mhurhangee/ep-ind-claims huggingface dataset:
Polypropylene composition comprising (a) a propylene homopolymer comprising, at least 97 wt.-% propylene units, (b) a platelet-like inorganic filler, in an amount of 0.2 to 0.9 wt.-% based on the total polypropylene composition, and (c) a β-nucleating agent, wherein (i) the polypropylene composition and/or the propylene homopolymer has a polydispersity index of at least 4.0, (ii) the polypropylene composition and/or the propylene homopolymer has an MFR 2 (230 °C) of less than 3.0 g/10min measured according to ISO 1133, (iii) the amount of β-modification of the polypropylene composition and/or the propylene homopolymer is in the range of 60 to 90 % determined by DSC run according to ISO 3146 / part 3 / method C2 using second heat scan, and (iv) the propylene homopolymer represents more than 85 wt% of the total propylene composition. (a) a propylene homopolymer comprising, at least 97 wt.-% propylene units, (b) a platelet-like inorganic filler, in an amount of 0.2 to 0.9 wt.-% based on the total polypropylene composition, and (c) a β-nucleating agent, (i) the polypropylene composition and/or the propylene homopolymer has a polydispersity index of at least 4.0, (ii) the polypropylene composition and/or the propylene homopolymer has an MFR 2 (230 °C) of less than 3.0 g/10min measured according to ISO 1133, (iii) the amount of β-modification of the polypropylene composition and/or the propylene homopolymer is in the range of 60 to 90 % determined by DSC run according to ISO 3146 / part 3 / method C2 using second heat scan, and (iv) the propylene homopolymer represents more than 85 wt% of the total propylene composition.
Cutting device for conveying and cutting in particular agricultural material to be cut, comprising a conveying channel and at least one pivotably mounted cutting element which can be transferred from a rest position to a cutting position by moving in a first pivoting direction, in which cutting position the cutting element for cutting the material to be cut is at least in part positioned within the conveying channel, and comprising a first adjusting device for returning the cutting element to the cutting position and for holding the cutting element in the cutting position, which device has a return element and is designed to apply a first torque to the cutting element in the rest position, characterised by a second adjusting device for pivoting the cutting element out of the rest position in the first pivoting direction, the second adjusting device being designed to apply a second torque to the cutting element, such that the second torque is greater than the first torque applied by the first adjusting device in the rest position.
A speed control device for controlling a speed of a train, wherein the speed control device is connectable to a tacho-generator, the speed control device comprising: a calculating unit to calculate a first speed using notch information outputted from a master controller, information of a route database for managing route data, and information of a car characteristic database for managing car characteristic data when a pulse count signal obtained by conversion from an AC voltage signal that is outputted from the tacho-generator and corresponds to the number of revolutions of a wheel of the train cannot be detected, and calculate a second speed using the pulse count signal when the pulse count signal can be detected, characterised in that the calculating unit includes a position correcting unit to correct, when the pulse count signal is determined to be in a state in which the first speed calculated when the pulse count signal cannot be detected does not exceed a fixed speed, a position of the train using a time from release of a rolling prevention brake until th detection of the pulse count signal. a calculating unit to calculate a first speed using notch information outputted from a master controller, information of a route database for managing route data, and information of a car characteristic database for managing car characteristic data when a pulse count signal obtained by conversion from an AC voltage signal that is outputted from the tacho-generator and corresponds to the number of revolutions of a wheel of the train cannot be detected, and calculate a second speed using the pulse count signal when the pulse count signal can be detected, characterised in that the calculating unit includes a position correcting unit to correct, when the pulse count signal is determined to be in a state in which the first speed calculated when the pulse count signal cannot be detected does not exceed a fixed speed, a position of the train using a time from release of a rolling prevention brake until th detection of the pulse count signal.
Packaging container, comprising a base, a casing projecting therefrom with a wall which encloses a packaging space and comprises a free edge on the side facing away from the base, two or more longitudinally extending reinforcing elements (36, 38, 40), a first reinforcing element extending from the base in the direction of the free edge and a second reinforcing element being aligned transversely and in particular perpendicularly to the first reinforcing element and being arranged at a distance from the base, and a connecting device which comprises a first receptacle for the first reinforcing element and a second receptacle for the second reinforcing element and which is directly or indirectly in engagement with the wall, characterized in that a fixing element is fixed or formed on the wall, which element is in engagement with the first receptacle and/or in engagement with the second receptacle, and in that the connecting device is configured to be non-displaceable relative to the wall along the free edge during normal use of the packaging container (10; 90). a base, a casing projecting therefrom with a wall which encloses a packaging space and comprises a free edge on the side facing away from the base, two or more longitudinally extending reinforcing elements (36, 38, 40), a first reinforcing element extending from the base in the direction of the free edge and a second reinforcing element being aligned transversely and in particular perpendicularly to the first reinforcing element and being arranged at a distance from the base, and a connecting device which comprises a first receptacle for the first reinforcing element and a second receptacle for the second reinforcing element and which is directly or indirectly in engagement with the wall, characterized in that a fixing element is fixed or formed on the wall, which element is in engagement with the first receptacle and/or in engagement with the second receptacle, and in that the connecting device is configured to be non-displaceable relative to the wall along the free edge during normal use of the packaging container (10; 90).
Permanent-magnetic encoder for a sensor apparatus, having a first permanent magnet and connected thereto a second permanent magnet (1b, 1c, 1d), wherein the first permanent magnet is surrounded by the second permanent magnet (1b, 1c, 1d) on an orientation plane, wherein the first permanent magnet has a first magnetic field with a first orientation in the orientation plane and the second permanent magnet (1b, 1c, 1d) has a second magnetic field with an orientation in the orientation plane, wherein the first orientation is opposite to the second orientation, characterized in that • the first and second permanent magnets (1a, 1b, 1c, 1d) have substantially the same magnetic dipole moment, and/or • the first and second permanent magnets (1a, 1c, 1d) are arranged with a mutual distance on the orientation plane. wherein the first permanent magnet has a first magnetic field with a first orientation in the orientation plane and the second permanent magnet (1b, 1c, 1d) has a second magnetic field with an orientation in the orientation plane, wherein the first orientation is opposite to the second orientation, characterized in that • the first and second permanent magnets (1a, 1b, 1c, 1d) have substantially the same magnetic dipole moment, and/or • the first and second permanent magnets (1a, 1c, 1d) are arranged with a mutual distance on the orientation plane. • the first and second permanent magnets (1a, 1b, 1c, 1d) have substantially the same magnetic dipole moment, and/or • the first and second permanent magnets (1a, 1c, 1d) are arranged with a mutual distance on the orientation plane.
A method comprising: communicating in a subframe between a user equipment and a network equipment wherein the subframe having a first transmission bandwidth configuration that includes a plurality of resource blocks and at least one resource element of at least one resource block is configured as a control region, the method being characterized by: the control region including an indicator used in scheduling a subsequent subframe; determining from the indicator a transmission bandwidth of a second transmission bandwidth configuration for the subsequent subframe used for allocating subcarriers in the subsequent subframe, and communicating in the subsequent subframe using the second transmission bandwidth configuration. communicating in a subframe between a user equipment and a network equipment wherein the subframe having a first transmission bandwidth configuration that includes a plurality of resource blocks and at least one resource element of at least one resource block is configured as a control region, the method being characterized by: the control region including an indicator used in scheduling a subsequent subframe; determining from the indicator a transmission bandwidth of a second transmission bandwidth configuration for the subsequent subframe used for allocating subcarriers in the subsequent subframe, and communicating in the subsequent subframe using the second transmission bandwidth configuration. the control region including an indicator used in scheduling a subsequent subframe; determining from the indicator a transmission bandwidth of a second transmission bandwidth configuration for the subsequent subframe used for allocating subcarriers in the subsequent subframe, and communicating in the subsequent subframe using the second transmission bandwidth configuration.
A handheld attenuated total reflectance instrument, comprising: a handheld enclosure; an internally reflective element disposed in the handheld enclosure and also configured to provide a sample contact surface 122a external to the handheld enclosure; an optical assembly contained within the handheld enclosure, the optical assembly further comprising a radiation source and a radiation detector, the source being configured to direct source radiation towards the sample contact surface and the detector being configured to detect the source radiation optically interacting with the sample contact surface; a sample contact arm; a motorized force actuator coupled to the sample contact arm; and a processor also configured within the handheld enclosure and electronically coupled to the motorized force actuator, the radiation source, and the radiation detector; wherein the processor directs the motorized force actuator with a controlled contact force as applied to a sample disposed between the sample contact arm and the sample contact surface, wherein after the controlled contact force is met, the electronic processor analyzes the sample information received by the radiation detector, and the controlled contact force is configured by the processor as an automatically controlled force based on a feedback spectroscopic signature received by the detector, wherein the controlled contact force does not exceed a predefined maximum force setting. a handheld enclosure; an internally reflective element disposed in the handheld enclosure and also configured to provide a sample contact surface 122a external to the handheld enclosure; an optical assembly contained within the handheld enclosure, the optical assembly further comprising a radiation source and a radiation detector, the source being configured to direct source radiation towards the sample contact surface and the detector being configured to detect the source radiation optically interacting with the sample contact surface; a sample contact arm; a motorized force actuator coupled to the sample contact arm; and a processor also configured within the handheld enclosure and electronically coupled to the motorized force actuator, the radiation source, and the radiation detector; wherein the processor directs the motorized force actuator with a controlled contact force as applied to a sample disposed between the sample contact arm and the sample contact surface, wherein after the controlled contact force is met, the electronic processor analyzes the sample information received by the radiation detector, and the controlled contact force is configured by the processor as an automatically controlled force based on a feedback spectroscopic signature received by the detector, wherein the controlled contact force does not exceed a predefined maximum force setting.
A composition that is a liquid at 20 °C and 1 atm pressure, comprising a) an authentication marker being a flavonoid derivative obtainable by modifying the hydroxyl groups of a flavonoid with organic groups, the concentration of the flavonoid derivative being 100 ppm by weight or less, and b) an organic substance in an amount of 90% by weight or more, wherein the authentication marker is not naturally occurring in the composition and wherein the flavonoid derivative obtainable by modifying the hydroxyl groups of a flavonoid with organic groups is represented by any of the following formulae: where X represents H or OR; n represents an integer of 0 to 4, and m represents an integer of 0 to 5, provided the sum of m and n is 2 or more, several R in one molecule can be the same or different, and each R can be H, a branched, linear or cyclic alkyl group having 1 to 50 carbon atoms, a C(=O)-alkyl group, wherein the alkyl group is defined as above, a trialkylsilyl group wherein the alkyl groups each are independently a branched, linear or cyclic alkyl group having 1 to 50 carbon atoms, a diarylalkylsilyl group having two aryl groups and one alkyl group wherein the alkyl group is a branched, linear or cyclic alkyl group having 1 to 50 carbon atoms, and the aryl groups are each independently aromatic rings having 6 to 10 carbon atoms, a dialkylarylsilyl group having one aryl group and two alkyl groups, wherein the alkyl groups and the aryl groups are defined as above for the diarylalkylsilyl group, an allyl group, a methylene alkylether group, wherein the alkyl group is defined as above, or a tetrahydropyranyl group, with the proviso that two or more of the R groups do not represent hydrogen. a) an authentication marker being a flavonoid derivative obtainable by modifying the hydroxyl groups of a flavonoid with organic groups, the concentration of the flavonoid derivative being 100 ppm by weight or less, and b) an organic substance in an amount of 90% by weight or more, where X represents H or OR; n represents an integer of 0 to 4, and m represents an integer of 0 to 5, provided the sum of m and n is 2 or more, several R in one molecule can be the same or different, and each R can be H, a branched, linear or cyclic alkyl group having 1 to 50 carbon atoms, a C(=O)-alkyl group, wherein the alkyl group is defined as above, a trialkylsilyl group wherein the alkyl groups each are independently a branched, linear or cyclic alkyl group having 1 to 50 carbon atoms, a diarylalkylsilyl group having two aryl groups and one alkyl group wherein the alkyl group is a branched, linear or cyclic alkyl group having 1 to 50 carbon atoms, and the aryl groups are each independently aromatic rings having 6 to 10 carbon atoms, a dialkylarylsilyl group having one aryl group and two alkyl groups, wherein the alkyl groups and the aryl groups are defined as above for the diarylalkylsilyl group, an allyl group, a methylene alkylether group, wherein the alkyl group is defined as above, or a tetrahydropyranyl group, with the proviso that two or more of the R groups do not represent hydrogen.
Apparatus for separation of a fluid flow, the fluid flow includes at least two fluids of different densities, the apparatus comprises: a first pipe element comprising a rotation-generating element for the fluid flow downstream of an inlet in the first pipe, a second pipe element arranged at least partly inside the first pipe element, downstream of the rotation-generating element and forming an outlet for lighter density fluids, the first and second pipe elements (10,20) forming an annular space between an inner surface of the first pipe element and an outer surface of the second pipe element, which annular space is connected to a first outlet section for heavier density fluids, wherein the second pipe element is provided with a number of through-going openings over at least a part of its length, the openings through a wall of the second pipe element and leading to a second outlet section for heavier density fluids, and both the first outlet section and the second outlet section are connected to a common container with an outlet for the heavier density fluids. a first pipe element comprising a rotation-generating element for the fluid flow downstream of an inlet in the first pipe, a second pipe element arranged at least partly inside the first pipe element, downstream of the rotation-generating element and forming an outlet for lighter density fluids, the first and second pipe elements (10,20) forming an annular space between an inner surface of the first pipe element and an outer surface of the second pipe element, which annular space is connected to a first outlet section for heavier density fluids, wherein the second pipe element is provided with a number of through-going openings over at least a part of its length, the openings through a wall of the second pipe element and leading to a second outlet section for heavier density fluids, and both the first outlet section and the second outlet section are connected to a common container with an outlet for the heavier density fluids.
Apparatus for dispensing plates, comprising a mould frame, which is suitable and intended to accommodate a plate, and an ejection unit in order to push the plate out of the mould frame, wherein the ejection unit and/or the mould frame is displaceable in a predetermined displacement direction, characterised in that in order to push the plates out of the mould frame the ejection unit is movable relative to the mould frame in such a way that the plates can be pushed out of the mould frame in a direction extending upwards from below, and the apparatus has a holding device arranged above the pushing device to at least temporarily hold the plate ejected from the mould frame.
A combustion engine component, comprising: a body comprising a first surface in operative thermal communication with a hot combustion gas, and a second surface in operative fluid communication with a cooling fluid, wherein the second surface includes a first contour feature (62, 64, 66, 68) configured to increase a contact angle of a liquid on the second surface; wherein the first contour feature (62, 64, 66, 68) includes a plurality of first surface projections disposed on the second surface including a first characteristic dimension of less than 0.02 inches (0.51 mm); and wherein the second surface further includes a second contour feature disposed on the second surface, said second surface contour feature comprising a plurality of second surface projections including a second characteristic dimension greater than the first characteristic dimension. a body comprising a first surface in operative thermal communication with a hot combustion gas, and a second surface in operative fluid communication with a cooling fluid, wherein the second surface includes a first contour feature (62, 64, 66, 68) configured to increase a contact angle of a liquid on the second surface; wherein the first contour feature (62, 64, 66, 68) includes a plurality of first surface projections disposed on the second surface including a first characteristic dimension of less than 0.02 inches (0.51 mm); and wherein the second surface further includes a second contour feature disposed on the second surface, said second surface contour feature comprising a plurality of second surface projections including a second characteristic dimension greater than the first characteristic dimension.
Computer-implemented Method for optimizing an image displayed on a screen on an electronic device comprising the steps of: retrieving metadata associated with said image; performing character recognition on said image for identifying at least one character in said image; maximizing size of said image in relation to the size of said screen; and determining readability of said identified at least one character in said maximized image by using an algorithm using picture size, screen resolution and screen size in combination with character recognition and graphical parameters of the identified at least one character; characterized in that the method further comprises the steps of: comparing said identified at least one character with said retrieved metadata; and if said identified at least one character differs from said retrieved metadata and is determined not to be readable, presenting said retrieved metadata in said image. retrieving metadata associated with said image; performing character recognition on said image for identifying at least one character in said image; maximizing size of said image in relation to the size of said screen; and determining readability of said identified at least one character in said maximized image by using an algorithm using picture size, screen resolution and screen size in combination with character recognition and graphical parameters of the identified at least one character; comparing said identified at least one character with said retrieved metadata; and if said identified at least one character differs from said retrieved metadata and is determined not to be readable, presenting said retrieved metadata in said image.