mhurhangee/ep-ind-claims huggingface dataset:
A polymer composition comprising at least the following components A) 20 to 75 wt.-% based on the overall weight of the polymer composition of a polymer blend, comprising a1) polypropylene; a2) polyethylene; wherein the weight ratio of a1) to a2) is from 3:7 to 12:1; and wherein the polymer blend A) is a recycled material comprising from 0.1 to 100 ppm of limonene, based on the overall weight of component A); B) 25 to 80 wt.-% based on the overall weight of the polymer composition of a virgin random polypropylene copolymer; whereby said virgin random polypropylene copolymer has • a xylene soluble content based on the overall weight of component B) in the range from 3.0 to 11.99 wt.-%; • a MFR 2 (230°C, 2.16 kg) determined according to ISO 1133 in the range of 5 to 40 g/10 min; • a C2-content in the range of 1.0 to 8.0 wt.-% based on the overall weight of component B); with the proviso that the weight proportions of components A) and B) add up to 100 wt.-%. A) 20 to 75 wt.-% based on the overall weight of the polymer composition of a polymer blend, comprising a1) polypropylene; a2) polyethylene; wherein the weight ratio of a1) to a2) is from 3:7 to 12:1; and wherein the polymer blend A) is a recycled material comprising from 0.1 to 100 ppm of limonene, based on the overall weight of component A); a1) polypropylene; a2) polyethylene; wherein the weight ratio of a1) to a2) is from 3:7 to 12:1; and wherein the polymer blend A) is a recycled material comprising from 0.1 to 100 ppm of limonene, based on the overall weight of component A); B) 25 to 80 wt.-% based on the overall weight of the polymer composition of a virgin random polypropylene copolymer; whereby said virgin random polypropylene copolymer has • a xylene soluble content based on the overall weight of component B) in the range from 3.0 to 11.99 wt.-%; • a MFR 2 (230°C, 2.16 kg) determined according to ISO 1133 in the range of 5 to 40 g/10 min; • a C2-content in the range of 1.0 to 8.0 wt.-% based on the overall weight of component B); • a xylene soluble content based on the overall weight of component B) in the range from 3.0 to 11.99 wt.-%; • a MFR 2 (230°C, 2.16 kg) determined according to ISO 1133 in the range of 5 to 40 g/10 min; • a C2-content in the range of 1.0 to 8.0 wt.-% based on the overall weight of component B);
A method executed by an exchange server comprising, creating, by the exchange server, a consortium identifier of a consortium of networks among a first network and a second network; wherein the exchange server is in communication with a network service platform, the network service platform being in communication with the first network, a first network authentication server, the second network and a second network authentication server; sending, by the exchange server to a first access point, hereafter AP, in the first network, a first network identifier for the second network; and sending, by the exchange server to a second AP in the second network, a second network identifier for the first network; receiving, by the exchange server, an authentication request from a user equipment, hereafter UE, from the first AP in the first network and an indication that the home network of the UE is the second network; sending, by the exchange server, the authentication request to the second network authentication server; and receiving, by the exchange server, an authentication response from the second network authentication server; and sending the authentication response to the first AP, wherein if the authentication response is positive, the UE may then associate to the first AP.
A method for identifying a new device during a user's interaction with online services, comprising: collecting a fingerprint for a device associated with a user; isolating, from the fingerprint, one or more key characteristics of the device which affect device security; performing clustering of previously known devices used by the user based on the one or more key characteristics which affect device security; computing a difference between the one or more key characteristics of the device and one or more key characteristics of one or more devices which the user previously used to access an online service, wherein the one or more devices are from among the clustering of previously known devices; and determining that the device is a new device being used by the user for a purpose of accessing the online service when the computed difference exceeds a threshold value. collecting a fingerprint for a device associated with a user; isolating, from the fingerprint, one or more key characteristics of the device which affect device security; performing clustering of previously known devices used by the user based on the one or more key characteristics which affect device security; computing a difference between the one or more key characteristics of the device and one or more key characteristics of one or more devices which the user previously used to access an online service, wherein the one or more devices are from among the clustering of previously known devices; and determining that the device is a new device being used by the user for a purpose of accessing the online service when the computed difference exceeds a threshold value.
A method of remotely inspecting a nuclear fuel assembly stored in a cell within a rack in a lower portion of a spent fuel pool, the method comprising the steps of: supporting a camera within the spent fuel pool above the rack focused above the cell in which the nuclear fuel assembly is stored, the camera having an output which is transmitted to a processing apparatus outside of the spent fuel pool; fastening a pressure transducer to a long handled fuel assembly handling tool at a fixed distance above a connector on the fuel assembly handling tool that attaches to the fuel assembly and below a point on the fuel assembly handling tool that will remain submerged within the spent fuel pool when the fuel assembly handling tool raises the fuel assembly substantially completely out of the rack, the pressure transducer having an output representative of the depth within the spent fuel pool at the pressure transducer elevation, which pressure transducer output is transmitted to the processing apparatus; lowering the connector to the fuel assembly; attaching the connector to the fuel assembly; raising the fuel assembly out of the cell with the fuel assembly handling tool as the camera records a portion of the fuel assembly in view of the camera and transmits an image of the portion of the fuel assembly in view as at least part of the camera output to the processing apparatus; correlating, in the processing apparatus, the pressure transducer output to an elevation of the image on the fuel assembly; and displaying a representation of the fuel assembly at a location remote from the spent fuel pool, with the image superimposed on the representation at the elevation. supporting a camera within the spent fuel pool above the rack focused above the cell in which the nuclear fuel assembly is stored, the camera having an output which is transmitted to a processing apparatus outside of the spent fuel pool; fastening a pressure transducer to a long handled fuel assembly handling tool at a fixed distance above a connector on the fuel assembly handling tool that attaches to the fuel assembly and below a point on the fuel assembly handling tool that will remain submerged within the spent fuel pool when the fuel assembly handling tool raises the fuel assembly substantially completely out of the rack, the pressure transducer having an output representative of the depth within the spent fuel pool at the pressure transducer elevation, which pressure transducer output is transmitted to the processing apparatus; lowering the connector to the fuel assembly; attaching the connector to the fuel assembly; raising the fuel assembly out of the cell with the fuel assembly handling tool as the camera records a portion of the fuel assembly in view of the camera and transmits an image of the portion of the fuel assembly in view as at least part of the camera output to the processing apparatus; correlating, in the processing apparatus, the pressure transducer output to an elevation of the image on the fuel assembly; and displaying a representation of the fuel assembly at a location remote from the spent fuel pool, with the image superimposed on the representation at the elevation.
A system of a rod insertion device and a rod, in particular for spine surgery, including a rod (100, 100') comprising a connection portion with an outer contour around a longitudinal axis (l) of the connection portion; a rod insertion device comprising a rod holding member (20, 20') with a rod engagement portion (24, 24') at one end thereof configured to engage the connection portion of the rod (100, 100'); wherein the connection portion has a cross-section in a plane perpendicular to the longitudinal axis (l), the cross-section comprising a vertical axis and a horizontal axis perpendicular to the vertical axis and wherein a maximum height of the connection portion is greater than a maximum width and the maximum height lies substantially in the direction of the vertical axis, wherein the outer contour of the connection portion in the cross-section comprises at least four equal long sides (a) that are located on a diamond-shaped envelope; and wherein the rod engagement portion (24, 24') comprises an inner contour (c; 24a') which substantially matches at least a portion of the outer contour of the connection portion so that the connection portion is engageable by the rod engagement portion in a form-fit manner with respect to a rotation around the longitudinal axis (l). a rod (100, 100') comprising a connection portion with an outer contour around a longitudinal axis (l) of the connection portion; a rod insertion device comprising a rod holding member (20, 20') with a rod engagement portion (24, 24') at one end thereof configured to engage the connection portion of the rod (100, 100'); wherein the connection portion has a cross-section in a plane perpendicular to the longitudinal axis (l), the cross-section comprising a vertical axis and a horizontal axis perpendicular to the vertical axis and wherein a maximum height of the connection portion is greater than a maximum width and the maximum height lies substantially in the direction of the vertical axis, wherein the outer contour of the connection portion in the cross-section comprises at least four equal long sides (a) that are located on a diamond-shaped envelope; and wherein the rod engagement portion (24, 24') comprises an inner contour (c; 24a') which substantially matches at least a portion of the outer contour of the connection portion so that the connection portion is engageable by the rod engagement portion in a form-fit manner with respect to a rotation around the longitudinal axis (l).
An outdoor unit of a refrigeration apparatus comprising: a board mounted with a heat generating component; a heat sink that is fixed to a lower face of the board in order to cool the heat generating component; and a metal capture member (41g, 41h, 41i, 41j, 41k) for receiving the detached heat sink in case the heat sink detaches from the board and falls down, characterized in that the capture member is formed such that the area in a top view of the portion of the capture member positioned directly below the heat sink is less than 10% of the area in the top view of the heat sink. a board mounted with a heat generating component; a heat sink that is fixed to a lower face of the board in order to cool the heat generating component; and a metal capture member (41g, 41h, 41i, 41j, 41k) for receiving the detached heat sink in case the heat sink detaches from the board and falls down, characterized in that the capture member is formed such that the area in a top view of the portion of the capture member positioned directly below the heat sink is less than 10% of the area in the top view of the heat sink.
A composition comprising recombinant adenovirus particles, wherein the recombinant adenovirus comprises a transgene and is a recombinant human adenovirus of serotype 5, 11a, 26, 34,35,49 or 50, or a recombinant simian adenovirus, characterized in that the genomes of at least 99% of the adenovirus particles in said composition have as the 5' terminal nucleotides the nucleotide sequence: CTATCTAT.
A method of processing video data in a video coding system, comprising: receiving input data associated with a current block in a current picture; determining if the current block is an out-of-bounds node, wherein the out-of-bounds node is a coding tree node of the current picture with a block region across a current picture boundary; determining an inferred splitting type if the current block is an out-of-bounds node; if the current block is an out-of-bounds node, applying the inferred splitting type to split the current block into child blocks, and then adaptively splitting each child block into one or more leaf blocks, and if the current block is not an out-of-bounds node, splitting the current block into one or more leaf blocks; and encoding or decoding the one or more leaf blocks in the current block inside the current picture, wherein the method further comprises determining whether the current block is larger than a predefined size when the current block is an out-of-bounds node, splitting the current block using the inferred splitting type only if the current block is larger than the predefined size, and the current block is not forced to be partitioned by the inferred splitting type if the current block is smaller than or equal to the predefined size, wherein the predefined size is set to be a pipeline unit size, maximum transform size, or a multiple of the maximum transform size. receiving input data associated with a current block in a current picture; determining if the current block is an out-of-bounds node, wherein the out-of-bounds node is a coding tree node of the current picture with a block region across a current picture boundary; determining an inferred splitting type if the current block is an out-of-bounds node; if the current block is an out-of-bounds node, applying the inferred splitting type to split the current block into child blocks, and then adaptively splitting each child block into one or more leaf blocks, and if the current block is not an out-of-bounds node, splitting the current block into one or more leaf blocks; and encoding or decoding the one or more leaf blocks in the current block inside the current picture, wherein the method further comprises determining whether the current block is larger than a predefined size when the current block is an out-of-bounds node, splitting the current block using the inferred splitting type only if the current block is larger than the predefined size, and the current block is not forced to be partitioned by the inferred splitting type if the current block is smaller than or equal to the predefined size, wherein the predefined size is set to be a pipeline unit size, maximum transform size, or a multiple of the maximum transform size.
A video encoding method for predicting pixel values of each target pixel in a target block under a planar mode, the method comprising computer executable steps executed by a processor of a video encoder to implement: generating, when neither horizontal boundary pixels on the upper outside of the target block nor vertical boundary pixels on the left outside of the target block are available for prediction, horizontal generated boundary pixels on the upper outside and vertical generated boundary pixels on the left outside using an assignment P(i, 0) = P(0, j) = (1 << (N b -1)), (1≤ i, j ≤2N), wherein N b represents a bit-depth used for representing pixel values, calculating a first prediction value of each target pixel using linear interpolation between pixel values of the respective horizontal generated boundary pixels, in the same horizontal position as the respective target pixels, on the upper outside of the target block, and a pixel value of the lowermost one of vertical generated boundary pixels neighboring the target block on the left outside of the target block; calculating a second prediction value of each target pixel using linear interpolation between pixel values of the respective vertical generated boundary pixels, in the same vertical position as the respective target pixels, and a pixel value of the rightmost one of the horizontal generated boundary pixels neighboring the target block on the upper outside of the target block; and averaging, for each target pixel, the first prediction value and the second prediction value to derive a prediction pixel value for that target pixel in a prediction block. generating, when neither horizontal boundary pixels on the upper outside of the target block nor vertical boundary pixels on the left outside of the target block are available for prediction, horizontal generated boundary pixels on the upper outside and vertical generated boundary pixels on the left outside using an assignment P(i, 0) = P(0, j) = (1 << (N b -1)), (1≤ i, j ≤2N), wherein N b represents a bit-depth used for representing pixel values, calculating a first prediction value of each target pixel using linear interpolation between pixel values of the respective horizontal generated boundary pixels, in the same horizontal position as the respective target pixels, on the upper outside of the target block, and a pixel value of the lowermost one of vertical generated boundary pixels neighboring the target block on the left outside of the target block; calculating a second prediction value of each target pixel using linear interpolation between pixel values of the respective vertical generated boundary pixels, in the same vertical position as the respective target pixels, and a pixel value of the rightmost one of the horizontal generated boundary pixels neighboring the target block on the upper outside of the target block; and averaging, for each target pixel, the first prediction value and the second prediction value to derive a prediction pixel value for that target pixel in a prediction block.
A rotary piston engine, comprising a) a housing spatially limiting a working chamber, b) an intake connection for guiding gas into the working chamber, c) a pressure connection, connected to the working chamber, for guiding the gas out of the working chamber, d) a rotor assembly having i) a first rotor rotatably arranged in a first working sub-chamber of the working chamber, and ii) a second rotor rotatably arranged in a second working sub-chamber of the working chamber and cooperating with the first rotor, characterised by e) an expansion/ventilation space which extends in the first working sub-chamber and the second working sub-chamber, and f) a ventilation channel, formed in the housing and connected to the working chamber via a ventilation channel opening, both for the expansion and for the ventilation of the expansion/ventilation space. a) a housing spatially limiting a working chamber, b) an intake connection for guiding gas into the working chamber, c) a pressure connection, connected to the working chamber, for guiding the gas out of the working chamber, d) a rotor assembly having i) a first rotor rotatably arranged in a first working sub-chamber of the working chamber, and ii) a second rotor rotatably arranged in a second working sub-chamber of the working chamber and cooperating with the first rotor, characterised by i) a first rotor rotatably arranged in a first working sub-chamber of the working chamber, and ii) a second rotor rotatably arranged in a second working sub-chamber of the working chamber and cooperating with the first rotor, characterised by e) an expansion/ventilation space which extends in the first working sub-chamber and the second working sub-chamber, and f) a ventilation channel, formed in the housing and connected to the working chamber via a ventilation channel opening, both for the expansion and for the ventilation of the expansion/ventilation space.
Screw with a screw head which has a drive, which drive comprises cams that are formed by recesses introduced around the cams, which cams are used to transmit the torque, in which, moreover, on the cam end facing the screw head, a cam has a cam head surface which is inclined with respect to a plane that extends orthogonal to the screw axis, characterized in that the cams, in their radial extension, are arranged and designed such that they center a tool introduced into the screw drive, and the cam head surface has a first surface and a second surface, each of which is inclined in its respective rotational direction and which intersect each other in an intersection line.
An adaptor for coupling with a medical container having a collar closed by a septum, said septum having an outer surface directed towards the outside of the medical container, the adaptor comprising: - a gripping member for securing the adaptor to the medical container, said gripping member being an axial clipping member capable of being axially mounted on the collar of said medical container, - a pierceable elastomeric piece having at least a part intended to be in contact with the outer surface of the septum when said adaptor is secured on said medical container characterized in that the adaptor further comprises a cleaning pad, said cleaning pad being configured to at least partially slide on said outer surface of said septum when the adaptor is being mounted on the medical container. - a gripping member for securing the adaptor to the medical container, said gripping member being an axial clipping member capable of being axially mounted on the collar of said medical container, - a pierceable elastomeric piece having at least a part intended to be in contact with the outer surface of the septum when said adaptor is secured on said medical container
Method for determining a temperature in a pressurized flow path of a gas turbine downstream of a compressor and upstream of a turbine (14, 16) comprising the steps of sending an acoustic signal from an acoustic signal emitting transducer (20, 21) arranged to send an acoustic signal across at least a section of a cross section of the pressurized flow path, detecting the acoustic signal with a receiving transducer (20, 21) arranged to receive the acoustic signal after the acoustic signal crossed the section, measuring the time needed by the acoustic signal to travel from the acoustic signal emitting transducer (20, 21) to the receiving transducer (20, 21), calculating the speed of sound based on the measured traveling time and distance between acoustic signal emitting transducer (20, 21) and the receiving transducer (20, 21), providing a heat capacity ratio (κ) and a specific gas constant (R spec) of the gas flowing in the pressurized flow path, and calculating the temperature of the gas in the section of the pressurized flow path as a function of the speed of sound, the heat capacity ratio (κ) and the specific gas constant (R spec) of the gas flowing in the pressurized flow path.