mhurhangee/ep-ind-claims huggingface dataset:
Method for extracting information from an NMR spectrum, comprising the following steps: a) providing a first NMR spectrum of a sample containing at least one constituent, the first NMR spectrum comprising information on the sample, wherein the information comprises subsets, wherein each subset is an arbitrarily chosen part of the information, b) providing a second NMR spectrum of a calibration sample containing at least one constituent of known concentration, the second result comprising information on the calibration sample, c) calculating a conversion factor being indicative for a dependency between the information on the calibration sample and the concentration of the at least one constituent of the calibration sample, d) multiplying the first NMR spectrum by the conversion factor, e) after step d), calculating a validity value for at least one subset of the information of the first NMR spectrum and assigning it to the subset of the information for which it was calculated, the validity value being representative for a fitness of a first subset of the information to be separated from a second subset of the information, wherein the step of calculating the validity value is performed by the following sub-steps: • defining a test criterion, wherein the test criterion is at least one of the group consisting of a defined line width, a defined line form, and a defined distance to an adjacent line, • applying the test criterion to at least one NMR line of the NMR spectrum of the sample, and • determining how exactly the at least one NMR line of the NMR spectrum of the sample matches the test criterion. a) providing a first NMR spectrum of a sample containing at least one constituent, the first NMR spectrum comprising information on the sample, wherein the information comprises subsets, wherein each subset is an arbitrarily chosen part of the information, b) providing a second NMR spectrum of a calibration sample containing at least one constituent of known concentration, the second result comprising information on the calibration sample, c) calculating a conversion factor being indicative for a dependency between the information on the calibration sample and the concentration of the at least one constituent of the calibration sample, d) multiplying the first NMR spectrum by the conversion factor, e) after step d), calculating a validity value for at least one subset of the information of the first NMR spectrum and assigning it to the subset of the information for which it was calculated, the validity value being representative for a fitness of a first subset of the information to be separated from a second subset of the information, • defining a test criterion, wherein the test criterion is at least one of the group consisting of a defined line width, a defined line form, and a defined distance to an adjacent line, • applying the test criterion to at least one NMR line of the NMR spectrum of the sample, and • determining how exactly the at least one NMR line of the NMR spectrum of the sample matches the test criterion.
An idler gear assembly for a timing gear case, comprising the following components: an idler gear having a toothed rim and a central opening; an idler gear hub having a mount for mounting to a gear housing of an engine or an engine block of an engine; and a retaining plate for retaining the idler gear on the hub, characterized in that at least one surface of a component of the idler gear assembly that is to serve as bearing surface between two components (48, 46, 78) of the idler gear assembly comprises a low friction coating, wherein the low friction coating is a DLC coating, or wherein the low friction coating is a polymer based coating comprising: - at least one of MoS 2, graphite and PAI in case the at least one surface is an outer peripheral surface of the idler gear hub or an internal peripheral surface of a central bore of the idler gear, or - at least two of MoS 2, graphite and PAI in case the at least one surface is another of the bearing surfaces. an idler gear having a toothed rim and a central opening; an idler gear hub having a mount for mounting to a gear housing of an engine or an engine block of an engine; and a retaining plate for retaining the idler gear on the hub, at least one surface of a component of the idler gear assembly that is to serve as bearing surface between two components (48, 46, 78) of the idler gear assembly comprises a low friction coating, wherein the low friction coating is a DLC coating, or - at least one of MoS 2, graphite and PAI in case the at least one surface is an outer peripheral surface of the idler gear hub or an internal peripheral surface of a central bore of the idler gear, or - at least two of MoS 2, graphite and PAI in case the at least one surface is another of the bearing surfaces.
An arrangement, comprising a dry block, for detecting and/or increasing stability of a temperature calibration, wherein - the dry block comprises a heating and cooling device, where the heating and cooling device comprises heating elements, characterized in that the arrangement further comprises: - a power metering integrated circuit configured to measure an applied input power to the heating elements of the heating and cooling device, the applied input power originating from mains voltage of the dry block, - a controller, where a real-time compensation algorithm is executable, the real-time compensation algorithm using measurement results obtained by the power metering integrated circuit, the compensation algorithm outputting a control signal to the heating elements requesting less or more power from the heating elements, - orientation sensing means configured to detect, whether the dry block is not staying in a fully upright position, and - the controller configured to decide the dry block as unstable if the dry block is leaning. - the dry block comprises a heating and cooling device, where the heating and cooling device comprises heating elements, - a power metering integrated circuit configured to measure an applied input power to the heating elements of the heating and cooling device, the applied input power originating from mains voltage of the dry block, - a controller, where a real-time compensation algorithm is executable, the real-time compensation algorithm using measurement results obtained by the power metering integrated circuit, the compensation algorithm outputting a control signal to the heating elements requesting less or more power from the heating elements, - orientation sensing means configured to detect, whether the dry block is not staying in a fully upright position, and - the controller configured to decide the dry block as unstable if the dry block is leaning.
A method for measuring a vehicle moving on a roadway, by means of at least one sensor which measures the deformation under load of the roadway, comprising: Recording the time curve (x(t)) of the sensor-measured value (x) while the vehicle moves past the sensor; Repeating a minimization, in which a measure (ε m) for the deviation of a parametrized reference function (x ref,m (t)) comprising a sum of a number (N m) of rational functions (f m,n (t)) from the recorded curve (x(t)) is minimized by adapting the parameters thereof (a m,n, t m,n, σ m,n), wherein a different number (N m) is used in every repetition and, in fact, as often as necessary until the deviation measure (ε m) falls below a limit value, and then selecting the reference function (x ref,m (t)) associated with this deviation measure (ε m) as the selected reference function (x ref,p (t)); and Determining the number (N p) of rational functions (f p,n (t)) of the selected reference function (x ref,p (t)) as the number of axles of the vehicle. Recording the time curve (x(t)) of the sensor-measured value (x) while the vehicle moves past the sensor; Repeating a minimization, in which a measure (ε m) for the deviation of a parametrized reference function (x ref,m (t)) comprising a sum of a number (N m) of rational functions (f m,n (t)) from the recorded curve (x(t)) is minimized by adapting the parameters thereof (a m,n, t m,n, σ m,n), wherein a different number (N m) is used in every repetition and, in fact, as often as necessary until the deviation measure (ε m) falls below a limit value, and then selecting the reference function (x ref,m (t)) associated with this deviation measure (ε m) as the selected reference function (x ref,p (t)); and Determining the number (N p) of rational functions (f p,n (t)) of the selected reference function (x ref,p (t)) as the number of axles of the vehicle.
Needle-free connector for an infusion line, comprising: - a containment body which can be coupled to said line, comprising at least an entry and comprising at least an internal pipe (8, 17) suitable for the fluid-dynamic communication with said entry and with said line; and - a sealing element suitable for moving between an occlusion position wherein it seals said entry and an opening position wherein it frees said entry; wherein: - said body shapes a housing having a base at one proximal end and said entry at the opposite distal end; - said body shapes internally a tubular element having at least an access (9, 10), which tubular element is part of said pipe (8, 17), - said tubular element is arranged within said housing and protrudes from said base of the housing so as to define an internal chamber closed at said base, - said housing shapes, at said distal end, an inwardly folded portion so as to define said entry; and - said housing is tubular and said folded portion has an annular shape and defines centrally said entry, - said sealing element is flexible and comprises a sheath which tightly covers the external surface of said tubular element, and said sealing element comprises at least an occlusion portion which plugs said chamber sealed, to define a pneumatic spring, and wherein the sheath shapes a thickened head which comprises said occlusion portion, which abuts the internal lateral surface of said housing and which is suitable for sliding along said tubular element characterized in that the needle-free connector is constituted by only two members, which are said body and said sealing element each of which is made in a single body piece; and said folded portion abuts said occlusion portion when the latter is in said occlusion position so that said pneumatic spring is preloaded when said sealing element is in its idle position, wherein said idle position involves the sealing member being at the position of maximum extension, which corresponds to said occlusion position. - a containment body which can be coupled to said line, comprising at least an entry and comprising at least an internal pipe (8, 17) suitable for the fluid-dynamic communication with said entry and with said line; and - a sealing element suitable for moving between an occlusion position wherein it seals said entry and an opening position wherein it frees said entry; - said body shapes a housing having a base at one proximal end and said entry at the opposite distal end; - said body shapes internally a tubular element having at least an access (9, 10), which tubular element is part of said pipe (8, 17), - said tubular element is arranged within said housing and protrudes from said base of the housing so as to define an internal chamber closed at said base, - said housing shapes, at said distal end, an inwardly folded portion so as to define said entry; and - said housing is tubular and said folded portion has an annular shape and defines centrally said entry, - said sealing element is flexible and comprises a sheath which tightly covers the external surface of said tubular element, and
Method for selecting an antenna in a system comprising a first device and at least one second, mobile device (3A, 3B), the system forming a communication network in which the first device communicates with each second device (3A, 3B) by using a medium access technique of time-division multiple access type in which each communication is made in frames, each frame being divided into a plurality of time slots comprising a first slot allowing the first device to transmit a first signal designating a second device (3A, 3B) and allowing each second device (3A, 3B) to temporally synchronize with a time reference of the first device, and a second slot allowing the second device (3A, 3B) designated by the first signal to transmit a second signal in response to the first signal in order to acknowledge its presence in the system, at least the first device comprising a plurality of antennas each covering a predefined sector in the vicinity of said plurality and each second device comprising a plurality of antennas, the frames used in said system are organized in a succession of groups of consecutive frames, each group of frames being organized according to a group structure associating each frame with a pair formed of an antenna of the first device and of a second device (3A, 3B), each possible pair being associated with a different frame from the group of frames depending on the position of said frame in said group, a piece of information representative of the group structure being shared between the first and each second device (3A, 3B); the method comprises for each device comprising a plurality of antennas (10, 3A, 3B): obtaining (62, 66), on the basis of the first or of the second signal transmitted in each frame of a group of frames, a piece of information representative of the quality of communication between an antenna of said device and an antenna of the first or of a second device (3A, 3B); and selecting (69, 76), on the basis of all of the obtained pieces of information representative of the quality of communication, the antenna from its plurality of antennas that offers the highest quality of communication with an antenna of the first or of a second device (3A, 3B). obtaining (62, 66), on the basis of the first or of the second signal transmitted in each frame of a group of frames, a piece of information representative of the quality of communication between an antenna of said device and an antenna of the first or of a second device (3A, 3B); and selecting (69, 76), on the basis of all of the obtained pieces of information representative of the quality of communication, the antenna from its plurality of antennas that offers the highest quality of communication with an antenna of the first or of a second device (3A, 3B).
A method of mowing multiple areas, the method comprising: obtaining a schedule for a robotic mower to mow at least two areas (102a, 102b, 102c); initiating a mowing operation causing the robotic mower to autonomously mow a first one of at least two areas (102a, 102b, 102c) in accordance with the schedule; and then initiating a mowing operation causing the robotic mower to autonomously mow a second one of the at least two areas (102a, 102b, 102c) in accordance with the schedule, characterized in that: the schedule is automatically set by a controller of the robotic mower, based on an estimate of an amount of power consumption associated with particular route options, the amount of power consumption being estimated using a computation of the area of each of the two areas 102a, 102b, 102c) and the distance of potential routes. obtaining a schedule for a robotic mower to mow at least two areas (102a, 102b, 102c); initiating a mowing operation causing the robotic mower to autonomously mow a first one of at least two areas (102a, 102b, 102c) in accordance with the schedule; and then initiating a mowing operation causing the robotic mower to autonomously mow a second one of the at least two areas (102a, 102b, 102c) in accordance with the schedule, characterized in that: the schedule is automatically set by a controller of the robotic mower, based on an estimate of an amount of power consumption associated with particular route options, the amount of power consumption being estimated using a computation of the area of each of the two areas 102a, 102b, 102c) and the distance of potential routes.
A copolymer, which is an ethylene/tetrafluoroethylene copolymer comprising (a) polymerized units based on ethylene, (b) polymerized units based on TFE, and (c) polymerized units based on a monomer copolymerizable with ethylene and TFE and being of the formula CH 2 =CX-(CF 2) n Z wherein X and Z each independently are H or F, and n is an integer of 2-8; wherein - the units (a) and (b) are present at a mol% ratio (a)/(b) of /, - the units (c) are present in an amount of ≥ 1.8 mol% of all structural units, and - the copolymer satisfies the following formula, 75 ≤ tan δ 60 / tan δ 5 × 100 ≤ 225 wherein tanδ is the loss tangent after five minutes from the start of measurement, and tanδ is the loss tangent after 60 minutes from the start of measurement, each in the dynamic mechanical analysis in an air atmosphere at 320°C as described in the experimental section of the present specification. (a) polymerized units based on ethylene, (b) polymerized units based on TFE, and (c) polymerized units based on a monomer copolymerizable with ethylene and TFE and being of the formula CH 2 =CX-(CF 2) n Z wherein X and Z each independently are H or F, and n is an integer of 2-8; - the units (a) and (b) are present at a mol% ratio (a)/(b) of /, - the units (c) are present in an amount of ≥ 1.8 mol% of all structural units, and - the copolymer satisfies the following formula, 75 ≤ tan δ 60 / tan δ 5 × 100 ≤ 225 wherein tanδ is the loss tangent after five minutes from the start of measurement, and tanδ is the loss tangent after 60 minutes from the start of measurement, each in the dynamic mechanical analysis in an air atmosphere at 320°C as described in the experimental section of the present specification.
Bearing ring, comprising a body with an end face (3; 6), characterized by a piston (8; 15), received in the end face (3; 6) of the body, of a fluidic prestressing device.
A method of oxidizing an organic compound present in soil, groundwater, process water or wastewater comprising contacting such organic compound with (i) a persulfate and an organic acid selected from the group consisting of ascorbic acid, formic acid, and lactic acid; or (ii) a persulfate which is sodium dipersulfate and an organic acid selected from the group consisting of oxalic acid and citric acid; characterized in that the molar ratio of such organic acid to persulfate is between 1:10 and 2:1.
Apparatus for closing a container, comprising at least one closing station for closing at least one container, at least one container receptacle for transporting the container relative to the closing station, at least one feeder for feeding closures to a suitable closing position, wherein at least one driving surface and at least one mover which can be magnetically coupled to the driving surface are provided, wherein the mover is arranged on the driving surface such that it can be displaced and/or rotated in at least two degrees of freedom, wherein the container receptacle is connected to the mover, and wherein the mover is designed such that it can move to the fed closure, so that the container comes into contact with the closure, characterized in that the driving surface is formed as a vertical plane.
A fire suppression system comprising: at least one nozzle configured to expel a fire suppression agent into a space; a storage container including the fire suppression agent and a first pressurized gas at least partially dissolved within the first suppression agent; at least one canister containing a second pressurized gas; a piping system configured to fluidly couple the at least one canister to the storage container, and to fluidly couple the storage container to the at least one nozzle; and wherein when the fire suppression system is inactive, the fire suppression agent within the storage container is pressurized to a storage pressure greater than a vapor pressure of the fire suppression agent and when the fire suppression system is active, a propellant pressure in the piping system is generally greater than the storage pressure of the fire suppression agent. at least one nozzle configured to expel a fire suppression agent into a space; a storage container including the fire suppression agent and a first pressurized gas at least partially dissolved within the first suppression agent; at least one canister containing a second pressurized gas; a piping system configured to fluidly couple the at least one canister to the storage container, and to fluidly couple the storage container to the at least one nozzle; and wherein when the fire suppression system is inactive, the fire suppression agent within the storage container is pressurized to a storage pressure greater than a vapor pressure of the fire suppression agent and when the fire suppression system is active, a propellant pressure in the piping system is generally greater than the storage pressure of the fire suppression agent.
A heterocyclic compound represented by the following formula: wherein the ring A represents an aromatic heterocyclic ring which may have a substituent; the ring B represents a heterocyclic ring which contains G and nitrogen atom N as constituent atoms thereof and which may have a substituent, wherein G represents CH or N and which is selected from an azetidine ring, a pyrrolidine ring, a piperidine ring, a piperazine ring, and a 1,4-diazepane ring; R 1 represents an alkylene group which may have a substituent; R 2a and R 2b are the same or different and each represent a cyclic group which may have a substituent, wherein the cyclic group is a C 6-10 arene ring or an aromatic 5-or 6-membered heterocyclic ring containing at least one heteroatom selected from a nitrogen atom, an oxygen atom and a sulfur atom; X represents an oxygen atom or a sulfur atom; Z represents a hydroxyl group, an alkoxy group, a cycloalkyloxy group, an aryloxy group, an aralkyloxy group, an amino group, or an N-substituted amino group; and n denotes 0 or 1; or a salt thereof. the ring A represents an aromatic heterocyclic ring which may have a substituent; the ring B represents a heterocyclic ring which contains G and nitrogen atom N as constituent atoms thereof and which may have a substituent, wherein G represents CH or N and which is selected from an azetidine ring, a pyrrolidine ring, a piperidine ring, a piperazine ring, and a 1,4-diazepane ring; R 1 represents an alkylene group which may have a substituent; R 2a and R 2b are the same or different and each represent a cyclic group which may have a substituent, wherein the cyclic group is a C 6-10 arene ring or an aromatic 5-or 6-membered heterocyclic ring containing at least one heteroatom selected from a nitrogen atom, an oxygen atom and a sulfur atom; X represents an oxygen atom or a sulfur atom; Z represents a hydroxyl group, an alkoxy group, a cycloalkyloxy group, an aryloxy group, an aralkyloxy group, an amino group, or an N-substituted amino group; and n denotes 0 or 1; or a salt thereof.