mhurhangee/ep-ind-claims huggingface dataset:
An air collecting device for a dust measuring system, the air collecting device comprising: a housing defining a first chamber and a second chamber; an air inlet structure opening into the first chamber and being configured for providing an incoming air stream from the outside environment into the first chamber; an air outlet structure configured for expelling air from the air collecting device; an adapter structure, the adapter structure being configured for being connected with a dust sensor assembly, wherein the adapter structure comprises a fluidic connection to the first chamber and a fluidic connection to the second chamber; and a connecting portion establishing a fluidic connection between the first chamber and the second chamber; wherein the first chamber and the second chamber are partially separated by a separator wall, wherein the air outlet structure is a channel structure extending from an opening in the separator wall to the outside environment; and wherein the first chamber and/or the air inlet structure are configured such that the incoming air stream is guided at least partially towards the adapter structure and wherein the second chamber is configured such that an air stream entering the second chamber from the adapter structure passes the second chamber and is then guided into the first chamber via the connecting portion. a housing defining a first chamber and a second chamber; an air inlet structure opening into the first chamber and being configured for providing an incoming air stream from the outside environment into the first chamber; an air outlet structure configured for expelling air from the air collecting device; an adapter structure, the adapter structure being configured for being connected with a dust sensor assembly, wherein the adapter structure comprises a fluidic connection to the first chamber and a fluidic connection to the second chamber; and a connecting portion establishing a fluidic connection between the first chamber and the second chamber; wherein the first chamber and the second chamber are partially separated by a separator wall, wherein the air outlet structure is a channel structure extending from an opening in the separator wall to the outside environment; and wherein the first chamber and/or the air inlet structure are configured such that the incoming air stream is guided at least partially towards the adapter structure and wherein the second chamber is configured such that an air stream entering the second chamber from the adapter structure passes the second chamber and is then guided into the first chamber via the connecting portion.
A linear motor system for a sliding door, comprising a mover assembly connectable with a door body of the sliding door, a control assembly and at least two stator assemblies, wherein the control assembly is configured to control the movement of the mover assembly; characterized in that the control assembly is arranged between two stator assemblies in the at least two stator assemblies; wherein the linear motor system further comprises an adaptor and a power supply, wherein the adaptor and the power supply are respectively connected with ends, close to outer sides, of the stator assemblies far away from two ends of the control assembly in the at least two stator assemblies.
An absorptive glass mat for a SLA, VRLA, AGM, or VRLA AGM battery or battery string comprising: a) acid insoluble fibers, and b) at least one acid soluble glass component, the acid soluble glass component being a microfiber comprising silicon oxide and the acid soluble microfiber having an average fiber length of less than 2 microns. a) acid insoluble fibers, and b) at least one acid soluble glass component, the acid soluble glass component being a microfiber comprising silicon oxide and the acid soluble microfiber having an average fiber length of less than 2 microns.
A method for operating a locking system comprising an electronic key and an electronic lock, which are caused to interact with one another by a contact assembly and a mating contact assembly, and a central unit which in locking operation is used locally separately from the electronic key and the electronic lock, wherein in the method an external authorization code is generated by the central unit by means of an authorization code determination program (BCEPZ), the external authorization code is transferred to the electronic key and the external authorization code is stored in a memory by the electronic key, wherein, on interaction of the electronic key with the electronic lock, the electronic lock is operated by an electrical voltage source of the electronic key, the external authorization code is read out from the memory by the electronic lock and is checked by a processor of the electronic lock in that, using an internal authorization code determination program (BCEPS), the processor itself determines an internal authorization code and compares it with the external authorization code received by the electronic key and wherein, in the event of the determined internal authorization code being identical to the transferred external authorization code, the processor permits an opening process, wherein status signals of the electronic lock are transferred to the electronic key for display, and wherein the electronic key has a processor which controls signal elements (92, 94) for displaying the electronic lock statuses transferred by the electronic lock.
A medicament comprising as an active ingredient 150 kDa type A neurotoxin from type A2 Clostridium botulinum (A2 NTX) for use in the treatment of a disease with muscle overactivity for use in a patient who has a neutralizing antibody to a type A1 botulinum toxin.
The use of reaction products of polyisobutene that bear free acid groups, obtainable by reacting polyisobutene having a number-average molecular weight Mn of 200 to 10 000 with maleic acid or derivatives thereof, selected from the group consisting of monoalkyl esters, dialkyl esters and anhydrides, in a stoichiometric ratio of more than one equivalent of maleic acid or derivatives thereof per reactive double bond in the polyisobutene, with the proviso that - in the case of use of monoalkyl esters and/or dialkyl esters as compound, at least 10% of the ester groups present are in hydrolyzed form and/or - in the case of use of anhydrides as compound, at least 10% of the anhydride groups present are in hydrolyzed form, as corrosion inhibitors in fuels or lubricants, preferably in fuels, more preferably in fuels having a content of alkali metals and/or alkaline earth metals and/or zinc of at least 0.1 ppm by weight, wherein the reaction product of polyisobutene that bears free acid groups has a bismaleation level of 11% to 40%, where the bismaleation level is calculated by the formula BML = 100 % × ( wt % BM PIBSA / wt % BM PIBSA + wt % PIBSA where wt% represents the respective proportion by weight of component X (X = PIBSA (monomaleated polyisobutene) or BM PIBSA (more than monomaleated polyisobutene)) in the reaction product of polyisobutene with maleic anhydride. - in the case of use of monoalkyl esters and/or dialkyl esters as compound, at least 10% of the ester groups present are in hydrolyzed form and/or - in the case of use of anhydrides as compound, at least 10% of the anhydride groups present are in hydrolyzed form,
An electrical switch, adapted to be used as a contactor and comprising a housing (141, 142); a relay assembly arranged within the housing (141, 142) and configured to directly turn on and off a circuit connected to the electrical switch, the relay assembly comprising a first relay; and a control assembly arranged in parallel with the relay assembly in the same housing (141, 142), the control assembly being configured to control the relay assembly, and the control assembly comprising a wireless communication unit configured to receive signals to remotely control the relay assembly. a housing (141, 142); a relay assembly arranged within the housing (141, 142) and configured to directly turn on and off a circuit connected to the electrical switch, the relay assembly comprising a first relay; and a control assembly arranged in parallel with the relay assembly in the same housing (141, 142), the control assembly being configured to control the relay assembly, and the control assembly comprising a wireless communication unit configured to receive signals to remotely control the relay assembly.
A method of determining a device under test antenna frequency band relation of a device under test, comprising the following steps: - Performing an attach procedure between the device under test and a test system, - Asking, by means of the test system, the device under test for at least one frequency band supported by the device under test, - Submitting, by means of the device under test, the at least one frequency band supported to the test system, and - Performing a signaling test and/or a transmitter and/or receiver test for each antenna of the device under test and for each frequency band supported, wherein the device under test antenna frequency band relation corresponds to the number of frequency bands supported by the device under test and/or the assignment of the frequency bands supported to the antennas of the device under test. - Performing an attach procedure between the device under test and a test system, - Asking, by means of the test system, the device under test for at least one frequency band supported by the device under test, - Submitting, by means of the device under test, the at least one frequency band supported to the test system, and - Performing a signaling test and/or a transmitter and/or receiver test for each antenna of the device under test and for each frequency band supported,
Method for controlling an energy network for supplying vehicles, in particular a DC energy network, in which an amount of energy drawn from an external supply network is recorded and at least one amount of energy that is fed and consumed in the energy network is influenced so that a recovery of energy into the external supply network is avoided, wherein at least one limitation signal is automatically output to at least one energy recovery unit when a limitation signal limit value of the recorded amount of energy is reached or fallen below, by way of which the energy recovery unit reduces the recovery of energy into the energy network, and a blocking signal is automatically output to the at least one energy recovery unit when a blocking signal limit value of the recorded amount of energy is reached or fallen below, by way of which the energy recovery unit stops the recovery of energy into the energy network, wherein the blocking signal limit value lies below the limitation signal limit value.
An in vitro method for measuring the transport of an analyte from a living, biological cell through a cell membrane, comprising the steps of a) providing one or more living, biological cells which are loaded with an analyte; b) unloading at least a portion of the analyte from the cells; and c) measuring over a period of time the analyte using x-ray fluorescence emitted by an energy dispersive x-ray fluorescence spectrometer equipped with a microfocus x-ray tube. a) providing one or more living, biological cells which are loaded with an analyte; b) unloading at least a portion of the analyte from the cells; and c) measuring over a period of time the analyte using x-ray fluorescence emitted by an energy dispersive x-ray fluorescence spectrometer equipped with a microfocus x-ray tube.
A process for the preparation of a compound of formula IV wherein P is hydroxyl protecting group, comprising reacting a compound of formula XII wherein P is hydroxyl protecting group; R 1 is H or lower alkyl; R 2 and R 3 are independently lower alkyl or R 2 and R 3 can be alkyl and joined to form a 5-, 6- or 7-membered ring; R 4 is lower alkyl, wherein lower alkyl is a linear or branched alkyl having 1 to 6 carbon atoms; with a compound of formula XVI to form a compound of formula XVII and converting a compound of formula XVII to a compound of formula IV wherein P is hydroxyl protecting group; R 1 is H or lower alkyl; R 2 and R 3 are independently lower alkyl or R 2 and R 3 can be alkyl and joined to form a 5-, 6- or 7-membered ring; R 4 is lower alkyl, wherein lower alkyl is a linear or branched alkyl having 1 to 6 carbon atoms; with a compound of formula XVI to form a compound of formula XVII and converting a compound of formula XVII to a compound of formula IV
A polyether polyol composition for the preparation of visco-elastic polyurethane foams, comprising: (a) a polyether polyol having a hydroxyl functionality of 3, an OH number within a range of from 210 to 255 mg of KOH/g and a PO content within a range of from 90 to 100% by weight; (b) a polyether polyol whose polyol starting molecule is not derived from a renewable raw material, having a hydroxyl functionality of 2, an OH number within a range of from 41 to 71 mg of KOH/g and a PO content within a range of from 90 to 100% by weight; (c) a polyether polyol having a hydroxyl functionality of 2, an OH number within a range of from 92 to 132 mg of KOH/g and a PO content within a range of from 90 to 100% by weight; and (d) at least one renewable raw material each having at least one free OH group per molecule of raw material, wherein components (d) and (b) are as defined in the description (definitions 1 and 2). (a) a polyether polyol having a hydroxyl functionality of 3, an OH number within a range of from 210 to 255 mg of KOH/g and a PO content within a range of from 90 to 100% by weight; (b) a polyether polyol whose polyol starting molecule is not derived from a renewable raw material, having a hydroxyl functionality of 2, an OH number within a range of from 41 to 71 mg of KOH/g and a PO content within a range of from 90 to 100% by weight; (c) a polyether polyol having a hydroxyl functionality of 2, an OH number within a range of from 92 to 132 mg of KOH/g and a PO content within a range of from 90 to 100% by weight; and (d) at least one renewable raw material each having at least one free OH group per molecule of raw material, wherein components (d) and (b) are as defined in the description (definitions 1 and 2).
A method of controlling a LED signal, comprising the steps of: receiving LED data for one or more LEDs, wherein the LED data comprises a light output directly from the one or more LEDs, an average ambient temperature, and hours of operation of the LED array; calculating a maximum number of hours wherein said maximum number of hours is proportional to the average ambient temperature, comparing the hours of operation to the maximum number of hours, comparing the direct light output to a light output minimum; generating an End of Life signal if the direct light output is below the light output minimum and/or hours of operation is greater than the maximum number of hours; wherein the End of Life signal is utilized to indicate the end of life for at least one of the one or more LEDs; and if the light output is not below the light output minimum and/or the hours of operation are not greater than the maximum number of hours, incrementing a counter to continue sampling the light output and the hours of operation at a predefined interval. receiving LED data for one or more LEDs, wherein the LED data comprises a light output directly from the one or more LEDs, an average ambient temperature, and hours of operation of the LED array; calculating a maximum number of hours wherein said maximum number of hours is proportional to the average ambient temperature, comparing the hours of operation to the maximum number of hours, comparing the direct light output to a light output minimum; generating an End of Life signal if the direct light output is below the light output minimum and/or hours of operation is greater than the maximum number of hours; wherein the End of Life signal is utilized to indicate the end of life for at least one of the one or more LEDs; and if the light output is not below the light output minimum and/or the hours of operation are not greater than the maximum number of hours, incrementing a counter to continue sampling the light output and the hours of operation at a predefined interval.
A cassette for a printer that transfers ink applied on an ink sheet to a recording sheet by a thermal head for printing, the cassette comprising: a first casing defining a recording sheet housing for accommodating recording sheets; a second casing engaging the first casing so as to define a first ink-sheet housing and a second ink-sheet housing, the first ink-sheet housing accommodating a first bobbin around which ink sheet is wound, the second ink-sheet housing accommodating a second bobbin which takes up the ink sheet drawn from the first bobbin; and an opening provided at a surface of the first casing, the surface facing the first and second ink-sheet housings (20, 21), wherein the first ink-sheet housing is disposed between the second ink-sheet housing and the opening, wherein a space is provided between the first ink-sheet housing and the second ink-sheet housing, and between the ink sheet drawn from the first bobbin and the recording sheet housing, for allowing the thermal head and a sheet ejection mechanism to be installed when the cassette is mounted to a printer. a first casing defining a recording sheet housing for accommodating recording sheets; a second casing engaging the first casing so as to define a first ink-sheet housing and a second ink-sheet housing, the first ink-sheet housing accommodating a first bobbin around which ink sheet is wound, the second ink-sheet housing accommodating a second bobbin which takes up the ink sheet drawn from the first bobbin; and an opening provided at a surface of the first casing, the surface facing the first and second ink-sheet housings (20, 21), wherein the first ink-sheet housing is disposed between the second ink-sheet housing and the opening, wherein a space is provided between the first ink-sheet housing and the second ink-sheet housing, and between the ink sheet drawn from the first bobbin and the recording sheet housing, for allowing the thermal head and a sheet ejection mechanism to be installed when the cassette is mounted to a printer.
Hydrogen burner for the combustion of a flow of fuel/air mixture, comprising • a mixer, through which fluid is able to pass, for generating the flow of fuel/air mixture by converging a fuel flow and an air flow, wherein the fuel is at least substantially hydrogen, wherein the mixer has a least one fuel opening for introducing the fuel flow into the air flow; • a burner surface for spatially stabilizing combustion of the flow of fuel/air mixture at at least one mixture opening in the burner surface; • a mixture duct for connecting the mixer and the burner surface in a mixture-conducting manner; characterized in that a length of a mixture flow section, when measured between the fuel opening and the mixture opening, is in the range of nine times to eleven times, preferably in the range of nine and a half times to ten and a half times, particularly preferably in the range of ten times, the size of a detonation cell for a stoichiometric hydrogen/air mixture under burner operating conditions in the mixture flow section during active combustion, wherein burner operating conditions are considered here to be in particular temperatures between 0 °C and 40 °C, particularly 20 °C; pressures between 800 mbar and 1200 mbar, particularly 1013 mbar; and a substantially dry fuel/air mixture. • a mixer, through which fluid is able to pass, for generating the flow of fuel/air mixture by converging a fuel flow and an air flow, wherein the fuel is at least substantially hydrogen, wherein the mixer has a least one fuel opening for introducing the fuel flow into the air flow; • a burner surface for spatially stabilizing combustion of the flow of fuel/air mixture at at least one mixture opening in the burner surface; • a mixture duct for connecting the mixer and the burner surface in a mixture-conducting manner;
Method of discriminating a living cell from a dead cell implemented using a lens-free imaging device comprising a light source (11; 61; 71; 81) and a matrix photodetector (16; 66; 76; 86), in which: - the light source (11; 61; 71; 81), is used to illuminate a sample (14; 64) of a liquid solution containing cells; and - the matrix photodetector (16; 66; 76; 86) is arranged facing the light source, and acquires a global diffraction figure of the sample, the global diffraction figure comprising a plurality of elementary diffraction figures (20; 30) each associated with a cell, each elementary diffraction figure having a succession of closed concentric curves; characterised in that a cell is classified in one among the living cells category (68 1) or the dead cells category (68 2), depending on a light intensity on a central area (45; 46) of an elementary diffraction figure (20; 30) associated with said cell. - the light source (11; 61; 71; 81), is used to illuminate a sample (14; 64) of a liquid solution containing cells; and - the matrix photodetector (16; 66; 76; 86) is arranged facing the light source, and acquires a global diffraction figure of the sample, the global diffraction figure comprising a plurality of elementary diffraction figures (20; 30) each associated with a cell, each elementary diffraction figure having a succession of closed concentric curves;
A temperature sensing system comprising: a housing including a housing flange and an elongated body extending from the housing flange, the elongated body having walls defining a cavity; and a probe including a probe flange, a support structure extending from the probe flange, and thermocouple wires extending along the support structure; the probe comprises guide plates securing the thermocouple wires to the support structure; the probe flange is aligned with the housing flange, such that the support structure, thermocouple wires, and guide plates extend into the cavity of the elongated body; characterized in that the probe is spring-loaded such that at least one of the guide plates contacts and exerts a force against at least one of the walls to damp the probe. a housing including a housing flange and an elongated body extending from the housing flange, the elongated body having walls defining a cavity; and a probe including a probe flange, a support structure extending from the probe flange, and thermocouple wires extending along the support structure; the probe comprises guide plates securing the thermocouple wires to the support structure; the probe flange is aligned with the housing flange, such that the support structure, thermocouple wires, and guide plates extend into the cavity of the elongated body; the probe is spring-loaded such that at least one of the guide plates contacts and exerts a force against at least one of the walls to damp the probe.