mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling acoustic signals to be recorded and/or reproduced by an electro-acoustical sound system, wherein the method comprises the following steps: - determining an initial digital filter by solving an inverse problem, wherein the initial digital filter is configured to control acoustic signals to be recorded and/or reproduced by the electro-acoustical sound system; - determining a frequency-dependent articulation parameter by executing a time spectral psychoacoustic automatic audio quality test on the initial digital filter; - tuning a frequency-dependent regularization parameter, used for determining the initial digital filter, by use of the frequency-dependent articulation parameter; and - determining, by use of the tuned frequency-dependent regularization parameter, a digital filter configured to control acoustic signals to be recorded and/or reproduced by the electro-acoustical sound system, wherein the tuned frequency-dependent regularization parameter (β k) is, up to an offset, a decreasing function of the frequency-dependent articulation parameter (Art k), the offset including a frequency-dependent regularization parameter(β Nelson,k) determined when executing the determining of the initial digital filter. - determining an initial digital filter by solving an inverse problem, wherein the initial digital filter is configured to control acoustic signals to be recorded and/or reproduced by the electro-acoustical sound system; - determining a frequency-dependent articulation parameter by executing a time spectral psychoacoustic automatic audio quality test on the initial digital filter; - tuning a frequency-dependent regularization parameter, used for determining the initial digital filter, by use of the frequency-dependent articulation parameter; and - determining, by use of the tuned frequency-dependent regularization parameter, a digital filter configured to control acoustic signals to be recorded and/or reproduced by the electro-acoustical sound system,
A gas cylinder actuator with a guard fixed to the gas cylinder actuator, the guard being constituted by a rigid or deformable covering element fixed to a stem of the gas cylinder actuator, said covering element being contoured so as to extend radially from the fixing region in order to protect the stem and an opening of a body of the actuator from which said stem exits, said covering element being constituted by a dome comprising an annular cover which surrounds the stem that enters a central hole of said annular cover such that the dome is keyed by way of fixing means at an end of the stem of the gas cylinder actuator, and the dome further comprising a substantially cylindrical tubular body, which is monolithic or joined with said annular cover, and which slides together with the stem with respect to the body of the actuator and which is shaped so as to cover at least part of the body of the actuator both when the stem is completely extended and when the stem is completely retracted, and characterized in that said fixing means for fixing the dome to the stem are constituted by a snap ring or elastic toroidal ring, which is partly inserted in a corresponding annular slot provided on the end of the stem and protrudes partly so as to block the rim of the hole of the annular cover, said rim abutting against a shoulder which is also formed on the stem proximate to the slot.
An apparatus for Radio Interface, RI, switching in a wireless communication network, the apparatus comprising: a plurality of RI ports (310-1 - 310-n) each configured to connect to a node of either a Radio Equipment Control, REC, or a Radio Equipment, RE, wherein at least one REC and at least one RE are connected to the apparatus via the plurality of RI ports (310-1 - 310-n); a processor configured to: receive information on amount of minimal processing and transmission units of respective RI ports (310-1 - 310-n), and calculate a mapping relationship according to the received information, wherein the mapping relationship indicates data mapping between one or more minimal processing and transmission units of the at least one REC and one or more minimal processing and transmission units of the at least one RE; a storage configured to store the mapping relationship between the one or more minimal processing and transmission units of the at least one REC and the one or more minimal processing and transmission units of the at least one RE; and a switcher configured to switch data received at an RI port of the plurality of RI ports to another RI of the plurality of RI ports port based on the mapping relationship. a plurality of RI ports (310-1 - 310-n) each configured to connect to a node of either a Radio Equipment Control, REC, or a Radio Equipment, RE, wherein at least one REC and at least one RE are connected to the apparatus via the plurality of RI ports (310-1 - 310-n); a processor configured to: receive information on amount of minimal processing and transmission units of respective RI ports (310-1 - 310-n), and calculate a mapping relationship according to the received information, wherein the mapping relationship indicates data mapping between one or more minimal processing and transmission units of the at least one REC and one or more minimal processing and transmission units of the at least one RE; a storage configured to store the mapping relationship between the one or more minimal processing and transmission units of the at least one REC and the one or more minimal processing and transmission units of the at least one RE; and a switcher configured to switch data received at an RI port of the plurality of RI ports to another RI of the plurality of RI ports port based on the mapping relationship.
A method for dynamically controlling memory access distances in a non-uniform memory access system implementing a Linux type operating system and comprising a plurality of processors (305-1 to 305-4), a local memory (310-1 to 310-4) being associated with each processor of said plurality of processors, this method being characterised in that it comprises a step of obtaining at least one memory access distance according to the real configuration of the system between at least one first processor of said plurality of processors and a local memory associated with at least one second processor of said plurality of processors and a step of storing said at least one memory access distance obtained instead of at least one previously stored memory access distance, between said at least one first processor and said local memory associated with at least one second processor, said at least one memory access distance stored being directly usable by said operating system, the method being characterised in that said storing step is at least partially implemented by a delayed call function called by a writing command in a predetermined interface of a core of said operating system and wherein said predetermined interface of said core of said operating system is defined in a file system.
A Wi-Fi Direct connecting method for a plurality of devices, the method comprising: connecting each of a first device and a second device to an access point, AP, for communication; transmitting, by the first device, a request for a Wi-Fi Direct connection to the second device, the request being transmitted through the AP; the second device entering a standby mode in response to receiving said request for Wi-Fi Direct connection, wherein the standby mode is a state in which the second device may be connected to another device by using a Wi-Fi Direct connection; transmitting, by the first device, a provisioning discovery request message to the second device in the standby mode; and based on a provisioning discovery response message being received from the second device in response to the provisioning discovery request message, establishing the Wi-Fi Direct connection between the first device and the second device. connecting each of a first device and a second device to an access point, AP, for communication; transmitting, by the first device, a request for a Wi-Fi Direct connection to the second device, the request being transmitted through the AP; the second device entering a standby mode in response to receiving said request for Wi-Fi Direct connection, wherein the standby mode is a state in which the second device may be connected to another device by using a Wi-Fi Direct connection; transmitting, by the first device, a provisioning discovery request message to the second device in the standby mode; and based on a provisioning discovery response message being received from the second device in response to the provisioning discovery request message, establishing the Wi-Fi Direct connection between the first device and the second device.
Apparatus for determining the position of a mobile access device relative to a motor vehicle, wherein the mobile access device (4; 5) comprises a communication device for short-distance wireless communication, wherein the apparatus comprises: a control device in the vehicle, which is designed to block and unblock access to a vehicle function, a plurality of separate modules (2a, 2b, 2c, 2d) each having, in a housing, communication means for the short-distance wireless communication, wherein in a plurality of the modules the associated communication device is coupled to an associated energy storage device housed in the housing of the respective module (2b, 2c, 2d), wherein the modules comprise fastening means allowing the modules (2a, 2b, 2c, 2d) to be fastened in the interior of a vehicle, at least one of the modules (2a, 2b, 2c, 2d) being coupled to the control device for data transmission, wherein the modules (2a, 2b, 2c, 2d) are each designed to detect a signal strength of a signal transmission between the access device (4; 5) and the respective module, wherein the modules (2a, 2b, 2c, 2d) and the control device are designed to perform a position determination of the access device in dependence on a plurality of detected signal strengths of different modules and to enable or disable access to the vehicle function in dependence on the determined position. a control device in the vehicle, which is designed to block and unblock access to a vehicle function, a plurality of separate modules (2a, 2b, 2c, 2d) each having, in a housing, communication means for the short-distance wireless communication, wherein in a plurality of the modules the associated communication device is coupled to an associated energy storage device housed in the housing of the respective module (2b, 2c, 2d), wherein the modules comprise fastening means allowing the modules (2a, 2b, 2c, 2d) to be fastened in the interior of a vehicle, at least one of the modules (2a, 2b, 2c, 2d) being coupled to the control device for data transmission, wherein the modules (2a, 2b, 2c, 2d) are each designed to detect a signal strength of a signal transmission between the access device (4; 5) and the respective module, wherein the modules (2a, 2b, 2c, 2d) and the control device are designed to perform a position determination of the access device in dependence on a plurality of detected signal strengths of different modules and to enable or disable access to the vehicle function in dependence on the determined position.
A method of providing a compressed mode transmission gap in wireless communications, comprising: receiving a downlink dedicated physical channel, DPCH, having a slot-format and a spreading factor during a first compression interval, wherein the downlink DPCH does not include a compressed-mode transmission gap during the first compression interval; receiving during a second compression interval the downlink DPCH, which has the same slot-format and the same spreading factor as during the first compression interval, wherein the slot-format includes no pilot signal and a TPC command is located at an end of a slot; determining that the downlink DPCH includes a compressed-mode transmission gap during the second compression interval, wherein the downlink DPCH is mapped to all the slots, but the slots during the transmission gap are punctured by not being transmitted or by being transmitted with reduced or zero power; decoding the downlink DPCH for the second compression interval based on a set of remaining slots, which are not punctured, received during the second compression interval; and estimating a downlink signal to interference ratio, SIR, based on the downlink DPCH received during the second compression interval, wherein estimating the downlink SIR includes estimating the downlink SIR based on a downlink TPC command received in the transmitted slots. receiving a downlink dedicated physical channel, DPCH, having a slot-format and a spreading factor during a first compression interval, wherein the downlink DPCH does not include a compressed-mode transmission gap during the first compression interval; receiving during a second compression interval the downlink DPCH, which has the same slot-format and the same spreading factor as during the first compression interval, wherein the slot-format includes no pilot signal and a TPC command is located at an end of a slot; determining that the downlink DPCH includes a compressed-mode transmission gap during the second compression interval, wherein the downlink DPCH is mapped to all the slots, but the slots during the transmission gap are punctured by not being transmitted or by being transmitted with reduced or zero power; decoding the downlink DPCH for the second compression interval based on a set of remaining slots, which are not punctured, received during the second compression interval; and estimating a downlink signal to interference ratio, SIR, based on the downlink DPCH received during the second compression interval, wherein estimating the downlink SIR includes estimating the downlink SIR based on a downlink TPC command received in the transmitted slots.
A thermal transfer sheet comprising: a substrate; a heat resistant slip layer provided on one side of the substrate; an undercoat layer and a dye layer provided in that order on the other side of the substrate, wherein the undercoat layer is formed by applying and drying a coating liquid which contains, as main components, a water soluble self cross-linking resin and colloidal inorganic pigment ultrafine particles, and cross-linking polymerizing the water soluble self cross-linking resin; wherein the total amount of the water soluble self cross-linking resin and the colloidal inorganic pigment ultrafine particles is more than 95% by weight of the total solids content of the undercoat layer; and wherein the ratio by weight of the amount of colloidal inorganic pigment ultrafine particles to the amount of water soluble self cross-linking resin is from 1/1 to 1/0.05. a substrate; a heat resistant slip layer provided on one side of the substrate; an undercoat layer and a dye layer provided in that order on the other side of the substrate, wherein the undercoat layer is formed by applying and drying a coating liquid which contains, as main components, a water soluble self cross-linking resin and colloidal inorganic pigment ultrafine particles, and cross-linking polymerizing the water soluble self cross-linking resin; wherein the total amount of the water soluble self cross-linking resin and the colloidal inorganic pigment ultrafine particles is more than 95% by weight of the total solids content of the undercoat layer; and wherein the ratio by weight of the amount of colloidal inorganic pigment ultrafine particles to the amount of water soluble self cross-linking resin is from 1/1 to 1/0.05.
A method for performing a performance measurement on a packet flow transmitted along a path through a packet switched communication network, said method comprising, at each one of at least two measurement points (MP1, MP2) implemented on said path: a) calculating a sampling signature for each packet (Pki) of said packet flow received since the beginning of a measurement period by applying a hash function to a mask of bits of said packet (Pki); b) selecting a number of measurement samples amongst said packets (Pki) received since the beginning of said measurement period, characterized in that said measurement samples being selected as those received packets (Pki) whose sampling signatures comprise a portion of length S equal to a predefined sampling value (H S *), counting a number of measurement samples (n sample) selected since the beginning of said measurement period and retroactively adjusting said length S based on said counted number of selected measurement samples (n sample); and c) providing measurement parameters relating to said measurement samples selected during said measurement period, said method further comprising performing said performance measurement of said packet flow using said measurement parameters relating to said measurement samples, wherein at step b) said retroactively adjusting comprises: b1) at the beginning of said measurement period, setting said length S equal to a minimum length (S 0); and b2) each time said number of selected measurement samples (n sample) exceeds a maximum threshold (N max) before expiration of said measurement period, increasing said length S, said maximum threshold (N max) indicating a maximum number of measurement samples for measurement period. a) calculating a sampling signature for each packet (Pki) of said packet flow received since the beginning of a measurement period by applying a hash function to a mask of bits of said packet (Pki); b) selecting a number of measurement samples amongst said packets (Pki) received since the beginning of said measurement period, characterized in that said measurement samples being selected as those received packets (Pki) whose sampling signatures comprise a portion of length S equal to a predefined sampling value (H S *), counting a number of measurement samples (n sample) selected since the beginning of said measurement period and retroactively adjusting said length S based on said counted number of selected measurement samples (n sample); and c) providing measurement parameters relating to said measurement samples selected during said measurement period, b1) at the beginning of said measurement period, setting said length S equal to a minimum length (S 0); and b2) each time said number of selected measurement samples (n sample) exceeds a maximum threshold (N max) before expiration of said measurement period, increasing said length S, said maximum threshold (N max) indicating a maximum number of measurement samples for measurement period.
A hood for a roof window; the hood extending to cover the upper portion of the roof window including the upper portion of the frame, sash and the ventilation passage extending there through; the hood having a bottom peripheral portion spaceable apart from the roof window defining an air inlet gap; the hood having seal means extending longitudinally proximal to the bottom peripheral portion of the hood for providing a seal between the roof window and the hood for reducing the passage of moisture or rain; the hood having elongate support means for the seal means, the support means being a separate component to the seal means; the hood comprising barrier means for preventing the passage of moisture or rain through the ventilation passage; wherein the barrier means for preventing the passage of moisture or rain through the ventilation passage is disposed on the hood away from the air inlet gap, and wherein the barrier means is adapted for collecting moisture or rain and draining the moisture or rain towards the air inlet gap and out of the hood, the barrier means comprising a drainage means for draining moisture or rain in a direction towards the air inlet gap and out of the hood, wherein the drainage means extends on a side of the elongate support means opposing that side connectable to the seal means, characterised in that the drainage means extends upwardly from the interior elongate side of the elongate support means distal to the air inlet gap. means the hood extending to cover the upper portion of the roof window including the upper portion of the frame, sash and the ventilation passage extending there through; the hood having a bottom peripheral portion spaceable apart from the roof window defining an air inlet gap; the hood having seal means extending longitudinally proximal to the bottom peripheral portion of the hood for providing a seal between the roof window and the hood for reducing the passage of moisture or rain; the hood having elongate support means for the seal means, the support means being a separate component to the seal means; the hood comprising barrier means for preventing the passage of moisture or rain through the ventilation passage; wherein the barrier means for preventing the passage of moisture or rain through the ventilation passage is disposed on the hood away from the air inlet gap, and wherein the barrier means is adapted for collecting moisture or rain and draining the moisture or rain towards the air inlet gap and out of the hood, the barrier means comprising a drainage means for draining moisture or rain in a direction towards the air inlet gap and out of the hood, wherein the drainage means extends on a side of the elongate support means opposing that side connectable to the seal means, characterised in that the drainage means extends upwardly from the interior elongate side of the elongate support means distal to the air inlet gap. means
Use of a soluble polypeptide according to SEQ ID NO:2 or a fragment thereof, said fragment being a biological functional equivalent of SEQ ID NO: 2 for the manufacture of a medicament for decreasing the levels of TREM-1ligand binding activity whereby an inflammatory response is decreased in an animal.
A fuel assembly comprising: at least, a first fuel rod containing plutonium and not containing burnable poison; a second fuel rod containing uranium and burnable poison and not containing plutonium; a water rod; and a channel box having a rectangular shape in horizontal section and accommodating the first fuel rod, the second fuel rod, and the water rod in a bundle, the average fissile plutonium enrichment in the horizontal section is 4.0 wt% or more, wherein the second fuel rod is disposed on an outermost periphery and/or adjacent to the water rod, of a fuel rod array in the horizontal section, N2 < N1 (N2 is a positive integer including zero) is satisfied where the number of the second fuel rods arranged on the outermost periphery is N1 and the number of the second fuel rods arranged adjacent to the water rod is N2, and W2 < N2 + W0 < W1 (W2 is a positive integer not including zero) is satisfied where the number of the second fuel rods arranged without being vertically and/or horizontally adjacent to each other in the horizontal section is W0, the number of the second fuel rods arranged vertically and/or horizontally adjacent to only one second fuel rod in the horizontal section is W1, and the number of the second fuel rods arranged vertically and/or horizontally adjacent to two second fuel rods in the horizontal section is W2, of the second fuel rods arranged on the outermost periphery, wherein each second fuel rod arranged vertically and/or horizontally adjacent to two second fuel rods in the horizontal section is arranged at a corner portion of the channel box.