to analog converter by means of which a digital input signal can be converted to a binary discrete-time output signal according to a clock, wherein the value of the input signal can be represented in an analog manner using an average value for the output signal which is formed over several clocks, wherein the delta-sigma digital to analog converter is designed in such a way that, during operation, it makes the output signal available through the juxtaposition of signal patterns ("0" SM, "1" SM, "1/4" SM, "2/4" SM, "3/4" SM, "1/16" SM, "2/16" SM,..., "15/16" SM) of a set of signal patterns, wherein the signal patterns of the set are binary in each case, are discrete-time according to the clock and extend over a signal pattern cycle length of several clocks, wherein at least two signal patterns of the set have signal pattern mean values which are different from one another and which are formed over the individual signal pattern cycle length, wherein all the signal patterns of the set have essentially the same number of edges (2, 3), particularly exactly the same number of edges, and wherein all the signal patterns ("1/4" SM, "2/4" SM, "3/4" SM, "1/16" SM, "2/16" SM,..., "15/16" SM) of the set have a signal pattern cycle length of m clocks, characterized in that the set m-1 has different signal patterns with different signal pattern average values in each case, in that the signal pattern ("1/4" SM, "1/16" SM) with the lowest signal pattern average value adopts the high value of the two binary values available for a period of exactly one clock and then adopts the low binary value for the remaining m-1 clocks, and in that every signal pattern of the set adopts the high binary value for exactly one clock longer compared to the signal pattern with the next lowest signal pattern average value.
A seal plate (126, 300) for directing an airflow through a turbine section of an engine, the seal plate (126, 300) comprising: a hub having a tubular section and an annular flange section flared outwardly relative to the tubular section, the annular flange section defining a flow surface; a plurality of main pumping vanes (144, 302, 322) disposed circumferentially on the flow surface around the annular flange section of the hub, each main pumping vane (144, 302, 322) having a canted section and a straight section, the canted section located radially inward relative to the straight section and aligned with a flow direction of the airflow, and the straight section extending along a first plane including a centerline of the seal plate (126, 300), the straight section lying in a radially inward direction which passes through the centerline; and a plurality of splitter vanes disposed circumferentially on the flow surface around the annular flange section of the hub such that at least one splitter vane is disposed between the straight sections of two adjacent main pumping vanes (144, 302, 322), each splitter vane having a length that is less than a length of each of the two adjacent main pumping vanes (144, 302, 322). a hub having a tubular section and an annular flange section flared outwardly relative to the tubular section, the annular flange section defining a flow surface; a plurality of main pumping vanes (144, 302, 322) disposed circumferentially on the flow surface around the annular flange section of the hub, each main pumping vane (144, 302, 322) having a canted section and a straight section, the canted section located radially inward relative to the straight section and aligned with a flow direction of the airflow, and the straight section extending along a first plane including a centerline of the seal plate (126, 300), the straight section lying in a radially inward direction which passes through the centerline; and a plurality of splitter vanes disposed circumferentially on the flow surface around the annular flange section of the hub such that at least one splitter vane is disposed between the straight sections of two adjacent main pumping vanes (144, 302, 322), each splitter vane having a length that is less than a length of each of the two adjacent main pumping vanes (144, 302, 322).
Apparatus designed to determine and/or monitor the temperature of a medium, comprising at least a temperature sensor and a measuring element, wherein at least the temperature sensor and the measuring element are arranged in a single sensor head, and wherein at least a unit is arranged at least partially inside the sensor head, said unit comprising a material with anisotropic thermal conductivity, wherein the unit is designed to specifically influence the heat flow within the sensor head, characterized in that the unit is designed to guarantee that at least the temperature sensor and the measuring element are essentially in thermal equilibrium at all times, and that the spread of heat within the sensor head is homogeneous irrespective of the thermal environment of the apparatus.
A liquid crystal composition with a negative dielectric anisotropy, comprising: a compound represented by Formula in a range of 10% by mass to 40% by mass; a compound represented by General Formula (VII-a2) in a range of 5% by mass to 30% by mass; a compound represented by General Formula of equal to or more than 15% by mass: wherein R 1 represents an alkyl group having 1 to 8 carbon atoms, and R 2 represents an alkoxy group having 1 to 8 carbon atoms; and a compound represented by General Formula in a range of 5% by mass to 35% by mass: wherein R 3 represents an alkyl group having 1 to 8 carbon atoms, and R 4 represents an alkoxy group having 1 to 8 carbon atoms. a compound represented by Formula in a range of 10% by mass to 40% by mass; a compound represented by General Formula (VII-a2) in a range of 5% by mass to 30% by mass; a compound represented by General Formula of equal to or more than 15% by mass: wherein R 1 represents an alkyl group having 1 to 8 carbon atoms, and R 2 represents an alkoxy group having 1 to 8 carbon atoms; and a compound represented by General Formula in a range of 5% by mass to 35% by mass: wherein R 3 represents an alkyl group having 1 to 8 carbon atoms, and R 4 represents an alkoxy group having 1 to 8 carbon atoms.
A robot cleaner comprising: a main body forming an appearance; at least one driving wheel (131a, 131b) installed on a lower portion of the main body; a driving unit configured to drive the driving wheel according to an operation of a driving motor; a first obstacle sensor positioned on the lower portion of the main body and configured to sense an obstacle on the floor; and a control unit configured to, when the sensed obstacle on the floor has a preset pattern, limit driving of the at least one driving wheel such that the at least one driving wheel is not hindered by the preset pattern when the main body rotates on the preset pattern according to driving of the at least one driving wheel, characterized in that: the preset pattern is a pattern in which at least one rising edge and an at least one falling edge alternate, and wherein the preset pattern includes a recess form in which the rising edge and the falling edge have a preset depth or greater and a width calculated on the basis of a distance between the rising edge and the falling edge is within a preset range or includes a step form including any one among the rising edge and the falling edge. a main body forming an appearance; at least one driving wheel (131a, 131b) installed on a lower portion of the main body; a driving unit configured to drive the driving wheel according to an operation of a driving motor; a first obstacle sensor positioned on the lower portion of the main body and configured to sense an obstacle on the floor; and a control unit configured to, when the sensed obstacle on the floor has a preset pattern, limit driving of the at least one driving wheel such that the at least one driving wheel is not hindered by the preset pattern when the main body rotates on the preset pattern according to driving of the at least one driving wheel, characterized in that: the preset pattern is a pattern in which at least one rising edge and an at least one falling edge alternate, and wherein the preset pattern includes a recess form in which the rising edge and the falling edge have a preset depth or greater and a width calculated on the basis of a distance between the rising edge and the falling edge is within a preset range or includes a step form including any one among the rising edge and the falling edge. the preset pattern is a pattern in which at least one rising edge and an at least one falling edge alternate, and wherein the preset pattern includes a recess form in which the rising edge and the falling edge have a preset depth or greater and a width calculated on the basis of a distance between the rising edge and the falling edge is within a preset range or includes a step form including any one among the rising edge and the falling edge.