mhurhangee/ep-ind-claims huggingface dataset:
Manipulator, in particular a large manipulator for truck-mounted concrete pumps, comprising an articulated mast, which can be folded out and which has a turntable rotatable about a vertical axis and a plurality of mast segments (6, 6a, 6b, 6c), wherein the mast segments (6, 6a, 6b, 6c) are each pivotable to a limited degree about articulation axles at articulation joints (7, 7a, 7b) relative to an adjacent mast segment (6, 6a, 6b, 6c) or relative to the turntable by means of a respective drive assembly of the manipulator, and comprising a remote control device having at least one control lever, wherein the control lever is displaceable in a plurality of actuating directions, wherein a travel command indicates a desired movement of the mast tip of the articulated mast or of an end tube attached thereto, wherein a travel command can be generated by a displacement of the control lever into at least one actuating direction, the travel command indicating a desired movement of the mast tip of the articulated mast or of an end tube attached thereto, and comprising a control unit for actuating the drive assemblies, wherein the control unit converts the travel command into actuation signals for the drive assemblies, and wherein the drive assemblies are each actuatable by means of an electrically-actuated proportional valve which is connected to hydraulic control lines (13, 14) of the respective drive assembly in order to actuate the same, characterized in that all of the proportional valves are arranged directly on or in direct proximity to the drive assemblies to be controlled, wherein at least one proportional valve that is arranged directly on or in direct proximity to the drive assembly to be controlled is actuatable using an associated stepper motor of the manipulator, wherein the proportional valve comprises a housing which contains a valve piston, a reset spring, and the stepper motor, wherein an actuation of the valve piston of the proportional valve takes place using the stepper motor via a gear rack, wherein the travel command indicates a desired movement of the mast tip of the articulated mast or of the end tube attached thereto in a Cartesian or polar coordinate direction.
A detecting device comprising: a detection element that detects a change in a physical amount; a processing circuit that applies electrical processing to a detection signal outputted by the detection element; a power receiving terminal connected to a power supply provided outside; an output terminal connected to a processing device provided outside; a grounding terminal connected to a ground body provided outside; a power receiving ferrite bead connected to the power receiving terminal and a power receiving end in the processing circuit; an output ferrite bead connected to the output terminal and an output end in the processing circuit; and a grounding ferrite bead connected to the grounding terminal and a grounding end in the processing circuit, wherein a static characteristic nominal value, being the impedance value, of the grounding ferrite bead is smaller than each static characteristic nominal value of the power receiving ferrite bead and the output ferrite bead, and an R-X cross point, being the frequency at which the resistance component R and the reactance component X cross, of the grounding ferrite bead is higher than each R-X cross point of the power receiving ferrite bead and the output ferrite bead. a detection element that detects a change in a physical amount; a processing circuit that applies electrical processing to a detection signal outputted by the detection element; a power receiving terminal connected to a power supply provided outside; an output terminal connected to a processing device provided outside; a grounding terminal connected to a ground body provided outside; a power receiving ferrite bead connected to the power receiving terminal and a power receiving end in the processing circuit; an output ferrite bead connected to the output terminal and an output end in the processing circuit; and a grounding ferrite bead connected to the grounding terminal and a grounding end in the processing circuit, wherein a static characteristic nominal value, being the impedance value, of the grounding ferrite bead is smaller than each static characteristic nominal value of the power receiving ferrite bead and the output ferrite bead, and an R-X cross point, being the frequency at which the resistance component R and the reactance component X cross, of the grounding ferrite bead is higher than each R-X cross point of the power receiving ferrite bead and the output ferrite bead.
A method for compensating tolerances of electrical components of an inductive rotary joint comprising a power generator for generating a pulsed DC voltage or an AC voltage, which is coupled in a series resonance circuit with at least a resonance capacitor and an inductive power transmitter (11, 21) for feeding a load via a rectifier and a charging capacitor, comprising the following steps: a) generating a short sequence of at least one pulse of DC voltage or a period of an AC voltage, wherein a current is fed into the charging capacitor by the rectifier, thereby loading said charging capacitor; b) short-circuiting the series resonance circuit; c) measuring the frequency of the oscillation with a first frequency resulting in the series resonance circuit; d) generating a longer sequence having a plurality of pulses of a DC voltage or a plurality of periods of an AC voltage, for charging the charging capacitor, wherein one or more rectifier diodes of the rectifier circuit in step f) rest in a blocked state and thus no more resonance current flows through the output-side circuit of the secondary winding of the inductive rotary joint; e) short-circuiting of the series resonance circuit; f) measuring the frequency of the oscillation with a second frequency resulting in the series resonance circuit; g) detecting a control parameter for controlling the power generator by calculating, estimating or by means of a value table of the frequencies measured of the steps c and f, wherein the output voltage can be kept approximately constant by means of a primary side controlling, independently of mechanical and electrical tolerances of the electrical components. a) generating a short sequence of at least one pulse of DC voltage or a period of an AC voltage, wherein a current is fed into the charging capacitor by the rectifier, thereby loading said charging capacitor; b) short-circuiting the series resonance circuit; c) measuring the frequency of the oscillation with a first frequency resulting in the series resonance circuit; d) generating a longer sequence having a plurality of pulses of a DC voltage or a plurality of periods of an AC voltage, for charging the charging capacitor, wherein one or more rectifier diodes of the rectifier circuit in step f) rest in a blocked state and thus no more resonance current flows through the output-side circuit of the secondary winding of the inductive rotary joint; e) short-circuiting of the series resonance circuit; f) measuring the frequency of the oscillation with a second frequency resulting in the series resonance circuit; g) detecting a control parameter for controlling the power generator by calculating, estimating or by means of a value table of the frequencies measured of the steps c and f, wherein the output voltage can be kept approximately constant by means of a primary side controlling, independently of mechanical and electrical tolerances of the electrical components.
A method of identifying complementary strands in a nucleic acid sample comprising a plurality of double-stranded polynucleotides, each double-stranded polynucleotide of the plurality comprising a first complementary strand and a second complementary strand, each having a 5' end and a 3' end, the method comprising: (a) modifying a polynucleotide sequence of at least one of a first complementary strand and a second complementary strand of individual double-stranded polynucleotides, wherein subsequent to the modifying, a first complementary strand and a second complementary strand originating from a common double-stranded polynucleotide are not perfectly complementary, wherein modifying the polynucleotide sequence comprises extending the 3' end of at least one of the first complementary strand and the second complementary strand by adding one or more pre-determined nucleotides; (b) sequencing a plurality of first complementary strands and a plurality of second complementary strands, or amplification products thereof, to yield a plurality of sequencing reads; and (c) identifying from the plurality of sequencing reads, a given first complementary strand and a given second complementary strand as originating from a common double-stranded polynucleotide based on (i) sequences of the respective 3' ends and 5' ends and (ii) polynucleotide sequences of the corresponding complementary strands which are not perfectly complementary. (a) modifying a polynucleotide sequence of at least one of a first complementary strand and a second complementary strand of individual double-stranded polynucleotides, wherein subsequent to the modifying, a first complementary strand and a second complementary strand originating from a common double-stranded polynucleotide are not perfectly complementary, wherein modifying the polynucleotide sequence comprises extending the 3' end of at least one of the first complementary strand and the second complementary strand by adding one or more pre-determined nucleotides; (b) sequencing a plurality of first complementary strands and a plurality of second complementary strands, or amplification products thereof, to yield a plurality of sequencing reads; and (c) identifying from the plurality of sequencing reads, a given first complementary strand and a given second complementary strand as originating from a common double-stranded polynucleotide based on (i) sequences of the respective 3' ends and 5' ends and (ii) polynucleotide sequences of the corresponding complementary strands which are not perfectly complementary.
Separation method for separating a glass pane of an insulating glazing from a, preferably rigid, spacer frame connected to the glass pane by means of a primary seal, wherein a secondary seal, which is also connected to the glass pane, is arranged outside around the spacer frame, whereby the secondary seal and the primary seal are cut through with a knife, characterized in that a rotary knife, preferably a circular knife, rotating about a knife rotation axis is used to separate the secondary seal and the primary seal, wherein the rotary knife is lubricated during the separation process with a, preferably liquid, lubricant, preferably with a lubricating emulsion, in particular with a water-based or oil-based lubricating emulsion, or with a lubricating oil or with water. whereby the secondary seal and the primary seal are cut through with a knife, characterized in that a rotary knife, preferably a circular knife, rotating about a knife rotation axis is used to separate the secondary seal and the primary seal, wherein the rotary knife is lubricated during the separation process with a, preferably liquid, lubricant, preferably with a lubricating emulsion, in particular with a water-based or oil-based lubricating emulsion, or with a lubricating oil or with water.
An infrastructure arrangement for a water-based power generating installation including a power generating device operable to derive power from a body of water, and to export that power via an export cable, the infrastructure arrangement comprising: a base (6,8) for location on a bed of a body of water, the base (6,8) having a power transfer connection connected for transfer of power from the infrastructure arrangement, a power input connection (15,16) for receiving power from the power generating device, and an engagement system for receiving an infrastructure module; wherein the infrastructure module is releasably engaged with the engagement system of the base (6,8), and including a connection apparatus for connecting the power input connection (15,16) of the base (6,8) with the power transfer connection of the base (6,8), wherein the power input connection (15,16) of the base (6,8) includes a connector portion for connection with a corresponding connector portion of the export cable of the power generating device, and, wherein the infrastructure module and base (6,8) are provided with at least one cooperating wet-mate connector pair, characterised in that the power input connection (15,16) of the base (6,8) defines a connector shape onto which a connector module of the export cable of the power generating device can be lowered for connection of that export cable to the power input connection (15,16). a base (6,8) for location on a bed of a body of water, the base (6,8) having a power transfer connection connected for transfer of power from the infrastructure arrangement, a power input connection (15,16) for receiving power from the power generating device, and an engagement system for receiving an infrastructure module; wherein the infrastructure module is releasably engaged with the engagement system of the base (6,8), and including a connection apparatus for connecting the power input connection (15,16) of the base (6,8) with the power transfer connection of the base (6,8), wherein the power input connection (15,16) of the base (6,8) includes a connector portion for connection with a corresponding connector portion of the export cable of the power generating device, and, wherein the infrastructure module and base (6,8) are provided with at least one cooperating wet-mate connector pair, characterised in that the power input connection (15,16) of the base (6,8) defines a connector shape onto which a connector module of the export cable of the power generating device can be lowered for connection of that export cable to the power input connection (15,16).
Composition having reduced corrosivity including one or more ingredients corrosive by nature, comprising - (a) at least one surfactant; (b) at least one component which is corrosive by nature and present in an amount which renders said composition corrosive in absence of (c), wherein if one or more of said at least one surfactant is corrosive by nature at a level to make the composition corrosive, said at least one component which is corrosive by nature is optional; (c) a thickening component comprising at least one thickening agent or a blend of two or more components which self-thicken when present as a blend, wherein said thickening component is present to provide a viscosity to said composition so that said composition is non-corrosive; (d) one or more of water and at least one solvent; and (e) optionally, a fragrance component; wherein said composition has a pH of about 2 to about 12; wherein said composition has a viscosity in a range of about 100 to about 1,250,000 mPa.s (centipoise) measured at a temperature of 25 °C; and wherein said composition which is initially corrosive is modified to have a level of ocular irritation reduced as compared to said composition not containing said thickening component; and wherein in the absence of said thickening component, said level of ocular irritation of said composition falls into a category under a bovine cornea opacity and permeability (BCOP) method which characterises said composition as corrosive. (a) at least one surfactant; (b) at least one component which is corrosive by nature and present in an amount which renders said composition corrosive in absence of (c), wherein if one or more of said at least one surfactant is corrosive by nature at a level to make the composition corrosive, said at least one component which is corrosive by nature is optional; (c) a thickening component comprising at least one thickening agent or a blend of two or more components which self-thicken when present as a blend, wherein said thickening component is present to provide a viscosity to said composition so that said composition is non-corrosive; (d) one or more of water and at least one solvent; and (e) optionally, a fragrance component;
Method for controlling a heating system for a water tank, wherein the heating system has a main heater and an additional heater, wherein, to control the main heater and the additional heater, a predefinable value for an operating temperature of the water in the water tank and a predefinable value for a time period are used, wherein only the main heater is used to heat the water to the operating temperature in the time period if a heat output from the main heater is sufficient, and wherein, in addition, the additional heater is used in order to heat the water in the water tank to the operating temperature if the heat output from the main heater is not sufficient to heat the water to the operating temperature in the time period, wherein the main heater is formed as a heat pump, wherein, depending on the temperature of the water tank and the operating temperature and depending on a temperature of a medium from which the heat pump draws energy, a heat output from the heat pump is determined, wherein, depending on the temperature of the water tank and the operating temperature, a heating energy which is needed to heat the water tank to the operating temperature is determined, and wherein, depending on the heating energy and the heat output from the heat pump, a check is made to see whether the heat pump is able to heat the water tank to the operating temperature within the time period.
Device for forming bundles of individual packages, in particular liquid containers, by wrapping a packaging assembly consisting of grouped individual packages into a blank made of a packaging material, comprising - a transport unit for transporting the packaging assembly in a transport direction and - a covering unit which covers the packaging assembly with the blank in the transport direction in such a way that a front end and a rear end of the blank are arranged on the transport unit so as to overlap, - the transport unit having a wrapping belt for conveying the packaging assembly along a transport plane from a wrapping belt inlet to a wrapping belt outlet, - the wrapping belt having a plurality of individual belts 21, 22 which extend in the transport direction, are parallel to one another and are arranged at a distance from one another so as to save space, characterized in that the wrapping belt is arranged in the region of the covering unit, the wrapping belt having a first group of individual belts which extend from the wrapping belt inlet to the wrapping belt outlet and are designed as full belts, and a second group of individual belts which extend in front of the wrapping belt outlet from the wrapping belt inlet to an end region that forms a free space, and which are designed as partial belts, and a partial belt being arranged adjacent to a full belt in each case. - a transport unit for transporting the packaging assembly in a transport direction and - a covering unit which covers the packaging assembly with the blank in the transport direction in such a way that a front end and a rear end of the blank are arranged on the transport unit so as to overlap, - the transport unit having a wrapping belt for conveying the packaging assembly along a transport plane from a wrapping belt inlet to a wrapping belt outlet, - the wrapping belt having a plurality of individual belts 21, 22 which extend in the transport direction, are parallel to one another and are arranged at a distance from one another so as to save space,
Heterophasic propylene copolymer consisting of a propylene-based matrix and a dispersed ethylene-α-olefin copolymer, wherein the heterophasic propylene copolymer has a melt flow rate of at least 40 g/10min as determined in accordance with ISO 1133 (230°C, 2.16 kg) and a FOG value of at most 350 μg/g as determined by VDA 278.
A computing system comprising: a power converter to draw power from Power over Ethernet, PoE, to power the computing system, wherein the power converter is adapted to provide power comprising a first voltage and a second voltage; a power meter adapted to compare power consumption of the computing system to a first threshold based on a PoE power class associated with the computing system and based on the first voltage, and to assert a signal indicating that the power consumption of the computing system is to be limited based on the comparison to the first threshold; and a computing system component adapted to be powered based on the second voltage, and to adjust its power consumption based on the signal to reduce the power consumption of the computing system, wherein the power meter is adapted to send the signal to the computing system component. a power converter to draw power from Power over Ethernet, PoE, to power the computing system, wherein the power converter is adapted to provide power comprising a first voltage and a second voltage; a power meter adapted to compare power consumption of the computing system to a first threshold based on a PoE power class associated with the computing system and based on the first voltage, and to assert a signal indicating that the power consumption of the computing system is to be limited based on the comparison to the first threshold; and a computing system component adapted to be powered based on the second voltage, and to adjust its power consumption based on the signal to reduce the power consumption of the computing system, wherein the power meter is adapted to send the signal to the computing system component.
A method for increasing the molecular weight of hemicellulose selected from the group consisting of mannan and xylan, said method comprising the steps: a) obtaining at least one hemicellulose from wood, wherein the hemicellulose is selected from the group consisting of mannan and xylan, a fraction of said hemicellulose comprising at least one bound aromatic group, b) subjecting the hemicellulose to oxidizing conditions to convert at least a fraction of said at least one aromatic group into radicals and reacting said radicals with each other to obtain hemicellulose with increased molecular weight. and thereafter subjecting the resulting compounds to a separation with respect to molecular weight. a) obtaining at least one hemicellulose from wood, wherein the hemicellulose is selected from the group consisting of mannan and xylan, a fraction of said hemicellulose comprising at least one bound aromatic group, b) subjecting the hemicellulose to oxidizing conditions to convert at least a fraction of said at least one aromatic group into radicals and reacting said radicals with each other to obtain hemicellulose with increased molecular weight.