mhurhangee/patent-ind-claim-en huggingface dataset:
An organic light-emitting display apparatus , comprising: a substrate including a plurality of pixel areas (PA1, PA2, PA3) and non-pixel areas (NPA) in a display area (DA); a plurality of pixel electrodes respectively corresponding to the plurality of pixel areas; a pixel-defining layer including a cover portion and openings (OP1), wherein the cover portion covers an edge region of each of the plurality of pixel electrodes, and each of the openings exposes a central portion of a pixel electrode among the plurality of pixel electrodes; an auxiliary electrode located such that the auxiliary electrode corresponds to at least a portion of a top surface of the cover portion; and an intermediate layer and a counter electrode , each located in the openings, wherein the pixel-defining layer has an under-cut structure in which the at least a portion of the top surface of the cover portion is recessed from the auxiliary electrode; wherein a portion of the intermediate layer extends along a side surface of an opening of the pixel-defining layer and a portion of the intermediate layer extends over the auxiliary electrode. a substrate including a plurality of pixel areas (PA1, PA2, PA3) and non-pixel areas (NPA) in a display area (DA); a plurality of pixel electrodes respectively corresponding to the plurality of pixel areas; a pixel-defining layer including a cover portion and openings (OP1), wherein the cover portion covers an edge region of each of the plurality of pixel electrodes, and each of the openings exposes a central portion of a pixel electrode among the plurality of pixel electrodes; an auxiliary electrode located such that the auxiliary electrode corresponds to at least a portion of a top surface of the cover portion; and an intermediate layer and a counter electrode , each located in the openings, wherein the pixel-defining layer has an under-cut structure in which the at least a portion of the top surface of the cover portion is recessed from the auxiliary electrode; wherein a portion of the intermediate layer extends along a side surface of an opening of the pixel-defining layer and a portion of the intermediate layer extends over the auxiliary electrode.
An apparatus, comprising: at least one coherent multi-junction laser diode configured to produce an output beam ; a fast axis collimator situated to collimate the output beam along a fast axis; and a slow axis collimator situated to collimate the output beam along a slow axis; and characterized by further comprising a phase compensation area that produces a 180 degree phase shift between beam portions so as to produce a symmetric mode from an asymmetric mode. at least one coherent multi-junction laser diode configured to produce an output beam ; a fast axis collimator situated to collimate the output beam along a fast axis; and a slow axis collimator situated to collimate the output beam along a slow axis; and characterized by further comprising a phase compensation area that produces a 180 degree phase shift between beam portions so as to produce a symmetric mode from an asymmetric mode.
A method of operating a checked bag reconciliation area , said method including: transporting a luggage item from an entrance mechanism to one of a plurality of inspection stations , wherein transporting a luggage item from an entrance mechanism to one of a plurality of inspection stations includes transporting the luggage item to the inspection station with the luggage item disposed on a search table of an automatic guided vehicle ; conducting an inspection of the luggage item at the inspection station , wherein conducting an inspection of the luggage item includes conducting the inspection of the luggage item while the luggage item is disposed on the search table of the automatic guided vehicle ; programming at least one bag ID into a control system , wherein the bag ID includes information related to the at least one luggage item and further includes information related to at least one of: flight departure time, flight destination, and a risk based security level that corresponds with the luggage item ; and determining an inspection station to transport the luggage item to based on the bag ID, and transmitting instructions to the automatic guided vehicle from the control system to transport the luggage item to the determined inspection station , wherein transporting a luggage item from an entrance mechanism to one of a plurality of inspection stations includes transporting the luggage item to the determined inspection station . transporting a luggage item from an entrance mechanism to one of a plurality of inspection stations , wherein transporting a luggage item from an entrance mechanism to one of a plurality of inspection stations includes transporting the luggage item to the inspection station with the luggage item disposed on a search table of an automatic guided vehicle ; conducting an inspection of the luggage item at the inspection station , wherein conducting an inspection of the luggage item includes conducting the inspection of the luggage item while the luggage item is disposed on the search table of the automatic guided vehicle ; programming at least one bag ID into a control system , wherein the bag ID includes information related to the at least one luggage item and further includes information related to at least one of: flight departure time, flight destination, and a risk based security level that corresponds with the luggage item ; and determining an inspection station to transport the luggage item to based on the bag ID, and transmitting instructions to the automatic guided vehicle from the control system to transport the luggage item to the determined inspection station , wherein transporting a luggage item from an entrance mechanism to one of a plurality of inspection stations includes transporting the luggage item to the determined inspection station .
A blade comprising: an airfoil including a base and a free, tip end , the tip end including at least one porous, abradable element , characterised in that : the at least one porous, abradable element includes a random array of pores that form a closed porosity.
Cleaning system comprising a base station for an automatically movable domestic appliance for cleaning and care of floor surfaces, the base station having a housing , the housing having an interface for coupling to the domestic appliance , the interface forming a suction channel between the base station and the domestic appliance , the base station having a fan for generating a negative pressure for taking dirt from the domestic appliance into the base station by means of an air flow via the suction channel , the cleaning system having at least one separation and collection module for separating dirt from the air flow, it being possible for the separation and collection module to be coupled to the housing of the base station , characterised in that the cleaning system has at least one first separation and collection module , which can be coupled and has a first separation system for removing dirt from the air flow, and at least one second separation and collection module , which can be coupled and has a second separation system, different from the first separation system, for removing dirt from the air flow.
A cooking appliance with at least one carrying plate adapted to receive cookware placed thereon, in particular a cooking hob with a top plate, and at least one sensing means for the detection of vibration generated when food to be cooked and/or cooking adjuvant inside of the cookware is heated up, the food to be cooked and/or cooking adjuvant in particular being a cooking liquid, wherein a vibration sensor is, in particular detachably, attached to the carrying plate by way of fixation means which prevent relative movement between the vibration sensor and the carrying plate , in particular in the direction towards and/or away from each other, characterized in that the fixation means comprise a first rigid frame part , particularly a plastic frame part, the first rigid frame part being rigidly connected to the carrying plate , wherein the vibration sensor, particularly the electronic circuit board comprising the vibration sensor, is bordered on all sides by the first rigid frame part . the fixation means comprise a first rigid frame part , particularly a plastic frame part, the first rigid frame part being rigidly connected to the carrying plate , wherein the vibration sensor, particularly the electronic circuit board comprising the vibration sensor, is bordered on all sides by the first rigid frame part .
A system for recovering an aircraft using at least one recovering dolley , which has a transport platform for accommodating a landing gear of the aircraft, characterized in that the system comprises at least one axle lifting device , at least one shifting plate and at least one carriage , wherein the axle lifting device has at least one bearing element that may be lifted and lowered for the accommodation adjustable in height of at least one axle of the landing gear and wherein the shifting plate has a shifting platform arranged in the operational position essentially on the same level with and adjacent to the transport platform of the recovering dolly , wherein the carriage is configured to accommodate at least one wheel arranged at an axle accommodated by the bearing element of the axle lifting device and may be shifted from the shifting platform of the shifting plate onto the transport platform of the recovering dolly .
A terminal access method, comprising: determining, by a terminal, according to a value within an Enhanced Access Barring, EAB, parameter corresponding to an Access Class, AC, configured by a system, whether to allow access of the terminal corresponding to the AC; when the corresponding AC is determined to be not barred according to the EAB parameter, then, according to a common Access Class Barring, ACB, parameter broadcasted by the system, performing access allowed judgment.
A method for beamforming training of a multi-antenna system using a baseband module, comprising: sending a triggering message to a plurality of radio frequency, RF, modules to initiate beamforming training; obtaining , from each of the plurality of RF modules, a first information regarding detection of one or more pilot signals via at least one antenna element at a respective one of the plurality of RF modules, wherein the first information is obtained via a beam refinement phase, BRP, report; processing the first information obtained from the plurality of RF modules to generate a second information to synchronize the plurality of RF modules; and providing the second information to the plurality of RF modules. sending a triggering message to a plurality of radio frequency, RF, modules to initiate beamforming training; obtaining , from each of the plurality of RF modules, a first information regarding detection of one or more pilot signals via at least one antenna element at a respective one of the plurality of RF modules, wherein the first information is obtained via a beam refinement phase, BRP, report; processing the first information obtained from the plurality of RF modules to generate a second information to synchronize the plurality of RF modules; and providing the second information to the plurality of RF modules.
A mobile power generation apparatus on railway, comprising a casing , two sets of diesel generator sets , an oil fuel device , a fire-fighting system , an electric device and two air exhaust devices ; wherein the two sets of diesel generator sets , the oil fuel device , the fire-fighting system , the electric device and the two air exhaust devices are all disposed in a cavity of the casing ; the casing comprises an underframe component , two end wall components , two side wall components and an upper cover ; characterised in that an oil tank fixed on a bottom plate of the underframe component by bolts has a U-shaped cross section, and the oil tank comprises a bottom oil tank , a left oil tank disposed on a left side of a top surface of the bottom oil tank and communicated with the bottom oil tank , and a right oil tank disposed on a right side of the top surface of the bottom oil tank and communicated with the bottom oil tank ; a U-shaped cavity is enclosed by an inner vertical surface of the left oil tank , an inner vertical surface of the right oil tank and the top surface of the bottom oil tank ; and a distance from a top plate of the oil tank to an inner top of the casing is 1/3 to 1/2 of a height of the oil tank . wherein the two sets of diesel generator sets , the oil fuel device , the fire-fighting system , the electric device and the two air exhaust devices are all disposed in a cavity of the casing ; the casing comprises an underframe component , two end wall components , two side wall components and an upper cover ; characterised in that an oil tank fixed on a bottom plate of the underframe component by bolts has a U-shaped cross section, and the oil tank comprises a bottom oil tank , a left oil tank disposed on a left side of a top surface of the bottom oil tank and communicated with the bottom oil tank , and a right oil tank disposed on a right side of the top surface of the bottom oil tank and communicated with the bottom oil tank ; a U-shaped cavity is enclosed by an inner vertical surface of the left oil tank , an inner vertical surface of the right oil tank and the top surface of the bottom oil tank ; and a distance from a top plate of the oil tank to an inner top of the casing is 1/3 to 1/2 of a height of the oil tank .
Method for estimating a clock skew between a transmitter and a receiver during a transmission over a communication channel of a second communication signal resulting from an application to a first communication signal of a spread-spectrum technique using a signal, called spreading signal, characterized in that the method comprises the following steps executed by a device following the reception of said second signal by the receiver: obtaining at least one signal, called orthogonal spreading signal, orthogonal to the spreading signal; for each orthogonal spreading signal obtained, applying said obtained orthogonal spreading signal to the second signal received by the receiver so as to obtain a third signal; obtaining an estimate of a ratio of energy per bit to power spectral density of a communication noise that has affected the second signal during its transmission on the basis of each third signal; and, estimating an item of information representative of the clock skew between the transmitter and the receiver according to the estimate of said ratio.
A programmable neuron output block for generating an output of a neural network memory array, comprising: one or more nodes for receiving current from a neural network memory array in response to inputs applied to rows of the neural network memory array; and a gain configuration circuit for receiving a gain configuration signal and applying a gain factor to the received current in response to the gain configuration signal to generate an output, wherein the gain configuration signal depends on values of the inputs applied to rows of the neural network memory array. one or more nodes for receiving current from a neural network memory array in response to inputs applied to rows of the neural network memory array; and a gain configuration circuit for receiving a gain configuration signal and applying a gain factor to the received current in response to the gain configuration signal to generate an output, wherein the gain configuration signal depends on values of the inputs applied to rows of the neural network memory array.
A battery module (20-1 to 20-n) that is configured to wirelessly communicate with an upper-level Battery Management System, BMS, and is configured to be inserted into at least one battery module mounting part (50-1 to 50-n) formed in a battery rack , the battery module (20-1 to 20-n) comprising: a pressure detection unit provided on a predetermined surface part of the battery module (20-1 to 20-n) and configured to detect a pressure applied to the predetermined surface part and output a pressure value; a wireless communication unit configured to transmit a pressure detection signal including the pressure value to the upper-level BMS through wireless communication; and a control unit configured to set and register a received ID information as its own ID when the ID information automatically assigned from the upper-level BMS is received. a pressure detection unit provided on a predetermined surface part of the battery module (20-1 to 20-n) and configured to detect a pressure applied to the predetermined surface part and output a pressure value; a wireless communication unit configured to transmit a pressure detection signal including the pressure value to the upper-level BMS through wireless communication; and a control unit configured to set and register a received ID information as its own ID when the ID information automatically assigned from the upper-level BMS is received.
A system comprising: a first controller operable to assume one of a plurality of respective states, in each of a predetermined one or more first states the first controller being configured automatically to generate a torque control signal to request an amount of positive torque applied by at least a first torque control system to one or more wheels of a vehicle and cause said vehicle to operate in accordance with a target speed value, and in each of a predetermined one or more second states the first controller being configured not to request by means of the torque control signal the amount of positive torque applied by the first torque control system to one or more wheels , wherein when the first controller switches from one of said one or more first states to one of said one or more second states the first controller is configured to cause a reduction, over time, in an amount of any torque that the torque control signal is causing the first torque control system to apply to one or more wheels ; characterized in that said torque reduction over time is at a rate according to a predetermined one of a plurality of respective different torque reduction functions selected in dependence at least in part on whether the first controller switches from the first state to the second state in response to a state switch request signal received from a user or a state switch request signal generated automatically by the system. a first controller operable to assume one of a plurality of respective states, in each of a predetermined one or more first states the first controller being configured automatically to generate a torque control signal to request an amount of positive torque applied by at least a first torque control system to one or more wheels of a vehicle and cause said vehicle to operate in accordance with a target speed value, and in each of a predetermined one or more second states the first controller being configured not to request by means of the torque control signal the amount of positive torque applied by the first torque control system to one or more wheels , wherein when the first controller switches from one of said one or more first states to one of said one or more second states the first controller is configured to cause a reduction, over time, in an amount of any torque that the torque control signal is causing the first torque control system to apply to one or more wheels ; characterized in that said torque reduction over time is at a rate according to a predetermined one of a plurality of respective different torque reduction functions selected in dependence at least in part on whether the first controller switches from the first state to the second state in response to a state switch request signal received from a user or a state switch request signal generated automatically by the system.
An accommodating intraocular lens , AIOL, comprising: an optic portion , a first haptic and a second haptic , each haptic comprising a haptic fluid chamber , wherein the optic portion includes an optic fluid chamber , wherein the optic fluid chamber and each haptic fluid chamber are in fluidic communication via a plurality of fluid channels , wherein the plurality of fluid channels are formed in two buttress portions of the optic portion , wherein the first haptic and the second haptic are adapted to engage a capsular bag (CB) and deform in response to capsular reshaping due to ciliary muscle (CM) movement to move a fluid between each haptic fluid chamber and the optic fluid chamber to change an optical parameter of the AIOL . an optic portion , a first haptic and a second haptic , each haptic comprising a haptic fluid chamber , wherein the optic portion includes an optic fluid chamber , wherein the optic fluid chamber and each haptic fluid chamber are in fluidic communication via a plurality of fluid channels , wherein the plurality of fluid channels are formed in two buttress portions of the optic portion , wherein the first haptic and the second haptic are adapted to engage a capsular bag (CB) and deform in response to capsular reshaping due to ciliary muscle (CM) movement to move a fluid between each haptic fluid chamber and the optic fluid chamber to change an optical parameter of the AIOL .
A method comprising: determining , at a first cell, a load condition of the first cell and a load condition of at least one neighbor cell; and determining , at the first cell, a suitability of the first cell for receiving access attempts from idle mobile devices based on the load condition of the first cell and the load condition of the at least one neighbor cell; characterized by : sending , at the first cell, an indication of the suitability to the idle mobile devices using a system information block message. determining , at a first cell, a load condition of the first cell and a load condition of at least one neighbor cell; and determining , at the first cell, a suitability of the first cell for receiving access attempts from idle mobile devices based on the load condition of the first cell and the load condition of the at least one neighbor cell; characterized by : sending , at the first cell, an indication of the suitability to the idle mobile devices using a system information block message.
A storage stable, aqueous immunoglobulin composition comprising: (a) an immunoglobulin (b) from 150 mM to 350 mM histidine; (c) from 0 mM to 10 mM of an alkali metal cation; and (d) a pH from 5.5 to 7.0. (a) an immunoglobulin (b) from 150 mM to 350 mM histidine; (c) from 0 mM to 10 mM of an alkali metal cation; and (d) a pH from 5.5 to 7.0.