mhurhangee/patent-ind-claim-en huggingface dataset:
Method for manufacturing a sandwich component according to the following steps: - providing a plurality of material blanks , - applying at least one matrix material to the upper side and/or the underside of at least one material blank , - arranging the material blanks above one another and next to one another, wherein at least two material blanks are arranged one above another, - wherein at least two of the material blanks comprise fibrous material, wherein at least two of the material blanks differ in design in that the two material blanks have a surface area which differs from one another; with the result that at least one horizontal and vertical zone of the sandwich component is created having different mechanical properties than other regions of the sandwich component, - pressing the material blanks to form the sandwich component, characterized in that one of the material blanks is formed by a core layer , wherein the core layer is formed in the manner of a honeycomb, wherein the core layer is arranged in such a manner that the core layer comes to lie between at least two other material blanks of the sandwich component, wherein at least two of the material blanks are arranged at least on one side of the core layer , wherein matrix material is applied in a different way to these two material blanks in that a different type of matrix material is applied to the material blanks. - providing a plurality of material blanks , - applying at least one matrix material to the upper side and/or the underside of at least one material blank , - arranging the material blanks above one another and next to one another, wherein at least two material blanks are arranged one above another, - wherein at least two of the material blanks comprise fibrous material, wherein at least two of the material blanks differ in design in that the two material blanks have a surface area which differs from one another; with the result that at least one horizontal and vertical zone of the sandwich component is created having different mechanical properties than other regions of the sandwich component, - pressing the material blanks to form the sandwich component, characterized in that one of the material blanks is formed by a core layer , wherein the core layer is formed in the manner of a honeycomb, wherein the core layer is arranged in such a manner that the core layer comes to lie between at least two other material blanks of the sandwich component, wherein at least two of the material blanks are arranged at least on one side of the core layer , wherein matrix material is applied in a different way to these two material blanks in that a different type of matrix material is applied to the material blanks.
A DEVICE FOR CRUSHING AND DISSOLVING/SUSPENDING DANGEROUS DRUGS FOR ENTERAL ADMINISTRATION, comprising a mixing bag , a syringe with which water is injected to disperse the powder which the tablet has become once crushed inside the bag and with which the drug is suctioned once diluted and mixed and a three-way valve , characterised in that the mixing bag for crushing and dispersing the solid drug in water is provided with a first opening suitable as an inlet for the insertion therein of the tablet that constitutes the drug and a second opening for the passage of fluid and in that said syringe is an enteral syringe and is coupled to the second opening of the mixing bag by interposing the three-way valve which, hermetically connected to said opening , has: with an ENFIt-type connection for connecting the enteral syringe ; with an extension tube provided with a connector for a tube at the distal end thereof; and with a movable stopcock which, depending on the position it is located in, opens the passage of fluid from the syringe to the opening of the mixing bag , to inject the solution water and to suction the mixture once dissolution has been performed, or from the syringe to the tube to deliver the diluted drug directly into the patient's mouth or by connecting the connector to a nasogastric tube, without the need to disconnect the enteral syringe .
Calibration body with a main body , to which a plurality of measuring elements are fastened, each measuring element having a spacer element , which is fastened by way of one end to the main body , and a solid measure which is fastened to the free end of the spacer element , the measuring elements having at least four different lengths and defining a rectangular or square basic shape in the base plane of the main body , the measuring elements being arranged in a right-angled pattern in at least four parallel rows (a-f) and at least four parallel columns (A-E), and each row (a-f) and each column (A-E) comprising at least three measuring elements , characterized in that the measuring elements of one row (a-f) of the pattern in each case have a uniform length or monotonously increasing lengths, in that the calibration body has a plurality of rows (a-d) with measuring elements with uniform lengths, the rows (a-d) with uniform lengths being arranged in such a way that the measuring elements have monotonously increasing lengths in their columns (A-E).
A device for analyzing biological cells, the device comprising: a first platter for positioning a first group of biological cells ; a first head positioned adjacently to the first platter for providing first electromagnetic radiation to at least a first subset of the first group of biological cells ; and a first electrode positioned adjacently to the first platter for detecting the first electromagnetic radiation having interacted with the first subset of the first group of biological cells for determining impedance values for the first subset of the first group of biological cells , characterized in that the first head is located above the first platter and the first electrode is located under the first platter , or vice versa, with the lateral locations of the first head and the first electrode corresponding to each other. a first platter for positioning a first group of biological cells ; a first head positioned adjacently to the first platter for providing first electromagnetic radiation to at least a first subset of the first group of biological cells ; and a first electrode positioned adjacently to the first platter for detecting the first electromagnetic radiation having interacted with the first subset of the first group of biological cells for determining impedance values for the first subset of the first group of biological cells , characterized in that the first head is located above the first platter and the first electrode is located under the first platter , or vice versa, with the lateral locations of the first head and the first electrode corresponding to each other.
Adjustable timepiece assembly , comprising a base bridge and at least one adjustable bridge whose position is adjustable with respect to said base bar parallel to a reference plane, characterized in that said adjustable assembly includes at least a first part which is guided in rotation about a first pin integral with said base bar , wherein said first part includes a first toothed sector , which meshes with a first adjustment pinion press fit in said base bar , and in that said adjustable bar is guided in rotation about a second pin integral with said first part , and includes a second toothed sector which meshes with a second adjustment pinion press fit in said first part .
A fluid flow resistor , comprising a body comprising an entry fluid flow port (110.1), an exit fluid flow port (110.5), and an internal fluid flow path fluidly extending from the entry fluid flow port to the exit fluid flow port; the internal fluid flow path comprising a first spiral fluid flow path in a first spiral direction, and a second spiral fluid flow path in a second spiral direction opposite the first spiral direction; the first spiral fluid flow path and the second spiral fluid flow path comprising a connecting fluid flow path therebetween; wherein the fluid flow resistor is configured to resistively permit fluid flow from the entry fluid flow port ( 110.1 ) to the exit fluid flow port ( 110.5 ) via the first spiral fluid flow path , the connecting fluid flow path , and the second spiral fluid flow path , in succession, characterized in that each of the first spiral fluid flow path and the second spiral fluid flow path comprises a plurality of discrete fluid flow chambers fluidly connected in series via interconnecting fluid flow restriction passages. the internal fluid flow path comprising a first spiral fluid flow path in a first spiral direction, and a second spiral fluid flow path in a second spiral direction opposite the first spiral direction; the first spiral fluid flow path and the second spiral fluid flow path comprising a connecting fluid flow path therebetween; wherein the fluid flow resistor is configured to resistively permit fluid flow from the entry fluid flow port ( 110.1 ) to the exit fluid flow port ( 110.5 ) via the first spiral fluid flow path , the connecting fluid flow path , and the second spiral fluid flow path , in succession, characterized in that each of the first spiral fluid flow path and the second spiral fluid flow path comprises a plurality of discrete fluid flow chambers fluidly connected in series via interconnecting fluid flow restriction passages.
Process for preparing highly sinter-stable metal nanoparticles supported on mesoporous graphitic particles, said process comprising the steps of: a. impregnating particles having a porous basic framework with a graphitizable organic compound, b. subjecting the particles obtained in step a) to a high temperature graphitization process, whereby a graphitic framework in the porous basic framework is provided, c. subjecting the so-obtained graphitized particles to a process for removing the basic framework, whereby a mesoporous graphitic framework is provided, d. impregnating the mesoporous graphitic particles obtained in step c) with a solution of a salt of at least one catalytically active metal selected from Ti, V, Cr, Mn, Fe, Co, Ni, Cu, Zn, Al, Mo, Se, Sn, Pt, Ru, Pd, W, Ir, Os, Rh, Nb, Ta, Pb, Bi, Au, Ag, Sc, Y including salts and mixtures thereof, where the volume of the solution of the metal salt(s) is completely absorbed in the mesopores of the mesoporous graphitic particles; e. subjecting the mesoporous graphitic particles obtained in step d) to a hydrogenation process whereby catalytically active metal sites on and/or in the graphitic mesoporous particles are provided, and f. subjecting the mesoporous graphitic particles obtained in step e) to a high temperature treatment in a high temperature range from 600° to 1400°C, in particular 600° to 1000°C, and in an inert atmosphere. a. impregnating particles having a porous basic framework with a graphitizable organic compound, b. subjecting the particles obtained in step a) to a high temperature graphitization process, whereby a graphitic framework in the porous basic framework is provided, c. subjecting the so-obtained graphitized particles to a process for removing the basic framework, whereby a mesoporous graphitic framework is provided, d. impregnating the mesoporous graphitic particles obtained in step c) with a solution of a salt of at least one catalytically active metal selected from Ti, V, Cr, Mn, Fe, Co, Ni, Cu, Zn, Al, Mo, Se, Sn, Pt, Ru, Pd, W, Ir, Os, Rh, Nb, Ta, Pb, Bi, Au, Ag, Sc, Y including salts and mixtures thereof, where the volume of the solution of the metal salt(s) is completely absorbed in the mesopores of the mesoporous graphitic particles; e. subjecting the mesoporous graphitic particles obtained in step d) to a hydrogenation process whereby catalytically active metal sites on and/or in the graphitic mesoporous particles are provided, and f. subjecting the mesoporous graphitic particles obtained in step e) to a high temperature treatment in a high temperature range from 600° to 1400°C, in particular 600° to 1000°C, and in an inert atmosphere.
A computer implemented security method, performed by a controller, for a set of internet-of-things (IoT) devices, the set of devices comprising network-connected sensors and actuators, wherein a data repository stores data about the set of devices, actions performable by each of the devices and one or more network attacks to which at least a subset of the set of devices are susceptible, the method comprising: defining, for each of the one or more network attacks, one or more responsive actions, each responsive action identifying one or more performable actions for performance by one or more devices of the set of devices to mitigate a corresponding network attack of the one or more network attacks; detecting a device of the set of devices in a compromised state, the compromised state being determined based on a threshold number of occurrences of a network attack, of the one or more network attacks, perpetrated against the device; selecting responsive actions, of said one or more responsive actions, for the perpetrated attack; and triggering the selected responsive actions to mitigate the perpetrated network attack, wherein triggering the selected responsive actions includes communicating with the one or more devices to trigger the performable actions identified by the selected responsive actions. defining, for each of the one or more network attacks, one or more responsive actions, each responsive action identifying one or more performable actions for performance by one or more devices of the set of devices to mitigate a corresponding network attack of the one or more network attacks; detecting a device of the set of devices in a compromised state, the compromised state being determined based on a threshold number of occurrences of a network attack, of the one or more network attacks, perpetrated against the device; selecting responsive actions, of said one or more responsive actions, for the perpetrated attack; and triggering the selected responsive actions to mitigate the perpetrated network attack, wherein triggering the selected responsive actions includes communicating with the one or more devices to trigger the performable actions identified by the selected responsive actions.
A system comprising a video signature extraction device for extracting a video signature from a video, and a matching device for performing matching using the extracted video signature for retrieval of a similar or identical video or videos from various videos, the video signature extraction device comprising: a frame signature extraction unit that extracts a frame signature from a video frame of the video, wherein the frame signature extraction unit calculates a value, with respect to each of one or more dimensions, of the frame signature using a difference between features of two sub-regions associated with said dimension, and a confidence value calculation unit that calculates, for the video frame, a confidence value of the frame signature, wherein the confidence value is a value from a predetermined minimum value to a predetermined maximum value for the entire frame signature, the confidence value representing a certainty of a matching result when the matching device performs matching using the frame signature between the corresponding video frame and a video frame of another video, the confidence value calculation unit is configured to calculate, if the video frame is a particular pattern, a confidence value that is smaller compared to a case in which the video frame is other than the particular pattern, and the particular pattern is of a video frame having uniform luminance values or having a variance of luminance values that is equal or lower than a threshold. a frame signature extraction unit that extracts a frame signature from a video frame of the video, wherein the frame signature extraction unit calculates a value, with respect to each of one or more dimensions, of the frame signature using a difference between features of two sub-regions associated with said dimension, and a confidence value calculation unit that calculates, for the video frame, a confidence value of the frame signature, wherein the confidence value is a value from a predetermined minimum value to a predetermined maximum value for the entire frame signature, the confidence value representing a certainty of a matching result when the matching device performs matching using the frame signature between the corresponding video frame and a video frame of another video, the confidence value calculation unit is configured to calculate, if the video frame is a particular pattern, a confidence value that is smaller compared to a case in which the video frame is other than the particular pattern, and the particular pattern is of a video frame having uniform luminance values or having a variance of luminance values that is equal or lower than a threshold.
Connection arrangement for connecting at least two prefabricated concrete parts which are each provided with at least one anchor rail (11, 12; 211, 212), wherein the connection arrangement has an elongate shaft with a first head arranged on a first longitudinal end and widened with respect to the shaft diameter , and a second head , which is widened with respect to the shaft diameter , on a second longitudinal end of the shaft that is situated opposite to the first longitudinal end , wherein the first head and the second head are rigidly connected to the shaft , characterized in that the first head is assigned a first supporting element and a first fixing element , and wherein the second head is assigned a second supporting element and a second fixing element , wherein the supporting elements are designed as discs, which can be displaced along the shaft , having a through-hole for receiving the shaft , and wherein the first and the second fixing element are designed as screw nuts and interact with an external thread of the shaft .
A method for providing non-guaranteed channels in a switched digital video (SDV) network to a subscriber station (104-1), the method comprising: receiving a request from the subscriber station (104-1) for a non-guaranteed channel; modeling a bandwidth pipe corresponding to each edge quadrature amplitude modulator (QAM) device operative to support non-guaranteed channels by taking into account adding the requested non-guaranteed channel in order to determine which edge QAM devices (122-1 to 122-M) can accommodate the requested non-guaranteed channel; computing a crowding metric for all edge QAM devices capable of accommodating the requested non-guaranteed channel and selecting a particular edge QAM with a lowest crowding metric value; adjusting bitrates of multicast adaptive bitrate (MABR) streams of existing channels of the particular edge QAM device to accommodate a particular MABR stream having a select bitrate of the requested non-guaranteed channel; effectuating Internet Group Management Protocol (IGMP) Join operations, if necessary, to join MABR streams of the existing channels and the requested non-guaranteed channel to correct IGMP groups in order to facilitate streaming of the channels via the particular edge QAM device; and sending a channel change response message including one or more channel frequencies to the requesting subscriber station (104-1). receiving a request from the subscriber station (104-1) for a non-guaranteed channel; modeling a bandwidth pipe corresponding to each edge quadrature amplitude modulator (QAM) device operative to support non-guaranteed channels by taking into account adding the requested non-guaranteed channel in order to determine which edge QAM devices (122-1 to 122-M) can accommodate the requested non-guaranteed channel; computing a crowding metric for all edge QAM devices capable of accommodating the requested non-guaranteed channel and selecting a particular edge QAM with a lowest crowding metric value; adjusting bitrates of multicast adaptive bitrate (MABR) streams of existing channels of the particular edge QAM device to accommodate a particular MABR stream having a select bitrate of the requested non-guaranteed channel; effectuating Internet Group Management Protocol (IGMP) Join operations, if necessary, to join MABR streams of the existing channels and the requested non-guaranteed channel to correct IGMP groups in order to facilitate streaming of the channels via the particular edge QAM device; and sending a channel change response message including one or more channel frequencies to the requesting subscriber station (104-1).
Use of a system comprising a dispensing device and at least two toilet blocks arranged in a row side by side for improving gloss in a toilet bowl, wherein the toilet block comprises a surfactant system and comprises a polymer, and wherein the surfactant system is present in an amount of less than 50 % by weight in the total composition, and wherein the polymer is an acrylate based polymer.
A system for controlling an injection of fuel in an engine , the engine having a cylinder and a first fuel injector to inject a first fuel in the cylinder , wherein the engine is a dual-fuel engine comprising a second fuel injector to inject a second fuel into the cylinder , an intake port, an intake manifold, a common manifold, a high pressure side of a turbocharger, or a low pressure side of the turbocharger, and wherein the first fuel is a liquid fuel, the system comprising: a knock sensor disposed on the first fuel injector ; and a controller configured to, for every injection event of the first fuel, derive at least one of a start of injection and an end of injection of the first fuel based on an electrical signal generated by the knock sensor ; determine one or more correction factors based on the at least one of the start of injection and the end of injection of the first fuel; and adjust a subsequent start of injection of the first fuel based on the one or more correction factor. a knock sensor disposed on the first fuel injector ; and a controller configured to, for every injection event of the first fuel, derive at least one of a start of injection and an end of injection of the first fuel based on an electrical signal generated by the knock sensor ; determine one or more correction factors based on the at least one of the start of injection and the end of injection of the first fuel; and adjust a subsequent start of injection of the first fuel based on the one or more correction factor. derive at least one of a start of injection and an end of injection of the first fuel based on an electrical signal generated by the knock sensor ; determine one or more correction factors based on the at least one of the start of injection and the end of injection of the first fuel; and adjust a subsequent start of injection of the first fuel based on the one or more correction factor.
A floor rail for a sliding door system having at least one sliding door element , which extends in a sliding door plane , the floor rail having a guide receiving means to receive a guide counter piece of the sliding door element for guiding the sliding door element in a sliding door direction along the sliding door plane , further having an attachment section for attaching the floor rail to a floor section , wherein the floor rail has a base element , on which the attachment section is arranged, and also has a guide element , on which the guide receiving means is arranged, wherein the base element has an arrangement section and the guide element has a counter arrangement section for arranging the guide element on the base element so as to be adjustable at least partially in a direction transverse to the sliding door plane , characterized in that the guide receiving means has roller guide surfaces for guiding a guide counter piece formed as a roller element and sliding guide surfaces for guiding a guide counter piece formed as a sliding element, wherein the roller guide surfaces and sliding guide surfaces are arranged at a right angle to one another, whereby the entire guide receiving means has an omega-like shape as a whole and wherein the guide element is formed shorter in relation to the sliding door direction than the base element such that, after the guide element is mounted on the base element , at least at one end of the floor rail , an insertion aid is provided for the guide counter piece of the sliding door element .