mhurhangee/ep-ind-claims huggingface dataset:
An information processing device comprising: a communication unit that communicates with a first vehicle; and a controller (11, 12, 13) that controls the communication performed by the communication unit; wherein the controller (11, 12, 13) receives, from a second vehicle, position information on the second vehicle and sensor data obtained by sensing space around the second vehicle, and detects objects present around the second vehicle based on the sensor data and the position information, the controller (11, 12, 13) calculates a collision risk between the first vehicle and each of a plurality of objects present in a traveling direction of the first vehicle; the controller (11, 12, 13) determines a transmission order of object information on each of the plurality of the detected objects such that the object information on an object having a higher collision risk is transmitted earlier than the object information on an object having a lower collision risk; and the communication unit transmits the object information to the first vehicle in the transmission order. a communication unit that communicates with a first vehicle; and a controller (11, 12, 13) that controls the communication performed by the communication unit; wherein the controller (11, 12, 13) receives, from a second vehicle, position information on the second vehicle and sensor data obtained by sensing space around the second vehicle, and detects objects present around the second vehicle based on the sensor data and the position information, the controller (11, 12, 13) calculates a collision risk between the first vehicle and each of a plurality of objects present in a traveling direction of the first vehicle; the controller (11, 12, 13) determines a transmission order of object information on each of the plurality of the detected objects such that the object information on an object having a higher collision risk is transmitted earlier than the object information on an object having a lower collision risk; and the communication unit transmits the object information to the first vehicle in the transmission order.
An imaging system, comprising: a light source unit which emits illuminating light to illuminate an object; an illuminating-light transmitting unit which transmits the illuminating light; a timing adjustment unit, which, being placed between the illuminating-light transmitting unit and the object, consists of an optical Fourier mask for generating light with a light spiral pattern so as to vary timing with which rays contained in the illuminating light which has passed through the illuminating-light transmitting unit reach a surface of the object and emits the light with the predetermined pattern generated by the optical Fourier mask; a reflected-light incidence unit upon which reflected light coming from the surface of the object is incident; a light detection unit which temporally breaks down the reflected light incident upon the reflected-light incidence unit, converts the reflected light into an electrical signal, and outputs the electrical signal in sequence; and a signal processing unit which converts the electrical signal outputted in sequence by the light detection unit into pixel information about an optical image on the surface of the object. a light source unit which emits illuminating light to illuminate an object; an illuminating-light transmitting unit which transmits the illuminating light; a timing adjustment unit, which, being placed between the illuminating-light transmitting unit and the object, consists of an optical Fourier mask for generating light with a light spiral pattern so as to vary timing with which rays contained in the illuminating light which has passed through the illuminating-light transmitting unit reach a surface of the object and emits the light with the predetermined pattern generated by the optical Fourier mask; a reflected-light incidence unit upon which reflected light coming from the surface of the object is incident; a light detection unit which temporally breaks down the reflected light incident upon the reflected-light incidence unit, converts the reflected light into an electrical signal, and outputs the electrical signal in sequence; and a signal processing unit which converts the electrical signal outputted in sequence by the light detection unit into pixel information about an optical image on the surface of the object.
Method for monitoring the braking force in a vehicle, the braking system of which comprises a hydraulic vehicle brake and at least one electromechanical braking device with an electric brake motor for producing braking force, wherein the hydraulic braking pressure of the hydraulic vehicle brake and the electric brake motor act at the same time on the same brake piston of a wheel braking device, wherein a fault signal is produced that represents too low a hydraulic braking pressure in the hydraulic vehicle brake if the gradient of the electromechanical increase in braking force or a corresponding variable lies outside a permissible range of values, characterized in that the electromechanical increase in braking force or a corresponding variable in two different wheel braking devices are compared with each other.
A method of push messaging performed by one or more servers, the method comprising: receiving, from a user device, a request to subscribe to a push messaging service; selecting, from a listing of one or more phone numbers included by the one or more servers, a given phone number that is uniquely associated with the user based on the received request, wherein the given phone number differs from a phone number of the user; transmitting, to the user device and in response to receiving the request, a first message that presents visual information at the user device and includes the given phone number; receiving, from the user device, a second message addressed to the given phone number; selecting an additional message that presents additional visual information at the user device based, at least in part, on the second message received from the user device and one or more of a geolocation of the user device, the geolocation of the user device being included in context data of the user device monitored by the one or more servers, or a time of day; and transmitting the additional message to the user device. receiving, from a user device, a request to subscribe to a push messaging service; selecting, from a listing of one or more phone numbers included by the one or more servers, a given phone number that is uniquely associated with the user based on the received request, wherein the given phone number differs from a phone number of the user; transmitting, to the user device and in response to receiving the request, a first message that presents visual information at the user device and includes the given phone number; receiving, from the user device, a second message addressed to the given phone number; selecting an additional message that presents additional visual information at the user device based, at least in part, on the second message received from the user device and one or more of a geolocation of the user device, the geolocation of the user device being included in context data of the user device monitored by the one or more servers, or a time of day; and transmitting the additional message to the user device.
A dielectric ceramic, comprising: a main component, molar ratios α, β, and γ satisfying the following expressions when a composition formula of the main component is represented as αZrO 2 ·βSnO 2 ·γTiO 2: 0.240 ≤ α ≤ 0.470 0.040 ≤ β ≤ 0.200 0.400 ≤ γ ≤ 0.650 α + β + γ = 1; and Mn, a content of Mn in terms of MnO 2 being greater than or equal to 0.01% by mass and less than 0.1% by mass with respect to 100% by mass of the main component, and oxides of Si, Nb, Zn, and Cu, wherein a total content of Si, Nb, Zn, and Cu in terms of SiO 2, Nb 2 O 5, ZnO, and CuO is less than or equal to 0.3% by mass but not including 0% by mass with respect to 100% by mass of the main component. a main component, molar ratios α, β, and γ satisfying the following expressions when a composition formula of the main component is represented as αZrO 2 ·βSnO 2 ·γTiO 2: 0.240 ≤ α ≤ 0.470 0.040 ≤ β ≤ 0.200 0.400 ≤ γ ≤ 0.650 α + β + γ = 1; and Mn, a content of Mn in terms of MnO 2 being greater than or equal to 0.01% by mass and less than 0.1% by mass with respect to 100% by mass of the main component, and oxides of Si, Nb, Zn, and Cu,
A method for processing position assistance data by a mobile device, comprising: receiving virtual access point, VAP, data including a unique identifier for a physical access point, AP, and a list of unique identifiers for one or more virtual APs from a positioning server, the VAP data indicating that the unique identifiers for the one or more virtual APs included on the list identify signals originating from the physical AP, wherein the VAP data comprises: a field representative of an AP base media access control, MAC, address of the physical AP; and an other field representative of an AP MAC address corresponding to a respective virtual AP belonging to the physical AP, wherein the other field repeats a number of times corresponding to a number of virtual APs that belong to the physical AP; and determining a location of the mobile device, wherein the mobile device uses the VAP data to scan only one MAC address per physical AP when determining the location. receiving virtual access point, VAP, data including a unique identifier for a physical access point, AP, and a list of unique identifiers for one or more virtual APs from a positioning server, the VAP data indicating that the unique identifiers for the one or more virtual APs included on the list identify signals originating from the physical AP, wherein the VAP data comprises: a field representative of an AP base media access control, MAC, address of the physical AP; and an other field representative of an AP MAC address corresponding to a respective virtual AP belonging to the physical AP, wherein the other field repeats a number of times corresponding to a number of virtual APs that belong to the physical AP; and a field representative of an AP base media access control, MAC, address of the physical AP; and an other field representative of an AP MAC address corresponding to a respective virtual AP belonging to the physical AP, wherein the other field repeats a number of times corresponding to a number of virtual APs that belong to the physical AP; and determining a location of the mobile device, wherein the mobile device uses the VAP data to scan only one MAC address per physical AP when determining the location.
A sensor device, in particular a laser scanner or a radar sensor, comprising a housing (48a-b), a position sensor for determining an alignment by measuring an orientation with respect to the gravitational field, a display device (46a-d) for displaying an alignment information, and a control and evaluation unit configured to determine an own alignment of the sensor device with the aid of the position sensor, to compare it with a desired alignment and to display a comparison result by means of the display device (46a-d), characterized in that the display device (46a-d) comprises at least three light sources (46a-d) at positions distributed over the housing (48a-b), wherein each light source (46a-d) can assume at least three display states, and in that the control and evaluation unit is configured to display the comparison result by display states of the light sources (46a-d), namely a first display state for correct alignment, a second display state for too low alignment, and a third display state for too high alignment, the display states relating to an axis represented by the position of the displaying light source (46a-d).
An image decoding method comprising: splitting a first block included in an image on the basis of at least one of a split type and/or a split direction of the first block to determine at least one second block from the first block; setting a prediction mode of the at least one second block according to whether or not a size of the determined at least one second block is smaller than or equal to a predetermined size; obtaining a prediction block of a block included in the at least one second block on the basis of the set prediction mode; and reconstructing the block included in the at least one second block on the basis of the prediction block of the block included in the at least one second block, wherein the split type represents one of binary-split, tri-split, and quad-split; the method being characterized in that the setting of the prediction mode comprises forcedly setting an intra mode as the prediction mode instead of an inter mode, if the size of the determined at least one second block is smaller than or equal to the predetermined size. splitting a first block included in an image on the basis of at least one of a split type and/or a split direction of the first block to determine at least one second block from the first block; setting a prediction mode of the at least one second block according to whether or not a size of the determined at least one second block is smaller than or equal to a predetermined size; obtaining a prediction block of a block included in the at least one second block on the basis of the set prediction mode; and reconstructing the block included in the at least one second block on the basis of the prediction block of the block included in the at least one second block, wherein the split type represents one of binary-split, tri-split, and quad-split; the method being characterized in that the setting of the prediction mode comprises forcedly setting an intra mode as the prediction mode instead of an inter mode, if the size of the determined at least one second block is smaller than or equal to the predetermined size.
High-density polyethylene mixed resin particles used as seed particles during seed polymerization, wherein: said seed particles contain a mixed resin of 100 parts by weight of high-density polyethylene and 20 to 100 parts by weight of an ethylene copolymer; said high-density polyethylene has a density of 935 to 960 kg/m 3 as measured by the density gradient tube method in accordance with JIS K6922-1:1998 and a softening temperature of 115 to 130°C as measured in accordance with the method described in JIS K7196: 1991; said ethylene copolymer is a copolymer of an ester-based monomer selected from an acrylic acid alkyl ester and an aliphatic saturated monocarboxylic acid vinyl, and etylene, contains 1 to 20% by weight of an ester-based monomer-derived component, and has a softening temperature of 75 to 110° C, as measured in accordance with the method described in JIS K7196:1991; said acrylic acid alkyl ester is selected from methyl acrylate and ethyl acrylate; and said aliphatic saturated monocarboxylic acid vinyl is selected from vinyl acetate and vinyl propionate. said seed particles contain a mixed resin of 100 parts by weight of high-density polyethylene and 20 to 100 parts by weight of an ethylene copolymer; said high-density polyethylene has a density of 935 to 960 kg/m 3 as measured by the density gradient tube method in accordance with JIS K6922-1:1998 and a softening temperature of 115 to 130°C as measured in accordance with the method described in JIS K7196: 1991; said ethylene copolymer is a copolymer of an ester-based monomer selected from an acrylic acid alkyl ester and an aliphatic saturated monocarboxylic acid vinyl, and etylene, contains 1 to 20% by weight of an ester-based monomer-derived component, and has a softening temperature of 75 to 110° C, as measured in accordance with the method described in JIS K7196:1991; said acrylic acid alkyl ester is selected from methyl acrylate and ethyl acrylate; and said aliphatic saturated monocarboxylic acid vinyl is selected from vinyl acetate and vinyl propionate.
Process for producing polyurethane foams by reaction of component A) containing one or more polyether polyols A1 having a hydroxyl number according to DIN 53240-1:2013-06 of more than 120 mg KOH/g, B) optionally B1) catalysts and/or B2) auxiliary and additive substances, C) water and/or physical blowing agents, with D) di- and/or polyisocyanates essentially consisting of tolylene 2,4-diisocyanate and tolylene 2,6-diisocyanate; wherein production is carried out at an index of 70 to 120, characterized in that production is carried out in the presence of at least one compound E having the following formula: wherein R 1 is an aromatic hydrocarbon radical having at least 5 carbon atoms or a linear, branched, substituted or unsubstituted aliphatic hydrocarbon radical having at least 2 or, if branched, at least 3 carbon atoms; R 2 is a linear, branched, substituted or unsubstituted aliphatic hydrocarbon radical; and n is 1 to 3. component A) containing one or more polyether polyols A1 having a hydroxyl number according to DIN 53240-1:2013-06 of more than 120 mg KOH/g, B) optionally B1) catalysts and/or B2) auxiliary and additive substances, C) water and/or physical blowing agents, with D) di- and/or polyisocyanates essentially consisting of tolylene 2,4-diisocyanate and tolylene 2,6-diisocyanate; wherein production is carried out at an index of 70 to 120, characterized in that production is carried out in the presence of at least one compound E having the following formula: wherein R 1 is an aromatic hydrocarbon radical having at least 5 carbon atoms or a linear, branched, substituted or unsubstituted aliphatic hydrocarbon radical having at least 2 or, if branched, at least 3 carbon atoms; R 2 is a linear, branched, substituted or unsubstituted aliphatic hydrocarbon radical; and n is 1 to 3.
A user equipment, comprising: a receiving unit for receiving identities of network entities of a second network during a handover process of the user equipment from a first network to the second network; and a calculating unit for calculating a set of associated keys for an authentication process to be performed in the second network using the identities of the network entities, wherein the set of associated keys comprises a ciphering key and an integrity protection key, and wherein the calculating unit is configured to calculate the set of associated keys based on a random value used in an authentication process of the first network, a ciphering key used in an authentication process of the first network and an integrity protection key used in an authentication process of the first network. a receiving unit for receiving identities of network entities of a second network during a handover process of the user equipment from a first network to the second network; and a calculating unit for calculating a set of associated keys for an authentication process to be performed in the second network using the identities of the network entities, wherein the set of associated keys comprises a ciphering key and an integrity protection key, and wherein the calculating unit is configured to calculate the set of associated keys based on a random value used in an authentication process of the first network, a ciphering key used in an authentication process of the first network and an integrity protection key used in an authentication process of the first network.
A stent comprising at least one substantially cylindrical stent segment (310, 320, 330) having modified apexes, the modified apexes including first sections, second sections and fixation barbs; and characterised in that the second sections are configured to overlap and restrain the fixation barb on an adjacent apex.
A system for managing a network, the system comprising: a network slice subnet management function associated with a network slice subnet instance, the network slice subnet management function configured to manage operation of the network slice subnet instance; and a network slice management function associated with a network slice instance that includes the network slice subnet instance, the network slice management function configured to: manage operation of the network slice instance, and interact with the network slice subnet management function to manage operation of the network slice subnet instance, characterized by further comprising: a management exposure function operatively connected to the network slice management function, the management exposure function configured to expose, to a customer, a first slice specific management function pertaining to the network slice instance such that the customer can implement management of the network slice instance in accordance with the first slice specific management function, wherein the management exposure function is further configured to expose, to the customer, a second slice specific management function pertaining to the network slice subnet instance, such that the customer can implement management of the network slice subnet instance in accordance with the second slice specific management function. a network slice subnet management function associated with a network slice subnet instance, the network slice subnet management function configured to manage operation of the network slice subnet instance; and a network slice management function associated with a network slice instance that includes the network slice subnet instance, the network slice management function configured to: manage operation of the network slice instance, and interact with the network slice subnet management function to manage operation of the network slice subnet instance, a management exposure function operatively connected to the network slice management function, the management exposure function configured to expose, to a customer, a first slice specific management function pertaining to the network slice instance such that the customer can implement management of the network slice instance in accordance with the first slice specific management function, wherein the management exposure function is further configured to expose, to the customer, a second slice specific management function pertaining to the network slice subnet instance, such that the customer can implement management of the network slice subnet instance in accordance with the second slice specific management function.