mhurhangee/ep-ind-claims huggingface dataset:
Method for filling and closing a thin-walled plastic container, in particular a PET bottle, wherein a plastic container is produced from a preform by a blow moulding process, and the plastic container is filled with a flowable medium and in particular a liquid, and a replacement medium is introduced into the plastic container so that as the internal container pressure increases at least partial displacement of the previously contained medium takes place and the plastic container is at least partially closed, characterized in that in at least one portion of a wall of the plastic container surrounding a head space of the plastic container or a wall of the container closure at least one opening is introduced, and through this opening in the interior space of the plastic container a predetermined internal container pressure is set by feeding in and/or discharging a gaseous medium.
Acidic aqueous solution suitable for the pickling of stainless steel comprising a) 20 to 350 g/l calculated on a sulfate basis of at least one watersoluble inorganic compound that acts as a source of sulfate anions, b) 9 to 150 g/l calculated on a fluorine basis of at least one fluorine-containing watersoluble inorganic compound that acts as a source of fluoride, c) in total at least 0,01 g/l calculated on a nitrogen basis of one or more accelerators based on watersoluble inorganic compounds comprising at least one nitrogen atom in an oxidation state in the range of -2 to -1/3, d) not more than 100 g/l, but preferably at least 15 g/l of iron ions, wherein the amount of free sulfuric acid is at least 20 g/l, but not more than 200 g/l calculated on a sulfate basis; wherein the amount of free hydrofluoric acid is not more than 60 g/l calculated on a fluorine basis. a) 20 to 350 g/l calculated on a sulfate basis of at least one watersoluble inorganic compound that acts as a source of sulfate anions, b) 9 to 150 g/l calculated on a fluorine basis of at least one fluorine-containing watersoluble inorganic compound that acts as a source of fluoride, c) in total at least 0,01 g/l calculated on a nitrogen basis of one or more accelerators based on watersoluble inorganic compounds comprising at least one nitrogen atom in an oxidation state in the range of -2 to -1/3, d) not more than 100 g/l, but preferably at least 15 g/l of iron ions,
A joining material for laser welding, the joining material comprising: a needle-like inorganic filler and a polymer matrix comprising a polypropylene resin characterized in that the polypropylene resin has a melt index of 80 g /10 min or more to 95 g/10 min or less as measured at a temperature of 230 °C and a load of 2.16 kg, and that the needle-like inorganic filler has an aspect ratio of 10:1 to 20:1. a needle-like inorganic filler and a polymer matrix comprising a polypropylene resin characterized in that the polypropylene resin has a melt index of 80 g /10 min or more to 95 g/10 min or less as measured at a temperature of 230 °C and a load of 2.16 kg, and that the needle-like inorganic filler has an aspect ratio of 10:1 to 20:1.
Method for operating an internal combustion engine, in which a target value for an output variable of the internal combustion engine, in particular a torque or a quantity of fuel, is predefined, and a target value for an air mass flow to the internal combustion engine is determined as a function of the target value for the output variable and is implemented by actuating at least one actuator element, wherein a current value for the air mass flow is determined, in that a current limiting value for the output variable of the internal combustion engine is determined from the current value for the air mass flow, and in that the output variable is limited to the current limiting value, wherein a bias is applied to the limiting value for the output variable or a bias is applied to the current value for the air mass flow, wherein the bias is selected as a function of the dynamics of a current operating state of the internal combustion engine, characterized in that the smaller selection is made for the bias as the dynamics increase.
An eNodeB to operate within a wireless access network in which data flows are mapped to bearers using QoS class identifiers, QCIs, the eNodeB comprising: an intra-QCI scheduler adapted to classify packets of data flows having a same QCI with a sub-QCI based on intra-QCI classification information received from the user equipment, the sub-QCI indicating a scheduling priority for packets of data flows having the same QCI, wherein the intra-QCI scheduler is adapted to schedule packets of said data flows having a same QCI for downlink transmission over a radio bearer based on the sub-QCI; characterized in that the intra-QCI scheduler is adapted to schedule the packets based on the sub-QCIs under predetermined network conditions and is adapted to refrain from using the sub-QCIs when the predetermined network conditions do not exist. an intra-QCI scheduler adapted to classify packets of data flows having a same QCI with a sub-QCI based on intra-QCI classification information received from the user equipment, the sub-QCI indicating a scheduling priority for packets of data flows having the same QCI, wherein the intra-QCI scheduler is adapted to schedule packets of said data flows having a same QCI for downlink transmission over a radio bearer based on the sub-QCI;
A method for detecting subframe misordering in inverse multiplexing comprising: a receiving node receiving subframes from a transmitting node, judging whether a trail trace identifier carried in each subframe received is same with a desired trail trace identifier of a subframe to be received (S604, S704); and if the trail trace identifier carried in each subframe received is same with the desired trail trace identifier of the subframe to be received, the receiving node judging whether a subframe number value carried in each subframe belongs to a range of desired subframe number values of the subframe to be received, and if it has been judged that the subframe number value carried in the received subframe does not belong to the range of the desired subframe number values of the subframe to be received, determining that there is subframe misordering (S605, S705). a receiving node receiving subframes from a transmitting node, judging whether a trail trace identifier carried in each subframe received is same with a desired trail trace identifier of a subframe to be received (S604, S704); and if the trail trace identifier carried in each subframe received is same with the desired trail trace identifier of the subframe to be received, the receiving node judging whether a subframe number value carried in each subframe belongs to a range of desired subframe number values of the subframe to be received, and if it has been judged that the subframe number value carried in the received subframe does not belong to the range of the desired subframe number values of the subframe to be received, determining that there is subframe misordering (S605, S705).
An apparatus, comprising: a signal pre-processing component configured to prepare an output signal, in projection space and acquired from a CT scan of an object under examination, for compression by remapping the output signal from a first format to a second format, wherein the first format is a linear format, wherein the output signal s in the first format is given by s = wn γ σ s, wherein w is a scale factor, n γ is the number of detected photons acquired from the CT scan, wherein the detected photons are emitted by a radiation source and traversed the object, and σ s is the standard deviation of the signal s, wherein the standard deviation σ s is given by σ s = = w n γ, wherein the output signal t in the second format is given by t = 2 σ t n γ, wherein σ t is the standard deviation of the signal t, wherein σ s is constant, wherein the remapping of the output signal from the first format to the second format is performed according to σ t = dt ds σ s, wherein photon noise of the output signal in the second format is constant over a dynamic range, wherein the standard deviation of the photon noise does not change as a function of the average photon signal; and a compression component configured to compress the output signal in the second format. a signal pre-processing component configured to prepare an output signal, in projection space and acquired from a CT scan of an object under examination, for compression by remapping the output signal from a first format to a second format, wherein the first format is a linear format, wherein the output signal s in the first format is given by s = wn γ σ s, wherein w is a scale factor, n γ is the number of detected photons acquired from the CT scan, wherein the detected photons are emitted by a radiation source and traversed the object, and σ s is the standard deviation of the signal s, wherein the standard deviation σ s is given by σ s = = w n γ, wherein the output signal t in the second format is given by t = 2 σ t n γ, wherein σ t is the standard deviation of the signal t, wherein σ s is constant, wherein the remapping of the output signal from the first format to the second format is performed according to σ t = dt ds σ s, wherein photon noise of the output signal in the second format is constant over a dynamic range, wherein the standard deviation of the photon noise does not change as a function of the average photon signal; and a compression component configured to compress the output signal in the second format.
A composition comprising: a first pigment component comprising particulate ground calcium carbonate having a particle size distribution (psd) steepness factor ranging from 30 to 45; and a second pigment component comprising particulate precipitated calcium carbonate having a psd steepness factor ranging from 55 to 75 and a d 50 not greater than 0.5μm; wherein the steepness factor is the ratio of the d 30 equivalent spherical diameter (at which 30% by weight of the particles are finer) to the d 70 equivalent spherical diameter (at which 70% by weight of the particles are finer), multiplied by 100, and wherein the equivalent spherical diameter (esd) is measured in an aqueous medium using a Sedigraph 5100 machine. a first pigment component comprising particulate ground calcium carbonate having a particle size distribution (psd) steepness factor ranging from 30 to 45; and a second pigment component comprising particulate precipitated calcium carbonate having a psd steepness factor ranging from 55 to 75 and a d 50 not greater than 0.5μm; wherein the steepness factor is the ratio of the d 30 equivalent spherical diameter (at which 30% by weight of the particles are finer) to the d 70 equivalent spherical diameter (at which 70% by weight of the particles are finer), multiplied by 100, and
A method of controlling RF communications by a communication device, comprising: receiving, by a sensor processor, raw sensor data from at least one sensor and processing, by the sensor processor, the raw sensor data to generate processed sensor data; receiving, by an application processor, at least a first portion of the processed sensor data from the sensor processor and further processing, by the application processor, the first portion of the processed sensor data in at least one secured application executed by the application processor, the application processor configured to operate in a locked state in which a user is not allowed to alter the at least one secured application and operate in an unlocked state in which the user is allowed to alter the at least one secured application; characterized by receiving, by a communications processor, at least a second portion of the processed sensor data from the sensor processor and further processing, by the communications processor, the second portion of the processed sensor data to control RF communications by the communication device, wherein the second portion of the processed sensor data received by the communications processor from the sensor processor is trusted sensor data not affected by the application processor when the application processor operates in the unlocked state. receiving, by a sensor processor, raw sensor data from at least one sensor and processing, by the sensor processor, the raw sensor data to generate processed sensor data; receiving, by an application processor, at least a first portion of the processed sensor data from the sensor processor and further processing, by the application processor, the first portion of the processed sensor data in at least one secured application executed by the application processor, the application processor configured to operate in a locked state in which a user is not allowed to alter the at least one secured application and operate in an unlocked state in which the user is allowed to alter the at least one secured application; characterized by receiving, by a communications processor, at least a second portion of the processed sensor data from the sensor processor and further processing, by the communications processor, the second portion of the processed sensor data to control RF communications by the communication device, wherein the second portion of the processed sensor data received by the communications processor from the sensor processor is trusted sensor data not affected by the application processor when the application processor operates in the unlocked state.
A wireless communication apparatus (101, 202, 3202, 4202, 7202) configured to perform bi-directional communication with an initiator (201, 3201, 4201, 7201), wherein a part of a period during which said initiator has a right to access a medium is allocated from said initiator, comprising: a reception device configured to receive a physical frame (304, 3304, 4304, 7304) including a plurality of data frames from said initiator (201, 3201, 4201, 7201), wherein the part of the period allocated from the initiator is specified in the first data frame of said plurality of data frames included in the physical frame; a generation device configured to generate a first physical frame (310, 3310, 4310, 7310) comprising an acknowledgement frame which gives acknowledgements to the plurality of data frames by using a bitmap and a second physical frame (311, 3311, 4311, 7311) including a plurality of transmission data frames (312-315, 3312-3315, 4312-4315, 7312-7314) addressed to said initiator (201, 3201, 7201); and a transmission device configured to transmit the first physical frame (310, 3310, 4310, 7210) at a first transmission rate and transmit the second physical frame (311, 3311, 4311, 7311) at a second transmission rate, during the part of the period allocated from said initiator. a reception device configured to receive a physical frame (304, 3304, 4304, 7304) including a plurality of data frames from said initiator (201, 3201, 4201, 7201), wherein the part of the period allocated from the initiator is specified in the first data frame of said plurality of data frames included in the physical frame; a generation device configured to generate a first physical frame (310, 3310, 4310, 7310) comprising an acknowledgement frame which gives acknowledgements to the plurality of data frames by using a bitmap and a second physical frame (311, 3311, 4311, 7311) including a plurality of transmission data frames (312-315, 3312-3315, 4312-4315, 7312-7314) addressed to said initiator (201, 3201, 7201); and a transmission device configured to transmit the first physical frame (310, 3310, 4310, 7210) at a first transmission rate and transmit the second physical frame (311, 3311, 4311, 7311) at a second transmission rate, during the part of the period allocated from said initiator.
Totarol for use in the treatment of vaginal mucous membrane inflammations of bacterial origin, for alleviation of symptoms in such a treatment and for prophylaxis and prevention of relapses of such inflammations, characterised in that it relates to anaerobic bacterial vaginosis and aerobic vaginitis.
A method for producing a curing agent of coatings, comprising steps of: mixing 1,3,5-benzenetricarboxylic acid, a base and chloropropene in a solvent to proceed with a reaction at 40-80 °C and generate triallyl benzene-1,3,5-tricarboxylate, wherein the base and 1,3,5-benzenetricarboxylic acid have an equivalent ratio of 2.0-6.0, and the chloropropene and 1,3,5-benzenetricarboxylic acid have an equivalent ratio of 2-5; mixing the triallyl benzene-1,3,5-tricarboxylate, a surfactant and hydrogen peroxide in a water solution of a first catalyst to proceed with a reaction at 50-80°C and generate the curing agent of coatings including 1,3,5-triglycidyl benzenetricarboxylate having the structural formula and 1,3,5-diglycidyl benzenetricarboxylate having the structural formula wherein the surfactant and triallyl benzene-1,3,5-tricarboxylate have a weight ratio of 0.01-0.1, the catalyst and triallyl benzene-1,3,5-tricarboxylate have a weight ratio of 0.05-0.15, and the hydrogen peroxide and triallyl benzene-1,3,5-tricarboxylate have an equivalent ratio of 3.5-5.0. mixing 1,3,5-benzenetricarboxylic acid, a base and chloropropene in a solvent to proceed with a reaction at 40-80 °C and generate triallyl benzene-1,3,5-tricarboxylate, wherein the base and 1,3,5-benzenetricarboxylic acid have an equivalent ratio of 2.0-6.0, and the chloropropene and 1,3,5-benzenetricarboxylic acid have an equivalent ratio of 2-5; mixing the triallyl benzene-1,3,5-tricarboxylate, a surfactant and hydrogen peroxide in a water solution of a first catalyst to proceed with a reaction at 50-80°C and generate the curing agent of coatings including 1,3,5-triglycidyl benzenetricarboxylate having the structural formula and 1,3,5-diglycidyl benzenetricarboxylate having the structural formula wherein the surfactant and triallyl benzene-1,3,5-tricarboxylate have a weight ratio of 0.01-0.1, the catalyst and triallyl benzene-1,3,5-tricarboxylate have a weight ratio of 0.05-0.15, and the hydrogen peroxide and triallyl benzene-1,3,5-tricarboxylate have an equivalent ratio of 3.5-5.0.
Piece of jewellery with a base body having a first end and a second end arranged oppositely to the first end in a closed state of the piece of jewellery, the base body defining a passage opening and the two ends (1a, 1b) of the base body can be moved away from one another to form a passage opening (D') which is wider than the passage opening, the base body having a channel in which at least one resilient element (4; 14) is moveably arranged, the piece of jewellery having at least one connecting element (6; 16), the first end (6a; 16a) of which is attached directly or indirectly to the first end of the base body, extends across a space being present between the first end and the second end of the base body in its opened state and engages with its second end (6b; 16b) one end (4a; 14a) of the resilient element (4; 14) in such a way that, when the first and the second ends (1a, 1b) of the base body are moved apart from each other to form the widened passage opening (D'), by the therefrom resulting loading of the resilient element (4; 14) a restoring force causing the two ends (1a, 1b) of the base body to move towards each other can be generated, characterized in that the channel of the base body extends from the first end to the second end of the base body.
A nickel-containing steel for low temperature service, the steel comprising, in percentage by mass: from 0.01 to 0.15% of C, from 0.01 to 2.00% of Si, from 0.20 to 2.00% of Mn, 0.010% or less of P, 0.0100% or less of S, from 5.0 to 8.0% of Ni, from 0.005 to 2.000% of Al, from 0.0010 to 0.0100% of N, from 0 to 1.00% of Cu, from 0 to 0.80% of Sn, from 0 to 0.80% of Sb, from 0 to 2.00% of Cr, from 0 to 1.00% of Mo, from 0 to 1.00% of W, from 0 to 1.00% of V, from 0 to 0.100% of Nb, from 0 to 0.100% of Ti, from 0 to 0.0200% of Ca, from 0 to 0.0500% of B, from 0 to 0.0100% of Mg, from 0 to 0.0200% of REM, and a balance being Fe and impurities, wherein a volume fraction of retained austenite in a region 1.5 mm from a surface of the steel in a thickness direction, is from 3.0 to 20.0% by volume, wherein a ratio of a hardness in a region 1.0 mm from the surface in the thickness direction to a hardness in a region 1/4 of the thickness from the surface in the thickness direction, is 1.1 or less, wherein the nickel-containing steel has a yield strength of from 590 to 800 MPa, a tensile strength of from 690 to 830 MPa, and a Charpy impact absorbed energy at -196°C, of 150 J or more, and wherein the yield strength, the tensile strength and the Charpy impact absorbed energy are measured in accordance with the methods disclosed in the description. from 0.01 to 0.15% of C, from 0.01 to 2.00% of Si, from 0.20 to 2.00% of Mn, 0.010% or less of P, 0.0100% or less of S, from 5.0 to 8.0% of Ni, from 0.005 to 2.000% of Al, from 0.0010 to 0.0100% of N, from 0 to 1.00% of Cu, from 0 to 0.80% of Sn, from 0 to 0.80% of Sb, from 0 to 2.00% of Cr, from 0 to 1.00% of Mo, from 0 to 1.00% of W, from 0 to 1.00% of V, from 0 to 0.100% of Nb, from 0 to 0.100% of Ti, from 0 to 0.0200% of Ca, from 0 to 0.0500% of B, from 0 to 0.0100% of Mg, from 0 to 0.0200% of REM, and a balance being Fe and impurities, wherein a volume fraction of retained austenite in a region 1.5 mm from a surface of the steel in a thickness direction, is from 3.0 to 20.0% by volume, wherein a ratio of a hardness in a region 1.0 mm from the surface in the thickness direction to a hardness in a region 1/4 of the thickness from the surface in the thickness direction, is 1.1 or less, wherein the nickel-containing steel has a yield strength of from 590 to 800 MPa, a tensile strength of from 690 to 830 MPa, and a Charpy impact absorbed energy at -196°C, of 150 J or more, and wherein the yield strength, the tensile strength and the Charpy impact absorbed energy are measured in accordance with the methods disclosed in the description.
Modular ground and air pole sensor for monitoring fruit production or a vineyard comprising: a plurality of sensor modules coupled to form a pole divided into a below-ground part comprising a first sensor module and an above-ground part comprising a plurality of second sensor modules, each said sensor module comprising: a tubular body; a male coupling for coupling to another of said sensor modules; a female coupling for receiving a male coupling from another of said sensor modules, the first sensor module, of the below-ground part, comprises a ground humidity sensor; and characterised in that each of the second sensor modules, of the above-ground part, comprises an air humidity sensor, a sensor for sensing air pressure, a sensor for sensing wind speed or for sensing wind speed and direction, a sensor for sensing visible-light solar radiation and UV solar radiation, a sensor for sensing leaf humidity, a sensor for sensing rainfall precipitation, or combinations thereof. a tubular body; a male coupling for coupling to another of said sensor modules; a female coupling for receiving a male coupling from another of said sensor modules, the first sensor module, of the below-ground part, comprises a ground humidity sensor; and characterised in that each of the second sensor modules, of the above-ground part, comprises an air humidity sensor, a sensor for sensing air pressure, a sensor for sensing wind speed or for sensing wind speed and direction, a sensor for sensing visible-light solar radiation and UV solar radiation, a sensor for sensing leaf humidity, a sensor for sensing rainfall precipitation, or combinations thereof.