mhurhangee/patent-ind-claim-en huggingface dataset:
A method for identifying malicious encrypted network traffic associated with a malware software component communicating via a network, the method comprising: defining, for the malware, a portion of network traffic including a plurality of contiguous bytes occurring at a predefined offset in a network communication of the malware; extracting the defined portion of network traffic for each of a plurality of disparate encrypted network connections for the malware; training an autoencoder based on each extracted portion of network traffic, wherein the autoencoder includes: a set of input units each for representing information from a byte of an extracted portion; output units each for storing an output of the autoencoder; and a set of hidden units smaller in number than the set of input units and each interconnecting all input and all output units with weighted interconnections, such that the autoencoder is trainable to provide an approximated reconstruction of values of the input units at the output units; selecting a set of one or more offsets in the definition of a portion of network traffic as candidate locations for communication of an initialisation vector for encryption of the network traffic, the selection being based on weights of interconnections in the autoencoder; and identifying malicious network traffic based on an identification of an initialisation vector in the network traffic at one of the candidate locations. defining, for the malware, a portion of network traffic including a plurality of contiguous bytes occurring at a predefined offset in a network communication of the malware; extracting the defined portion of network traffic for each of a plurality of disparate encrypted network connections for the malware; training an autoencoder based on each extracted portion of network traffic, wherein the autoencoder includes: a set of input units each for representing information from a byte of an extracted portion; output units each for storing an output of the autoencoder; and a set of hidden units smaller in number than the set of input units and each interconnecting all input and all output units with weighted interconnections, such that the autoencoder is trainable to provide an approximated reconstruction of values of the input units at the output units; selecting a set of one or more offsets in the definition of a portion of network traffic as candidate locations for communication of an initialisation vector for encryption of the network traffic, the selection being based on weights of interconnections in the autoencoder; and identifying malicious network traffic based on an identification of an initialisation vector in the network traffic at one of the candidate locations.
An aluminum alloy material, comprising: zinc, magnesium, copper, titanium, boron, manganese, chromium, zirconium, silicon, and ferrum, with the balance consisting of aluminum, and other inevitable impurities; mass percentage of zinc is from 5.5% to 9.0%, mass percentage of magnesium is from 1.0% to 1.8%, mass percentage of copper is less than or equal to 0.03%, mass percentage of titanium is from 0.005% to 0.1%, mass percentage of boron is from 0.001% to 0.03%, mass percentage of manganese is less than or equal to 0.02%, mass percentage of chromium is less than or equal to 0.01%, mass percentage of zirconium is less than or equal to 0.01%, mass percentage of silicon is less than or equal to 0.1%, and mass percentage of ferrum is less than or equal to 0.1%.
Electric heating device , having an electric heating element , which is arranged unsupported inside the tubular interior of at least one tubular metal casing , and which is electrically insulated from the latter by means of a compressed, electrically insulating material , wherein the electric heating element comprises, at least partially, helices (W1, W2, W3, W4, W10, W20) which have a flat strip geometry, wherein the helices (W1, W2, W3, W4, W10, W20) with flat strip geometry comprise an inner diameter (D2), an outer diameter (D1), and a distance (S) between adjacent helices (W1, W2, W3, W4, W10, W20) and are formed such that the flat side of the helices (W1, W2, W3, W4, W10, W20) with flat strip geometry extends parallel to the axis of the helix (A W ), characterized in that , at least in some regions of the interior of the tubular metal casing which are adjacent to at least one helix (W1, W2, W3, W4, W10, W20), the compressed electrically insulating material is either a compressed granulate material consisting of granules (14.1, 14.2) of different sizes and having edges and protrusions (14.3), or the compressed insulating material is a compressed molded part consisting of an electrically insulating material, and in that at least one surface (W1.1, W1.2, W1.3, W1.4, W2.1, W2.2, W2.3, W2.4, W3.1, W3.2, W3.3, W3.4, W4.1, W4.2, W4.3, W4.4) of at least one helix (W1, W2, W3, W4, W10, W20) comprises sections in which either granules (14.1, 14.2) or components of the molded part created during the compression of the molded part, are pressed, under local deformation of the electric heating element , at least partially into the electric heating element . the electric heating element comprises, at least partially, helices (W1, W2, W3, W4, W10, W20) which have a flat strip geometry, wherein the helices (W1, W2, W3, W4, W10, W20) with flat strip geometry comprise an inner diameter (D2), an outer diameter (D1), and a distance (S) between adjacent helices (W1, W2, W3, W4, W10, W20) and are formed such that the flat side of the helices (W1, W2, W3, W4, W10, W20) with flat strip geometry extends parallel to the axis of the helix (A W ), characterized in that , at least in some regions of the interior of the tubular metal casing which are adjacent to at least one helix (W1, W2, W3, W4, W10, W20), the compressed electrically insulating material is either a compressed granulate material consisting of granules (14.1, 14.2) of different sizes and having edges and protrusions (14.3), or the compressed insulating material is a compressed molded part consisting of an electrically insulating material, and in that at least one surface (W1.1, W1.2, W1.3, W1.4, W2.1, W2.2, W2.3, W2.4, W3.1, W3.2, W3.3, W3.4, W4.1, W4.2, W4.3, W4.4) of at least one helix (W1, W2, W3, W4, W10, W20) comprises sections in which either granules (14.1, 14.2) or components of the molded part created during the compression of the molded part, are pressed, under local deformation of the electric heating element , at least partially into the electric heating element .
Electronic assembly with at least one circuit board and external electronic components with electrical connections , wherein the circuit board comprises contacts for connection to the connections of the external electronic components , and the at least one circuit board and the external components are able to be attached to a housing part , characterised in that a carrier that is mounted so as to be able to be moved is provided on the housing part , wherein the carrier comprises holders for receiving contact elements for connection to the connections of the external electronic components and for connection to the contacts on the circuit board .
A filter arrangement , wherein the filter arrangement is an absorption filter for absorbing high-frequency differential currents in phase conductors of a supply cable of an electric motor, comprising a housing with several toroidal cores (26 - 34) electromagnetically couplable to at least one of the phase conductors, wherein the toroidal cores (26 - 34) are sealed inside the housing by means of a filling compound ; wherein the filter arrangement has at least one leadthrough in the form of a duct formed free of filling compound; wherein the at least one leadthrough passes through the toroidal cores (26 - 34) and the housing such that the at least one phase conductor can be passed through; wherein the toroidal cores (26 - 34) are arranged along a longitudinal axis of the housing or also adjacent to one another inside the housing ; and wherein individual toroidal cores (26 - 34) are fixed inside the housing at a distance to one another and at a distance to housing walls of the housing by means of a frame structure .
A manufacturing method of printed corrugated cardboard characterized in that it comprises the steps of: a) providing a paper liner board with an ink receiving layer; and b) inkjet printing an image with one or more pigmented aqueous inkjet inks on the ink receiving layer using piezoelectric through-flow print heads having nozzles with an outer nozzle surface area NS smaller than 500 μm 2 ; wherein the one or more pigmented aqueous inkjet inks contain water in an amount of A wt% defined by Formula (I): 100 wt % − sqrt NS × 3.8 wt % / μ m ≤ A wt % ≤ 100 wt % − sqrt NS × 2.2 wt % / μm wherein the wt% is based on the total weight of the aqueous inkjet ink; wherein sqrt(NS) represents the square root of the outer nozzle surface area NS; and wherein A wt% ≥ 40 wt%. characterized in that it comprises the steps of: a) providing a paper liner board with an ink receiving layer; and b) inkjet printing an image with one or more pigmented aqueous inkjet inks on the ink receiving layer using piezoelectric through-flow print heads having nozzles with an outer nozzle surface area NS smaller than 500 μm 2 ; a) providing a paper liner board with an ink receiving layer; and b) inkjet printing an image with one or more pigmented aqueous inkjet inks on the ink receiving layer using piezoelectric through-flow print heads having nozzles with an outer nozzle surface area NS smaller than 500 μm 2 ; wherein the one or more pigmented aqueous inkjet inks contain water in an amount of A wt% defined by Formula (I): 100 wt % − sqrt NS × 3.8 wt % / μ m ≤ A wt % ≤ 100 wt % − sqrt NS × 2.2 wt % / μm wherein the wt% is based on the total weight of the aqueous inkjet ink; wherein sqrt(NS) represents the square root of the outer nozzle surface area NS; and wherein A wt% ≥ 40 wt%.
A method for allocating multi-user communication resources to one or more stations for uplink data transmissions, the method carried out by an access point, the method comprising: generating a request frame requesting an uplink buffer report from each of the one or more stations, the request frame selectively requesting that the uplink buffer report indicate either an amount of data in an uplink buffer or a requested amount of time to transmit the data in the uplink buffer, the request frame comprising 2 bits indication of a requested granularity that an uplink buffer report is to use when indicating the amount of buffered uplink data or the requested amount of time to transmit the buffered uplink data, the request frame further indicating a duration for receiving a report frame from the one or more stations, the report frame comprising the buffer report; transmitting the request frame to each of the one or more stations, and receiving the uplink buffer report in the report frame from each of the one or more stations within the indicated duration. generating a request frame requesting an uplink buffer report from each of the one or more stations, the request frame selectively requesting that the uplink buffer report indicate either an amount of data in an uplink buffer or a requested amount of time to transmit the data in the uplink buffer, the request frame comprising 2 bits indication of a requested granularity that an uplink buffer report is to use when indicating the amount of buffered uplink data or the requested amount of time to transmit the buffered uplink data, the request frame further indicating a duration for receiving a report frame from the one or more stations, the report frame comprising the buffer report; transmitting the request frame to each of the one or more stations, and receiving the uplink buffer report in the report frame from each of the one or more stations within the indicated duration.
Transport system for in-house material flow, comprising a tugger train which has a towing vehicle and at least one tugger train trailer (4a; 4b), and at least one transfer station (5a; 5b) for the transfer of loads (L) between the tugger train trailer (4a; 4b) and the transfer station (5a; 5b), characterized in that the transfer station (5a; 5b) is a component of a driver-less transport vehicle (6a; 6b) and is movable by means of the driver-less transport vehicle (6a; 6b).
A battery box, comprising an upper box body , a lower box body , a connecting member , and a fixing member ; the upper box body comprising a first side wall and a first eave portion radially protruding from the first side wall ; the lower box body comprising a second eave portion radially protruding from the second side wall ; the first eave portion and the second eave portion facing each other in an up-down direction (Z), the first eave portion being provided with a first connecting hole , the second eave portion being provided with a second connecting hole and a mounting hole , and the mounting hole and the second connecting hole being spaced apart from each other; the connecting member passing through the first connecting hole and the second connecting hole to fixedly connect the upper box body and the lower box body ; the fixing member passing through the mounting hole to make the lower box body mounted to an external equipment (S), wherein the second connecting hole and the mounting hole are spaced apart from each other in a circumferential direction of the second eave portion , characterized in that the lower box body comprises a second side wall , and a central axis of the second connecting hole is close to the second side wall relative to a central axis of the mounting hole ; and the first eave portion is further provided with an opening , and the opening penetrates the first eave portion and makes the mounting hole exposed on the first eave portion . the upper box body comprising a first side wall and a first eave portion radially protruding from the first side wall ; the lower box body comprising a second eave portion radially protruding from the second side wall ; the first eave portion and the second eave portion facing each other in an up-down direction (Z), the first eave portion being provided with a first connecting hole , the second eave portion being provided with a second connecting hole and a mounting hole , and the mounting hole and the second connecting hole being spaced apart from each other; the connecting member passing through the first connecting hole and the second connecting hole to fixedly connect the upper box body and the lower box body ; the fixing member passing through the mounting hole to make the lower box body mounted to an external equipment (S), wherein the second connecting hole and the mounting hole are spaced apart from each other in a circumferential direction of the second eave portion , characterized in that the lower box body comprises a second side wall , and a central axis of the second connecting hole is close to the second side wall relative to a central axis of the mounting hole ; and the first eave portion is further provided with an opening , and the opening penetrates the first eave portion and makes the mounting hole exposed on the first eave portion .
Device comprising at least one flow chamber which has an inlet opening and an outlet opening and which is provided to allow the flow of a medium therethrough, wherein the flow chamber is arranged in a single-piece block element and is defined at least partially by a diathermal wall in order to absorb or release thermal energy through the wall taking place through the medium, characterized in that the at least one flow chamber is formed in the block element from a plurality of first mutually spaced apart channels which extend straight and in parallel with one another, and a plurality of second mutually spaced apart channels which extend straight and in parallel with one another, wherein the first and the second channels are bores and have a circular cross-section and each have two ends and are closed at least at one of the two ends, and in that the second channels are arranged at an angle to the first channels such that the first and the second channels cross, wherein support pillars which have a parallelogram-shaped cross-section are located within the respective flow chamber between the crossing points of two adjacent first and two adjacent second channels , and in that the first and the second channels each have a uniform cross-section between regions of their two ends. characterized in that the at least one flow chamber is formed in the block element from a plurality of first mutually spaced apart channels which extend straight and in parallel with one another, and a plurality of second mutually spaced apart channels which extend straight and in parallel with one another, wherein the first and the second channels are bores and have a circular cross-section and each have two ends and are closed at least at one of the two ends, and in that the second channels are arranged at an angle to the first channels such that the first and the second channels cross, wherein support pillars which have a parallelogram-shaped cross-section are located within the respective flow chamber between the crossing points of two adjacent first and two adjacent second channels , and in that the first and the second channels each have a uniform cross-section between regions of their two ends.
A cooling device comprising a body ; at least one crisper which is disposed in the body and wherein the foodstuffs desired to be kept fresh, such as vegetables and fruits, are stored; an ozone generator which is disposed in the crisper , which sprays ozone onto the vegetables and fruits in the crisper which is a substance providing for the chemical disintegration of pesticides, which thus enables the pesticides on the vegetables and fruits stored in the crisper to be chemically disintegrated so as to prevent the same from harming human health; an ozone sensor disposed in the crisper ; and a control unit arranged to adjust the amount of ozone delivered to the crisper from the ozone generator , an amount sufficient to disintegrate the pesticides on the vegetables and fruits in the crisper and in a ratio which is not harmful to human health; a sensor unit which is disposed in the crisper and which is arranged to determine the fullness rate of the crisper according to level and weight of the vegetables and fruits stored in the crisper , wherein the sensor unit comprises: at least one camera positioned at an upper region of the crisper at an angle suitable for capturing images of the entire crisper , for recording images of vegetables and fruits in the crisper ; and a weight sensor for measuring weight of the vegetables and fruits in the crisper ; and wherein the control unit is arranged to adjust the amount of ozone delivered to the crisper from the ozone generator according to the fullness rate information received from the sensor unit . at least one camera positioned at an upper region of the crisper at an angle suitable for capturing images of the entire crisper , for recording images of vegetables and fruits in the crisper ; and a weight sensor for measuring weight of the vegetables and fruits in the crisper ; and wherein the control unit is arranged to adjust the amount of ozone delivered to the crisper from the ozone generator according to the fullness rate information received from the sensor unit .
A method for planning a mission and launching two or more missiles , to be included in the same mission, from one or more aircraft in such a way that the missiles arrive at the same target approximately at the same time without interfering with each other on the way to the target , characterized in that planning of the mission is performed by: - sending a set of identical mission data (MD) to said missiles prior to launch; - letting each missile be assigned a unique identity (ID); - letting each missile calculate identical main trajectories and trajectories with a unique offset to the main trajectory in one or more of three dimensions in space and one in time, where a resulting offset trajectory is unique for each missile and is based on said identical mission data (MD) and the unique identity (ID); - launching the missiles to be included in the same mission, and where each missile follows the resulting offset trajectory unique for this missile. - sending a set of identical mission data (MD) to said missiles prior to launch; - letting each missile be assigned a unique identity (ID); - letting each missile calculate identical main trajectories and trajectories with a unique offset to the main trajectory in one or more of three dimensions in space and one in time, where a resulting offset trajectory is unique for each missile and is based on said identical mission data (MD) and the unique identity (ID); - launching the missiles to be included in the same mission, and where each missile follows the resulting offset trajectory unique for this missile.
A bispecific antibody that comprises a variable domain comprising an antigen binding site that can bind an extracellular part of CD137 on a first cell and a second variable domain comprising an antigen binding site that can bind an extracellular part of PD-L1 on a second cell, thereby stimulating activity of CD137, wherein the variable domain that binds the extracellular part of CD137 comprises a common light chain variable region having the sequence DIQMTQSPSSLSASVGDRVTITCRASQSISSYLNWYQQKPGKAPKLLIYAASSLQSG VPSRFSGSGSGTDFTLTISSLQPEDFATYYCQQSYSTPPTFGQGTKVEIK and a heavy chain variable region having the sequence or a common light chain variable region having the sequence DIQMTQSPSSLSASVGDRVTITCRASQSISSYLNWYQQKPGKAPKLLIYAASSLQSG VPSRFSGSGSGTDFTLTISSLQPEDFATYYCQQSYSTPPTFGQGTKVEIK and a heavy chain variable region having the sequence or