mhurhangee/patent-ind-claim-en huggingface dataset:
An insulating glass unit comprising at least two parallel glass panes , a space between the at least two parallel glass panes being the interpane space , said at least two parallel glass panes being held structurally together along their perimeters by an edge seal, the edge seal extending along the whole perimeter of the at least two glass panes, whereby the interpane space is sealed from the outside by the edge seal, the edge seal comprising: a first thermoplastic material , and a thermoset plastic material , wherein the first thermoplastic material defines the distance between the at least two glass panes and defines a first layer of the edge seal, the first layer of the edge seal being situated within the interpane space and adhering to the surfaces of the at least two parallel glass panes facing the interpane space, the thermoset plastic material adhering to at least a first glass surface on the two parallel glass panes not facing the interpane space, said first glass surface defining the thickness of each of the two glass panes, the thermoset plastic material defining a second layer of the edge seal, characterized in that the edge seal further comprises a second thermoplastic material , wherein the second thermoplastic material is contacting the first thermoplastic material and defines a third layer of the edge seal between the first layer and the second layer, the third layer of the edge seal being situated within the interpane space and adhering to the surface of the at least two parallel glass panes facing the interpane space, and wherein the thermoset plastic material is contacting the second thermoplastic material . a first thermoplastic material , and a thermoset plastic material , wherein the first thermoplastic material defines the distance between the at least two glass panes and defines a first layer of the edge seal, the first layer of the edge seal being situated within the interpane space and adhering to the surfaces of the at least two parallel glass panes facing the interpane space, the thermoset plastic material adhering to at least a first glass surface on the two parallel glass panes not facing the interpane space, said first glass surface defining the thickness of each of the two glass panes, the thermoset plastic material defining a second layer of the edge seal, characterized in that the edge seal further comprises a second thermoplastic material , wherein the second thermoplastic material is contacting the first thermoplastic material and defines a third layer of the edge seal between the first layer and the second layer, the third layer of the edge seal being situated within the interpane space and adhering to the surface of the at least two parallel glass panes facing the interpane space, and wherein the thermoset plastic material is contacting the second thermoplastic material .
A connection adapter that is designed to mechanically interconnect at least two housings or plug connector housings for receiving electric connecting parts having at least one connection adapter receptacle that corresponds at least partially to the shape of the connection adapter , wherein the connection adapter forms two U-shaped connection adapter parts , wherein two retaining webs with an interposed groove are provided on at least two diametrically opposed outer sides of the connection adapter , which retaining webs provide a receiving space for one housing wall section of each housing in such a way that, when the connection adapter is in the installed state, two of the retaining webs respectively engage behind a housing wall section in the connection adapter receptacles on the housing side, thereby fixing the housings to one another, wherein the connection adapter is composed of a first and a second connection adapter part that are embodied as identical hermaphroditic parts, wherein, in the assembled state, the second connection adapter part interconnects two legs of the first connection adapter part , thereby forming a circumferentially closed cuboid shape with an opening for feeding cable through, characterized in that the two connection adapter parts each have a ramp-like web on one leg which, in the assembled state, extends into a corresponding recess on the respective other connection adapter part . wherein the connection adapter forms two U-shaped connection adapter parts , wherein two retaining webs with an interposed groove are provided on at least two diametrically opposed outer sides of the connection adapter , which retaining webs provide a receiving space for one housing wall section of each housing in such a way that, when the connection adapter is in the installed state, two of the retaining webs respectively engage behind a housing wall section in the connection adapter receptacles on the housing side, thereby fixing the housings to one another, wherein the connection adapter is composed of a first and a second connection adapter part that are embodied as identical hermaphroditic parts, wherein, in the assembled state, the second connection adapter part interconnects two legs of the first connection adapter part , thereby forming a circumferentially closed cuboid shape with an opening for feeding cable through, characterized in that the two connection adapter parts each have a ramp-like web on one leg which, in the assembled state, extends into a corresponding recess on the respective other connection adapter part .
A decorative sheet comprising a base material sheet and at least a surface-protecting layer on the base material sheet , the base material sheet being a thermoplastic resin sheet, the surface-protecting layer having a surface free energy of 40 mJ/m 2 or more, an arithmetic average roughness (Ra0.08) measured on the surface side of the surface-protecting layer at a cutoff value of 0.08 mm with an evaluation length of 0.4 mm by a measurement method in accordance with JIS B0601:2001 being 0.60 μm or less, and a specular glossiness on the surface-protecting layer side of the decorative sheet at an incident angle of 60° being 23 or less. the base material sheet being a thermoplastic resin sheet, the surface-protecting layer having a surface free energy of 40 mJ/m 2 or more, an arithmetic average roughness (Ra0.08) measured on the surface side of the surface-protecting layer at a cutoff value of 0.08 mm with an evaluation length of 0.4 mm by a measurement method in accordance with JIS B0601:2001 being 0.60 μm or less, and a specular glossiness on the surface-protecting layer side of the decorative sheet at an incident angle of 60° being 23 or less.
Polypropylene composition consisting of a polypropylene base resin which is either a polypropylene homopolymer or a random polypropylene copolymer, and modifiers and/or additives in an amount of up to 4 wt.-%, whereby the polypropylene base resin has a MFR (2.16 kg, 230 °C, ISO 1133) of 8 to 24 g/10min and a LAOS-NLF > 2.8 whereby LAOS − NLF = G 1 ′ G 3 ′ where G 1 ′ - first order Fourier Coefficient G 3 ′ - third order Fourier Coefficient and whereby the polypropylene base resin is a monophasic resin, and whereby the polypropylene base resin has a strain hardening factor SHF = η E + t ε ̇ η LVE + t = η E + t ε ̇ 3 η + t of 2.3 to 7.0 when measured at a strain rate of 3.0 s -1 as described in the description, and a Hencky strain of 2.5; and has a F30 melt strength of 4.6 cN or higher when measured according to the Rheotens test and ISO 16790:2005 at 200 °C, wherein η E + t ε ̇ is the uniaxial extensional viscosity; and η LVE + t is three times the time dependent shear viscosity η + ( t ) in the linear range of deformation. where G 1 ′ - first order Fourier Coefficient G 3 ′ - third order Fourier Coefficient of 2.3 to 7.0 when measured at a strain rate of 3.0 s -1 as described in the description, and a Hencky strain of 2.5; and has a F30 melt strength of 4.6 cN or higher when measured according to the Rheotens test and ISO 16790:2005 at 200 °C, wherein η E + t ε ̇ is the uniaxial extensional viscosity; and η LVE + t is three times the time dependent shear viscosity η + ( t ) in the linear range of deformation.
A method performed by a terminal in a communication system, the method comprising: receiving , from a base station, system information for a multimedia broadcast multicast service single frequency network, MBSFN, including information for an area for the MBSFN and information for a Multicast Control Channel, MCCH, related to the area; receiving , from the base station, configuration information for a measurement, the configuration information including target MBSFN area information; performing logging of a measurement result for the target MBSFN area information during both an idle mode and a connected mode based on the configuration information in case that a service corresponding to the target MBSFN area information is received based on the system information; and transmitting , to the base station, the measurement result for to the target MBSFN area information, in case that the terminal has an available logged measurement result related to the configuration information, wherein the measurement result includes a reference signal received power related to the target MBSFN area information, and wherein the reference signal received power is identified based on a reference signal for the service corresponding to the target MBSFN area information. receiving , from a base station, system information for a multimedia broadcast multicast service single frequency network, MBSFN, including information for an area for the MBSFN and information for a Multicast Control Channel, MCCH, related to the area; receiving , from the base station, configuration information for a measurement, the configuration information including target MBSFN area information; performing logging of a measurement result for the target MBSFN area information during both an idle mode and a connected mode based on the configuration information in case that a service corresponding to the target MBSFN area information is received based on the system information; and transmitting , to the base station, the measurement result for to the target MBSFN area information, in case that the terminal has an available logged measurement result related to the configuration information, wherein the measurement result includes a reference signal received power related to the target MBSFN area information, and wherein the reference signal received power is identified based on a reference signal for the service corresponding to the target MBSFN area information.
An apparatus comprising means for performing: - obtaining range finding data comprising a distance and a direction to at least two objects within a predetermined observation area in a direction of a movement of a vehicle, at least a part of the observation area being subdivided into a trajectory segment , which the vehicle will traverse in case the direction of the vehicle is moving in does not change, and a plurality of further segments adjacent to the trajectory segment ; - classifying the at least two objects into at least one of the plurality of further segments , and - determining whether a command to change the direction the vehicle is moving on will cause the vehicle to traverse a segment of the further segments into which one or more of the objects has been classified, characterized in that the classifying comprises classifying the objects at two different distance ranges from the vehicle, the distance ranges comprising a nearer and a farther-away distance range as measured from the vehicle, such that at the farther-away distance range , the trajectory segment covers a smaller portion of the observation area than at the nearer distance range, in that the predetermined observation area being a field of view of a range finding device configured to obtain the range finding data, and in that the range finding device has beams getting farther from each other with increasing distance from the vehicle. - obtaining range finding data comprising a distance and a direction to at least two objects within a predetermined observation area in a direction of a movement of a vehicle, at least a part of the observation area being subdivided into a trajectory segment , which the vehicle will traverse in case the direction of the vehicle is moving in does not change, and a plurality of further segments adjacent to the trajectory segment ; - classifying the at least two objects into at least one of the plurality of further segments , and - determining whether a command to change the direction the vehicle is moving on will cause the vehicle to traverse a segment of the further segments into which one or more of the objects has been classified,
A control device , comprising: an acquirer arranged to acquire weather information expressing weather related to a scheduled landing location at which a landing of an aircraft is scheduled, the weather including (i) a wind speed related to the scheduled landing location or (ii) a wind direction related to the scheduled landing location and the wind speed; a setter arranged to set an alert start condition in accordance with (i) the wind speed expressed in the acquired weather information or (ii) the wind direction and the wind speed that are expressed in the acquired weather information, the alert start condition being a condition corresponding to the weather and being a condition related to a positional relationship between the scheduled landing location and the aircraft ; and a controller arranged to cause an alerter to perform a behavior corresponding to the weather expressed in the acquired weather information, the alerter being arranged to perform an alert related to the landing of the aircraft , the behavior corresponding to the weather including starting the alert at a timing at which the alert start condition is met, wherein: the alert start condition is a condition that a distance between the scheduled landing location and the aircraft becomes less than or equal to a set threshold, and the setter is arranged to set the threshold in accordance with the wind speed related to the scheduled landing location. an acquirer arranged to acquire weather information expressing weather related to a scheduled landing location at which a landing of an aircraft is scheduled, the weather including (i) a wind speed related to the scheduled landing location or (ii) a wind direction related to the scheduled landing location and the wind speed; a setter arranged to set an alert start condition in accordance with (i) the wind speed expressed in the acquired weather information or (ii) the wind direction and the wind speed that are expressed in the acquired weather information, the alert start condition being a condition corresponding to the weather and being a condition related to a positional relationship between the scheduled landing location and the aircraft ; and a controller arranged to cause an alerter to perform a behavior corresponding to the weather expressed in the acquired weather information, the alerter being arranged to perform an alert related to the landing of the aircraft , the behavior corresponding to the weather including starting the alert at a timing at which the alert start condition is met, wherein: the alert start condition is a condition that a distance between the scheduled landing location and the aircraft becomes less than or equal to a set threshold, and the setter is arranged to set the threshold in accordance with the wind speed related to the scheduled landing location. the alert start condition is a condition that a distance between the scheduled landing location and the aircraft becomes less than or equal to a set threshold, and the setter is arranged to set the threshold in accordance with the wind speed related to the scheduled landing location.
A method of operation for a location estimation apparatus communicating with an access point, AP, in a wireless communication system, the method comprising: receiving a first received signal strength indicator, RSSI, signal measured at a first AP via a second AP, and generating a first RSSI vector corresponding to the first RSSI signal; calculating a path loss exponent using a distance between the first AP and the second AP determined based on location of the first AP and the second AP by the location estimation apparatus and the first RSSI vector, and generating a second RSSI vector for each of multiple sub-regions constituting the entire region based on the path loss exponent and the first RSSI vector; generating a radio map for the entire region based on the first RSSI vector and the second RSSI vector, characterized in that the method further comprises generating a third RSSI vector corresponding to a second RSSI signal measured by a wireless device ; and estimating the location of the wireless device in the radio map based on the cosine similarity between the second RSSI vector and the third RSSI vector, wherein generating a second RSSI vector for each sub-region comprises generating the second RSSI vector by adding an offset calculated based on the path loss exponent, a distance between an initial sub-region and the second AP, and a distance between a target sub-region and the second AP, to the first RSSI vector. receiving a first received signal strength indicator, RSSI, signal measured at a first AP via a second AP, and generating a first RSSI vector corresponding to the first RSSI signal; calculating a path loss exponent using a distance between the first AP and the second AP determined based on location of the first AP and the second AP by the location estimation apparatus and the first RSSI vector, and generating a second RSSI vector for each of multiple sub-regions constituting the entire region based on the path loss exponent and the first RSSI vector; generating a radio map for the entire region based on the first RSSI vector and the second RSSI vector, characterized in that the method further comprises generating a third RSSI vector corresponding to a second RSSI signal measured by a wireless device ; and estimating the location of the wireless device in the radio map based on the cosine similarity between the second RSSI vector and the third RSSI vector, wherein generating a second RSSI vector for each sub-region comprises generating the second RSSI vector by adding an offset calculated based on the path loss exponent, a distance between an initial sub-region and the second AP, and a distance between a target sub-region and the second AP, to the first RSSI vector.
An in-flight entertainment system configured to control seat actuation, comprising: an electronic control unit configured to send commands to actuate a passenger seat based on input received via a passenger controlled device; wherein the electronic control unit is configured to receive a flight phase notification directly or through a peripheral controller ; wherein if the flight phase notification indicates a taxi, takeoff and landing phase, the electronic control unit sends a command to disable actuation of the passenger seat; and wherein if the flight phase notification is not received for a predefined time period, the electronic control unit sends a command to disable actuation of the passenger seat. an electronic control unit configured to send commands to actuate a passenger seat based on input received via a passenger controlled device; wherein the electronic control unit is configured to receive a flight phase notification directly or through a peripheral controller ; wherein if the flight phase notification indicates a taxi, takeoff and landing phase, the electronic control unit sends a command to disable actuation of the passenger seat; and wherein if the flight phase notification is not received for a predefined time period, the electronic control unit sends a command to disable actuation of the passenger seat.
Energy supply module (20-1, 20-2) for a vehicle, comprising: at least one energy output terminal (24-1, 24-2), at least one energy storage unit (21-1, 21-2) and at least one output energy supply line (28b-1, 28b-2) to connect the at least one energy storage unit (21-1, 21-2) to the at least one energy output terminal (24-1, 24-2), wherein at least one energy storage switching unit (25-1, 25-2) is arranged in or connected to the output energy supply line (28b-1, 28b-2) between the at least one energy storage unit (21-1, 21-2) and the at least one energy output terminal (24-1, 24-2) and is configured to at least disconnect the at least one energy storage unit (21-1, 21-2) from the at least one energy output terminal (24-1, 24-2), wherein the energy supply module (20-1, 20-2) further comprises at least one energy output switching unit (26-1, 26-2) arranged in or connected to the at least one output energy supply line (28b-1, 28b-2) between the at least one energy storage switching unit (25-1, 25-2) and the at least one energy output terminal (24-1, 24-2) and is configured to at least disconnect the at least one energy output terminal (24-1, 24-2) from the at least one energy storage unit (21-1, 21-2), and wherein the at least one energy output switching unit (26-1, 26-2) is located closer to the at least one energy output terminal (24-1, 24-2) than to the at least one energy storage switching unit (25-1, 25-2). at least one energy output terminal (24-1, 24-2), at least one energy storage unit (21-1, 21-2) and at least one output energy supply line (28b-1, 28b-2) to connect the at least one energy storage unit (21-1, 21-2) to the at least one energy output terminal (24-1, 24-2), wherein at least one energy storage switching unit (25-1, 25-2) is arranged in or connected to the output energy supply line (28b-1, 28b-2) between the at least one energy storage unit (21-1, 21-2) and the at least one energy output terminal (24-1, 24-2) and is configured to at least disconnect the at least one energy storage unit (21-1, 21-2) from the at least one energy output terminal (24-1, 24-2), wherein the energy supply module (20-1, 20-2) further comprises at least one energy output switching unit (26-1, 26-2) arranged in or connected to the at least one output energy supply line (28b-1, 28b-2) between the at least one energy storage switching unit (25-1, 25-2) and the at least one energy output terminal (24-1, 24-2) and is configured to at least disconnect the at least one energy output terminal (24-1, 24-2) from the at least one energy storage unit (21-1, 21-2), and wherein the at least one energy output switching unit (26-1, 26-2) is located closer to the at least one energy output terminal (24-1, 24-2) than to the at least one energy storage switching unit (25-1, 25-2).
A sewable thermoplastic elastomer artificial leather , comprising a base fabric layer and a thermoplastic elastomer surface layer , the base fabric layer comprising a number of yarns , wherein the yarn has a base body and hairs extending from the base body into the thermoplastic elastomer surface layer , the yarn comprises long filaments and short fiber yarns which are joined together by twisting, and based on the total number of the long filaments and the short fiber yarns , the yarn contains the short fiber yarns in a proportion of 30% - 60%.