mhurhangee/ep-ind-claims huggingface dataset:
Method for determination of the roll angle of a shell like rotating body utilizing sensors for the detection of rotation signals in a body-fixed coordinate system (xBF, yBF, zBF), the sensors being placed along the reference axes of the body-fixed coordinate system along the roll axis (xBF) and a first and a second perpendicular axis (yBF, zBF) which are perpendicular to the roll axis, the sensors placed along the reference axes (yBF, zBF) which are perpendicular to the roll axis emitting rotational signals that are periodic, the body-fixed rotation signals emitted by the sensors placed along the reference axes (yBF, zBF) which are perpendicular to the roll axis being filtered, the method being characterized in that the body-fixed rotation signals emitted by the sensors placed along the reference axes (yBF, zBF) which are perpendicular to the roll axis are mixed with an estimated roll angle (Φ) determined from the rotation signal from the sensor placed along the roll axis and compensated by a corrective term (ΔΦ), and thereafter low-pass filtered, by calculating the following parameters: LP in_lower = - ω yBF ⋅ cos φ + Δ ⁢ φ + ω zBF ⋅ sin φ + Δ ⁢ φ LP in_upper = - ω yBF ⋅ sin φ + Δ ⁢ φ - ω zBF ⋅ cos φ + Δ ⁢ φ wherein: ωyBF and ωzBF are the rotation signals emitted from the sensors placed along the reference axes which are perpendicular to the roll axis, Φ is the roll angle determined from the rotation signal from the sensor placed along the roll axis, and ΔΦ is the corrective term, and LP indicates that the calculated parameters are low pass filtered, the method being further characterized in that the corrective term (ΔΦ) is determined according to the following calculation: Δφ = K ⋅ arctan LP in_lower / LP in_upper wherein K is an amplification factor and in that the roll angle is determined from the rotation signal from the sensor placed along the roll axis (xBF) and compensated by the corrective term (ΔΦ). ωyBF and ωzBF are the rotation signals emitted from the sensors placed along the reference axes which are perpendicular to the roll axis, Φ is the roll angle determined from the rotation signal from the sensor placed along the roll axis, and ΔΦ is the corrective term, and LP indicates that the calculated parameters are low pass filtered, the method being further characterized in that the corrective term (ΔΦ) is determined according to the following calculation: Δφ = K ⋅ arctan LP in_lower / LP in_upper wherein K is an amplification factor and in that the roll angle is determined from the rotation signal from the sensor placed along the roll axis (xBF) and compensated by the corrective term (ΔΦ).
A liner segment for a gyratory or cone crusher, the crusher comprising a head assembly including a crusher head provided with a first crushing shell or mantle, and a frame provided with a second crushing shell or bowl, wherein the mantle and bowl define a crushing gap between them, and wherein the bowl is constituted by a plurality of liner segments, with outer surfaces of the liner segments facing an inner surface of the frame, characterized in that the liner segment is provided with an expandable ejector unit to be arranged between the outer surface of the liner segment and the opposite inner surface of the frame, and the ejector unit has a first part for abutting or engaging with the outer surface of the liner segment and a second part for abutting or engaging with the inner surface of the frame and is operable to increase a spacing between its first and second parts to thereby increase the spacing between the outer surface of the liner segment and the inner surface of the frame. the crusher comprising a head assembly including a crusher head provided with a first crushing shell or mantle, and a frame provided with a second crushing shell or bowl, wherein the mantle and bowl define a crushing gap between them, and wherein the bowl is constituted by a plurality of liner segments, with outer surfaces of the liner segments facing an inner surface of the frame, characterized in that the liner segment is provided with an expandable ejector unit to be arranged between the outer surface of the liner segment and the opposite inner surface of the frame, and the ejector unit has a first part for abutting or engaging with the outer surface of the liner segment and a second part for abutting or engaging with the inner surface of the frame and is operable to increase a spacing between its first and second parts to thereby increase the spacing between the outer surface of the liner segment and the inner surface of the frame.
A stainless steel plate for which temper rolling is performed by using a dull roller after a finish cold rolling and bright annealing, wherein an arithmetic mean roughness Ra in a direction perpendicular to a rolling direction of the steel plate surface is 0.2 to 1.2 μm; a transfer ratio, which is an area ratio of a portion onto which a dull pattern is transferred relative to the steel plate surface, is 15 to 70%; and a micro-pit, being formed in the steel plate surface, having a depth of 0.5 μm or more, and having an opening area of 10 μm 2 or more, has an existing density in the steel plate surface of 10.0 or less per 0.01 mm 2, and an opening area ratio in the steel plate surface of 1.0% or less.
A network system comprising: a ring-type network in which a first virtual transmission line that is adapted to transmit in a first direction, a transmission frame to be transmitted and received between a master transmission apparatus (1, 21, 31, M) and a plurality of transmission apparatuses (2, 22, 32, S) and a second virtual transmission line that is adapted to transmit the transmission frame in a second direction different from the first direction are formed, wherein the master transmission apparatus includes, blocking means (4a, 4b) for prohibiting relay of the transmission frame received through the first virtual transmission line and prohibiting relay of the transmission frame received through the second virtual transmission line, conversion means for changing transmission path information included in the transmission frame from the first virtual transmission line to the second virtual transmission line, upon receiving the transmission frame through the first virtual transmission line, and changing the transmission path information included in the transmission frame from the second virtual transmission line to the first virtual transmission line, upon receiving the transmission frame through the second virtual transmission line, and transmission means (15a, 15b) for transmitting the transmission frame including the transmission path information changed by the conversion means to a virtual transmission line different from the virtual transmission line through which the transmission frame is received, wherein the transmission apparatus includes, a branch interface (13,14) configured to communicate with a terminal apparatus through a branch transmission line; table storage means for storing, for each terminal apparatus of a transmission source, a destination address for the first virtual transmission line and the destination address for the second virtual transmission line to be used to rewrite the destination address included in the received transmission frame when transmitting the transmission frame received through the branch interface to the first virtual transmission line and the second virtual transmission line; and address rewrite means (17, 27, 37, 41, 51, 71) for referring to the table storage means and rewriting the destination address for at least one of the transmission frame to be transmitted to the first virtual transmission line and the transmission frame to be transmitted to the second virtual transmission line, when transmitting the transmission frame received from the terminal apparatus through the branch interface to the ring-type network.
A ripper shank protector, comprising: a first side; a second side; a center face extending between the first side and the second side; a first protector mount in the first side; and a second protector mount in the first side, the second protector mount including an open-ended slot that allows sliding the slot onto a mounting projection extending from a ripper shank, wherein the open-ended slot extends away from the center face. a first side; a second side; a center face extending between the first side and the second side; a first protector mount in the first side; and a second protector mount in the first side, the second protector mount including an open-ended slot that allows sliding the slot onto a mounting projection extending from a ripper shank,
Roadway shoulder slab for supporting a roadway edge, comprising a first side face and a second side face which is opposite the first side face, wherein the first side face has a first connecting device and the second side face has a second connecting device, wherein the first connecting device and the second connecting device each have at least one tongue and a groove which is formed substantially diametrically opposite the tongue, wherein the first connecting device and the second connecting device are formed such that they are selectively connectable to the first connecting device or the second connecting device of an identically formed adjacent roadway shoulder slab, characterized in that the first side face is arranged obliquely with respect to the second side face, and that the tongue and the groove are undercut.
A method for determining ploidy of an embryo, the method comprising: amplifying, using a primer pair that amplifies a plurality of human genomic loci, nucleic acid from an isolated preimplantation embryo sample to generate a plurality of amplicons; sequencing the amplicons to generate a plurality of sequence reads; matching the sequence reads to the genomic loci and counting a number of matches to determine read counts for each genomic locus; normalizing the read counts for each genomic locus according to a total read count of all control references in the sample; and determining chromosome count based on the normalized number of matches. amplifying, using a primer pair that amplifies a plurality of human genomic loci, nucleic acid from an isolated preimplantation embryo sample to generate a plurality of amplicons; sequencing the amplicons to generate a plurality of sequence reads; matching the sequence reads to the genomic loci and counting a number of matches to determine read counts for each genomic locus; normalizing the read counts for each genomic locus according to a total read count of all control references in the sample; and determining chromosome count based on the normalized number of matches.
A tree processing head knife insert for use with a tree processing head knife carrier, the knife insert comprising: at least one blade portion; a retention portion configured to interface with a corresponding receiving portion of the knife carrier; a force transmission means (232, 234) configured to introduce a preload from the knife carrier to the knife insert, wherein the preload is configured to force the retention portion against the receiving portion along a length of the blade portion and thereby removably hold the knife insert in place in the knife carrier. at least one blade portion; a retention portion configured to interface with a corresponding receiving portion of the knife carrier; a force transmission means (232, 234) configured to introduce a preload from the knife carrier to the knife insert, wherein the preload is configured to force the retention portion against the receiving portion along a length of the blade portion and thereby removably hold the knife insert in place in the knife carrier.
A display apparatus for use in a vehicle, said display apparatus comprising a directional display device arranged to display an image, the directional display device having an angular output light distribution that is variable, and characterized by further comprising a control system arranged to vary the angular output light distribution of the directional display device on the basis of the output of a vehicle sensor system provided on the vehicle, wherein the vehicle sensor system comprises a darkness sensor system arranged to detect dark ambient conditions, the control system being arranged to angularly restrict the angular output light distribution of the directional display device on the basis of the output of the darkness sensor system indicating that dark ambient conditions have been detected. a directional display device arranged to display an image, the directional display device having an angular output light distribution that is variable, and characterized by further comprising a control system arranged to vary the angular output light distribution of the directional display device on the basis of the output of a vehicle sensor system provided on the vehicle, wherein the vehicle sensor system comprises a darkness sensor system arranged to detect dark ambient conditions, the control system being arranged to angularly restrict the angular output light distribution of the directional display device on the basis of the output of the darkness sensor system indicating that dark ambient conditions have been detected.
A method for cleaning and/or upgrading post-consumer and post-industrial polyvinylbutyral comprising plasticizers, or plasticizers and contaminants, in particular PVB material having served as interlayer in laminated glass products, wherein the PVB material is provided in flakes, said method comprising the following steps: a) Extraction of the PVB flakes in a stepwise manner to reduce or eliminate the content of said plasticizer(s) and optionally contaminant(s) present in the PVB flakes by subjecting the PVB flakes to extraction with pressurized liquid carbon dioxide at a pressure of between 30 and 70 bar, preferably between 40 and 60 bar, and at a temperature between -20°C to +30°C, and b) optionally repeating the extraction step a) at least once more; wherein the PVB flakes are subjected to mechanical action, said method does not include the use of organic solvent(s), and said method is conducted below the glass transition temperature of the PVB material. a) Extraction of the PVB flakes in a stepwise manner to reduce or eliminate the content of said plasticizer(s) and optionally contaminant(s) present in the PVB flakes by subjecting the PVB flakes to extraction with pressurized liquid carbon dioxide at a pressure of between 30 and 70 bar, preferably between 40 and 60 bar, and at a temperature between -20°C to +30°C, and b) optionally repeating the extraction step a) at least once more;
A resource management method, comprising: encapsulating, by a resource manager RM, according to a type and a quantity of application masters AMs that need to be started in advance of receiving a job submitted by a client, resources that are registered by a node manager NM into multiple containers matching the AMs that need to be started in advance; starting, by the RM, the AMs that need to be started in advance in the matching containers; when receiving the job submitted by the client, checking, by the RM, in the AMs that have been started in advance and according to information about the job, whether there is a matching AM to be used to execute the job, if there is a matching AM to be used to execute the job, submitting the job to the matching AM for execution; recording, by the RM, information about the AMs, wherein the information comprises host names, IP addresses, port numbers, application types and statuses of the AMs; and checking, by the RM, whether the AMs are in a normal state, and if there is an AM among the AMs in an abnormal state, reallocating a resource to start the AM that has failed. encapsulating, by a resource manager RM, according to a type and a quantity of application masters AMs that need to be started in advance of receiving a job submitted by a client, resources that are registered by a node manager NM into multiple containers matching the AMs that need to be started in advance; starting, by the RM, the AMs that need to be started in advance in the matching containers; when receiving the job submitted by the client, checking, by the RM, in the AMs that have been started in advance and according to information about the job, whether there is a matching AM to be used to execute the job, if there is a matching AM to be used to execute the job, submitting the job to the matching AM for execution; recording, by the RM, information about the AMs, wherein the information comprises host names, IP addresses, port numbers, application types and statuses of the AMs; and checking, by the RM, whether the AMs are in a normal state, and if there is an AM among the AMs in an abnormal state, reallocating a resource to start the AM that has failed.
A fabric for electromagnetic shielding having a weave of interlaced weft yarns and warp yarns, characterized in that the warp yarns are conductive and comprise multi-filament or monofilament textile conductive yarns associated to metal strands and in that, at least one conductive warp yarn is inserted in weft direction in order to create an equipotential bonding perpendicular to the direction of the warp yarns.
A multi-stage dehydrogenation process comprising: contacting, in a first stage, a feed stream comprising a hydrocarbon and steam with a dehydrogenation catalyst under dehydrogenation conditions to yield a first stage effluent; heating the first stage effluent; and contacting, in a second stage, the heated first stage effluent with a dehydrogenation catalyst under dehydrogenation conditions to yield a second stage effluent comprising a dehydrogenation product, wherein the first stage includes a first reactor and a second reactor arranged in parallel, and wherein the second stage includes a third reactor connected in series with the first reactor and the second reactor and wherein the hydrocarbon is ethylbenzene, and wherein the dehydrogenation product comprises styrene. contacting, in a first stage, a feed stream comprising a hydrocarbon and steam with a dehydrogenation catalyst under dehydrogenation conditions to yield a first stage effluent; heating the first stage effluent; and contacting, in a second stage, the heated first stage effluent with a dehydrogenation catalyst under dehydrogenation conditions to yield a second stage effluent comprising a dehydrogenation product, wherein the first stage includes a first reactor and a second reactor arranged in parallel, and wherein the second stage includes a third reactor connected in series with the first reactor and the second reactor and wherein the hydrocarbon is ethylbenzene, and wherein the dehydrogenation product comprises styrene.
A communication module in a vehicle, comprising: a receiving unit set to receive power from a battery of the vehicle and operate on a predetermined cycle in a reception standby state; and a control unit set to accumulate a count value according to an operation time of the receiving unit, and when a result of the accumulated count values exceeds a predetermined value, control an operation cycle of the receiving unit or terminate operation of the communication module, characterized in that, the count value according to the operation time of the receiving unit includes a count value reflecting a first weight assigned to the operation time of the receiving unit and the first weight is set to vary according to at least one of an electric field, an inter-band movement, a handover between heterogeneous networks, and a change in service status. a receiving unit set to receive power from a battery of the vehicle and operate on a predetermined cycle in a reception standby state; and a control unit set to accumulate a count value according to an operation time of the receiving unit, and when a result of the accumulated count values exceeds a predetermined value, control an operation cycle of the receiving unit or terminate operation of the communication module, characterized in that, the count value according to the operation time of the receiving unit includes a count value reflecting a first weight assigned to the operation time of the receiving unit and the first weight is set to vary according to at least one of an electric field, an inter-band movement, a handover between heterogeneous networks, and a change in service status.
A method of manufacturing a dishwasher having an inner wall made of a stainless steel plate, comprising steps of: forming a first layer comprising zirconium oxide and silicon oxide on a surface of the inner wall at a heat treatment temperature of 200°C or higher; forming a second layer comprising an oxoacid on a surface of the first layer at a heat treatment temperature lower than the heat treatment temperature of the first layer; and obtaining a thin-film layer comprising zirconium oxide and silicon oxide on the surface of the inner wall and having a contact angle of water of 20 degrees or less on the surface, after removing the second layer by using a washing method, wherein the first layer contains the zirconium oxide in an amount of 80 mass% or more in terms of oxide and the silicon oxide in an amount of 1 mass% to 20 mass% in terms of oxide. forming a first layer comprising zirconium oxide and silicon oxide on a surface of the inner wall at a heat treatment temperature of 200°C or higher; forming a second layer comprising an oxoacid on a surface of the first layer at a heat treatment temperature lower than the heat treatment temperature of the first layer; and obtaining a thin-film layer comprising zirconium oxide and silicon oxide on the surface of the inner wall and having a contact angle of water of 20 degrees or less on the surface, after removing the second layer by using a washing method, wherein the first layer contains the zirconium oxide in an amount of 80 mass% or more in terms of oxide and the silicon oxide in an amount of 1 mass% to 20 mass% in terms of oxide.
A cylindrical sputtering target comprising a cylindrical target material made of a ceramic material made of ITO, AZO, IZO, Ta 2 O 5, Nb 2 O 5 or TiO 2, characterized in that the angle θ 2 between the direction of grinding striation on the outer circumferential surface of the cylindrical target material and a straight line parallel with the cylindrical axis (out of such angles, θ 2 represents an angle between 0° and 90°) satisfies tanθ 2 >πR/L (where R is an outside diameter of the cylindrical target material, and L is the length of the cylindrical target material), and the surface roughness Ra of the outer circumferential surface of the cylindrical target material is at most 3 μm.