mhurhangee/patent-ind-claim-en huggingface dataset:
A method for analyzing a data flow (F), comprising the steps of a) Extracting packet information of a packet (P1, P2, P3, P4, P5, P6) of the data flow (F), b) Determining whether said packet (P1, P2, P3, P4, P5, P6) is out-of-sequence based on the extracted packet information, and storing it for later inspection when said packet is out-of sequence, by using a pair of Bloom-filters being applied on said packet (P1, P2, P3, P4, P5, P6), said pair of Bloom-filters comprising a connection Bloom-filter and a sequence Bloom-filter, wherein said sequence Bloom-filter checks whether said packet (P1, P2, P3, P4, P5, P6) is related to an already received packet (P1, P2, P3, P4, P5, P6) based on the extracted information and if not, the packet is considered as out-of-sequence, and wherein said connected Bloom-filter checks whether said packet (P1, P2, P3, P4, P5, P6) matches to an already observed flow (F) based in the extracted information, and c) Inspecting said packet (P1, P2, P3, P4, P5, P6) and/or the stored packet (P1, P2, P3, P4, P5, P6) based on inspection rules wherein upon a partial match of at least one of the inspection rules with the extracted packet information the result of the packet inspection of said packet (P1, P2, P3, P4, P5, P6) is temporarily stored, and wherein already stored packets are inspected when they are in-order with already inspected packets (P1, P2, P3, P4, P5, P6) and wherein upon a total match of at least one of the inspection rules a predetermined action is performed and the stored result is deleted. a) Extracting packet information of a packet (P1, P2, P3, P4, P5, P6) of the data flow (F), b) Determining whether said packet (P1, P2, P3, P4, P5, P6) is out-of-sequence based on the extracted packet information, and storing it for later inspection when said packet is out-of sequence, by using a pair of Bloom-filters being applied on said packet (P1, P2, P3, P4, P5, P6), said pair of Bloom-filters comprising a connection Bloom-filter and a sequence Bloom-filter, wherein said sequence Bloom-filter checks whether said packet (P1, P2, P3, P4, P5, P6) is related to an already received packet (P1, P2, P3, P4, P5, P6) based on the extracted information and if not, the packet is considered as out-of-sequence, and wherein said connected Bloom-filter checks whether said packet (P1, P2, P3, P4, P5, P6) matches to an already observed flow (F) based in the extracted information, and c) Inspecting said packet (P1, P2, P3, P4, P5, P6) and/or the stored packet (P1, P2, P3, P4, P5, P6) based on inspection rules wherein upon a partial match of at least one of the inspection rules with the extracted packet information the result of the packet inspection of said packet (P1, P2, P3, P4, P5, P6) is temporarily stored, and wherein already stored packets are inspected when they are in-order with already inspected packets (P1, P2, P3, P4, P5, P6) and wherein upon a total match of at least one of the inspection rules a predetermined action is performed and the stored result is deleted.
A 3D time-of-flight camera for acquiring three-dimensional image data from a detection area , comprising an illumination unit for transmitting transmitted light modulated at a first modulation frequency, an image sensor having a plurality of receiving elements for generating a respective received signal, a plurality of demodulation units for demodulating the received signals at the first modulation frequency to obtain sample values, and a control and evaluation unit that is configured to control the illumination unit and/or the demodulation units for a number of measurement repetitions at respectively different phase offsets between the first modulation frequency for the transmitted light and the first modulation frequency for the demodulation and to reconstruct the phase position of the received signal from the sample values obtained by the measurement repetitions for each light-receiving element in order to determine a distance value therefrom, characterized in that the control and evaluation unit is further configured to vary the number of measurement repetitions contributing to a distance value.
A method for characterizing ultrasound scatterers in a medium, the scatterers including red blood cells and clusters of red blood cells in blood, the method comprising: detecting in vivo ultrasound data from a pulser-receiver and a wideband ultrasound transducer representing a region of interest comprising a plurality of scatterers in a medium, the plurality of scatterers including clusters of scatterer sub-units being clusters of red blood cells, the scatterers having a physical property value to be estimated and the scatterer sub-units having at least one known physical parameter value; modelling a backscatter coefficient of the ultrasound data using an at least second order function based on a Taylor expansion of a frequency dependence of a structure factor, the frequency dependence of the structure factor being related to a Fourier transform of a pair correlation function in a system of scatterers, the pair correlation function defining a probability of finding a scatterer at a determined distance from another scatterer; estimating the physical property value of the scatterers from ultrasound data as modelled and the at least one known physical parameter of the scatterer sub-units by a fitting regression of the backscatter coefficient as a function of frequency; and monitoring red blood cell aggregation in blood from the physical property value. detecting in vivo ultrasound data from a pulser-receiver and a wideband ultrasound transducer representing a region of interest comprising a plurality of scatterers in a medium, the plurality of scatterers including clusters of scatterer sub-units being clusters of red blood cells, the scatterers having a physical property value to be estimated and the scatterer sub-units having at least one known physical parameter value; modelling a backscatter coefficient of the ultrasound data using an at least second order function based on a Taylor expansion of a frequency dependence of a structure factor, the frequency dependence of the structure factor being related to a Fourier transform of a pair correlation function in a system of scatterers, the pair correlation function defining a probability of finding a scatterer at a determined distance from another scatterer; estimating the physical property value of the scatterers from ultrasound data as modelled and the at least one known physical parameter of the scatterer sub-units by a fitting regression of the backscatter coefficient as a function of frequency; and monitoring red blood cell aggregation in blood from the physical property value.
A conductive material dispersion comprising a carbon-based conductive material; a dispersant; and a dispersion medium; wherein the dispersant includes a main dispersant and an auxiliary dispersant, wherein the main dispersant is a nitrile-based copolymer including an α,β-unsaturated nitrile-derived unit and a conjugated diene-derived unit; and the auxiliary dispersant is a copolymer including an oxyalkylene unit and at least one of a styrene unit and an alkylene unit. a carbon-based conductive material; a dispersant; and a dispersion medium; wherein the dispersant includes a main dispersant and an auxiliary dispersant, wherein the main dispersant is a nitrile-based copolymer including an α,β-unsaturated nitrile-derived unit and a conjugated diene-derived unit; and the auxiliary dispersant is a copolymer including an oxyalkylene unit and at least one of a styrene unit and an alkylene unit. the main dispersant is a nitrile-based copolymer including an α,β-unsaturated nitrile-derived unit and a conjugated diene-derived unit; and the auxiliary dispersant is a copolymer including an oxyalkylene unit and at least one of a styrene unit and an alkylene unit.
A fingerprint sensor comprising: a touchpad (TP) including a plurality of driving electrodes (Tx) and a plurality of sensing electrodes (Rx), the plurality of driving electrodes (Tx) being disposed in a first direction and the plurality of sensing electrodes (Rx) being disposed in a second direction so that the plurality of driving electrodes and the plurality of sensing electrodes intersect with each other; a driver (DU) configured to apply sequentially a driving signal to the plurality of driving electrodes; a signal measurement unit (RU) configured to measure electrical signals generated from the plurality of sensing electrodes in response to the driving signal; and a processor (PU) configured to calculate mutual capacitance, based on the electrical signals measured by the signal measurement unit, at each of a plurality of nodes at which each of the plurality of driving electrodes intersects with each of the plurality of sensing electrodes, and characterised in that the plurality of driving electrodes are divided into a plurality of driving groups (Gdn), each of the plurality of driving groups comprising at least two driving electrodes, in that the driver is configured to apply a driving signal (S1, S2) to both or all of the driving electrodes (Tx) of each of the plurality of driving groups in sequence, and in that an n th driving group (Gdn) among the plurality of driving groups comprises the n th to the (n+k) th driving electrodes, wherein n is an arbitrary natural number and k is another arbitrary natural number. a touchpad (TP) including a plurality of driving electrodes (Tx) and a plurality of sensing electrodes (Rx), the plurality of driving electrodes (Tx) being disposed in a first direction and the plurality of sensing electrodes (Rx) being disposed in a second direction so that the plurality of driving electrodes and the plurality of sensing electrodes intersect with each other; a driver (DU) configured to apply sequentially a driving signal to the plurality of driving electrodes; a signal measurement unit (RU) configured to measure electrical signals generated from the plurality of sensing electrodes in response to the driving signal; and a processor (PU) configured to calculate mutual capacitance, based on the electrical signals measured by the signal measurement unit, at each of a plurality of nodes at which each of the plurality of driving electrodes intersects with each of the plurality of sensing electrodes, and characterised in that the plurality of driving electrodes are divided into a plurality of driving groups (Gdn), each of the plurality of driving groups comprising at least two driving electrodes, in that the driver is configured to apply a driving signal (S1, S2) to both or all of the driving electrodes (Tx) of each of the plurality of driving groups in sequence, and in that an n th driving group (Gdn) among the plurality of driving groups comprises the n th to the (n+k) th driving electrodes, wherein n is an arbitrary natural number and k is another arbitrary natural number.
A plunger for an agricultural baler , comprising: a plurality of plunger sections held together to form the plunger , the plurality of plunger sections comprising a pair of plunger end sections ; and at least one roller and/or at least one sliding block attached to and extending laterally from each of the plunger end sections ; characterized in that: each of the plunger sections comprises at least one tube holding portion comprising a tube opening formed therein; and a tube placed within the tube opening of each tube holding portion such that an interference fit is formed between the tube and the at least one tube holding portion of each plunger section to hold the plunger sections together. a plurality of plunger sections held together to form the plunger , the plurality of plunger sections comprising a pair of plunger end sections ; and at least one roller and/or at least one sliding block attached to and extending laterally from each of the plunger end sections ; characterized in that: each of the plunger sections comprises at least one tube holding portion comprising a tube opening formed therein; and a tube placed within the tube opening of each tube holding portion such that an interference fit is formed between the tube and the at least one tube holding portion of each plunger section to hold the plunger sections together. each of the plunger sections comprises at least one tube holding portion comprising a tube opening formed therein; and a tube placed within the tube opening of each tube holding portion such that an interference fit is formed between the tube and the at least one tube holding portion of each plunger section to hold the plunger sections together.
An elongate shaped abrasive particle comprising an elongate shaped ceramic body having opposed first and second ends joined to each other by at least two longitudinal sidewalls, wherein at least one of the at least two longitudinal sidewalls is concave along its length, and wherein at least one of the first and second ends is a fractured surface; wherein the width of the elongate shaped abrasive particle is at least 100 microns; and wherein elongate means having an aspect ratio of at least 2 and aspect ratio refers to the ratio of average length to average thickness.
A valve assembly for modules in central heating plants, the valve assembly comprising a main hollow body comprising, in turn: - an inlet duct for hot water coming from a boiler (CLD), - at least one delivery duct (203A, 203B and 203C) for hot water going to heating means (RT), - at least one return duct (204A and 204B) for cold water coming from the heating means (RT), - an outlet duct for cold water going to the boiler (CLD), - a housing suitable for containing a clogging element opposed by elastic means , said clogging element being able to close under electrical control at least one of said at least one delivery duct (203A, 203B and 203C), - and a bypass duct able to hydraulically connect said at least one inlet duct and said at least one delivery duct (203A, 203B and 203C), on one side, with said at least return duct (204A and 204B) and said outlet duct , on the other, - wherein there is at least one filter element able to be inspected and/or replaced in a direction (J1) transversal to an axis (X) of said inlet duct , and - wherein the inspection and/or replacement of the filter element on the same valve assembly , can be carried out according to both a first front view and a second front view; wherein the valve assembly also comprises balancing means , the axis (J3) of which is positioned transversely to an axis (Z) of said outlet duct ; said balancing means comprising a balancing valve that advantageously has a cylindrical shape through which a hole passes transversal to the axis (J3); and characterized in that said balancing valve has, on each one of its ends, respective means (253A and 253B) that enable the adjustment of the balancing valve according to both the first front view and the second front view. - an inlet duct for hot water coming from a boiler (CLD), - at least one delivery duct (203A, 203B and 203C) for hot water going to heating means (RT), - at least one return duct (204A and 204B) for cold water coming from the heating means (RT), - an outlet duct for cold water going to the boiler (CLD), - a housing suitable for containing a clogging element opposed by elastic means , said clogging element being able to close under electrical control at least one of said at least one delivery duct (203A, 203B and 203C), - and a bypass duct able to hydraulically connect said at least one inlet duct and said at least one delivery duct (203A, 203B and 203C), on one side, with said at least return duct (204A and 204B) and said outlet duct , on the other, - wherein there is at least one filter element able to be inspected and/or replaced in a direction (J1) transversal to an axis (X) of said inlet duct , and - wherein the inspection and/or replacement of the filter element on the same valve assembly , can be carried out according to both a first front view and a second front view;
A straddled vehicle comprising: a vehicle body frame comprising a head pipe ; an engine supported by the vehicle body frame; an exterior cover covering the head pipe from one lateral side; a support member made of resin, the support member disposed inside the exterior cover, the support member fixed to the vehicle body frame; a communication device disposed between the exterior cover and the support member, the communication device communicable with a portable communication terminal ; a holder made of resin, the holder comprising an opening facing an inner side in a vehicle width direction, the holder fixed to the support member inside the exterior cover so as to cover surroundings of the communication device, the holder holding the communication device; and an engine control unit disposed between the communication device and the support member, the engine control unit controlling the engine, wherein the communication device and the engine control unit are each smaller in a dimension corresponding to the vehicle width direction than in each of dimensions corresponding to a vehicle back-and-forth direction and a vehicle up-and-down direction, and the communication device overlaps the engine control unit as seen in a vehicle side view. a vehicle body frame comprising a head pipe ; an engine supported by the vehicle body frame; an exterior cover covering the head pipe from one lateral side; a support member made of resin, the support member disposed inside the exterior cover, the support member fixed to the vehicle body frame; a communication device disposed between the exterior cover and the support member, the communication device communicable with a portable communication terminal ; a holder made of resin, the holder comprising an opening facing an inner side in a vehicle width direction, the holder fixed to the support member inside the exterior cover so as to cover surroundings of the communication device, the holder holding the communication device; and an engine control unit disposed between the communication device and the support member, the engine control unit controlling the engine, wherein the communication device and the engine control unit are each smaller in a dimension corresponding to the vehicle width direction than in each of dimensions corresponding to a vehicle back-and-forth direction and a vehicle up-and-down direction, and the communication device overlaps the engine control unit as seen in a vehicle side view.
Boosted internal combustion engine (IC) provided with valve actuation system (VA), the combustion engine comprising at least a combustion piston (CP) reciprocating a corresponding combustion cylinder (CC) closed by a head (H) to define a combustion chamber (CCB), wherein in the head a poppet valve (V) is arranged in such a way to open protruding in the combustion chamber and to close against a corresponding head seat, the valve communicating the combustion chamber with an intake, the actuation system (VA) including a pneumatic actuator (PD) comprising - a piston (AP) operatively connected with the stem (VS) of the poppet valve (V), - at least a first chamber (FC) where the piston (AP) is movable in such a way the first chamber is between the poppet valve and the piston (AP), - a spring (SP) arranged to expand the first chamber, Wherein the first chamber is fluidly connected with - the intake manifold through a pressurization throttled channel (PC) and - a pressure sink (SK), which is at a pressure constantly under the intake one at least during first chamber venting, through a controllable valve (SV). - a piston (AP) operatively connected with the stem (VS) of the poppet valve (V), - at least a first chamber (FC) where the piston (AP) is movable in such a way the first chamber is between the poppet valve and the piston (AP), - a spring (SP) arranged to expand the first chamber, - the intake manifold through a pressurization throttled channel (PC) and - a pressure sink (SK), which is at a pressure constantly under the intake one at least during first chamber venting, through a controllable valve (SV).
An arrangement comprising an installation unit and a sanitary room, the installation unit having at least one wall cladding element by means of which a sanitary room wall is covered, wherein at least one transmitter unit with at least one associated transmitter antenna is arranged on the rear side of the wall cladding element facing away from the visible side, which transmitter unit is a component of a wireless power and/or signal transmission device , and characterized in that the transmitter unit can be coupled in wireless energy and/or signal transmission connection with a receiver unit positioned in the sanitary room, wherein the receiver unit with associated receiver antenna is installed in a mobile device , for example a mobile telephone or electric toothbrush, and in that electrical energy can be transmitted from the transmitter unit to the receiver unit in the mobile device for supplying energy to the mobile device or for storing energy in the mobile device , or in that the receiver unit with associated receiver antenna is encapsulated directly in a shower head .
A method of measuring deformation of a surface over which a rolling weight is rolled, the method comprising: a. providing an accelerometer (2; 7; 9; 11; 12) positioned to measure deformation at or near the periphery of a rolling weight (1; 4; 10); b. rolling the rolling weight (1; 4; 10) over the surface ; c. analysing one or more signals developed by the accelerometer (2; 7; 9; 11; 12) during a stationary cycloidal period of the accelerometer (2; 7; 9; 11; 12); and d. developing a measure of surface deformation based on the one or more signals. a. providing an accelerometer (2; 7; 9; 11; 12) positioned to measure deformation at or near the periphery of a rolling weight (1; 4; 10); b. rolling the rolling weight (1; 4; 10) over the surface ; c. analysing one or more signals developed by the accelerometer (2; 7; 9; 11; 12) during a stationary cycloidal period of the accelerometer (2; 7; 9; 11; 12); and d. developing a measure of surface deformation based on the one or more signals.
Transition from a stripline to a waveguide, wherein the stripline, preferably a microstrip line , is located on a substrate , wherein an upper side of the substrate has a metallised surface and the lower side of the substrate has a metal layer, preferably a high-frequency ground-potential layer , wherein the upper side and the lower side are connected by vias , wherein the metallised surface on the upper side of the substrate at least partially acts as a waveguide wall, wherein the stripline is contacted by a step-like structure connected to the waveguide, which is located within a block that is metallised or consists of metal, wherein the block comprises a plurality of waveguide structures, and wherein a plurality of vias contact the block in a transition region, wherein the block has a rectangular waveguide which propagates an electrical wave, wherein the waveguide wave is guided onward within the block by means of a 90° bend which is located directly on the remote side of the step-like structure , so that the metallised surface on the upper side of the substrate acts as a waveguide wall only in the transition region. wherein the metallised surface on the upper side of the substrate at least partially acts as a waveguide wall, wherein the stripline is contacted by a step-like structure connected to the waveguide, which is located within a block that is metallised or consists of metal, wherein the block comprises a plurality of waveguide structures, and wherein a plurality of vias contact the block in a transition region, wherein the block has a rectangular waveguide which propagates an electrical wave, wherein the waveguide wave is guided onward within the block by means of a 90° bend which is located directly on the remote side of the step-like structure , so that the metallised surface on the upper side of the substrate acts as a waveguide wall only in the transition region.