mhurhangee/patent-ind-claim-en huggingface dataset:
Polyethylene-polypropylene composition, obtainable by blending a) 85.0 to 99.0 wt.-%, based on the overall weight of the polyethylene-polypropylene composition, of a blend (A) comprising i) polypropylene, and ii) polyethylene, wherein the weight ratio of polypropylene to polyethylene is in the range of 3:7 to 7:3, and wherein blend (A) is a recycled material, which is recovered from a waste plastic material derived from post-consumer and/or industrial waste; and b) 1.0 to 15.0 wt.-%, based on the overall weight of the polyethylene-polypropylene composition, of a compatibilizer (B) being a C 2 C 3 C 4 terpolymer having a density determined according to ISO 1183 equal or below 880 kg/m 3 , preferably in the range of 850 to 875 kg/m 3 , more preferably in the range of 855 to 872 kg/m 3 , still more preferably in the range of 860 to 870 kg/m 3 . a) 85.0 to 99.0 wt.-%, based on the overall weight of the polyethylene-polypropylene composition, of a blend (A) comprising i) polypropylene, and ii) polyethylene, wherein the weight ratio of polypropylene to polyethylene is in the range of 3:7 to 7:3, and wherein blend (A) is a recycled material, which is recovered from a waste plastic material derived from post-consumer and/or industrial waste; and i) polypropylene, and ii) polyethylene, wherein the weight ratio of polypropylene to polyethylene is in the range of 3:7 to 7:3, and wherein blend (A) is a recycled material, which is recovered from a waste plastic material derived from post-consumer and/or industrial waste; and wherein the weight ratio of polypropylene to polyethylene is in the range of 3:7 to 7:3, and wherein blend (A) is a recycled material, which is recovered from a waste plastic material derived from post-consumer and/or industrial waste; and b) 1.0 to 15.0 wt.-%, based on the overall weight of the polyethylene-polypropylene composition, of a compatibilizer (B) being a C 2 C 3 C 4 terpolymer having a density determined according to ISO 1183 equal or below 880 kg/m 3 , preferably in the range of 850 to 875 kg/m 3 , more preferably in the range of 855 to 872 kg/m 3 , still more preferably in the range of 860 to 870 kg/m 3 .
Tool changing device for use in conjunction with a movable travelling column of a machining centre for machining a workpiece by means of different tools , with a support arm , which is mounted at one end by means of a pivot bearing , which can be mounted in the machining centre, wherein the support arm has a double gripper with two tool holders at the other end and is pivotable about a vertical pivot axis by means of the pivot bearing so that the tool holders move on a horizontal pivot circle , wherein the two tool holders of the double gripper are arranged offset in the circumferential direction of the pivot circle and are oriented radially outwardly open with respect to the pivot circle , characterized in that, the support arm between the pivot bearing and the double gripper is designed as a U-shaped arc in the Z-direction in the plan view, with a first leg which starts from the pivot bearing and merges into a second leg running in an arc as far as the double gripper , forming an arc-shaped apex .
A torsion testing machine for additively manufactured test articles, comprising: at least one build plate holder configured to allow insertion of and retention of a build plate therein; at least one torsion motor ; at least one torsion shaft configured to operatively connect to the torsion motor , the at least one torsion shaft configured to mate with at least one test article built on and attached to the build plate when the build plate is in the build plate holder , the at least one torsion motor configured to apply a torsion to the at least one test article through the torsion shaft while the build plate is retained in the build plate holder ; and at least one torque sensor operatively connected to the torsion motor to determine a torque applied by the torsion motor to the test article ; characterized in that the torsion shaft includes a lower sleeve socket for receiving a socket head of the test article ; wherein the torsion shaft is configured to removably connect to a motor shaft such that the torsion shaft is configured to allow positioning of the build plate under the torsion motor and to allow the sleeve socket to be slid over the test article before and/or after insertion of the build plate ; wherein the torsion shaft includes an upper socket for receiving the motor shaft , and wherein the upper socket and the motor shaft can interface together via a removable connection, and wherein the removable connection is a ball detent. at least one build plate holder configured to allow insertion of and retention of a build plate therein; at least one torsion motor ; at least one torsion shaft configured to operatively connect to the torsion motor , the at least one torsion shaft configured to mate with at least one test article built on and attached to the build plate when the build plate is in the build plate holder , the at least one torsion motor configured to apply a torsion to the at least one test article through the torsion shaft while the build plate is retained in the build plate holder ; and at least one torque sensor operatively connected to the torsion motor to determine a torque applied by the torsion motor to the test article ; characterized in that the torsion shaft includes a lower sleeve socket for receiving a socket head of the test article ; wherein the torsion shaft is configured to removably connect to a motor shaft such that the torsion shaft is configured to allow positioning of the build plate under the torsion motor and to allow the sleeve socket to be slid over the test article before and/or after insertion of the build plate ; wherein the torsion shaft includes an upper socket for receiving the motor shaft , and wherein the upper socket and the motor shaft can interface together via a removable connection, and wherein the removable connection is a ball detent.
A method for controlling dynamic positioning of a vessel , which vessel comprises an electrical power grid, at least one combustion engine driven power generator (G1, G2), and an energy storage medium, which power grid is arranged to provide power to an electric motor (M, Mn) driving one or more thrusters (Mt) or propellers of the vessel, wherein the control system comprises a control unit arranged with computer programs and hardware configured to: - calculate a Remaining Operation Window time for carrying out dynamic positioning powered by the energy storage medium, characterized in that the control unit is further configured to: - generate and display information comprising a time period for the Remaining Operation Window of dynamic positioning, and in case the Remaining Operation Window time during which the energy storage medium can supply power is not sufficient or below a threshold, - carry out an automatic control action (49a-c) in relation to at least one of a power generator or power consuming device connected to the power grid, wherein the automatic control action is a predetermined rule applied by a control unit in order to increase the Remaining Operation Window, or increase the period of time available for remaining DP operations. - calculate a Remaining Operation Window time for carrying out dynamic positioning powered by the energy storage medium, - generate and display information comprising a time period for the Remaining Operation Window of dynamic positioning, and in case the Remaining Operation Window time during which the energy storage medium can supply power is not sufficient or below a threshold, - carry out an automatic control action (49a-c) in relation to at least one of a power generator or power consuming device connected to the power grid, wherein the automatic control action is a predetermined rule applied by a control unit in order to increase the Remaining Operation Window, or increase the period of time available for remaining DP operations.
Method for encoding digital images or video streams, comprising: - a receiving phase, wherein at least a portion of an image (f) is received; - a graph weights prediction phase, wherein the elements of a weights matrix (W) associated to a graph related to a block of the image, a predicted block, are predicted on the basis of reconstructed, de-quantized and inverse-transformed pixel values of at least one previously coded block, a predictor block, of the image (f), the weights matrix (W) being a matrix comprising elements (w ij ) denoting the level of similarity between a pair of pixels composing said image (f), and said graph comprising vertices and arcs wherein the vertices are the pixels of the image and the arcs connect said pixels; - a graph transform computation phase, wherein the graph Fourier transform of the blocks of the image (f) is performed, obtaining for said blocks a set of coefficients determined on the basis of the predicted weights; - a coefficients quantization phase, wherein said coefficients are quantized; - an output phase wherein a bitstream comprising said transformed and quantized coefficients is transmitted and/or stored. - a receiving phase, wherein at least a portion of an image (f) is received; - a graph weights prediction phase, wherein the elements of a weights matrix (W) associated to a graph related to a block of the image, a predicted block, are predicted on the basis of reconstructed, de-quantized and inverse-transformed pixel values of at least one previously coded block, a predictor block, of the image (f), the weights matrix (W) being a matrix comprising elements (w ij ) denoting the level of similarity between a pair of pixels composing said image (f), and said graph comprising vertices and arcs wherein the vertices are the pixels of the image and the arcs connect said pixels; - a graph transform computation phase, wherein the graph Fourier transform of the blocks of the image (f) is performed, obtaining for said blocks a set of coefficients determined on the basis of the predicted weights; - a coefficients quantization phase, wherein said coefficients are quantized; - an output phase wherein a bitstream comprising said transformed and quantized coefficients is transmitted and/or stored.
A method, performed by a session management network function , of supplying a mobile communication service comprising: configuring nodes along a predicted route; establishing and configuring network paths from access points along the predicted route to a destination node; and changing the state of the nodes depending on the location of the mobile device in order to supply the mobile communication service characterized in that configuring the nodes comprises instantiating and configuring, in advance of a mobile device approaching the serving area of the access points which are associated with the nodes, virtual network functions within the nodes, the instantiated and configured virtual network functions, when activated, acting as local gateways for a plurality of the access points which simultaneously serve the mobile device wherein a plurality of network functions are active concurrently such that multiple access points serve the mobile device at any given time and downlink data is transmitted from the destination node to the local gateways for transmission to the mobile device; and uplink is received by each of the plurality of access points which simultaneously serve the mobile device and forwarded to the destination node via the local gateways, wherein changing the state of the nodes comprises activating, before the mobile device connects to the access points, the instantiated and configured virtual network functions. configuring nodes along a predicted route; establishing and configuring network paths from access points along the predicted route to a destination node; and changing the state of the nodes depending on the location of the mobile device in order to supply the mobile communication service characterized in that configuring the nodes comprises instantiating and configuring, in advance of a mobile device approaching the serving area of the access points which are associated with the nodes, virtual network functions within the nodes, the instantiated and configured virtual network functions, when activated, acting as local gateways for a plurality of the access points which simultaneously serve the mobile device wherein a plurality of network functions are active concurrently such that multiple access points serve the mobile device at any given time and downlink data is transmitted from the destination node to the local gateways for transmission to the mobile device; and uplink is received by each of the plurality of access points which simultaneously serve the mobile device and forwarded to the destination node via the local gateways, wherein changing the state of the nodes comprises activating, before the mobile device connects to the access points, the instantiated and configured virtual network functions.
An assembly for controlling a timepiece including an arbor , an arm securely mounted on a toothed actuating wheel mounted freely rotatable around said arbor and a centralised control block pivoting around the arbor , the centralised control block being configured to actuate said arm in a clockwise direction and in a counter-clockwise direction, said centralised control block comprising: - a first wheel for controlling the arm in the clockwise direction; - a second wheel for controlling the arm in the counterclockwise direction; and - a supply wheel kinematically connected to an independent barrel for motorising the arm ; the first wheel for controlling the arm in the clockwise direction, the second wheel for controlling the arm in the counter-clockwise direction and the feed wheel being integrally connected. - a first wheel for controlling the arm in the clockwise direction; - a second wheel for controlling the arm in the counterclockwise direction; and - a supply wheel kinematically connected to an independent barrel for motorising the arm ;
An upper for an article of footwear , the upper comprising: a first panel of a first material, the first panel having a first texture which has low portions and high portions ; a second panel of a second material, the second panel having a second texture; and an embroidery area (12A; 12B) joining the first panel and second panel , the embroidery area (12A; 12B) having a three-dimensional texture that replicates the first texture extending into the second texture, wherein the first panel and the second panel are structurally joined by first and second threads (56A; 58A) of embroidery included in the embroidery area (12A; 12B), wherein the first threads are positioned directly against major surfaces of the first panel and the second panel , and wherein strands of the first threads extend through the first panel and the second panel and provide a first layer of embroidery, wherein the second threads are positioned directly against the first threads along the major surfaces of the fist panel and the second panel , and wherein strands of the second threads extend through the first threads , the first panel and the second panel and provide a second layer of embroidery, wherein the strands of the second threads partially cover the surfaces of the first threads to provide the three-dimensional texture, and wherein the first threads and the second threads are patterned to replicate the texturing of the low portions and the high portions of the first texture . a first panel of a first material, the first panel having a first texture which has low portions and high portions ; a second panel of a second material, the second panel having a second texture; and an embroidery area (12A; 12B) joining the first panel and second panel , the embroidery area (12A; 12B) having a three-dimensional texture that replicates the first texture extending into the second texture, wherein the first panel and the second panel are structurally joined by first and second threads (56A; 58A) of embroidery included in the embroidery area (12A; 12B), wherein the first threads are positioned directly against major surfaces of the first panel and the second panel , and wherein strands of the first threads extend through the first panel and the second panel and provide a first layer of embroidery, wherein the second threads are positioned directly against the first threads along the major surfaces of the fist panel and the second panel , and wherein strands of the second threads extend through the first threads , the first panel and the second panel and provide a second layer of embroidery, wherein the strands of the second threads partially cover the surfaces of the first threads to provide the three-dimensional texture, and wherein the first threads and the second threads are patterned to replicate the texturing of the low portions and the high portions of the first texture .
Electrical heating device, in particular as a supplementary heater for motor vehicles, with an open housing in which a layered structure with at least one radiator element , at least one heat-generating element with at least one PTC element and at least one spring element holding the layered structure in a pre-biased manner is accommodated, characterized in that the spring element is accommodated displaceably in the housing and has a plurality of spring tabs which are offset with respect to one another in the direction of displacement and with which spring tab accommodations formed by the housing and bearing surfaces provided adjacent thereto and projecting above the spring tab accommodations in the direction of the layered structure are associated, the spring tabs bearing against said bearing surfaces for pre-biasing the layered structure .
A multifunctional shower head, comprising a fixed seat , a driving mechanism , a water diversion plate rotatably connected to the fixed seat and a water diversion body disposed below the water diversion plate , the water diversion body is disposed with a plurality of water diversion holes that are used to connected to the outlet functions of the shower head, the water diversion plate is disposed with an outlet hole , the driving mechanism drives the water diversion plate to rotate with respect to the water diversion body , so that the outlet hole is alternately connected to part of the water diversion holes so as to switch the outlet functions of the shower head, wherein a sealing ring is clamped between the water diversion plate and the fixed seat , the sealing ring defines a separating area on the upper surface of the water diversion plate , each water diversion hole is disposed with an O-ring correspondingly, the bottom surface of the water diversion plate is pressed and contacted to the O-ring , therein the O-rings of the water diversion hole disconnected to the outlet holes define a non-water area on the bottom surface of the water diversion plate , characterized in that the separating area has an equal area with the non-water area, wherein the water diversion plate is further disposed with a passage running through the top and the bottom surface of the water diversion plate .
Haymaking machine of the tedder or windrower type, towed, mounted or semi-mounted, essentially consisting of a frame designed to be connected to a tractor by a hitch or coupling device, comprising at least one support beam and carrying rotors with forks equipped with at least one wheel and driven, in operation, by circular movements about respective substantially vertical axes of rotation, said beam being in one piece or having a segmented constitution with a central segment and at least one folding lateral segment hinged to the central segment, haymaking machine characterised in that it comprises at least one protection means of the surface type which extends mainly in a plane substantially perpendicular to the axes of rotation (X) of the rotors in the working position of the machine , which is fixed relative to the frame in the working phase of the machine and which at least partially covers the front of at least one rotor , preferably all of the rotors .
A precursor protein comprising a cleavable repetitive sequence of desired peptide (Pep) elements and auxiliary peptide (Aux) elements of the general formula (Pep-Aux) x or (Aux-Pep) x where x >1, wherein the Aux elements are identical or different and comprise amino acid sequence elements which impart to the precursor protein self-assembling properties, wherein the Aux element comprises a self-assembling peptide ((SA) element) wherein the SA element comprises at least one of the following sequence motifs: A n (motif 1) (GA) m (motif 2) V n (motif 3) (VA) m (motif 4) (VVAA) o (motif 5) where A is alanine, G is glycine, V is valine, n is an integer from 8 to 12, m is an integer from 4 to 10, and o is an integer from 2 to 6; and the Pep elements are identical or different and comprise the amino acid sequence of identical or different peptide molecules having a sequence length of 5-70 amino acid residues, and the Pep elements are flanked by cleavage sequences which enable the Pep elements to be specifically cleaved out of the precursor protein, wherein the elements Pep and Aux are peptidically linked to one another and the peptidic linkage is chemically cleavable in a specific manner, wherein the cleavage sequences comprise a sequence motif selected from among NG and DP. (Pep-Aux) x or (Aux-Pep) x A n (motif 1) (GA) m (motif 2) V n (motif 3) (VA) m (motif 4) (VVAA) o (motif 5)
A lighting apparatus comprising a laser (2; 102; 202) for emitting a first laser beam (3; 103; 203) and a diffractive reflective element (4; 104, 204), wherein the first laser beam (3;103; 203) and the diffractive reflective element (4;104; 204) are arranged such that the first laser beam (3;103; 203) is reflected by the diffractive reflective element (4;104; 204) for generating a second laser beam (5; 105; 205) being the reflected first laser beam, wherein the diffractive reflective element (4;104; 204) is adapted such that the effective surface area of the second laser beam (5; 105; 205) is larger than the effective surface area of the first laser beam (3;103; 203), wherein the lighting apparatus further comprises a light pattern producing unit for producing a light pattern , wherein the lighting apparatus comprises a casing in which the different elements are arranged and which comprises a window for allowing the second laser beam to leave the casing and wherein the laser , the diffractive reflective element and the light pattern producing unit are arranged such that (i) the first laser beam is influenced by the light pattern producing unit before meeting the diffractive reflective element (4;104; 204), or (ii) the second laser beam meets the light pattern producing unit for producing the light pattern ; and - wherein the diffractive reflective element (4; 104; 204) is adapted to increase the effective surface area of the second laser beam (5; 105; 205) such that the second laser beam (5; 105; 205) is eye safe. the lighting apparatus further comprises a light pattern producing unit for producing a light pattern , wherein the lighting apparatus comprises a casing in which the different elements are arranged and which comprises a window for allowing the second laser beam to leave the casing and wherein the laser , the diffractive reflective element and the light pattern producing unit are arranged such that (i) the first laser beam is influenced by the light pattern producing unit before meeting the diffractive reflective element (4;104; 204), or (ii) the second laser beam meets the light pattern producing unit for producing the light pattern ; and - wherein the diffractive reflective element (4; 104; 204) is adapted to increase the effective surface area of the second laser beam (5; 105; 205) such that the second laser beam (5; 105; 205) is eye safe. - wherein the diffractive reflective element (4; 104; 204) is adapted to increase the effective surface area of the second laser beam (5; 105; 205) such that the second laser beam (5; 105; 205) is eye safe.