mhurhangee/ep-ind-claims huggingface dataset:
An insulation panel for a wall of a building, comprising an inner, wall-side delimiting face and an outer delimiting face facing away from the wall, wherein exactly one cavity is arranged between the inner delimiting face and the outer delimiting face, which cavity extends from a delimiting face of the insulation panel which is a lower delimiting face in the installed position to an upper delimiting face of the insulation panel, and wherein at least one hole (7, 7') is also provided, which extends starting at the wall-side delimiting face into the cavity, and wherein, in order to form the cavity, the insulation panel has a two-part construction, wherein a building-side inner part of the insulation panel provided with the at least one hole and an outer part of the insulation panel facing away from the building are distanced from one another by means of spacers, and wherein the spacers are formed in the manner of discrete nubs, which protrude from the inner part or preferably the outer part and which for example are cylindrical or are provided in the form of a cylinder stub, for example a circular cylinder stump, and wherein the outermost nubs are arranged at a distance from the edges of the insulation panel.
An ice maker apparatus comprising: a casing defining a chamber about a central axis, the casing extending along the central axis between a top portion and a bottom portion, the casing comprising a first material; an auger disposed within the chamber of the casing; a discrete upper flange selectively mounted on the casing at the top portion, the discrete upper flange comprising a second material that is unique from the first material; and an extruder die attached to the discrete upper flange and positioned above the casing, characterized by further comprising a discrete lower flange selectively mounted on the casing at the bottom portion, the discrete lower flange comprising the second material, further comprising a plurality of bolts radially spaced from the central axis and extending axially from the discrete upper flange to the discrete lower flange, each bolt of the plurality of bolts being in attached engagement with the upper flange and the lower flange. a casing defining a chamber about a central axis, the casing extending along the central axis between a top portion and a bottom portion, the casing comprising a first material; an auger disposed within the chamber of the casing; a discrete upper flange selectively mounted on the casing at the top portion, the discrete upper flange comprising a second material that is unique from the first material; and an extruder die attached to the discrete upper flange and positioned above the casing, characterized by further comprising a discrete lower flange selectively mounted on the casing at the bottom portion, the discrete lower flange comprising the second material, further comprising a plurality of bolts radially spaced from the central axis and extending axially from the discrete upper flange to the discrete lower flange, each bolt of the plurality of bolts being in attached engagement with the upper flange and the lower flange.
A bearing preset locking system for presetting and temporarily inhibiting movement of bearings in a construction which system comprises a first plate having an upper and a lower surface wherein the upper surface of the first plate is adapted for mounting onto and being secured to a lower surface of a first bearing member and a second plate having an upper and a lower surface wherein the lower surface of the second plate is adapted for mounting onto and being secured to an upper surface of a second bearing member and wherein the conformation of the lower surface of the first plate and the conformation of the upper surface of the second plate are such as to prevent movement in at least one shear direction between the first and second plates, characterised in that said conformations are such as to allow a change in the height of the bearing while preventing movement in said at least one shear direction.
A method, performed in an image-processing device (120, 260, 600), for determining a lens distortion correction for an interchangeable camera lens used by a camera adapted for interchangeable lenses (321, 322), the method comprising: - obtaining an indication of a first feature and a first corrected position of the first feature in a first corrected image frame, the first corrected position is based on a first lens distortion correction of a first uncorrected position of the first feature in a first uncorrected image frame comprising the first feature and captured by the camera when equipped with a first interchangeable lens, the first uncorrected image frame capturing a first scene; - detecting a change of lenses on the camera from the first lens to a second interchangeable lens; - obtaining an indication of a second feature, corresponding to the first feature, and a second uncorrected position of the second feature in a second uncorrected image frame captured by the camera when equipped with the second lens, the second uncorrected image frame capturing a second scene which at least partly overlaps the first scene; - matching the first feature with the second feature; and - determining a second lens distortion correction for the second lens based on a mapping between the first corrected position of the matched first feature and the second uncorrected position of the matched second feature. - obtaining an indication of a first feature and a first corrected position of the first feature in a first corrected image frame, the first corrected position is based on a first lens distortion correction of a first uncorrected position of the first feature in a first uncorrected image frame comprising the first feature and captured by the camera when equipped with a first interchangeable lens, the first uncorrected image frame capturing a first scene; - detecting a change of lenses on the camera from the first lens to a second interchangeable lens; - obtaining an indication of a second feature, corresponding to the first feature, and a second uncorrected position of the second feature in a second uncorrected image frame captured by the camera when equipped with the second lens, the second uncorrected image frame capturing a second scene which at least partly overlaps the first scene; - matching the first feature with the second feature; and - determining a second lens distortion correction for the second lens based on a mapping between the first corrected position of the matched first feature and the second uncorrected position of the matched second feature.
Blade adjusting device (P1, P2, P3) for a rotor blade of a rotor of a wind turbine, - whereas the rotor comprises a hub, at least one rotor blade rotatably mounted around a longitudinal axis of the rotor blade mounted on the hub and the rotor is rotatably arranged on a nacelle of the wind turbine, - the rotor blade is rotatable over the blade adjusting device (P1, P2, P3) and stoppable in different pitching positions, - the wind turbine comprises a central turbine control for monitoring and actuating of components of the wind turbine, amongst others the blade adjusting device (P1, P2, P3), - and whereas the blade adjusting device (P1, P2, P3) comprises a servomotor for driving and/or fixing the rotor blade, a converter for actuating the servomotor, a control unit for actuating the converter and a battery for the emergency supply of the blade adjusting device (P1, P2, P3), - the blade adjusting device (P1, P2, P3) comprises a turbine safety chain and an internal safety chain integrated in the control unit of the adjusting device (P1, P2, P3), characterized in that the converter comprises a power supply for the creation of an internal control voltage (U int) from the power supply voltage (U N), whereas the power supply is arranged in a direct current link of the converter. - whereas the rotor comprises a hub, at least one rotor blade rotatably mounted around a longitudinal axis of the rotor blade mounted on the hub and the rotor is rotatably arranged on a nacelle of the wind turbine, - the rotor blade is rotatable over the blade adjusting device (P1, P2, P3) and stoppable in different pitching positions, - the wind turbine comprises a central turbine control for monitoring and actuating of components of the wind turbine, amongst others the blade adjusting device (P1, P2, P3), - and whereas the blade adjusting device (P1, P2, P3) comprises a servomotor for driving and/or fixing the rotor blade, a converter for actuating the servomotor, a control unit for actuating the converter and a battery for the emergency supply of the blade adjusting device (P1, P2, P3), - the blade adjusting device (P1, P2, P3) comprises a turbine safety chain and an internal safety chain integrated in the control unit of the adjusting device (P1, P2, P3),
Gripping device for manipulating flexible elements, coupleable to a robot arm as an end effector, comprising a main rack (14, 15, 17, 18, 19, 20, 24, 25) and a plurality of gripping elements (1, 2, 3, 4, 5, 6, 7, 8, 9) coupled in the main rack by means of respective operating mechanisms (1a-1f; 2a-2e; 3a-3f; 4a-4g; 5a-5d; 6a-6g; 7a-7f; 8a-8e; 9a-9f) for gripping a flexible element, and comprising at least four gripping elements for gripping the flexible element; wherein at least one gripping element is a multiposition gripping element independently displaceable with respect to the other gripping elements (1-4, 6-9) in at least one direction parallel to the plane defined by the other gripping elements (1-4, 6-9) by means of at least one displacement system (16, 38, 39, 40, 41, 42, 45) assembled in the main rack (14, 15, 17, 18, 19, 20, 24, 25) and in a perpendicular direction to said plane by means of a vertical operating mechanism; at least two of the other gripping elements (1-4, 6-9) defining the aforementioned plane are independently displaceable in any direction (X, Y) within said plane by means of respective two-way additional displacement systems assembled in the main rack (14, 15, 17,18, 19, 20, 24, 25); the gripping elements are automatically adjustable in their respective positions such that they are arranged in one and the same plane for capturing the flexible element in a flat two-dimensional configuration and, once the flexible element is captured, moving to generate a three-dimensional configuration in the flexible element without generating stretching forces on the flexible element; wherein the multiposition gripping element can be deactivated independently of the other gripping elements (1-4, 6-9) for being released from the flexible element placed in a mold, and is susceptible of being displaced to other positions with respect to the flexible element still secured to the other gripping elements (1-4, 6-9), and wherein the multiposition gripping element is designed for performing at least one additional process on the flexible element placed in the mold.
An aircraft interior panel comprising a core (22; 32) sandwiched between first (24; 34) and second (26; 36) skins, wherein the first and second skins both comprise a composite comprising natural fibres set within a biopolymeric resin thereby forming a sustainable aircraft interior panel, and wherein the aircraft interior panel further comprises a coating on an outer surface of at least one of the first and second skins to increase the fire resistance of the panel thereby providing a fire resistant sustainable panel; characterized in that: the biopolymeric resin comprises a linseed oil derived natural thermoset polymer. the biopolymeric resin comprises a linseed oil derived natural thermoset polymer.
A method of analysing propagation paths of wave portions comprising: A radiating a first wave from a first radiating device at a first location B receiving at a second location with at least two receiving devices radiated wave portions of the first wave C radiating a second wave from a second radiating device at the first location D receiving at the second location wave portions of the second wave radiated F interpretation of the signals received, wherein the wave portions received are separated according to different incident directions of the wave portions and/or determination of a number of different incident directions from which the wave portions received were transmitted; wherein this operation comprises analysing the phase differences and/or amplitudes of the signals of said at least two receiving devices, wherein the distance between the first radiation device and the second radiation device is smaller than the distance between the radiation devices and the receiving devices and characterised in the radiation devices are spaced apart from each other by a distance which is larger than the error related to the wavelength when analysing the phase differences of the smallest wavelength used for analysis of the first wave and of the second wave and/or the radiation devices have a different radiation characteristic in terms of polarisation. A radiating a first wave from a first radiating device at a first location B receiving at a second location with at least two receiving devices radiated wave portions of the first wave C radiating a second wave from a second radiating device at the first location D receiving at the second location wave portions of the second wave radiated F interpretation of the signals received, wherein the wave portions received are separated according to different incident directions of the wave portions and/or determination of a number of different incident directions from which the wave portions received were transmitted; wherein this operation comprises analysing the phase differences and/or amplitudes of the signals of said at least two receiving devices,
Method for switching in a memory for a control device, wherein a second memory area is superimposed on a first memory area in the control device, wherein the second memory area contains at least one memory page (208, 209), wherein it is possible to switch between an original memory configuration without superimposition and the superimposition with one of the memory pages, characterized in that the switching between the original memory configuration and the superimposition with one of the memory pages of the second memory area is carried out by the software of the control device itself.
A method for producing a polyether ether ketone, characterized by the following steps: a) reacting an at least disubstituted benzophenone of the general formula with a benzene derivative of the general formula at a temperature of 100 °C or less, wherein A represents a carbon atom provided with a protective group, R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 9, R 10, R 11, R 12 each independently represents H, D, OH, X, substituted or unsubstituted C 1 -C 5 alkyl or substituted or unsubstituted C 6 -C 10 aryl, X represents F, Cl, Br or I, Z, Z', Z", Z"' each independently represents OH, OMe, Me m, MeR 13 m or Me, m is 1, 2, 3 or 4, R 13 represents metal, alkali metal or alkaline earth metal, and Me represents metal, alkali metal or alkaline earth metal, b) deprotecting the product formed in step a) in order to obtain a polyether ether ketone of the general formula: wherein G, G' each independently represents O or C, and n is an integer which is greater than 10. a) reacting an at least disubstituted benzophenone of the general formula with a benzene derivative of the general formula at a temperature of 100 °C or less, wherein A represents a carbon atom provided with a protective group, R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 9, R 10, R 11, R 12 each independently represents H, D, OH, X, substituted or unsubstituted C 1 -C 5 alkyl or substituted or unsubstituted C 6 -C 10 aryl, X represents F, Cl, Br or I, Z, Z', Z", Z"' each independently represents OH, OMe, Me m, MeR 13 m or Me, m is 1, 2, 3 or 4, R 13 represents metal, alkali metal or alkaline earth metal, and Me represents metal, alkali metal or alkaline earth metal, A represents a carbon atom provided with a protective group, R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 9, R 10, R 11, R 12 each independently represents H, D, OH, X, substituted or unsubstituted C 1 -C 5 alkyl or substituted or unsubstituted C 6 -C 10 aryl, X represents F, Cl, Br or I, Z, Z', Z", Z"' each independently represents OH, OMe, Me m, MeR 13 m or Me, m is 1, 2, 3 or 4, R 13 represents metal, alkali metal or alkaline earth metal, and Me represents metal, alkali metal or alkaline earth metal, b) deprotecting the product formed in step a) in order to obtain a polyether ether ketone of the general formula: wherein G, G' each independently represents O or C, and n is an integer which is greater than 10. G, G' each independently represents O or C, and n is an integer which is greater than 10.
A multi-layer reduced pressure delivery apparatus for applying reduced pressure tissue treatment to a tissue site comprising: a first layer having a scaffold adapted to contact a tissue site; a second layer having a hydrogel-forming material and a plurality of flow channels; the hydrogel-forming material contacting the scaffold; and a third layer having a distribution manifold contacting the hydrogel-forming material. a first layer having a scaffold adapted to contact a tissue site; a second layer having a hydrogel-forming material and a plurality of flow channels; the hydrogel-forming material contacting the scaffold; and a third layer having a distribution manifold contacting the hydrogel-forming material.
An apparatus for filtering advertisement beacon signals transmitted by non-targeted devices in a wireless network, the apparatus being configured to - determine a directionally restricted jamming area comprising a specific spatial sector of non-target devices; - control a directional antenna to transmit a jamming signal to the jamming area during transmission of the advertisement beacon signals to allow receipt, by a master device, of an advertisement beacon signal of a target device located outside the specific spatial sector; restrict transmission of the jamming signal to at least one of a plurality of predetermined advertisement channels (CH37-CH39) used by the wireless network; and restrict transmission of the jamming signal to the directionally restricted jamming area on at least one predetermined advertisement channel of the non-target devices for a predetermined time period. - determine a directionally restricted jamming area comprising a specific spatial sector of non-target devices; - control a directional antenna to transmit a jamming signal to the jamming area during transmission of the advertisement beacon signals to allow receipt, by a master device, of an advertisement beacon signal of a target device located outside the specific spatial sector; restrict transmission of the jamming signal to at least one of a plurality of predetermined advertisement channels (CH37-CH39) used by the wireless network; and restrict transmission of the jamming signal to the directionally restricted jamming area on at least one predetermined advertisement channel of the non-target devices for a predetermined time period.
Power tool, in particular a saber saw, having a reciprocating-motion output spindle and a drive motor, which are coupled to each other via a transmission, wherein a longitudinal side of the output spindle and a longitudinal side of the drive motor extend next to each other, such that the drive motor is disposed next to the output spindle and wherein the drive motor has a drive portion connected to the transmission and has a first end distant from the transmission, characterized in that the longitudinal axis of the drive motor and the longitudinal axis of the output spindle intersect at an angle (α) on the side that is distant from the transmission, such that the drive motor and the output spindle are inclined such that the drive portion is at a greater distance from the output spindle than the first end of the drive motor.
Method for supporting radiation treatment planning for a patient, including the following process steps: - acquiring computer tomography image data from the patient, which has been acquired from the patient using a computer tomography device, - allocating magnetic resonance image data to the computer tomography image data using the computer tomography image data, - providing the computer tomography image data together with the magnetic resonance image data allocated to the computer tomography image data to support the radiation treatment planning for the patient, characterised in that the magnetic resonance image data has been acquired from at least one examination subject that is different from the patient using a magnetic resonance unit. - acquiring computer tomography image data from the patient, which has been acquired from the patient using a computer tomography device, - allocating magnetic resonance image data to the computer tomography image data using the computer tomography image data, - providing the computer tomography image data together with the magnetic resonance image data allocated to the computer tomography image data to support the radiation treatment planning for the patient,
A pharmaceutical composition comprising: (a) memantine or a pharmaceutically acceptable salt thereof, and (b) donepezil or a pharmaceutically acceptable salt thereof, wherein the memantine or pharmaceutically acceptable salt thereof, is provided in an extended release dosage form, wherein the extended release dosage form provides a dC/dt of memantine measured over the period from 2 hours to 4 hours after administration, that is less than 50% of the dC/dt for the same quantity of an immediate release form of memantine within the period 0 to T max for the immediate release form. (a) memantine or a pharmaceutically acceptable salt thereof, and (b) donepezil or a pharmaceutically acceptable salt thereof,