mhurhangee/ep-ind-claims huggingface dataset:
A braking system for a vehicle characterized by: an operating rod couplable to a brake actuator operated by a driver of the vehicle; a first piston system including a first piston, a first fail recovery key, and a first motor, wherein the first motor is coupled to the first piston to affect lateral movement of the first piston and wherein lateral movement of the first piston applies a braking pressure to a first wheel of the vehicle; a second piston system including a second piston (, a second fail recovery key, and a second motor, wherein the second motor is coupled to the second piston to affect lateral movement of the second piston and wherein lateral movement of the second piston applies a braking pressure to a second wheel of the vehicle; a fail safe plate fixedly coupled to the operating rod such that lateral movement of the operating rod causes lateral movement of the fail safe plate; and a controller configured to operate the first motor to control the lateral movement of the first piston and operate the second motor to control the lateral movement of the second piston based at least in part on detected movement of the operating rod, wherein, when the first fail recovery key is engaged, the first piston is mechanically coupled to the fail safe plate and lateral movement of the operating rod causes lateral movement of the first piston, and wherein, when the second fail recovery key is engaged, the second piston is mechanically coupled to the fail safe plate and lateral movement of the operating rod causes lateral movement of the second piston. an operating rod couplable to a brake actuator operated by a driver of the vehicle; a first piston system including a first piston, a first fail recovery key, and a first motor, wherein the first motor is coupled to the first piston to affect lateral movement of the first piston and wherein lateral movement of the first piston applies a braking pressure to a first wheel of the vehicle; a second piston system including a second piston (, a second fail recovery key, and a second motor, wherein the second motor is coupled to the second piston to affect lateral movement of the second piston and wherein lateral movement of the second piston applies a braking pressure to a second wheel of the vehicle; a fail safe plate fixedly coupled to the operating rod such that lateral movement of the operating rod causes lateral movement of the fail safe plate; and a controller configured to operate the first motor to control the lateral movement of the first piston and operate the second motor to control the lateral movement of the second piston based at least in part on detected movement of the operating rod, wherein, when the first fail recovery key is engaged, the first piston is mechanically coupled to the fail safe plate and lateral movement of the operating rod causes lateral movement of the first piston, and wherein, when the second fail recovery key is engaged, the second piston is mechanically coupled to the fail safe plate and lateral movement of the operating rod causes lateral movement of the second piston.
A process of manufacturing an abrasive blade tip comprising: providing a blade having an airfoil section extending between leading and trailing edges (66/68), first and second opposed sides (70/72) each joining the leading and trailing edges(66/68) and an inner end opposite a free tip end; coating said free tip end with a metal matrix having hard particles; dispersing said hard particles throughout said metal matrix; characterised in that the process further comprises preconditioning said metal matrix wherein said hard particles are exposed above said metal matrix; coating said metal matrix with an additive layer, said additive layer comprising an additive selected from the group consisting of solid lubricant, zinc stearate, calcium stearate, hexagonal boron nitride, magnesium stearate, lithium fluoride and molydisulfide; and covering spaces between said hard particles with said additive layer. providing a blade having an airfoil section extending between leading and trailing edges (66/68), first and second opposed sides (70/72) each joining the leading and trailing edges(66/68) and an inner end opposite a free tip end; coating said free tip end with a metal matrix having hard particles; dispersing said hard particles throughout said metal matrix; characterised in that the process further comprises preconditioning said metal matrix wherein said hard particles are exposed above said metal matrix; coating said metal matrix with an additive layer, said additive layer comprising an additive selected from the group consisting of solid lubricant, zinc stearate, calcium stearate, hexagonal boron nitride, magnesium stearate, lithium fluoride and molydisulfide; and covering spaces between said hard particles with said additive layer.
An apparatus for communicating with a plurality of audio/video (A/V) end nodes (106b, 106c) in an Audio Video Bridging network, wherein the apparatus is a first A/V end node, the first A/V end node being configured to: transmit a clock reference stream including a plurality of timestamps included in a plurality of information blocks in a particular packet, wherein each of the information blocks includes a clock reference stream header including an entries per block field and a number of blocks field, to a plurality of A/V end nodes (106b, 106c) that transmit a media stream including a plurality of video samples and a plurality of audio samples to one another, the media stream being separate from the clock reference stream and each of the plurality of A/V end nodes (106b, 106c) being arranged to syntonize or synchronize the plurality of video samples and the plurality of audio samples with one another for playback in response to the plurality of timestamps; characterized in that the plurality of timestamps include at least one audio timestamp, and at least one video timestamp and/or at least one Society of Motion Pictures and Television (SMPTE) time code; and the at least one audio timestamp is paired to at least one video timestamp or at least one SMPTE time code by inserting the plurality of timestamps in the plurality of information blocks in the particular packet. transmit a clock reference stream including a plurality of timestamps included in a plurality of information blocks in a particular packet, wherein each of the information blocks includes a clock reference stream header including an entries per block field and a number of blocks field, to a plurality of A/V end nodes (106b, 106c) that transmit a media stream including a plurality of video samples and a plurality of audio samples to one another, the media stream being separate from the clock reference stream and each of the plurality of A/V end nodes (106b, 106c) being arranged to syntonize or synchronize the plurality of video samples and the plurality of audio samples with one another for playback in response to the plurality of timestamps; characterized in that the plurality of timestamps include at least one audio timestamp, and at least one video timestamp and/or at least one Society of Motion Pictures and Television (SMPTE) time code; and the at least one audio timestamp is paired to at least one video timestamp or at least one SMPTE time code by inserting the plurality of timestamps in the plurality of information blocks in the particular packet.
A dopant gas composition comprising: a boron-containing dopant gas composition comprising diborane (B 2 H 6) at a level ranging from 0.1 vol.% - 10 vol.%, H 2 ranging from 5 vol.% - 15 vol.% and the balance is BF 3, wherein at a selected operating arc voltage in the range of from 80 V to 120 V of an ion source utilized during generation and implantation of boron ions of the general formula B+ said B 2 H 6 has an ionization cross-section higher than that of said BF 3; wherein said boron-containing dopant gas composition increases boron ion beam current and extends ion source life in comparison to a beam current generated from boron trifluoride (BF 3). a boron-containing dopant gas composition comprising diborane (B 2 H 6) at a level ranging from 0.1 vol.% - 10 vol.%, H 2 ranging from 5 vol.% - 15 vol.% and the balance is BF 3, wherein at a selected operating arc voltage in the range of from 80 V to 120 V of an ion source utilized during generation and implantation of boron ions of the general formula B+ said B 2 H 6 has an ionization cross-section higher than that of said BF 3; wherein said boron-containing dopant gas composition increases boron ion beam current and extends ion source life in comparison to a beam current generated from boron trifluoride (BF 3).
A system for detecting an object of interest in a scene, comprising: one or more processors and a memory, the memory having executable instructions, such that upon execution of the instructions, the one or more processors perform operations of: receiving an image frame of a scene; extracting features from the image frame, the features being dense Scale Invariant Feature Transform (SIFT) descriptors (DSIFT), wherein the features are extracted from the image frame by performing operations of: creating three threads, one for each of three different scales of the image frame; providing, to each thread, a link to the image frame and a set of running parameters; running the three threads, in parallel, to identify DSIFT descriptors, wherein in each thread the image frame is rescaled at a scale corresponding to that thread; upon completion of the three threads, gathering the results from each of the three threads into a set of DSIFT descriptors; quantizing the DSIFT descriptors to generate a pyramid histogram of visual word (PHOW) features; implementing a sliding window protocol to slide a window over the image and analyze PHOW features that fall inside the window; and determining if the PHOW features represent the object of interest and, if so, then designating the window as a location in the image with a detected object of interest. receiving an image frame of a scene; extracting features from the image frame, the features being dense Scale Invariant Feature Transform (SIFT) descriptors (DSIFT), wherein the features are extracted from the image frame by performing operations of: creating three threads, one for each of three different scales of the image frame; providing, to each thread, a link to the image frame and a set of running parameters; running the three threads, in parallel, to identify DSIFT descriptors, wherein in each thread the image frame is rescaled at a scale corresponding to that thread; upon completion of the three threads, gathering the results from each of the three threads into a set of DSIFT descriptors; creating three threads, one for each of three different scales of the image frame; providing, to each thread, a link to the image frame and a set of running parameters; running the three threads, in parallel, to identify DSIFT descriptors, wherein in each thread the image frame is rescaled at a scale corresponding to that thread; upon completion of the three threads, gathering the results from each of the three threads into a set of DSIFT descriptors; quantizing the DSIFT descriptors to generate a pyramid histogram of visual word (PHOW) features; implementing a sliding window protocol to slide a window over the image and analyze PHOW features that fall inside the window; and determining if the PHOW features represent the object of interest and, if so, then designating the window as a location in the image with a detected object of interest.
A monitoring system comprising a monitor and at least one tag, each tag being adapted to be attached to or contained within an object to be monitored; the monitor including a radio transmitter/receiver and each tag including a radio transmitter/receiver adapted to transmit periodic signals; a CPU arranged to keep the monitor and the tag in a power down mode and to move the monitor from the power-down mode to an activity monitor mode upon occurrence of an interrupt event, and to move the tag from the power-down mode to an active mode upon occurrence of an interrupt event; wherein the monitor includes geo-location means such as a GPS receiver; wherein the monitor is arranged to record its geo-location at a time when an event is generated, and wherein the monitor, on generation of an event, sends said geo-location to a database held on a remote server, and in which the monitor is arranged to communicate details of a lost object via the remote server to other similar monitors in a crowd-sourcing environment and to receive details if the object is located by another monitor.
A leak testing method for a tank comprising - a plurality of measurement steps in each of which a first sensor measures the internal temperature of said tank and a second sensor measures the internal pressure of said tank; - at least one estimation step in which the leakproofness of said tank is determined by comparing the ratios between said internal pressure and said internal temperature measured in separate measurement steps; characterised in that it comprises an additional second sensor suitable for measuring the pressure outside said tank and wherein in each of said measurement steps said additional second sensor measures the pressure outside said tank; and wherein in said estimation step the leakproofness of said tank is determined by comparing the ratios between said internal pressure normalized to said external pressure and said internal temperature. - a plurality of measurement steps in each of which a first sensor measures the internal temperature of said tank and a second sensor measures the internal pressure of said tank; - at least one estimation step in which the leakproofness of said tank is determined by comparing the ratios between said internal pressure and said internal temperature measured in separate measurement steps;
A tire comprising: circumferential direction grooves (30, 40, 50) extended in a tire circumferential direction; lug grooves (70, 80, 160, 270) extended in a tire width direction; and a plurality of blocks (100, 200, 300in, 300out) defined by the circumferential direction grooves (30, 40, 50) and the lug grooves (70, 80, 160, 270), wherein: at least one of the blocks (100, 200, 300in, 300out) includes one or more sipes (130, 140, 141, 230, 231, 290) extended in the tire width direction; characterized in that as an average block edge component Dball is defined by an average of all edge components of all blocks (100, 200, 300in, 300out) against the tire circumferential direction, an average sipe edge component Dsall is defined by an average of all edge components of all sipes (130, 140, 141, 230, 231, 290) against the tire circumferential direction and an average block rigidity G is defined by an average of the rigidity of all blocks (100, 200, 300in, 300out), a relation of 2.20 (mm) 3 /N ≤ (Dball/Dsall)/G ≤ 4.00 (mm) 3 /N is fulfilled. circumferential direction grooves (30, 40, 50) extended in a tire circumferential direction; lug grooves (70, 80, 160, 270) extended in a tire width direction; and a plurality of blocks (100, 200, 300in, 300out) defined by the circumferential direction grooves (30, 40, 50) and the lug grooves (70, 80, 160, 270), wherein: at least one of the blocks (100, 200, 300in, 300out) includes one or more sipes (130, 140, 141, 230, 231, 290) extended in the tire width direction; characterized in that as an average block edge component Dball is defined by an average of all edge components of all blocks (100, 200, 300in, 300out) against the tire circumferential direction, an average sipe edge component Dsall is defined by an average of all edge components of all sipes (130, 140, 141, 230, 231, 290) against the tire circumferential direction and an average block rigidity G is defined by an average of the rigidity of all blocks (100, 200, 300in, 300out), a relation of 2.20 (mm) 3 /N ≤ (Dball/Dsall)/G ≤ 4.00 (mm) 3 /N is fulfilled. at least one of the blocks (100, 200, 300in, 300out) includes one or more sipes (130, 140, 141, 230, 231, 290) extended in the tire width direction; characterized in that as an average block edge component Dball is defined by an average of all edge components of all blocks (100, 200, 300in, 300out) against the tire circumferential direction, an average sipe edge component Dsall is defined by an average of all edge components of all sipes (130, 140, 141, 230, 231, 290) against the tire circumferential direction and an average block rigidity G is defined by an average of the rigidity of all blocks (100, 200, 300in, 300out), a relation of 2.20 (mm) 3 /N ≤ (Dball/Dsall)/G ≤ 4.00 (mm) 3 /N is fulfilled.
A process for treating the surface of a non-ferrous metal substrate selected from the group consisting of Cr, Ag, Au, Ni and alloys thereof, the method comprising: applying an anodic potential to said metal surface in an electrolytic circuit comprising said metal surface, a cathode, and an aqueous electrolytic solution in contact with said metal surface and in electrically conductive communication with said cathode, said electrolytic solution containing an electrolyte comprising anions selected from the group consisting of phosphate, phosphonate, phosphite, phosphinate, nitrate, borate, silicate, molybdate tungstate, carboxylate, oxalate and combinations thereof; and controlling the potential applied to said circuit to within a range between 0.5 and 20 volts such that a constituent metal of said substrate is anodically oxidized and reacts with said anion to form a composition at said surface. applying an anodic potential to said metal surface in an electrolytic circuit comprising said metal surface, a cathode, and an aqueous electrolytic solution in contact with said metal surface and in electrically conductive communication with said cathode, said electrolytic solution containing an electrolyte comprising anions selected from the group consisting of phosphate, phosphonate, phosphite, phosphinate, nitrate, borate, silicate, molybdate tungstate, carboxylate, oxalate and combinations thereof; and controlling the potential applied to said circuit to within a range between 0.5 and 20 volts such that a constituent metal of said substrate is anodically oxidized and reacts with said anion to form a composition at said surface.
A method for determining a sequence of at least one target template nucleic acid molecule comprising: (a) providing a pair of samples, each sample comprising at least one target template nucleic acid molecule; (b) sequencing regions of the at least one target template nucleic acid molecule in a first of the pair of samples to provide non-mutated sequence reads; (c) introducing mutations into the at least one target template nucleic acid molecule in a second of the pair of samples to provide at least one mutated target template nucleic acid molecule; (d) sequencing regions of the at least one mutated target template nucleic acid molecule to provide mutated sequence reads; (e) analysing the mutated sequence reads, and using information obtained from analysing the mutated sequence reads to assemble a sequence for at least a portion of at least one target template nucleic acid molecule from the non-mutated sequence reads, wherein the first of the pair of samples is provided by pooling two or more sub-samples and/or the second of the pair of samples is provided by pooling two or more sub-samples, and wherein the method further comprises controlling the number of target template nucleic acid molecules in the first of the pair of samples and/or in the second of the pair of samples. (a) providing a pair of samples, each sample comprising at least one target template nucleic acid molecule; (b) sequencing regions of the at least one target template nucleic acid molecule in a first of the pair of samples to provide non-mutated sequence reads; (c) introducing mutations into the at least one target template nucleic acid molecule in a second of the pair of samples to provide at least one mutated target template nucleic acid molecule; (d) sequencing regions of the at least one mutated target template nucleic acid molecule to provide mutated sequence reads; (e) analysing the mutated sequence reads, and using information obtained from analysing the mutated sequence reads to assemble a sequence for at least a portion of at least one target template nucleic acid molecule from the non-mutated sequence reads,
A method for controlling an electronic device comprising a user interface, said method comprising: - producing, by a sensor comprising a sensor surface, a location indicator that indicates a location of a spot of the sensor surface that is closest to an external object, - producing a force indicator that indicates a temporal change of a first force component of a force directed to the sensor surface and a temporal change of a second force component of the force directed to the sensor surface, the first force component and the second force component being parallel with the sensor surface, and - controlling an electronic device on the basis of the location indicator and the force indicator, characterized in that the force indicator is produced with a ring-sensor arranged to detect the first force component and the second force component, the ring-sensor being located around a rod attached to a sensor element comprising the sensor surface. - producing, by a sensor comprising a sensor surface, a location indicator that indicates a location of a spot of the sensor surface that is closest to an external object, - producing a force indicator that indicates a temporal change of a first force component of a force directed to the sensor surface and a temporal change of a second force component of the force directed to the sensor surface, the first force component and the second force component being parallel with the sensor surface, and - controlling an electronic device on the basis of the location indicator and the force indicator,