mhurhangee/ep-ind-claims huggingface dataset:
A method of wireless communication for a communication network, the method comprising: receiving, from a plurality of client stations (25-1, 25-2, 25-3), respective indications of null-steering vectors, wherein each null-steering vector defines a null-space projection of a corresponding multiple input, multiple output, MIMO, channel between an access point and the respective client station; characterized by generating a plurality of steering vectors, one for each of the plurality of client stations, using the null-steering vectors, including assigning a first null-steering vector from a first client station as a first steering vector for transmissions to a second client station and assigning a second null-steering vector from the second client station as a second steering vector for transmissions to the first client station; wherein each steering vector is used to transmit data to a corresponding one of the plurality of client stations via a plurality of antennas (24-1, 24-2, 24-3) of the access point and over a corresponding one of the MIMO channels simultaneously, wherein each steering vector is used to communicate data on a different one of the plurality of MIMO channels, and wherein each steering vector is generated to reduce interference on a corresponding MIMO channel caused by simultaneous transmission of data on other MIMO channels. receiving, from a plurality of client stations (25-1, 25-2, 25-3), respective indications of null-steering vectors, wherein each null-steering vector defines a null-space projection of a corresponding multiple input, multiple output, MIMO, channel between an access point and the respective client station; characterized by generating a plurality of steering vectors, one for each of the plurality of client stations, using the null-steering vectors, including assigning a first null-steering vector from a first client station as a first steering vector for transmissions to a second client station and assigning a second null-steering vector from the second client station as a second steering vector for transmissions to the first client station; wherein each steering vector is used to transmit data to a corresponding one of the plurality of client stations via a plurality of antennas (24-1, 24-2, 24-3) of the access point and over a corresponding one of the MIMO channels simultaneously, wherein each steering vector is used to communicate data on a different one of the plurality of MIMO channels, and wherein each steering vector is generated to reduce interference on a corresponding MIMO channel caused by simultaneous transmission of data on other MIMO channels.
A boss comprising: a neck including a bore therethrough, wherein the bore has a longitudinal axis; and a flange that extends radially outward from the neck, wherein the flange comprises: an exterior surface; an interior surface; and wherein the boss comprises a peripheral surface (128, 128') at a farthest extent from the longitudinal axis; wherein the peripheral surface (128, 128') connects the interior surface and the exterior surface; and characterised in that the peripheral surface (128, 128') comprises, along any radius of the boss, a first circumferential ridge (158', 158a', 158b', 158c', 158d', 158e') and a second circumferential ridge (158", 158a", 158b", 158c", 158d", 158e"), wherein the first circumferential ridge (158', 158a', 158b', 158c', 158d', 158e') is located closer to the exterior surface than the second circumferential ridge (158", 158a", 158b", 158c", 158d", 158e"). a neck including a bore therethrough, wherein the bore has a longitudinal axis; and a flange that extends radially outward from the neck, wherein the flange comprises: an exterior surface; an interior surface; and wherein the boss comprises a peripheral surface (128, 128') at a farthest extent from the longitudinal axis; wherein the peripheral surface (128, 128') connects the interior surface and the exterior surface; and characterised in that the peripheral surface (128, 128') comprises, along any radius of the boss, a first circumferential ridge (158', 158a', 158b', 158c', 158d', 158e') and a second circumferential ridge (158", 158a", 158b", 158c", 158d", 158e"), wherein the first circumferential ridge (158', 158a', 158b', 158c', 158d', 158e') is located closer to the exterior surface than the second circumferential ridge (158", 158a", 158b", 158c", 158d", 158e"). an exterior surface; an interior surface; and wherein the boss comprises a peripheral surface (128, 128') at a farthest extent from the longitudinal axis; wherein the peripheral surface (128, 128') connects the interior surface and the exterior surface; and characterised in that the peripheral surface (128, 128') comprises, along any radius of the boss, a first circumferential ridge (158', 158a', 158b', 158c', 158d', 158e') and a second circumferential ridge (158", 158a", 158b", 158c", 158d", 158e"), wherein the first circumferential ridge (158', 158a', 158b', 158c', 158d', 158e') is located closer to the exterior surface than the second circumferential ridge (158", 158a", 158b", 158c", 158d", 158e").
A processor comprising: a decode unit to decode a keyed-hash message authentication code, MAC, with obfuscated key information instruction that is to correspond to a keyed-hash MAC algorithm that is to include a cryptographic hash algorithm, the keyed-hash MAC with obfuscated key information instruction to indicate a message, to indicate obfuscated key information, and to indicate a destination storage location; and an execution unit, coupled with the decode unit, the execution unit, in response to the keyed-hash MAC with obfuscated key information instruction, to store a message authentication code, MAC, corresponding to the indicated message in the destination storage location, characterized in that the execution unit is to: stop performing the keyed-hash MAC with obfuscated key information instruction after an interruption; encrypt an intermediate state associated with performance of the keyed-hash MAC instruction with a secret key of the processor that is available to the processor only; and store the encrypted intermediate state in a storage location. a decode unit to decode a keyed-hash message authentication code, MAC, with obfuscated key information instruction that is to correspond to a keyed-hash MAC algorithm that is to include a cryptographic hash algorithm, the keyed-hash MAC with obfuscated key information instruction to indicate a message, to indicate obfuscated key information, and to indicate a destination storage location; and an execution unit, coupled with the decode unit, the execution unit, in response to the keyed-hash MAC with obfuscated key information instruction, to store a message authentication code, MAC, corresponding to the indicated message in the destination storage location, characterized in that the execution unit is to: stop performing the keyed-hash MAC with obfuscated key information instruction after an interruption; encrypt an intermediate state associated with performance of the keyed-hash MAC instruction with a secret key of the processor that is available to the processor only; and store the encrypted intermediate state in a storage location. stop performing the keyed-hash MAC with obfuscated key information instruction after an interruption; encrypt an intermediate state associated with performance of the keyed-hash MAC instruction with a secret key of the processor that is available to the processor only; and store the encrypted intermediate state in a storage location.
An aqueous solution of a compound of formula or a pharmaceutically acceptable salt thereof, wherein: R 1 is selected from H and -CH 2 -O-R 3; R 2 is -CH 2 -O-R 3; each R 3 is independently selected from H and methyl; and a pH regulating agent; wherein the aqueous solution has a pH from 3.0 to 5.0. R 1 is selected from H and -CH 2 -O-R 3; R 2 is -CH 2 -O-R 3; each R 3 is independently selected from H and methyl; and a pH regulating agent; wherein the aqueous solution has a pH from 3.0 to 5.0.
A plant (10; 20a-201; 50) for manufacturing ferromagnetic cores of electric machines, wherein each of said ferromagnetic cores is formed by a plurality of laminations which are packed in a blanking/punching tool to which a continuous metal laminate of ferromagnetic material is fed, said laminations being joined together by gluing, said blanking/punching tool comprising at least one blanking/punching station and at least one station for cutting and packing the laminations blanked from said continuous metal laminate, the plant (10; 20a-201; 50) comprising at least one unit for applying an adhesive material to a surface of said continuous metal laminate, at least one unit for applying an activating compound to the opposite surface of said continuous metal laminate and at least one control unit for controlling the application of said adhesive material and said activating compound into the respective application units (21, 25), characterised in that said unit for applying an adhesive material to a surface of said continuous metal laminate comprises a printing device (23, 60) and at least one transfer element (19, 28, 51) on which said printing device (23, 60) deposits the adhesive material according to one or more impressions of a shape corresponding to the outline of each of said laminations, said adhesive material being then applied by said at least one transfer element (19, 28, 51) to a surface of said continuous metal laminate according to the outline of each lamination, defined by said impressions.
A method for downlink transmission applied in a central unit in a cloud radio access network, the method comprising: determining a specific number of remote radio heads (RRHs) as non-serving RRHs from a plurality of RRHs based on a predetermined data compression ratio, in order to reduce fronthaul load, wherein a data compression ratio is calculated by a number of zero elements in precoding weights, the data compression ratio becoming greater as the number of zero elements becomes greater; for each one of a plurality of user equipments (UEs), determining a combination of RRHs non-serving in coordinated multi-point (CoMP) from the plurality of RRHs based on the determined specific number, wherein the combination of RRHs non-serving is a selection of the determined specific number RRHs as non-serving from the plurality of RRHs; for each one of the plurality of UEs, transmitting the combination of RRHs non-serving in CoMP to the plurality of RRHs; and for each one of the plurality of UEs, performing CoMP downlink transmission based on the combination of RRHs non-serving in CoMP. determining a specific number of remote radio heads (RRHs) as non-serving RRHs from a plurality of RRHs based on a predetermined data compression ratio, in order to reduce fronthaul load, wherein a data compression ratio is calculated by a number of zero elements in precoding weights, the data compression ratio becoming greater as the number of zero elements becomes greater; for each one of a plurality of user equipments (UEs), determining a combination of RRHs non-serving in coordinated multi-point (CoMP) from the plurality of RRHs based on the determined specific number, wherein the combination of RRHs non-serving is a selection of the determined specific number RRHs as non-serving from the plurality of RRHs; for each one of the plurality of UEs, transmitting the combination of RRHs non-serving in CoMP to the plurality of RRHs; and for each one of the plurality of UEs, performing CoMP downlink transmission based on the combination of RRHs non-serving in CoMP.
Safety system for an inductive power transfer system for transferring power to a vehicle on a surface of a route, wherein the primary unit comprises at least one primary winding for generating an electromagnetic primary field for the inductive power transfer, wherein a charging surface of the route is assigned to the primary winding, characterized in that the safety system comprises at least one capacitive sensing system, wherein the capacitive sensing system comprises multiple detection capacitors, wherein the multiple detection capacitors are arranged in an array structure, wherein the array structure covers the charging surface at least partially.
A method of transmitting data from a mobile terminal over a wireless network, comprising the steps of: applying a different priority level to different types of data transmission, wherein the priority level is determined in accordance with the content of the data transmission; determining a predicted remaining data capacity, the predicted remaining data capacity being an amount of data that may be transmitted by the mobile terminal before ceasing use of a data connection between the mobile terminal and the wireless network, by determining a time before expiry of the data connection between the mobile terminal and the wireless network and determining a data throughput between the mobile terminal and the wireless network; and transmitting (909, 913, 917) the data over the network in an order determined by the applied priority level; wherein the data at each priority level is transmitted over the network when the predicted remaining data capacity is greater than the quantity of data at that priority level. applying a different priority level to different types of data transmission, wherein the priority level is determined in accordance with the content of the data transmission; determining a predicted remaining data capacity, the predicted remaining data capacity being an amount of data that may be transmitted by the mobile terminal before ceasing use of a data connection between the mobile terminal and the wireless network, by determining a time before expiry of the data connection between the mobile terminal and the wireless network and determining a data throughput between the mobile terminal and the wireless network; and transmitting (909, 913, 917) the data over the network in an order determined by the applied priority level; wherein the data at each priority level is transmitted over the network when the predicted remaining data capacity is greater than the quantity of data at that priority level.
An OTA Edge system, configured to: receive polling requests, dedicated to an OTA Core system, from one or several mobile end devices; characterized by an offload filter implemented in the OTA Edge system and further configured to: accept polling requests (PD; PD-2, PD-3) from mobile end devices (D; D2, D3) for which contents (Cont; Cont-2, Cont-3) are present on the OTA Core system, and reject polling requests (PD; PD-1, PD-4) from mobile end devices (D; D1, D4) for which no contents are present on the OTA Core system, wherein the OTA Edge system is further configured to: forward said received and accepted polling requests to an OTA Core system; receive, from said OTA Core system, contents (Cont) corresponding to said forwarded polling requests; forward said received contents (Cont) to the mobile end device from which the polling request was received. receive polling requests, dedicated to an OTA Core system, from one or several mobile end devices; characterized by an offload filter implemented in the OTA Edge system and further configured to: accept polling requests (PD; PD-2, PD-3) from mobile end devices (D; D2, D3) for which contents (Cont; Cont-2, Cont-3) are present on the OTA Core system, and reject polling requests (PD; PD-1, PD-4) from mobile end devices (D; D1, D4) for which no contents are present on the OTA Core system, wherein the OTA Edge system is further configured to: forward said received and accepted polling requests to an OTA Core system; receive, from said OTA Core system, contents (Cont) corresponding to said forwarded polling requests; forward said received contents (Cont) to the mobile end device from which the polling request was received. accept polling requests (PD; PD-2, PD-3) from mobile end devices (D; D2, D3) for which contents (Cont; Cont-2, Cont-3) are present on the OTA Core system, and reject polling requests (PD; PD-1, PD-4) from mobile end devices (D; D1, D4) for which no contents are present on the OTA Core system, wherein the OTA Edge system is further configured to: forward said received and accepted polling requests to an OTA Core system; receive, from said OTA Core system, contents (Cont) corresponding to said forwarded polling requests; forward said received contents (Cont) to the mobile end device from which the polling request was received. forward said received and accepted polling requests to an OTA Core system; receive, from said OTA Core system, contents (Cont) corresponding to said forwarded polling requests; forward said received contents (Cont) to the mobile end device from which the polling request was received.
Apparatus (100, 200, 200', 200") which is allocated in a spatially close manner to a chargeable battery for industrial trucks, comprising: - storage means in which an identifier allocated to the battery is stored, - a wireless interface which cooperates with the storage means, the wireless interface being configured for bidirectional data transmission between the storage means and an external communication apparatus (300, 300'), characterised in that the apparatus (100, 200, 200', 200'') is configured to receive further data via the wireless interface and to store said data in the storage means, and these further data comprise non-battery-based mailbox information, the apparatus (100, 200, 200', 200") being placed in a coding pin of a plug of a charging cable of the associated battery. - storage means in which an identifier allocated to the battery is stored, - a wireless interface which cooperates with the storage means, the wireless interface being configured for bidirectional data transmission between the storage means and an external communication apparatus (300, 300'), characterised in that the apparatus (100, 200, 200', 200'') is configured to receive further data via the wireless interface and to store said data in the storage means, and these further data comprise non-battery-based mailbox information, the apparatus (100, 200, 200', 200") being placed in a coding pin of a plug of a charging cable of the associated battery.
An ultrasonic assembly removably connectable to an ultrasonic waveguide of an ultrasonic surgical handle, comprising: a cordless ultrasonic-movement-generation assembly having a generator, an ultrasonic transducer electrically coupled to the generator, and an output couple; and a shell housing, and aseptically sealing, therein the generator and the ultrasonic transducer, the shell having a securing connection shaped to removably connect to the ultrasonic surgical handle, wherein the output couple is operable to impart ultrasonic movement to the ultrasonic waveguide when the securing connection is connected to the ultrasonic surgical handle and the waveguide is connected to the output couple. a cordless ultrasonic-movement-generation assembly having a generator, an ultrasonic transducer electrically coupled to the generator, and an output couple; and a shell housing, and aseptically sealing, therein the generator and the ultrasonic transducer, the shell having a securing connection shaped to removably connect to the ultrasonic surgical handle, wherein the output couple is operable to impart ultrasonic movement to the ultrasonic waveguide when the securing connection is connected to the ultrasonic surgical handle and the waveguide is connected to the output couple.
A cushioning element comprising: a multi-layered film including one or more core regions, each core region comprising a plurality of and no more than 70 gas-barrier layers comprising at least one gas-barrier material and a plurality of elastomeric layers comprising at least one elastomeric material, wherein the gas-barrier layers alternate with the elastomeric layers, wherein each of the gas-barrier layers comprises at least one gas-barrier material and has an average thickness in a range of from 0.01 micrometers to 0.75 micrometers, particularly in a range of from 0.01 micrometers to 0.5 micrometers, and wherein each of the plurality of elastomeric layers comprises at least one elastomeric material and has an average thickness ranging from 2 micrometers to 8 micrometers. a multi-layered film including one or more core regions, each core region comprising a plurality of and no more than 70 gas-barrier layers comprising at least one gas-barrier material and a plurality of elastomeric layers comprising at least one elastomeric material, wherein the gas-barrier layers alternate with the elastomeric layers, wherein each of the gas-barrier layers comprises at least one gas-barrier material and has an average thickness in a range of from 0.01 micrometers to 0.75 micrometers, particularly in a range of from 0.01 micrometers to 0.5 micrometers, and wherein each of the plurality of elastomeric layers comprises at least one elastomeric material and has an average thickness ranging from 2 micrometers to 8 micrometers.
A method of software policy management, comprising: defining policies for first and second policy-enabled software applications; creating, independent of the defined policies, a first policy enforcement point in uncompiled software code for the first policy-enabled software application at a point at which potential dynamic behavior is required, the first policy enforcement point providing a first information element as an output from a compiled version of the first policy-enabled software application; creating, independent of the defined policies, a second policy enforcement point in uncompiled software code for a second policy-enabled software application at a point at which potential dynamic behavior is required, the second policy enforcement point providing a second information element as an output from a compiled version of the second policy-enabled software application; creating, based on the defined policies, first and second policy decision points as database fields in a policy manager external to the first and second policy-enabled software applications; receiving the first and second information elements at the first and second policy decision points; and performing policy decision making based on the policies and in response to the received first and second information elements. defining policies for first and second policy-enabled software applications; creating, independent of the defined policies, a first policy enforcement point in uncompiled software code for the first policy-enabled software application at a point at which potential dynamic behavior is required, the first policy enforcement point providing a first information element as an output from a compiled version of the first policy-enabled software application; creating, independent of the defined policies, a second policy enforcement point in uncompiled software code for a second policy-enabled software application at a point at which potential dynamic behavior is required, the second policy enforcement point providing a second information element as an output from a compiled version of the second policy-enabled software application; creating, based on the defined policies, first and second policy decision points as database fields in a policy manager external to the first and second policy-enabled software applications; receiving the first and second information elements at the first and second policy decision points; and performing policy decision making based on the policies and in response to the received first and second information elements.