mhurhangee/patent-ind-claim-en huggingface dataset:
A communication system comprising at least two mobile structures , each mobile structure comprising: - a base station adapted to establish cellular communication links with mobile communication terminals of a respective mobile structure via a determined radio interface, - a subscriber subscription server adapted to manage security information for authenticationof the mobile communication terminals of the respective mobile structure; - a security management entity adapted to interact with the subscriber subscription server in order to obtain and store security information associated with the mobile communication terminals served by the base station; - at least one link entity adapted to establish a direct mode link with another link entity of the other mobile structure , said link entity having an identification module adapted to store a unique identifier (IMSI#1,IMSI#2) associated with the link entity; - an emulator of the security management entity of the mobile structure, accessible by the link entity and adapted to emulate the interface for accessing the subscriber subscription server of said mobile structure; and, - a proxy module adapted to transport an authentication request from the link entity of the other mobile structure to the emulator of the security management entity of the mobile structure , for the authentication of said link entity of the other mobile structure on the subscriber subscription server of the mobile structure , based on the unique identifier (IMSI#1,IMSI#2) of said link entity of the other mobile structure . - a base station adapted to establish cellular communication links with mobile communication terminals of a respective mobile structure via a determined radio interface, - a subscriber subscription server adapted to manage security information for authenticationof the mobile communication terminals of the respective mobile structure; - a security management entity adapted to interact with the subscriber subscription server in order to obtain and store security information associated with the mobile communication terminals served by the base station; - at least one link entity adapted to establish a direct mode link with another link entity of the other mobile structure , said link entity having an identification module adapted to store a unique identifier (IMSI#1,IMSI#2) associated with the link entity; - an emulator of the security management entity of the mobile structure, accessible by the link entity and adapted to emulate the interface for accessing the subscriber subscription server of said mobile structure; and, - a proxy module adapted to transport an authentication request from the link entity of the other mobile structure to the emulator of the security management entity of the mobile structure , for the authentication of said link entity of the other mobile structure on the subscriber subscription server of the mobile structure , based on the unique identifier (IMSI#1,IMSI#2) of said link entity of the other mobile structure .
An internal combustion engine, comprising: a piston ; and an anodic oxide coating formed at least on a piston top surface (PS') on at least a portion of an aluminum-based wall surface facing a combustion chamber (NS), wherein the anodic oxide coating defines a plurality of nanopores extending substantially in a thickness direction of the anodic oxide coating , a first micropore extending from a surface toward an inside of the anodic oxide coating , and a second micropore present in the inside of the anodic oxide coating ; a surface opening diameter of the nanopores on the surface of the anodic oxide coating is 0 nm or larger and smaller than 30 nm; an inside diameter of the nanopores in the inside of the anodic oxide coating is larger than the surface opening diameter; a film thickness of the anodic oxide coating is 15 μm or larger and 130 μm or smaller; a porosity of the anodic oxide coating is 23% or more; wherein the anodic oxide coating comprises a thin-film portion having the film thickness of 15 μm or larger and 60 μm or smaller disposed in a portion substantially contributing to a formation of a tumble flow in the piston top surface (PS'); and the film thickness of the anodic oxide coating formed on the piston top surface (PS') except for the thin-film portion is larger than 60 μm and 100 μm or smaller. a piston ; and an anodic oxide coating formed at least on a piston top surface (PS') on at least a portion of an aluminum-based wall surface facing a combustion chamber (NS), wherein the anodic oxide coating defines a plurality of nanopores extending substantially in a thickness direction of the anodic oxide coating , a first micropore extending from a surface toward an inside of the anodic oxide coating , and a second micropore present in the inside of the anodic oxide coating ; a surface opening diameter of the nanopores on the surface of the anodic oxide coating is 0 nm or larger and smaller than 30 nm; an inside diameter of the nanopores in the inside of the anodic oxide coating is larger than the surface opening diameter; a film thickness of the anodic oxide coating is 15 μm or larger and 130 μm or smaller; a porosity of the anodic oxide coating is 23% or more; wherein the anodic oxide coating comprises a thin-film portion having the film thickness of 15 μm or larger and 60 μm or smaller disposed in a portion substantially contributing to a formation of a tumble flow in the piston top surface (PS'); and the film thickness of the anodic oxide coating formed on the piston top surface (PS') except for the thin-film portion is larger than 60 μm and 100 μm or smaller.
A rotor blade of a wind energy installation , wherein the rotor blade has a suction side , a pressure side , a rotor blade nose and a rotor blade trailing edge , which extend between a rotor blade root and a rotor blade tip and define a profile of the rotor blade , characterised in that the rotor blade has a noise-optimised profile in a rotor blade end region which noise-optimised profile , starting from an assumed power-optimised profile which is aerodynamically optimised with regard to a power yield of the rotor blade , is modified by the following measure in the rotor blade end region , which comprises the rotor blade tip , in order to reduce the noise emission of the rotor blade : increasing a maximum camber of the profile of the rotor blade in the rotor blade end region starting from a relative blade length (r / R) of 0.92 and shifting, in the direction of the rotor blade trailing edge , a position at which the maximum camber of the profile of the rotor blade is to be found.
An apparatus comprising: a plurality of shader engines (140-143); and a first front end, FE, circuit and at least one second FE circuit , wherein the first FE circuit is configured to schedule geometry workloads for the plurality of shader engines (140-143) in a first mode, and wherein the first FE circuit is configured to schedule geometry workloads for a first subset of the plurality of shader engines and the at least one second FE circuit is configured to schedule geometry workloads for a second subset of the plurality of shader engines in a second mode, the first subset being disjoint from the second subset. a plurality of shader engines (140-143); and a first front end, FE, circuit and at least one second FE circuit ,
Blown film comprising at least 95.0 wt% of a propylene-1-butene random copolymer, the propylene-1-butene random copolymer having a) a melt flow rate (MFR 2 ; 230°C/2.16kg; measured according to ISO 1133) in the range of from 0.5 to below 4.0 g/10 min, b) a 1-butene content in the range of from 2.0 to 15.0 wt% and c) a xylene cold soluble (XCS) fraction measured according to ISO 16152 at 25°C in the range of from 0.10 to 2.80 wt%, d) a molecular weight distribution (Mw/Mn) of less than 4.5 and e) wherein said copolymer is prepared using a single site catalyst, said blown film having i) a tensile modulus, in machine and transverse direction according to ISO 527-3 at 23°C measured on 50 μm blown films, in the range of from 700 to 1800 MPa. a) a melt flow rate (MFR 2 ; 230°C/2.16kg; measured according to ISO 1133) in the range of from 0.5 to below 4.0 g/10 min, b) a 1-butene content in the range of from 2.0 to 15.0 wt% and c) a xylene cold soluble (XCS) fraction measured according to ISO 16152 at 25°C in the range of from 0.10 to 2.80 wt%, d) a molecular weight distribution (Mw/Mn) of less than 4.5 and e) wherein said copolymer is prepared using a single site catalyst, i) a tensile modulus, in machine and transverse direction according to ISO 527-3 at 23°C measured on 50 μm blown films, in the range of from 700 to 1800 MPa.
A liquid formulation based on polyhexamethylene biguanide comprising polyhexamethylene biguanide at a concentration within the range of 0,04%-0,08% (w/v), a buffer system for keeping the pH within the range of 5-6,5, an isotonizing agent for keeping the osmolarity within the range of 270-330 mOsm/Kg, characterized by a molecular weight of polyhexamethylene biguanide within the range of 2,300-6,000 amu and a polydispersion index of the polymer within the range of 1.5-1.9, suitable for ophthalmic administration for use in the treatment of Acanthamoeba keratitis and/or fungal infections.
A computing device comprising: a plurality of vector processors , a first vector processor of the plurality of vector processors to operate on a first array of values, the first vector processor to receive power from a first power island (2002A-2002N); a hardware accelerator to perform a filtering operation on a second array of values, the hardware accelerator to receive power from a second power island (2002A-2002N); a memory fabric including a plurality of memory slices storing the first array of values and the second array of values, the memory fabric in communication with the first vector processor via a first interface and in communication with the hardware accelerator via a second interface; a host processor to cause the memory fabric to provide the first array of values to the first vector processor via the first interface, and to cause the memory fabric to provide the second array of values to the hardware accelerator via the second interface; and a peripheral device coupled to a plurality of input/output (I/O) pins, the peripheral device to provide a communication channel between the first vector processor and an external device, and the peripheral device to emulate functionality of a plurality of standard protocol interfaces via at least some of the plurality of I/O pins. a plurality of vector processors , a first vector processor of the plurality of vector processors to operate on a first array of values, the first vector processor to receive power from a first power island (2002A-2002N); a hardware accelerator to perform a filtering operation on a second array of values, the hardware accelerator to receive power from a second power island (2002A-2002N); a memory fabric including a plurality of memory slices storing the first array of values and the second array of values, the memory fabric in communication with the first vector processor via a first interface and in communication with the hardware accelerator via a second interface; a host processor to cause the memory fabric to provide the first array of values to the first vector processor via the first interface, and to cause the memory fabric to provide the second array of values to the hardware accelerator via the second interface; and a peripheral device coupled to a plurality of input/output (I/O) pins, the peripheral device to provide a communication channel between the first vector processor and an external device, and the peripheral device to emulate functionality of a plurality of standard protocol interfaces via at least some of the plurality of I/O pins.
A method of manufacturing a silicon carbide substrate, comprising the steps of: preparing a plurality of silicon carbide single crystals each having a main surface and a crystal structure of hexagonal crystal, the main surface being inclined by an off angle in an off direction from plane of said hexagonal crystal; and measuring photoluminescence of said main surface of each of said plurality of silicon carbide single crystals; wherein said step of measuring photoluminescence includes the step of passing excitation light from a mercury lamp through a band-pass filter passing light having the wavelength of about 313 nm, and irradiating said main surface with said excitation light having higher energy than band-gap of the hexagonal silicon carbide, and the step of observing emitting regions of photoluminescent light having a wavelength exceeding 650 nm caused by said excitation light; said method further comprising the step of attaining crystal growth of silicon carbide through sublimation method, using as a seed crystal one of said plurality of silicon carbide single crystals of which number of said emitting regions having a dimension of at most 15 μm in a direction perpendicular to said off direction and a dimension in a direction parallel to said off direction not larger than a value obtained by dividing penetration length of said excitation light in the hexagonal silicon carbide by a tangent of said off angle is at most 1 x 10 4 per 1 cm 2 . preparing a plurality of silicon carbide single crystals each having a main surface and a crystal structure of hexagonal crystal, the main surface being inclined by an off angle in an off direction from plane of said hexagonal crystal; and measuring photoluminescence of said main surface of each of said plurality of silicon carbide single crystals; wherein said step of measuring photoluminescence includes the step of passing excitation light from a mercury lamp through a band-pass filter passing light having the wavelength of about 313 nm, and irradiating said main surface with said excitation light having higher energy than band-gap of the hexagonal silicon carbide, and the step of observing emitting regions of photoluminescent light having a wavelength exceeding 650 nm caused by said excitation light; said method further comprising the step of attaining crystal growth of silicon carbide through sublimation method, using as a seed crystal one of said plurality of silicon carbide single crystals of which number of said emitting regions having a dimension of at most 15 μm in a direction perpendicular to said off direction and a dimension in a direction parallel to said off direction not larger than a value obtained by dividing penetration length of said excitation light in the hexagonal silicon carbide by a tangent of said off angle is at most 1 x 10 4 per 1 cm 2 .
A method implemented by base station in a wireless communication network of synchronizing a periodic data transmission, each data transmission of the periodic data transmission comprising a predetermined number of repetitions, said method comprising: sending a first SPS configuration to a user equipment for the periodic data transmission, said SPS configuration including a SPS period and an offset; allocating available SPS resources within the SPS period for the periodic data transmission, wherein a number of SPS resources allocated for the periodic data transmission exceeds the number of repetitions in each data transmission; receiving a data transmission from or sending a data transmission to the user equipment in a first SPS period; determining a new SPS configuration based on a timing of the data transmission to synchronize the SPS period with the periodic data transmission; and sending the new SPS configuration to the user equipment . sending a first SPS configuration to a user equipment for the periodic data transmission, said SPS configuration including a SPS period and an offset; allocating available SPS resources within the SPS period for the periodic data transmission, wherein a number of SPS resources allocated for the periodic data transmission exceeds the number of repetitions in each data transmission; receiving a data transmission from or sending a data transmission to the user equipment in a first SPS period; determining a new SPS configuration based on a timing of the data transmission to synchronize the SPS period with the periodic data transmission; and sending the new SPS configuration to the user equipment .
A recording device comprising: a recording head including multiple nozzles arranged therein to discharge droplets onto a recording medium ; and a recording controller configured to control recording of a recording image, the recording including moving the recording head relative to the recording medium while the droplets are discharged, characterised in that the recording controller is configured to control the recording under conditions that, for pixel data of the recording image that have a prescribed gray scale value or larger, a nozzle duty corresponding to the number of nozzles, included in the multiple nozzles and being able to discharge the droplets per unit area on the recording medium, is smaller than or equal to an upper limit value and that a discharge amount of the droplets discharged per the unit area is variable, the discharge amount being the sum of products of the discharged amount per dot for each dot size and the number of dots generated. a recording head including multiple nozzles arranged therein to discharge droplets onto a recording medium ; and a recording controller configured to control recording of a recording image, the recording including moving the recording head relative to the recording medium while the droplets are discharged, characterised in that the recording controller is configured to control the recording under conditions that, for pixel data of the recording image that have a prescribed gray scale value or larger, a nozzle duty corresponding to the number of nozzles, included in the multiple nozzles and being able to discharge the droplets per unit area on the recording medium, is smaller than or equal to an upper limit value and that a discharge amount of the droplets discharged per the unit area is variable, the discharge amount being the sum of products of the discharged amount per dot for each dot size and the number of dots generated.
A method, comprising: receiving content to be displayed on a device ; receiving an indirect indication of a condition of the device associated with applying a display privacy filter to a presentation of the device; and applying, based on receiving the indirect indication, the display privacy filter to presentations of the content, characterized by the indirect indication comprising determining the device is in a face up position. receiving content to be displayed on a device ; receiving an indirect indication of a condition of the device associated with applying a display privacy filter to a presentation of the device; and applying, based on receiving the indirect indication, the display privacy filter to presentations of the content, characterized by the indirect indication comprising determining the device is in a face up position.
A Diesel Particulate Filter, comprising; a porous ceramic base, the base having a first surface in contact with exhaust from a diesel engine and a second surface in contact with the atmosphere and wherein the first and the second surfaces share an intervening porous wall; and a set of heat tolerant micro-particles, wherein the micro-particles on the order of about 1 microns to about 40 microns across; and a set of heat tolerant colloidal particles, wherein the colloidal particles are on the order of about 1 nm to about 10 nm across, wherein said micro-particles and said colloidal particles are deposited on at least one surface of the porous ceramic base, wherein the colloidal particles comprise between about 1 to about 20 percent of the total amount of micro-particles and colloidal particles, referred to as the washcoat applied to the Filter.
A fan apparatus , comprising: a duct having an opening ; a lift fan mounted in the duct ; a series of louvers (238a-238d) positioned at the opening and each configured to move between an open position, an intermediate position, and a closed position, the louvers (238a-238d) being offset from one another along a fore-to-aft axis ; and wherein the series of louvers (238a-238d) includes a fore louver and an aft louver, and wherein a chord length of the aft louver is greater than a chord length of the fore louver, and wherein, in the intermediate position, the aft louver of the series projects farther out of the duct than the fore louver of the series. a duct having an opening ; a lift fan mounted in the duct ; a series of louvers (238a-238d) positioned at the opening and each configured to move between an open position, an intermediate position, and a closed position, the louvers (238a-238d) being offset from one another along a fore-to-aft axis ; and wherein the series of louvers (238a-238d) includes a fore louver and an aft louver, and wherein a chord length of the aft louver is greater than a chord length of the fore louver, and wherein, in the intermediate position, the aft louver of the series projects farther out of the duct than the fore louver of the series.
A method for managing an instant communication application program, comprising: when an upper-layer Application Processor, AP, side of a mobile terminal is in a standby state, preventing an instant communication application program from sending a heartbeat packet to a network server via the upper-layer AP side ; and when the instant communication application program is replaced by a modem side of the mobile terminal, sending the heartbeat packet of the instant communication application program to the corresponding network server via the modem side of the mobile terminal . when an upper-layer Application Processor, AP, side of a mobile terminal is in a standby state, preventing an instant communication application program from sending a heartbeat packet to a network server via the upper-layer AP side ; and when the instant communication application program is replaced by a modem side of the mobile terminal, sending the heartbeat packet of the instant communication application program to the corresponding network server via the modem side of the mobile terminal .