mhurhangee/patent-ind-claim-en huggingface dataset:
A reading device comprising: a reader disposed at a scanning position, the reader being configured to read an image formed on a surface of a sheet (P); a movement mechanism configured to move the reader between the scanning position and a separated position away from the scanning position; and a reference plate disposed at a first position facing a reading face of the reader , the reference plate being configured to obtain a reference value to be used when the reader reads the image, wherein the reference plate is configured to rotate around an axis from a second position facing a side of the reader to the first position or from the first position to the second position in conjunction with movement of the reader from the scanning position to the separated position by the movement mechanism or movement of the reader from the separated position to the scanning position, and wherein the reader includes an abutment part contacting the reference plate when the reference plate rotates around the axis , and the abutment part maintains clearance between the reader and the reference plate and wherein the abutment part is a cam follower disposed at a corner where the reading face and the side intersect with each other in the reader . a reader disposed at a scanning position, the reader being configured to read an image formed on a surface of a sheet (P); a movement mechanism configured to move the reader between the scanning position and a separated position away from the scanning position; and a reference plate disposed at a first position facing a reading face of the reader , the reference plate being configured to obtain a reference value to be used when the reader reads the image, wherein the reference plate is configured to rotate around an axis from a second position facing a side of the reader to the first position or from the first position to the second position in conjunction with movement of the reader from the scanning position to the separated position by the movement mechanism or movement of the reader from the separated position to the scanning position, and wherein the reader includes an abutment part contacting the reference plate when the reference plate rotates around the axis , and the abutment part maintains clearance between the reader and the reference plate and wherein the abutment part is a cam follower disposed at a corner where the reading face and the side intersect with each other in the reader .
A fabric, comprising slit films, tapes, or monofilaments, said slit films, tapes, or monofilaments comprising at least 70% by weight of a metallocene-catalyzed polyethylene composition, based on the total weight of the slit films, tapes or monofilaments; wherein said metallocene-catalyzed polyethylene composition comprises: c) at least 45% to at most 75% by weight based on the total weight of the metallocene-catalyzed polyethylene composition of a metallocene-catalyzed polyethylene A, wherein said metallocene-catalyzed polyethylene A has - a density of at most 0.918 g/cm 3 , as measured according to ISO 1183-2:2004 at a temperature of 23 °C; and - a melt index MI2 of at most 4.0 g/10 min, as measured according to ISO 1133:2011 Procedure B at a temperature of 190 °C and a load of 2.16 kg; and d) at least 25% to at most 55% by weight based on the total weight of the metallocene-catalyzed polyethylene composition of a metallocene-catalyzed polyethylene B; wherein said metallocene-catalyzed polyethylene B has - a density as measured according to ISO 1183-2:2004 at a temperature of 23 °C which is higher than the density of said metallocene-catalyzed polyethylene A; and - a melt index MI2 as measured according to ISO 1133:2011 Procedure B at a temperature of 190 °C and a load of 2.16 kg which is higher than the melt index MI2 said metallocene-catalyzed polyethylene A. c) at least 45% to at most 75% by weight based on the total weight of the metallocene-catalyzed polyethylene composition of a metallocene-catalyzed polyethylene A, wherein said metallocene-catalyzed polyethylene A has - a density of at most 0.918 g/cm 3 , as measured according to ISO 1183-2:2004 at a temperature of 23 °C; and - a melt index MI2 of at most 4.0 g/10 min, as measured according to ISO 1133:2011 Procedure B at a temperature of 190 °C and a load of 2.16 kg; and - a density of at most 0.918 g/cm 3 , as measured according to ISO 1183-2:2004 at a temperature of 23 °C; and - a melt index MI2 of at most 4.0 g/10 min, as measured according to ISO 1133:2011 Procedure B at a temperature of 190 °C and a load of 2.16 kg; and d) at least 25% to at most 55% by weight based on the total weight of the metallocene-catalyzed polyethylene composition of a metallocene-catalyzed polyethylene B; wherein said metallocene-catalyzed polyethylene B has - a density as measured according to ISO 1183-2:2004 at a temperature of 23 °C which is higher than the density of said metallocene-catalyzed polyethylene A; and - a melt index MI2 as measured according to ISO 1133:2011 Procedure B at a temperature of 190 °C and a load of 2.16 kg which is higher than the melt index MI2 said metallocene-catalyzed polyethylene A. - a density as measured according to ISO 1183-2:2004 at a temperature of 23 °C which is higher than the density of said metallocene-catalyzed polyethylene A; and - a melt index MI2 as measured according to ISO 1133:2011 Procedure B at a temperature of 190 °C and a load of 2.16 kg which is higher than the melt index MI2 said metallocene-catalyzed polyethylene A.
Polymeric dispersant, which is a copolymer comprising first and second repeating units each carrying a substituent, which second repeating units are N-substituted and optionally further substituted maleimide units, which copolymer is obtainable by: - copolymerizing at least a first monomer being an ethylenically unsaturated monomer and a second monomer chosen from an N-substituted maleimide compound and a maleic anhydride compound, which compounds are optionally substituted at a 2- and/or 3-position, and - converting of at least part of resulting maleic anhydride units to N-substituted maleimide units, in case that the second monomer is maleic anhydride, wherein the second repeating unit comprises a first substituent having a substantially non-polar chain and wherein the first repeating unit comprises a second, more polar substituent that comprises at least one heteroatom chosen from sulphur (S) and oxygen (O). - copolymerizing at least a first monomer being an ethylenically unsaturated monomer and a second monomer chosen from an N-substituted maleimide compound and a maleic anhydride compound, which compounds are optionally substituted at a 2- and/or 3-position, and - converting of at least part of resulting maleic anhydride units to N-substituted maleimide units, in case that the second monomer is maleic anhydride,
A method for establishing a service path in a transport network, wherein the service path passes through an automatically switched optical network, ASON, and at least one edge network, and the method comprises: obtaining , by an ASON first node (D), a service path computation result, wherein the service path comprises the ASON first node (D), an ASON last node (I), and at least one first edge network node (J, L); sending , by the ASON first node (D), a path establishment request message to a downstream node, wherein the path establishment request message carries cross-connection configuration information of the ASON last node (I) and the at least one first edge network node (J, L), wherein cross-connection of the at least one first edge network node (J, L) is configured by the ASON last node (I); and receiving , by the ASON first node, a path establishment response message of the downstream node, wherein the path establishment response message indicates that cross-connection configuration for the ASON last node and the at least one first edge network node is complete. obtaining , by an ASON first node (D), a service path computation result, wherein the service path comprises the ASON first node (D), an ASON last node (I), and at least one first edge network node (J, L); sending , by the ASON first node (D), a path establishment request message to a downstream node, wherein the path establishment request message carries cross-connection configuration information of the ASON last node (I) and the at least one first edge network node (J, L), wherein cross-connection of the at least one first edge network node (J, L) is configured by the ASON last node (I); and receiving , by the ASON first node, a path establishment response message of the downstream node, wherein the path establishment response message indicates that cross-connection configuration for the ASON last node and the at least one first edge network node is complete.
Method for determining a transit time (t t ) of an ultrasonic burst, in particular in an ultrasonic flow meter, said method comprising generating a first transmit signal having a first frequency (f Tx1 ) and detecting a first receive signal , generating a second transmit signal having a second frequency (f Tx2 ) different from said first frequency (f Tx1 ) and detecting a second receive signal , wherein a function of time based on characteristics of the two receive signals is used for determining the transit time, a time in which a predetermined characteristic of said first receive signal satisfies a predetermined condition is determined as a first time (t Z1A ), a time in which a corresponding predetermined characteristic of said second receive signal satisfies said condition is determined as a second time (t Z2A ), a time in which said predetermined characteristic of said first receive signal satisfies said condition later again is determined as a third time (t Z1B ), a time in which said predetermined characteristic of said second receive signal satisfies said condition later again is determined as a fourth time (t Z2B ), a first time difference (D A ) between said second time (t Z2A ) and said first time (t Z1A ) is determined, and a second time difference (D B ) between said fourth time (t Z2B ) and said third time (t Z1B ) is determined, characterized in that said transit time (t t ) is determined using a function of time differences (D n (t n )) over time (t n ), said function comprising at least a pair of said first time difference (D A ) and one of said first time (t Z1A ) and said second time (t Z2A ) and a pair of said second time difference (D B ) and one of said third time (t Z1B ) and said fourth time (t Z2B ).
An image processing device configured for: three-dimensional live imaging of a volume with sequentially acquiring multiple beams such that said three-dimensional live imaging of the volume is performed with a spatial density of said beams; based on anatomy recognition (S510) from said three-dimensional live imaging of the volume , automatically and without need for user intervention, selecting, in response to said three-dimensional live imaging of the volume, one or more portions of said volume; and automatically and without need for user intervention, performing, in response to the selection and with a beam density higher than said spatial density, live imaging of the one or more selected portions; wherein said device is further configured for automatically and without need for user intervention, selectively interrupting the live imaging of the one or more selected portions to re-execute the three-dimensional live imaging of the volume (S508) and, based on the re-executed three-dimensional live imaging of the volume, said recognition, said selecting and said live imaging of the one or more selected portions. three-dimensional live imaging of a volume with sequentially acquiring multiple beams such that said three-dimensional live imaging of the volume is performed with a spatial density of said beams; based on anatomy recognition (S510) from said three-dimensional live imaging of the volume , automatically and without need for user intervention, selecting, in response to said three-dimensional live imaging of the volume, one or more portions of said volume; and automatically and without need for user intervention, performing, in response to the selection and with a beam density higher than said spatial density, live imaging of the one or more selected portions; wherein said device is further configured for automatically and without need for user intervention, selectively interrupting the live imaging of the one or more selected portions to re-execute the three-dimensional live imaging of the volume (S508) and, based on the re-executed three-dimensional live imaging of the volume, said recognition, said selecting and said live imaging of the one or more selected portions.
A method performed by a first communication device , for identifying at least one second communication device providing a resource defined in terms of a semantic representation, each second communication device providing a respective semantic representation, which first communication device and a number of second communication devices operate in a communications network , the method comprising: deciding a target semantic representation, wherein the target semantic representation is related to properties that best can fulfil an actuation need of the first communication device , deciding a threshold related to a tolerated semantic distance between a semantic representation and the target semantic representation, wherein a semantic distance is a way to calculate how related two resources are, sending to one or more network devices in the communications network , a request for identifying any one or more second communication devices out of the number of second communication devices providing a semantic representation having the semantic distance to the target semantic representation which is below the decided threshold, and receiving from any of the one or more network devices , a message identifying the at least one second communication device providing the semantic representation having the semantic distance to the target semantic representation which is below the decided threshold. deciding a target semantic representation, wherein the target semantic representation is related to properties that best can fulfil an actuation need of the first communication device , deciding a threshold related to a tolerated semantic distance between a semantic representation and the target semantic representation, wherein a semantic distance is a way to calculate how related two resources are, sending to one or more network devices in the communications network , a request for identifying any one or more second communication devices out of the number of second communication devices providing a semantic representation having the semantic distance to the target semantic representation which is below the decided threshold, and receiving from any of the one or more network devices , a message identifying the at least one second communication device providing the semantic representation having the semantic distance to the target semantic representation which is below the decided threshold.
A roadway barrier or guard rail system having a post and beam construction wherein said beam is mounted to said post by means of an intervening carriage , said carriage being adapted to slide along said post in the event of a collision, said carriage engaging at least a portion of the outer and/or inner periphery (12.4) of said post to enable sliding movement of said carriage relative to said post , characterised in that : the carriage is prevented from moving down the post by means of a stop or restraint (12.30, 12.40, 12.50), which is separate from and underneath the carriage and abuts the carriage , wherein the carriage is adapted to slide freely along the post in a disconnection direction with only weight of component and a small or minor amount of friction to be overcome which originates from components being in contact, and wherein the post includes means to control the amount of force required to disconnect or allow the carriage to move along the post, wherein the means to control the amount of force required to disconnect or allow the carriage to move along the post comprises at least one upper restraint (12.10, 12.20, 12.60, 12.70, 40, 75.13, 91.13) on the post above the carriage which provides friction shortly after relative movement under collision starts. the carriage is prevented from moving down the post by means of a stop or restraint (12.30, 12.40, 12.50), which is separate from and underneath the carriage and abuts the carriage , wherein the carriage is adapted to slide freely along the post in a disconnection direction with only weight of component and a small or minor amount of friction to be overcome which originates from components being in contact, and wherein the post includes means to control the amount of force required to disconnect or allow the carriage to move along the post, wherein the means to control the amount of force required to disconnect or allow the carriage to move along the post comprises at least one upper restraint (12.10, 12.20, 12.60, 12.70, 40, 75.13, 91.13) on the post above the carriage which provides friction shortly after relative movement under collision starts.
A method for downlink machine type communications, MTC, performed by a base station , wherein a coverage area of the base station is divided into a plurality of zones, and each zone among the plurality of zones has a unique location based address, thereby providing the plurality of zones and a plurality of unique location based addresses, each location based address among the plurality of location based addresses indicating a geographic location, the method comprising: • receiving a data packet from a gateway, the data packet comprising location based addressing information and a predicate, the location based addressing information including a geographic location related to a remote equipment, RE (204A-204D) and the predicate indicating for each RE among a plurality of REs whether the RE is an intended recipient of the data packet (step 606); • selecting a target zone corresponding to the geographic location contained in the received location based addressing information among the plurality of zones into which the coverage area of the base station is divided based on the received location based addressing information (step 608); • determining a radio bearer associated with the target zone ; and • transmitting the data packet on the radio bearer to the plurality of REs (204A-204D) disposed in the target zone (step 610). • receiving a data packet from a gateway, the data packet comprising location based addressing information and a predicate, the location based addressing information including a geographic location related to a remote equipment, RE (204A-204D) and the predicate indicating for each RE among a plurality of REs whether the RE is an intended recipient of the data packet (step 606); • selecting a target zone corresponding to the geographic location contained in the received location based addressing information among the plurality of zones into which the coverage area of the base station is divided based on the received location based addressing information (step 608); • determining a radio bearer associated with the target zone ; and • transmitting the data packet on the radio bearer to the plurality of REs (204A-204D) disposed in the target zone (step 610).
Injection moulding unit configured for processing plastics and other plasticisable materials, having at least one motor which is configured for rotationally moving a screw about a screw axis (A-A), at least one drive which is configured for translationally moving the screw in an axial direction along the screw axis (A-A), independently of the rotational movement of the screw , and at least one force sensor for force measurement and/or for determining a force exerted with respect to the screw of the injection moulding unit , wherein the force sensor is mounted non-rotatably with respect to the rotational movement of the screw and wherein at least one decoupling element is provided which decouples the forces exerted on and/or by the screw in an axial direction along and/or parallel to the screw axis (A-A) from other forces exerted on and/or by the screw , and wherein the force sensor is configured to capture the force exerted on and/or by the screw in an axial direction along and/or parallel to the screw axis (A-A), characterised in that the force sensor measures both a force pulling on the screw and also a force pushing on the screw and in that the injecting shaft , the decoupling element , the bearing element , the screw and/or the injecting body are configured to be effectively rigid.
A ceiling assembly for a vehicle comprising: a one-piece extruded component mountable to a ceiling of a vehicle , wherein in a cross-section through the one-piece extruded component, the one-piece extruded component includes: a vertical wall ; at least one flange extending laterally from the vertical wall , which at least one flange is configured to mount to the ceiling of the vehicle ; at least one cable duct and at least two C-rails that extend vertically below the at least one flange ; and a housing configured to receive a lighting installation therein, wherein in the cross-section: the at least one cable duct includes an opening that faces upwardly; and the at least two C-rails include respective openings facing outwardly of the one-piece extruded component; a translucent cover mountable across an opening to the housing ; and at least one interior paneling configured to mount to at least one of the C-rails in an arrangement in which the at least one interior paneling extends downwardly from the one-piece extruded component along a body shell of an interior room of the vehicle. a one-piece extruded component mountable to a ceiling of a vehicle , wherein in a cross-section through the one-piece extruded component, the one-piece extruded component includes: a vertical wall ; at least one flange extending laterally from the vertical wall , which at least one flange is configured to mount to the ceiling of the vehicle ; at least one cable duct and at least two C-rails that extend vertically below the at least one flange ; and a housing configured to receive a lighting installation therein, wherein in the cross-section: the at least one cable duct includes an opening that faces upwardly; and the at least two C-rails include respective openings facing outwardly of the one-piece extruded component; a vertical wall ; at least one flange extending laterally from the vertical wall , which at least one flange is configured to mount to the ceiling of the vehicle ; at least one cable duct and at least two C-rails that extend vertically below the at least one flange ; and a housing configured to receive a lighting installation therein, wherein in the cross-section: the at least one cable duct includes an opening that faces upwardly; and the at least two C-rails include respective openings facing outwardly of the one-piece extruded component; the at least one cable duct includes an opening that faces upwardly; and the at least two C-rails include respective openings facing outwardly of the one-piece extruded component; a translucent cover mountable across an opening to the housing ; and at least one interior paneling configured to mount to at least one of the C-rails in an arrangement in which the at least one interior paneling extends downwardly from the one-piece extruded component along a body shell of an interior room of the vehicle.