mhurhangee/ep-ind-claims huggingface dataset:
A vehicle radar system (3, 3') comprising transmitting means arranged for generating sweep signals in the form of FMCW, Frequency Modulated Continuous Wave, chirp signals, where a first transmitter antenna arrangement is arranged to transmit a first chirp signal and a second transmitter antenna arrangement is arranged to transmit a second chirp signal, where the radar system (3, 3') further comprises receiving means, an Analog to Digital Converter, ADC, arrangement and a Digital Signal Processor, DSP, arrangement, where the receiving means is arranged to receive reflected signals (5a, 5b) and to mix the received reflected signals (5a, 5b) with at least one chirp signal and the ADC arrangement is arranged to convert the mixed received signals to digital signals, which digital signals are arranged to be input into the DSP arrangement, characterized in that the radar system (3, 3') further comprises a signal modulator arranged to modulate the second chirp signal by applying a phase shift to every ramp (r), every second ramp (r) or every third chirp ramp (r) of the second chirp signal, or in a pseudo-random manner from chirp signal ramp (r) to chirp signal ramp (r) of the second chirp signal, where the first chirp signal is constituted by the modulated second chirp signal.
A method for generating an output image from a plurality, N, of corresponding input image channels, the method comprising: determining a Jacobian matrix for a discrete image location, the Jacobian matrix being an Nx2 matrix having first and second columns comprising, respectively, the per channel x and y derivatives of the plurality of corresponding input image channels; calculating the principal characteristic vector of the outer product of the Jacobian matrix; setting the sign associated with the principal characteristic vector whereby an input image channel pixel projected by the principal characteristic vector results in a positive scalar value; and, generating the output image as a per-pixel projection of the input channels in the direction of the principal characteristic vector at the respective image location. determining a Jacobian matrix for a discrete image location, the Jacobian matrix being an Nx2 matrix having first and second columns comprising, respectively, the per channel x and y derivatives of the plurality of corresponding input image channels; calculating the principal characteristic vector of the outer product of the Jacobian matrix; setting the sign associated with the principal characteristic vector whereby an input image channel pixel projected by the principal characteristic vector results in a positive scalar value; and, generating the output image as a per-pixel projection of the input channels in the direction of the principal characteristic vector at the respective image location.
A degradable branched-block copolymer comprising a polyether central core having n arms and degradable polymer chains extending from each arm of the polyether central core, the polyether central core being a star core or a linear core, each degradable polymer chain being constituted by I monomer unit(s) of a degradable polymer, characterized in that each degradable polymer chain is identical and functionalized at its extremity by a photoreactive group chosen among an aryl-azide derivative, a (meth)acrylate group or a thiol group, said degradable branched-block copolymer being illustrated by the following schema: wherein is the monomer unit of the degradable polymer constituting the degradable polymer chain, G is the photoreactive group, n is an integer of at least 4, and is wherein is the star polyether central core, and is the monomer unit corresponding to the polyether core, and m is comprised between 4 and 400 and I is comprised between 4 and 1500, or is wherein is the monomer unit which forms the linear polyether central core, and R is a multivalent branched functional group comprising a number n/2 of terminal functions or atoms selected among oxygen atom or NH group, each of this terminal function being linked to one polymer chain and n is advantageously between 4 and 32, m is comprised between 4 and 600 units and I is comprised between 2 and 400. G is the photoreactive group, n is an integer of at least 4, and is wherein is the star polyether central core, and is the monomer unit corresponding to the polyether core, and m is comprised between 4 and 400 and I is comprised between 4 and 1500, or is wherein is the monomer unit which forms the linear polyether central core, and R is a multivalent branched functional group comprising a number n/2 of terminal functions or atoms selected among oxygen atom or NH group, each of this terminal function being linked to one polymer chain and
Cable processing machine control system comprising - middleware, wherein the middleware is designed to exchange data with data brokers (16, 26) of a plurality of cable processing machines (10, 20), and - a portable communication device, wherein the portable communication device is designed to exchange data with the middleware and is designed such that when a user of the cable processing machine control system has logged into the portable communication device, depending on a role of the user that is assigned by the middleware, -- different information concerning the cable processing machines (10, 20) assigned to the assigned role of the user is displayed to the user on the portable communication device, and -- different action options for controlling the cable processing machines (10, 20) assigned to the assigned role of the user are provided to the user on the portable communication device, wherein the cable processing machines (10, 20) are controlled by means of the provided action options via the portable communication device. - middleware, wherein the middleware is designed to exchange data with data brokers (16, 26) of a plurality of cable processing machines (10, 20), and - a portable communication device, wherein the portable communication device is designed to exchange data with the middleware and is designed such that when a user of the cable processing machine control system has logged into the portable communication device, depending on a role of the user that is assigned by the middleware, -- different information concerning the cable processing machines (10, 20) assigned to the assigned role of the user is displayed to the user on the portable communication device, and -- different action options for controlling the cable processing machines (10, 20) assigned to the assigned role of the user are provided to the user on the portable communication device, wherein the cable processing machines (10, 20) are controlled by means of the provided action options via the portable communication device. -- different information concerning the cable processing machines (10, 20) assigned to the assigned role of the user is displayed to the user on the portable communication device, and -- different action options for controlling the cable processing machines (10, 20) assigned to the assigned role of the user are provided to the user on the portable communication device, wherein the cable processing machines (10, 20) are controlled by means of the provided action options via the portable communication device.
An inflatable evacuation slide which is generally triangular in cross section and includes a base and lateral sides, characterised in that the sides are structured from interlocking components such that the slide is straight when deployed, the interlocking components being a series of adjacent generally triangular and inverted triangular inflated members.
A method for treating a surface of a filled microporous membrane, said microporous membrane comprising a polyolefinic polymeric matrix, finely divided, particulate, substantially water-insoluble inorganic filler distributed throughout the matrix, and a network of interconnecting pores communicating throughout the microporous membrane, wherein the inorganic filler comprises silica. said method comprising sequentially: contacting the membrane with a first treatment composition comprising an epoxy-silane compound having at least one epoxy group and at least one silane group, wherein the epoxy-silane compound is in intimate contact with the inorganic filler present in the matrix; subjecting the membrane of to conditions sufficient to effect a first reaction between the inorganic filler and the silane groups of the epoxy-silane compound, wherein the first reaction effected is at least a condensation reaction; contacting the membrane of with a second treatment composition comprising polyalkylene polyamine, an amine functional polysaccharide and/or an amino silane; and subjecting the membrane of to conditions sufficient to effect a second reaction, wherein the second reaction effected is at least an epoxy ring-opening reaction. contacting the membrane with a first treatment composition comprising an epoxy-silane compound having at least one epoxy group and at least one silane group, wherein the epoxy-silane compound is in intimate contact with the inorganic filler present in the matrix; subjecting the membrane of to conditions sufficient to effect a first reaction between the inorganic filler and the silane groups of the epoxy-silane compound, wherein the first reaction effected is at least a condensation reaction; contacting the membrane of with a second treatment composition comprising polyalkylene polyamine, an amine functional polysaccharide and/or an amino silane; and subjecting the membrane of to conditions sufficient to effect a second reaction, wherein the second reaction effected is at least an epoxy ring-opening reaction.
Pressing means (27, 28) for devices for welding profiled elements made of a plastic material, particularly PVC, characterized by the fact that said pressing means (27, 28) comprise: - at least a first work surface having a protruding portion; and - at least a second work surface of final finishing. - at least a first work surface having a protruding portion; and - at least a second work surface of final finishing.
A composition comprising: an amount of clay particles having an average shape factor below 60, a sediment void volume greater than 48%, and less than 30% by mass of particles less than 1 micrometer in size as measured by Sedigraph, wherein the sediment void volume is measured as follows: dispersing the clay in water to form a slurry at 50% by weight solids; centrifuging a 70g sample of the slurry at 8000g for 90 minutes; pouring the supernatant water off the settled clay and weighing the supernatant water X; determining the weight of remaining water in the settled clay as Y= 70/2-X (g); determining the volume of the remaining water as Vw=Y/1 g/cc; determining the volume of the clay Vc as 70/2 /Z, where Z is a known density of the clay in g/cc; and determining the void volume percent as Vw / (Vw+Vc) ∗ 100%. an amount of clay particles having an average shape factor below 60, a sediment void volume greater than 48%, and less than 30% by mass of particles less than 1 micrometer in size as measured by Sedigraph, wherein the sediment void volume is measured as follows: dispersing the clay in water to form a slurry at 50% by weight solids; centrifuging a 70g sample of the slurry at 8000g for 90 minutes; pouring the supernatant water off the settled clay and weighing the supernatant water X; determining the weight of remaining water in the settled clay as Y= 70/2-X (g); determining the volume of the remaining water as Vw=Y/1 g/cc; determining the volume of the clay Vc as 70/2 /Z, where Z is a known density of the clay in g/cc; and determining the void volume percent as Vw / (Vw+Vc) ∗ 100%. dispersing the clay in water to form a slurry at 50% by weight solids; centrifuging a 70g sample of the slurry at 8000g for 90 minutes; pouring the supernatant water off the settled clay and weighing the supernatant water X; determining the weight of remaining water in the settled clay as Y= 70/2-X (g); determining the volume of the remaining water as Vw=Y/1 g/cc; determining the volume of the clay Vc as 70/2 /Z, where Z is a known density of the clay in g/cc; and determining the void volume percent as Vw / (Vw+Vc) ∗ 100%.
An adjustable height saddle system for a bicycle, the system comprising: first and second slidably coupled supports (310, 320), the first support configured to attach to a bicycle frame or integrated into the bicycle frame, the second support configured to attach to a bicycle saddle; characterized in that the adjustable height saddle system is an active adjustable height saddle system, comprising: a fluid-powered linear actuator comprising first and second fluid chambers (363, 365) separated by a piston, wherein the piston is coupled to one of the first and second supports (310, 320) such that movement of the piston with respect to the other of the first and second supports (310, 320) causes the second support to slide with respect to the first support; and a control valve fluidly coupled to at least one of the first and second fluid chambers (363, 365), the control valve configured to selectively enable pressurized fluid to flow from a pressurized fluid source into at least one of the first and second fluid chambers (363, 365) to create a pressure differential between the first and second fluid chambers (363, 365) that causes the movement of the piston. first and second slidably coupled supports (310, 320), the first support configured to attach to a bicycle frame or integrated into the bicycle frame, the second support configured to attach to a bicycle saddle; characterized in that the adjustable height saddle system is an active adjustable height saddle system, comprising: a fluid-powered linear actuator comprising first and second fluid chambers (363, 365) separated by a piston, wherein the piston is coupled to one of the first and second supports (310, 320) such that movement of the piston with respect to the other of the first and second supports (310, 320) causes the second support to slide with respect to the first support; and a control valve fluidly coupled to at least one of the first and second fluid chambers (363, 365), the control valve configured to selectively enable pressurized fluid to flow from a pressurized fluid source into at least one of the first and second fluid chambers (363, 365) to create a pressure differential between the first and second fluid chambers (363, 365) that causes the movement of the piston. a fluid-powered linear actuator comprising first and second fluid chambers (363, 365) separated by a piston, wherein the piston is coupled to one of the first and second supports (310, 320) such that movement of the piston with respect to the other of the first and second supports (310, 320) causes the second support to slide with respect to the first support; and a control valve fluidly coupled to at least one of the first and second fluid chambers (363, 365), the control valve configured to selectively enable pressurized fluid to flow from a pressurized fluid source into at least one of the first and second fluid chambers (363, 365) to create a pressure differential between the first and second fluid chambers (363, 365) that causes the movement of the piston.
A method of masking or marking an object in an image stream, comprising: - identifying pixel information that, as a result of a processing (S202, 220) of a first input image stream capturing at least part of a scene to generate an output image stream, will not be included in the output image stream, wherein the pixel information is provided by one or more pixels of the first input image stream, and wherein the pixel information is about a particular peripheral part of a depiction of said at least part of the scene in the first input image stream; - in response to said identifying, using said not-to-be-included pixel information for detection (S203, 230) and/or tracking of an object in the particular peripheral part of the depiction of the at least part of the scene in the first input image stream, and - as part of generating the output image stream and based on said detection and/or tracking of the object, at least temporarily masking or marking (S205, 250) the object in the output image stream after deciding that the object is at least partially within the output image stream. - identifying pixel information that, as a result of a processing (S202, 220) of a first input image stream capturing at least part of a scene to generate an output image stream, will not be included in the output image stream, wherein the pixel information is provided by one or more pixels of the first input image stream, and wherein the pixel information is about a particular peripheral part of a depiction of said at least part of the scene in the first input image stream; - in response to said identifying, using said not-to-be-included pixel information for detection (S203, 230) and/or tracking of an object in the particular peripheral part of the depiction of the at least part of the scene in the first input image stream, and - as part of generating the output image stream and based on said detection and/or tracking of the object, at least temporarily masking or marking (S205, 250) the object in the output image stream after deciding that the object is at least partially within the output image stream.
Use of at least one complex form of the Calmodulin-like skin protein (CLSP) represented by an amino acid sequence polypeptide encoded by a nucleic acid sequence represented by SEQ ID NO 1, or an analog showing a sequence homology of at least 85% with the said polypeptide, as well as a biological activity of the same nature, or a proteolysis fragment of the CLSP of a peptide sequence chosen from among SEQ ID NO 3, SEQ ID NO 4, SEQ ID NO 5, SEQ ID NO 6, SEQ ID NO 7, SEQ ID NO 8, SEQ ID NO 9, SEQ ID NO 10, SEQ ID NO 11, SEQ ID NO 12, SEQ ID NO 13, SEQ ID NO 14, SEQ ID NO 15, SEQ ID NO 16, SEQ ID NO 17, SEQ ID NO 18, SEQ ID NO 19, SEQ ID NO 20, SEQ ID NO 21, SEQ ID NO 22, SEQ ID NO 23, SEQ ID NO 24, and SEQ ID NO 25, conjugated with either a protein distinct from CLSP, or another CLSP protein, or a proteolysis fragment of the other said CLSP peptide sequence protein selected from among SEQ ID NO 3, SEQ ID NO 4, SEQ ID NO 5, SEQ ID NO 6, SEQ ID NO 7, SEQ ID NO 8, SEQ ID NO: 9, SEQ ID NO 10, SEQ ID NO 11, SEQ ID NO 12, SEQ ID NO 13, SEQ ID NO 14, SEQ ID NO 15, SEQ ID NO 16, SEQ ID NO 17, SEQ ID NO 18, SEQ ID NO 19, SEQ ID NO 20, SEQ ID NO 21, SEQ ID NO 22, SEQ ID NO 23, SEQ ID NO 24 and SEQ ID NO 25, as an in vitro or ex vivo characterization tool of a chronological aging condition of an epithelium, wherein a decrease in complex form(s) is indicative of a state of chronological aging.
A computer-implemented method, comprising: scanning, by at least one hardware processor, a binary software code to identify one or more text strings, wherein the binary software code is executable and the scanning the binary software code to identify the one or more text strings comprises: reading a byte stream in the executable binary software code; converting bytes in the byte stream of the executable binary software code into text characters based on at least one of an American Standard Code for Information Interchange, ASCII, encoding protocol or a Unicode protocol; and identifying the one or more text strings in the text characters; associating, by the at least one hardware processor, the binary software code with a software platform based on the identified one or more text strings; disassembling, by the at least one hardware processor, the binary software code based on the software platform associated with the binary software code; and detecting, by the at least one hardware processor, a security risk in the disassembled binary software code. scanning, by at least one hardware processor, a binary software code to identify one or more text strings, wherein the binary software code is executable and the scanning the binary software code to identify the one or more text strings comprises: reading a byte stream in the executable binary software code; converting bytes in the byte stream of the executable binary software code into text characters based on at least one of an American Standard Code for Information Interchange, ASCII, encoding protocol or a Unicode protocol; and identifying the one or more text strings in the text characters; reading a byte stream in the executable binary software code; converting bytes in the byte stream of the executable binary software code into text characters based on at least one of an American Standard Code for Information Interchange, ASCII, encoding protocol or a Unicode protocol; and identifying the one or more text strings in the text characters; associating, by the at least one hardware processor, the binary software code with a software platform based on the identified one or more text strings; disassembling, by the at least one hardware processor, the binary software code based on the software platform associated with the binary software code; and detecting, by the at least one hardware processor, a security risk in the disassembled binary software code.
A relay apparatus comprising: data reception means for receiving a synchronizing packet transmitted from a master apparatus, the synchronizing packet containing a time value and a time correction value for correcting the time value; update means for updating the time correction value based on a processing time for the synchronizing packet; determination means for determining whether or not a failure has occurred in a functional block related to a process for updating the time correction value by using a result of a comparison between a corrected time value and a reference time value, the corrected time value having been corrected by using the updated time correction value; first clock means for supplying an internal time to the update means; and second clock means for supplying an internal time to the determination means, the second clock means being different from the first clock means, wherein the determination means uses an internal time value at which the synchronizing packet in which the time correction value has been updated is received as the reference time value. data reception means for receiving a synchronizing packet transmitted from a master apparatus, the synchronizing packet containing a time value and a time correction value for correcting the time value; update means for updating the time correction value based on a processing time for the synchronizing packet; determination means for determining whether or not a failure has occurred in a functional block related to a process for updating the time correction value by using a result of a comparison between a corrected time value and a reference time value, the corrected time value having been corrected by using the updated time correction value; first clock means for supplying an internal time to the update means; and second clock means for supplying an internal time to the determination means, the second clock means being different from the first clock means, wherein the determination means uses an internal time value at which the synchronizing packet in which the time correction value has been updated is received as the reference time value.