mhurhangee/patent-ind-claim-en huggingface dataset:
An information processing apparatus connectable to a plurality of networks (Net_A, Net_B, Net_C), comprising: circuitry adapted to determine, when communication data is to be transmitted to a network device (PC, SV, R) connected to the information processing apparatus via at least one of the plurality of networks (Net_A, Net_B, Net_C), a network (Net_A, Net_B, Net_C) of a routing destination of the communication data to be transmitted to the network device, the determination comprising: selecting a registered user of a transmission destination of the communication data from one or more users registered in an address book by an application; determining, based on setting information set for the registered user, a network (Net_A, Net_B, Net_C) associated with the registered user; and setting the network (Net_A, Net_B, Net_C) associated with the registered user as the network (Net_A, Net_B, Net_C) of the routing destination; and transmit the communication data to the network (Net_A, Net_B, Net_C) determined as the routing destination, wherein address information and information specifying the transmission destination of the communication data can be registered in the address book for each registered user via a setting screen displayed on a display of the information processing apparatus or a display of a network device connected to the information processing apparatus . circuitry adapted to determine, when communication data is to be transmitted to a network device (PC, SV, R) connected to the information processing apparatus via at least one of the plurality of networks (Net_A, Net_B, Net_C), a network (Net_A, Net_B, Net_C) of a routing destination of the communication data to be transmitted to the network device, the determination comprising: selecting a registered user of a transmission destination of the communication data from one or more users registered in an address book by an application; determining, based on setting information set for the registered user, a network (Net_A, Net_B, Net_C) associated with the registered user; and setting the network (Net_A, Net_B, Net_C) associated with the registered user as the network (Net_A, Net_B, Net_C) of the routing destination; selecting a registered user of a transmission destination of the communication data from one or more users registered in an address book by an application; determining, based on setting information set for the registered user, a network (Net_A, Net_B, Net_C) associated with the registered user; and setting the network (Net_A, Net_B, Net_C) associated with the registered user as the network (Net_A, Net_B, Net_C) of the routing destination; and transmit the communication data to the network (Net_A, Net_B, Net_C) determined as the routing destination, wherein address information and information specifying the transmission destination of the communication data can be registered in the address book for each registered user via a setting screen displayed on a display of the information processing apparatus or a display of a network device connected to the information processing apparatus .
A sheet manufacturing apparatus comprising: an accumulating unit that causes a defibrated product to accumulate in a dry manner and forms a web; a moisture adding unit that adds moisture from a side of one surface of the formed web such that a moisture content of the web is equal to or more than 12 mass% and equal to or less than 40 mass%; and a heating unit that heats the web to which moisture is added, wherein the heating unit has a first portion that comes in contact with the one surface of the web and a second portion that comes in contact with another surface of the web, characterised in that the heating unit heats the web in a state of a surface temperature of the first portion being higher than a surface temperature of the second portion . an accumulating unit that causes a defibrated product to accumulate in a dry manner and forms a web; a moisture adding unit that adds moisture from a side of one surface of the formed web such that a moisture content of the web is equal to or more than 12 mass% and equal to or less than 40 mass%; and a heating unit that heats the web to which moisture is added, wherein the heating unit has a first portion that comes in contact with the one surface of the web and a second portion that comes in contact with another surface of the web, characterised in that the heating unit heats the web in a state of a surface temperature of the first portion being higher than a surface temperature of the second portion .
A network node for use in a public network, PN, configured to be operable in a presence of a non-public network, NPN, the network node comprising processing circuitry configured to perform at least one of the following: selectively muting (S154) downlink transmissions to the PN when the downlink transmissions would interfere with an uplink transmission of the NPN if the downlink transmissions were not muted; and selectively muting (S156) uplink transmissions of the NPN when the uplink transmissions would interfere with a downlink transmission of the PN, wherein the selective muting is based at least in part on detected interference between the PN and the NPN and whether the PN uses a time division duplex, TDD, configuration that is different than a TDD configuration of the NPN. selectively muting (S154) downlink transmissions to the PN when the downlink transmissions would interfere with an uplink transmission of the NPN if the downlink transmissions were not muted; and selectively muting (S156) uplink transmissions of the NPN when the uplink transmissions would interfere with a downlink transmission of the PN, wherein the selective muting is based at least in part on detected interference between the PN and the NPN and whether the PN uses a time division duplex, TDD, configuration that is different than a TDD configuration of the NPN.
A method of wireless communication, performed by a donor eNodeB , the method comprising: configuring a small cell with activation parameters, the activation parameters including a new carrier type that specifies a reduced periodicity for at least overhead signals, reference signals, or a combination thereof; configuring a user equipment, UE, with time restricted measurements that correspond to the new carrier type and the reduced periodicity; receiving small cell signal measurements from the UE; and initiating an activation sequence in response to the small cell signal measurements. configuring a small cell with activation parameters, the activation parameters including a new carrier type that specifies a reduced periodicity for at least overhead signals, reference signals, or a combination thereof; configuring a user equipment, UE, with time restricted measurements that correspond to the new carrier type and the reduced periodicity; receiving small cell signal measurements from the UE; and initiating an activation sequence in response to the small cell signal measurements.
A digital radio receiver capable of receiving a transmitted digital multiplex of frequency shifted stations having synchronized symbol timing from a digital broadcast system, wherein the receiver is configured to decode the entire multiplex and extract all audio and data services from each independent station signal within the multiplex at once provided that the digital radio receiver is informed all signals are part of the same multiplex with synchronized symbol timing and frequency-shifting, characterized in that the receiver is configured to correct a symbol-to-symbol rotating phase offset within a frequency domain signal constellation resulting from the applied continuous frequency shift on a cyclic orthogonal frequency-division multiplexing for off-frequency stations within the multiplex in order to decode data for each of the stations (A, B, C) present in the multiplex. wherein the receiver is configured to decode the entire multiplex and extract all audio and data services from each independent station signal within the multiplex at once provided that the digital radio receiver is informed all signals are part of the same multiplex with synchronized symbol timing and frequency-shifting, characterized in that the receiver is configured to correct a symbol-to-symbol rotating phase offset within a frequency domain signal constellation resulting from the applied continuous frequency shift on a cyclic orthogonal frequency-division multiplexing for off-frequency stations within the multiplex in order to decode data for each of the stations (A, B, C) present in the multiplex.
A wireless communication method, comprising: receiving, by a user equipment, UE, a radio resource control, RRC, signaling message from a base station, wherein the RRC signaling message configures a type of subframe for transmitting uplink traffic on a first carrier for a master cell group only, wherein the first carrier is configured as a carrier of the master cell group in a dual connectivity scenario, wherein the master cell group uses a Long Term Evolution , LTE, access technology; transmitting, by the UE at a first time in time domain, a first uplink traffic on the first carrier using a subframe corresponding to the configured type of subframe without simultaneously transmitting a second uplink traffic on a second carrier for a secondary cell group, wherein a guaranteed power is allocated to the first carrier for the first uplink traffic, wherein the secondary cell group uses a New Radio, NR, access technology. receiving, by a user equipment, UE, a radio resource control, RRC, signaling message from a base station, wherein the RRC signaling message configures a type of subframe for transmitting uplink traffic on a first carrier for a master cell group only, wherein the first carrier is configured as a carrier of the master cell group in a dual connectivity scenario, wherein the master cell group uses a Long Term Evolution , LTE, access technology; transmitting, by the UE at a first time in time domain, a first uplink traffic on the first carrier using a subframe corresponding to the configured type of subframe without simultaneously transmitting a second uplink traffic on a second carrier for a secondary cell group, wherein a guaranteed power is allocated to the first carrier for the first uplink traffic, wherein the secondary cell group uses a New Radio, NR, access technology.
A light-transmitting leather , comprising a skin layer and a paint layer , the skin layer comprising a first face facing the paint layer and a second face facing away from the paint layer , wherein the light-transmitting leather is provided with multiple light transmission holes which run through the second face but do not run through the first face , the multiple light transmission holes comprise at least one first light transmission hole and at least one second light transmission hole , and the distance from the first light transmission hole to the first face is not equal to the distance from the second light transmission hole to the first face , the first light transmission hole and the second light transmission hole are arranged adjacently characterized in that the visible light transmittance of the skin layer is 3 - 10%, and the distances from the first light transmission hole and the second light transmission hole to the first face are both 0.05 - 0.2 mm.
A method comprising: (a) receiving a 7xxx aluminum alloy sheet, wherein the 7xxx aluminum alloy sheet comprises a surface oxide layer; (i) wherein the surface oxide layer comprises an as-received thickness; (ii) wherein the surface oxide layer comprises magnesium oxides and aluminum oxides; (iii) wherein the 7xxx aluminum alloy sheet comprises copper-bearing intermetallic particles at least proximal the surface oxide layer; (b) reducing the as-received thickness of the surface oxide layer to a preparation thickness, wherein the reducing comprises contacting the surface oxide layer with a preparation solution for a time sufficient to reduce the as-received thickness to the preparation thickness, wherein the reducing comprises both (i) and (iii), both (ii) and (iii), or all of (i), (ii), and (iii) of: (i) reducing a volume fraction of the magnesium oxides of the surface oxide layer; (ii) increasing a volume fraction of the aluminum oxides of the surface oxide layer; and (iii) maintaining a volume fraction of the copper-bearing intermetallic particles proximal the surface oxide layer; (c) after the reducing step, creating a functional layer bonded to the 7xxx aluminum alloy sheet. (a) receiving a 7xxx aluminum alloy sheet, wherein the 7xxx aluminum alloy sheet comprises a surface oxide layer; (i) wherein the surface oxide layer comprises an as-received thickness; (ii) wherein the surface oxide layer comprises magnesium oxides and aluminum oxides; (iii) wherein the 7xxx aluminum alloy sheet comprises copper-bearing intermetallic particles at least proximal the surface oxide layer; (i) wherein the surface oxide layer comprises an as-received thickness; (ii) wherein the surface oxide layer comprises magnesium oxides and aluminum oxides; (iii) wherein the 7xxx aluminum alloy sheet comprises copper-bearing intermetallic particles at least proximal the surface oxide layer; (b) reducing the as-received thickness of the surface oxide layer to a preparation thickness, wherein the reducing comprises contacting the surface oxide layer with a preparation solution for a time sufficient to reduce the as-received thickness to the preparation thickness, wherein the reducing comprises both (i) and (iii), both (ii) and (iii), or all of (i), (ii), and (iii) of: (i) reducing a volume fraction of the magnesium oxides of the surface oxide layer; (ii) increasing a volume fraction of the aluminum oxides of the surface oxide layer; and (iii) maintaining a volume fraction of the copper-bearing intermetallic particles proximal the surface oxide layer; (i) reducing a volume fraction of the magnesium oxides of the surface oxide layer; (ii) increasing a volume fraction of the aluminum oxides of the surface oxide layer; and (iii) maintaining a volume fraction of the copper-bearing intermetallic particles proximal the surface oxide layer; (c) after the reducing step, creating a functional layer bonded to the 7xxx aluminum alloy sheet.
A cargo bike transport carrier, comprising a bottom element , two mutually opposite side walls , a rear wall , and a front wall , wherein the cargo bike transport carrier comprises at least two plastic parts, wherein the first plastic part comprises at least one side wall and the second plastic part comprises at least the second side wall , characterized in that on the inside of the side walls reinforcing ribs are provided. a bottom element , two mutually opposite side walls , a rear wall , and a front wall , wherein the cargo bike transport carrier comprises at least two plastic parts, wherein the first plastic part comprises at least one side wall and the second plastic part comprises at least the second side wall , characterized in that on the inside of the side walls reinforcing ribs are provided.
Device for determining the position of an object movable relative to a vehicle , wherein at least one vehicle-side communication unit is arranged on the exterior of the vehicle and communicates with at least one object-side communication unit via radio waves, and wherein the at least one vehicle-side communication unit is coupled to a data processing unit which is designed to determine the position of the object relative to a coordinate system fixed to the vehicle on the basis of the communication signals, wherein the communication units are designed as distance measuring communication units to determine the distance between themselves by determining the time-of-flight (TOF), and the data processing unit is designed to determine the position of the object in the coordinate system from at least two distance values determined by means of the communication between at least three communication units by means of trilateration, wherein the object is a navigable topography, and a number of communication beacons are arranged spaced apart, characterized in that the communication beacons are connected to a data storage device which comprises metadata regarding the location description of the topography, and the communication beacons can be controlled, during the communication with at least one vehicle-side communication unit , to transmit the metadata to the same.
Process for the adjustment of backlash between a pinon and a rack in a rack-pinion drive, a motor being operatively connected to the pinion via a gearbox, a motor-gearbox assembly including the motor and the gearbox being supported on a carrier via a positioning mechanism for precisely positioning the assembly in a radial position relative to the rack , the process comprising the following steps: a) positioning the assembly in a first radial distance relative to the rack , using the positioning mechanism ; b) determining a first circumferential backlash between the pinon and the rack at a first position of the pinion along the rack , based on measurements taken on an input side of the gearbox; c) positioning the assembly and/or the rack in a second position of the pinion along the rack , different from the first position; d) determining a second circumferential backlash between the pinon and the rack at the second position, based on measurements taken on the input side of the gearbox; e) determining a minimal circumferential backlash from the determined first circumferential backlash and the determined second circumferential backlash; f) determining a radial adjustment distance based on the determined minimal circumferential backlash; and g) repositioning the motor-gearbox assembly in a radial direction, towards the rack , by the determined radial adjustment distance, using the positioning mechanism . a) positioning the assembly in a first radial distance relative to the rack , using the positioning mechanism ; b) determining a first circumferential backlash between the pinon and the rack at a first position of the pinion along the rack , based on measurements taken on an input side of the gearbox; c) positioning the assembly and/or the rack in a second position of the pinion along the rack , different from the first position; d) determining a second circumferential backlash between the pinon and the rack at the second position, based on measurements taken on the input side of the gearbox; e) determining a minimal circumferential backlash from the determined first circumferential backlash and the determined second circumferential backlash; f) determining a radial adjustment distance based on the determined minimal circumferential backlash; and g) repositioning the motor-gearbox assembly in a radial direction, towards the rack , by the determined radial adjustment distance, using the positioning mechanism .
Domestic appliance, in particular a water-conducting domestic appliance, which has an appliance housing which provides an appliance space , the appliance housing having a feed opening for access to the appliance space , which domestic appliance also has an appliance door mounted rotatably about a pivot axis for closing the feed opening , which domestic appliance also has a motor unit which is operatively connected to the appliance door and by means of which the appliance door can be transferred from an open position into a closed position which closes the feed opening , and which domestic appliance also has a coupling device arranged between the motor unit and the appliance door , which coupling device is operatively connected to the motor unit on the drive side and to the appliance door on the output side, the coupling device having a first coupling which is designed to be switchable and can be transferred from an uncoupled position to a coupled position and vice versa, characterised in that the first coupling is configured to effect an automatic switching from the uncoupled position to the coupled position when the motor unit is in operation, and in that the coupling device has a second coupling which is designed as an overload coupling.
A method for determining a quantity of available resources of a production computing infrastructure, said quantity of available resources guaranteeing a predetermined level of user experience associated with a computer application , the application being intended to enter production on said production infrastructure, the method comprising the following steps: - determining an initial quantity of resources , greater than or equal to an average quantity of resources consumed on the production infrastructure - A: consuming the initial quantity of resources of a testing infrastructure on which the application is installed by running at least one program installed on the testing infrastructure , triggering operations that consume the resources of the infrastructure - B: running a load testing scenario, during which a plurality of queries (R1, ...Rq) are sent to the application installed on the testing infrastructure - C: measuring a parameter quantifying user experience, based on a scenario report comprising data related to responses (R'1, ...R'q) to said queries (R1, ...Rq) - D: if the measured parameter is less than the predetermined level of user experience: decreasing the consumption of the resources of the testing infrastructure , then repeat steps B, C, and D - E: calculating the quantity of available resources that guarantee the predetermined level of user experience, based on a quantity of consumed resources for which the measured parameter is greater than or equal to the predetermined level of user experience, and on a total quantity of production infrastructure resources. - determining an initial quantity of resources , greater than or equal to an average quantity of resources consumed on the production infrastructure - A: consuming the initial quantity of resources of a testing infrastructure on which the application is installed by running at least one program installed on the testing infrastructure , triggering operations that consume the resources of the infrastructure - B: running a load testing scenario, during which a plurality of queries (R1, ...Rq) are sent to the application installed on the testing infrastructure - C: measuring a parameter quantifying user experience, based on a scenario report comprising data related to responses (R'1, ...R'q) to said queries (R1, ...Rq) - D: if the measured parameter is less than the predetermined level of user experience: decreasing the consumption of the resources of the testing infrastructure , then repeat steps B, C, and D - E: calculating the quantity of available resources that guarantee the predetermined level of user experience, based on a quantity of consumed resources for which the measured parameter is greater than or equal to the predetermined level of user experience, and on a total quantity of production infrastructure resources.