mhurhangee/ep-ind-claims huggingface dataset:
A method for imaging a three-dimensional volume of geometrically irregular grid data representing a grid volume, comprising: selecting a grid probe within the grid volume, the grid probe defined by a bounding box in a sampling domain, the grid volume comprising multiple cells in an index domain and the grid data comprising a normal vector and a geometry for each face of each cell, split flag data for each cell, an attribute for each cell and an attribute data value for each cell, wherein the split flag data comprises data representing each face of a respective cell and its position relative to a face of another cell; mapping extents of the bounding box from the sampling domain to the index domain; rendering an image of the grid probe within the grid volume, the image comprising the grid data only within at least a portion of the extents of the bounding box; and repeating the rendering step in response to simulated movement of the grid probe within the grid volume so that as the grid probe moves, the image of the grid probe is redrawn at a rate sufficiently fast to be perceived as moving in real-time, at a rate of at least ten frames per second. selecting a grid probe within the grid volume, the grid probe defined by a bounding box in a sampling domain, the grid volume comprising multiple cells in an index domain and the grid data comprising a normal vector and a geometry for each face of each cell, split flag data for each cell, an attribute for each cell and an attribute data value for each cell, wherein the split flag data comprises data representing each face of a respective cell and its position relative to a face of another cell; mapping extents of the bounding box from the sampling domain to the index domain; rendering an image of the grid probe within the grid volume, the image comprising the grid data only within at least a portion of the extents of the bounding box; and repeating the rendering step in response to simulated movement of the grid probe within the grid volume so that as the grid probe moves, the image of the grid probe is redrawn at a rate sufficiently fast to be perceived as moving in real-time, at a rate of at least ten frames per second.
Polyethylene composition having the following features: 1) density from 0.938 to 0.948 g/cm 3, preferably from 0.940 to 0.945 g/cm 3, determined according to ISO 1183 at 23°C; 2) ratio MIF/MIP from 15 to 25, in particular from 19 to 23, where MIF is the melt flow index at 190°C with a load of 21.60 kg, and MIP is the melt flow index at 190°C with a load of 5 kg, both determined according to ISO 1133; 3) MIF from 30 to 45 g/10 min., preferably from 35 to 40 g/10 min., more preferably from 35 to 39 g/10 min.; 4) Mz equal to or greater than 1000000 g/mol; 5) long-chain branching index, LCBI, equal to or greater than 0.55, preferably equal to or greater than 0.60; wherein LCBI is the ratio of the measured mean-square radius of gyration R g, measured by GPC-MALLS, to the mean-square radius of gyration for a linear PE having the same molecular weight. 1) density from 0.938 to 0.948 g/cm 3, preferably from 0.940 to 0.945 g/cm 3, determined according to ISO 1183 at 23°C; 2) ratio MIF/MIP from 15 to 25, in particular from 19 to 23, where MIF is the melt flow index at 190°C with a load of 21.60 kg, and MIP is the melt flow index at 190°C with a load of 5 kg, both determined according to ISO 1133; 3) MIF from 30 to 45 g/10 min., preferably from 35 to 40 g/10 min., more preferably from 35 to 39 g/10 min.; 4) Mz equal to or greater than 1000000 g/mol; 5) long-chain branching index, LCBI, equal to or greater than 0.55, preferably equal to or greater than 0.60;
Measuring device for non-invasive measurement of parameters of a bodily tissue, with a covering, a sensor unit and a sensor pad for detachable placement of the measuring device on a body surface, whereby the sensor unit has a receptacle, the interior space of which accommodates a sensor arrangement, the receptacle having a measuring surface in the direction of the body surface, and whereby the covering, the sensor unit, and the sensor pad are detachable from one another, - the sensor pad has a cutout for accommodating the sensor unit and a lower contact surface, at least partially surrounding the sensor unit, for placement on the body surface, - the covering is provided for closing the cutout over an upper side of sensor unit and sensor pad during a measurement of parameters, characterized in that the cutout forms a passage through the sensor pad with a shape that matches the outer shape of the receptacle so that the sensor unit is receivable inside the cutout in a formfitting way. - the sensor pad has a cutout for accommodating the sensor unit and a lower contact surface, at least partially surrounding the sensor unit, for placement on the body surface, - the covering is provided for closing the cutout over an upper side of sensor unit and sensor pad during a measurement of parameters,
Trailer hitch, comprising a bearing unit mountable, in particular by way of a mounting unit, on a rear end portion of a vehicle body, in fixed relation to the vehicle, said bearing unit having a bearing base and a ball neck carrier supported for movement on the bearing base, and further comprising a ball neck which at a first end is fixedly connected to the ball neck carrier and at a second end carries a hitch ball and which is movable, by the movement of the ball neck carrier relative to the bearing base, between two final positions, one of which is an operating position in which the ball neck extends substantially in a vertical longitudinal center plane of the trailer hitch which, particularly in the state of being mounted to the vehicle body, is coincident with a vertical vehicle longitudinal center plane of the vehicle body, and the other one of which is a rest position in which the ball neck extends transversely with respect to the vertical longitudinal center plane of the trailer hitch, in that a sensor system is provided for detecting the position of the ball neck relative to the bearing base, which sensor system detects the positions of the ball neck relative to the bearing base mounted in fixed relation to the vehicle and generates position information representative of the respective position of the ball neck, characterized in that the sensor system comprises an evaluation unit which compares the positions of the ball neck detected by at least one sensor (352, 354) of the sensor system with reference positions and thereby determines the position information.
A cold-rolled high-strength steel plate having excellent phosphatability and formability, comprising chemical elements in percentage by mass of: C 0.15 to 0.25%, Si 1.50 to 2.50%, Mn 2.00 to 3.00%, P ≤ 0.02%, S ≤ 0.01 %, Al 0.03 to 0.06%, N ≤ 0.01%, optionally at least one of Cr 0.01 to 1.0%, Mo 0.01 to 0.5% and Ni 0.01 to 2.0%, and optionally at least one of Ti 0.005 to 0.05%, Nb 0.005 to 0.1% and V 0.005 to 0.1%, and a balance of Fe and unavoidable impurity elements, wherein a surface layer of the steel plate comprises an inner oxide layer having a thickness of 1 to 5 μm; the inner oxide layer comprises iron as a matrix; the matrix comprises oxide particles which are at least one of oxides of Si, composite oxides of Si and Mn; no Si or Mn element is enriched in the surface; the oxide particles have an average diameter of 50 to 200 nm measured according to the method as in the description and an average spacing λ between the oxide particles satisfying the following relationship: A = 0.247 × 0.94 × Si + 0.68 × Mn 1 / 2 × d B = 1.382 × 0.94 × Si + 0.68 × Mn 1 / 2 × d A ≤ λ ≤ B wherein [Si] is the content % of Si in the steel; [Mn] is the content % of Mn in the steel; and d is the diameter of the oxide particles in nm, wherein the steel plate comprises a room temperature structure having a composite structure of ferrite, martensite and residual austenite, wherein the residual austenite has a content of no less than 5%.
Method for producing a polyurethane patch having a backing film and a layer of a polyurethane matrix and optionally further patch layers, the method being carried out continuously or semi-continuously with film webs, characterized in that an active ingredient-containing polyurethane backing matrix is produced on an elastic backing film whose elasticity is greater than or equal to that of the fully reacted matrix polyurethane, the elastic backing film having been made inextensible at least in the processing direction of the application, by means of an underlying, adhering, at least monoaxially inextensible auxiliary film, and a solvent-free, active ingredient-containing polyurethane composition, mixed immediately beforehand or with the application process in a coating unit, is coated onto the elastic backing film in a reactive-coating step.
A method for operating a machine, said method comprising: generating monument point data, said monument point data comprising a plurality of reference points representing a plurality of monument points on a machine bed; generating part data, said part data comprising a plurality of reference points representing a part with respect to said plurality of monument points; generating theoretical machined part data, said theoretical machined part data comprising a plurality of reference points representing a theoretical machined part; generating control data by integrating said part data and said theoretical machined part data, said control data comprising a plurality of reference points representing an integration of said part and said theoretical machined part; generating machine control data by integrating said control data and said monument point data, said machine control data comprising a plurality of reference points representing said integration of said part and said theoretical machined part positioned on said machine bed with respect to said plurality of monument points; executing said machine control data for controlling operation of said machine to form a machined part; generating an error for at least one reference point of said monument point data and at least one reference point of said control data; and comparing at least a subset of said error to a threshold range to verify that said machine control data is within tolerance. generating monument point data, said monument point data comprising a plurality of reference points representing a plurality of monument points on a machine bed; generating part data, said part data comprising a plurality of reference points representing a part with respect to said plurality of monument points; generating theoretical machined part data, said theoretical machined part data comprising a plurality of reference points representing a theoretical machined part; generating control data by integrating said part data and said theoretical machined part data, said control data comprising a plurality of reference points representing an integration of said part and said theoretical machined part; generating machine control data by integrating said control data and said monument point data, said machine control data comprising a plurality of reference points representing said integration of said part and said theoretical machined part positioned on said machine bed with respect to said plurality of monument points; executing said machine control data for controlling operation of said machine to form a machined part; generating an error for at least one reference point of said monument point data and at least one reference point of said control data; and comparing at least a subset of said error to a threshold range to verify that said machine control data is within tolerance.
A method for finding an unknown polynucleotide sequence adjacent to a known polynucleotide sequence in isolated DNA, which comprises: a) digesting the isolated DNA that contains a portion or all of the known polynucleotide sequence and an adjacent unknown polynucleotide sequence with one or more suitable restriction enzymes to produce a plurality of digested polynucleotide restriction fragments; b) synthesizing a complementary strand of the digested polynucleotide restriction fragments using an oligonucleotide primer, designed to specifically bind to the known polynucleotide sequence, said oligonucleotide primersequence having an attachment chemistry bound to the 5' end of the oligonucleotide primer sequence; c) isolating the complementary strand by binding the attachment chemistry to a suitable isolation matrix, then denaturing the complementary strand from the digested polynucleotide restriction fragments; d) ligating a single stranded adapter to the isolated complementary strand bound to the isolation matrix to produce a ligated isolated complementary strand; e) performing a first PCR amplification of the ligated isolated complementary strand using a first PCR primer designed to bind to the known polynucleotide sequence and a second PCR primer designed to bind to the single stranded adapter to produce a first PCR amplicon; f) performing a second PCR amplification of said first PCR amplicon, wherein the second PCR amplification amplifies an internal sequence of said first PCR amplicon to produce a second PCR amplicon; and, g) sequencing the second PCR amplicon to ascertain the sequence of the unknown polynucleotide sequence. a) digesting the isolated DNA that contains a portion or all of the known polynucleotide sequence and an adjacent unknown polynucleotide sequence with one or more suitable restriction enzymes to produce a plurality of digested polynucleotide restriction fragments; b) synthesizing a complementary strand of the digested polynucleotide restriction fragments using an oligonucleotide primer, designed to specifically bind to the known polynucleotide sequence, said oligonucleotide primersequence having an attachment chemistry bound to the 5' end of the oligonucleotide primer sequence; c) isolating the complementary strand by binding the attachment chemistry to a suitable isolation matrix, then denaturing the complementary strand from the digested polynucleotide restriction fragments; d) ligating a single stranded adapter to the isolated complementary strand bound to the isolation matrix to produce a ligated isolated complementary strand; e) performing a first PCR amplification of the ligated isolated complementary strand using a first PCR primer designed to bind to the known polynucleotide sequence and a second PCR primer designed to bind to the single stranded adapter to produce a first PCR amplicon; f) performing a second PCR amplification of said first PCR amplicon, wherein the second PCR amplification amplifies an internal sequence of said first PCR amplicon to produce a second PCR amplicon; and, g) sequencing the second PCR amplicon to ascertain the sequence of the unknown polynucleotide sequence.
Apparatus for transmitting data over a physical uplink shared channel in a wireless communication system by using an asynchronous hybrid automatic repeat request, HARQ, the apparatus comprising: a first timer configured to start upon uplink data transmission and expire after a first predetermined time; a second timer configured to start upon expiry of the first timer and to expire after a second predetermined time; a receiver for receiving downlink control information including an explicit positive acknowledgement for uplink new data transmission or retransmission without scheduling a further uplink data transmission or retransmission, the receiver being configured to perform the receiving only when the first timer is expired and the second timer is running, wherein the second timer is further configured to stop upon receiving the positive acknowledgement. a first timer configured to start upon uplink data transmission and expire after a first predetermined time; a second timer configured to start upon expiry of the first timer and to expire after a second predetermined time; a receiver for receiving downlink control information including an explicit positive acknowledgement for uplink new data transmission or retransmission without scheduling a further uplink data transmission or retransmission, the receiver being configured to perform the receiving only when the first timer is expired and the second timer is running, wherein the second timer is further configured to stop upon receiving the positive acknowledgement.
A method for automatically aligning an industrial truck in a warehouse having the following steps: An operator confirms a pick, A position of the industrial truck in a warehouse is determined by a warehouse administration system by the position (A, B, C, D, E) of the confirmed pick, A side orientation of the industrial truck relative to a shelf side (36, 38) of a shelf aisle of the warehouse is determined by the warehouse administration system by the position (A, B, C, D, E) of the confirmed pick, The next picking position (A, B, C, D, E) in the warehouse is ascertained by the warehouse administration system, A control command for a drive and/or a steering system of the industrial truck is transmitted by the warehouse administration system to the industrial truck so that The industrial truck is aligned corresponding to the transmitted control command in a predetermined side orientation for the next pick position (A, B, C, D, E) in the warehouse, and The next pick position (A, B, C, D, E) is approached in response to a driving signal given by the operator. An operator confirms a pick, A position of the industrial truck in a warehouse is determined by a warehouse administration system by the position (A, B, C, D, E) of the confirmed pick, A side orientation of the industrial truck relative to a shelf side (36, 38) of a shelf aisle of the warehouse is determined by the warehouse administration system by the position (A, B, C, D, E) of the confirmed pick, The next picking position (A, B, C, D, E) in the warehouse is ascertained by the warehouse administration system, A control command for a drive and/or a steering system of the industrial truck is transmitted by the warehouse administration system to the industrial truck so that The industrial truck is aligned corresponding to the transmitted control command in a predetermined side orientation for the next pick position (A, B, C, D, E) in the warehouse, and The next pick position (A, B, C, D, E) is approached in response to a driving signal given by the operator.
Apparatus for the pretreatment and subsequent conveying, plastification or agglomeration of plastics, in particular of thermoplastics waste for recycling purposes, with a container for the material to be processed, where the arrangement has, in the container, at least one mixing and/or comminution implement which rotates around an axis of rotation and which is intended for the mixing, heating and optionally comminution of the plastics material, where an aperture through which the pretreated plastics material can be removed from the interior of the container is formed in a side wall of the container in the region of the level of the, or of the lowest, mixing and/or comminution implement that is closest to the base, where at least one conveyor, in particular one extruder, is provided to receive the pretreated material, and has at least one screw which rotates in a housing and which in particular has plastifying or agglomerating action, where the housing has, located at its end or in its jacket wall, an intake aperture for the material to be received by the screw, and there is connection between the intake aperture and the aperture, where the imaginary continuation of the central longitudinal axis of the conveyor or of the screw closest to the intake aperture, in a direction opposite to the direction of conveying of the conveyor, passes, and does not intersect, the axis of rotation, characterized in that, on the outflow side in the direction of rotation, there is an offset distance between the longitudinal axis of the conveyor or of the screw closest to the intake aperture, and the radius that is associated with the container and that is parallel to the longitudinal axis and that proceeds outwards from the axis of rotation of the mixing and/or comminution implement in the direction of conveying of the conveyor, and in that, on the internal wall area of the container there is at least one bar-shaped deflector which is directed into the interior of the container, and the height profile of which decreases in the direction of rotation of the mixing implement, seen from above, and the angle included thereby, over its length, with a plane perpendicular to the axis of rotation of the mixing implements is an acute angle (α).
Method for preparing tiles with 3D texture, comprising the step of forming said tiles with a mould equipped with a die prepared with a process comprising the following steps: I) providing a photocurable composition containing: a) from 70 to 99 % by weight (% wt) of at least one ethylenically unsaturated compound; b) from 1 to 12 % wt of at least one photoinitiator; II) applying said photocurable composition onto the surface of a base-die to form a film with a three dimensional pattern; III) photocuring said photocurable composition by exposing the surface of the base-die to light with wavelength from 200 to 600 nm; with the proviso that the film, obtained by photocuring 200 g/m 2 of said photocurable composition on a steel plate, has an elastic hardness comprised between 50 and 300 sec determined according to the standard method ISO 1522:2006. I) providing a photocurable composition containing: a) from 70 to 99 % by weight (% wt) of at least one ethylenically unsaturated compound; b) from 1 to 12 % wt of at least one photoinitiator; a) from 70 to 99 % by weight (% wt) of at least one ethylenically unsaturated compound; b) from 1 to 12 % wt of at least one photoinitiator; II) applying said photocurable composition onto the surface of a base-die to form a film with a three dimensional pattern; III) photocuring said photocurable composition by exposing the surface of the base-die to light with wavelength from 200 to 600 nm;
A method for securing a provable resource possession on a host device having spawned a set of virtual machines providing services to a client device, the method comprising the following steps in host device: receiving a challenge request (ReqC) from the client device for each virtual machine, the challenge request (ReqC) containing a physically unclonable function, PUF, challenge and a filter rule, challenging a PUF component of the host device with the PUF challenge to obtain a PUF response for each virtual machine, filtering the PUF response in a PUF filtered response for each virtual machine according to the filter rule, sending the PUF filtered response for each virtual machine to the client device. receiving a challenge request (ReqC) from the client device for each virtual machine, the challenge request (ReqC) containing a physically unclonable function, PUF, challenge and a filter rule, challenging a PUF component of the host device with the PUF challenge to obtain a PUF response for each virtual machine, filtering the PUF response in a PUF filtered response for each virtual machine according to the filter rule, sending the PUF filtered response for each virtual machine to the client device.