mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for uplink power control during link imbalance comprising: determination logic (130, 134) for determining the channel condition of an uplink channel; and a target pilot signal-to-noise threshold setter (132; 136; 138) for increasing a target pilot SNR threshold when the determined channel condition is unsatisfactory, wherein the determined channel condition is unsatisfactory when the average SNR of a pilot signal is less than a predetermined first threshold and the average block error rate over an uplink dedicated physical data channel is greater than a predetermined second threshold. determination logic (130, 134) for determining the channel condition of an uplink channel; and a target pilot signal-to-noise threshold setter (132; 136; 138) for increasing a target pilot SNR threshold when the determined channel condition is unsatisfactory, wherein the determined channel condition is unsatisfactory when the average SNR of a pilot signal is less than a predetermined first threshold and the average block error rate over an uplink dedicated physical data channel is greater than a predetermined second threshold.
A method for controlling an active clearance control for a gas turbine engine, the method comprising: receiving operating state parameters associated with an operative state of an aircraft; determining a clearance value between a first structure (22;324) of an engine and a second structure (21;330) of the engine, wherein the clearance value is determined based on the operating state parameters and a passive clearance model that includes a specification of an uncertainty in the clearance value; determining whether the clearance value deviates from a clearance target in an amount that is greater than a threshold; and engaging an active clearance control mechanism when the deviation is greater than the threshold, wherein the passive clearance model is based on a passive clearance that would be obtained between the first structure (22; 324) and the second structure (21; 330) in the absence of the ACC mechanism, and wherein the operating state parameters include at least one of a rotor speed or a spool speed, characterised in that: the clearance target is adjusted based on the uncertainty in the clearance value; and in that the uncertainty specified in the passive clearance model increases as the at least one of a rotor speed or a spool speed increases. receiving operating state parameters associated with an operative state of an aircraft; determining a clearance value between a first structure (22;324) of an engine and a second structure (21;330) of the engine, wherein the clearance value is determined based on the operating state parameters and a passive clearance model that includes a specification of an uncertainty in the clearance value; determining whether the clearance value deviates from a clearance target in an amount that is greater than a threshold; and engaging an active clearance control mechanism when the deviation is greater than the threshold, wherein the passive clearance model is based on a passive clearance that would be obtained between the first structure (22; 324) and the second structure (21; 330) in the absence of the ACC mechanism, and wherein the operating state parameters include at least one of a rotor speed or a spool speed, characterised in that: the clearance target is adjusted based on the uncertainty in the clearance value; and in that the uncertainty specified in the passive clearance model increases as the at least one of a rotor speed or a spool speed increases.
A method for transmitting a client signal, wherein the method comprises: mapping (101, 201) the client signal into channels of a parallel transmission frame, wherein the parallel transmission frame comprises at least two channels; adding (102, 202) an overhead for the channels of the parallel transmission frame after the mapping, to form transmission channels of the parallel transmission frame, wherein a management overhead is added to only one of the channels of the parallel transmission frame after the mapping, the management overhead is used to centrally manage the channels of the parallel transmission frame after the mapping, and bit rates of the transmission channels of the parallel transmission frame are fixed; wherein the management overhead enables the channels of the parallel transmission frame to be treated as a unified whole for management; and modulating (103, 203) the transmission channels of the parallel transmission frame onto one or more optical carriers in a same optical fiber, and transmitting the optical carrier after the modulation. mapping (101, 201) the client signal into channels of a parallel transmission frame, wherein the parallel transmission frame comprises at least two channels; adding (102, 202) an overhead for the channels of the parallel transmission frame after the mapping, to form transmission channels of the parallel transmission frame, wherein a management overhead is added to only one of the channels of the parallel transmission frame after the mapping, the management overhead is used to centrally manage the channels of the parallel transmission frame after the mapping, and bit rates of the transmission channels of the parallel transmission frame are fixed; wherein the management overhead enables the channels of the parallel transmission frame to be treated as a unified whole for management; and modulating (103, 203) the transmission channels of the parallel transmission frame onto one or more optical carriers in a same optical fiber, and transmitting the optical carrier after the modulation.
A mounting structure for mounting an external environment detection device (38, 60, 80) for a vehicle to a vehicle body so as to face a prescribed detecting direction, comprising: a cover member (42, 66) covering an exterior of the vehicle body and having an opening (44, 68, 86) facing the prescribed detecting direction of the detection device (38, 60, 80); and a device side garnish (46, 70, 88) extending from an outer periphery of the detection device (38, 60, 80), and including a lip (50, 72, 90) that is made of elastomeric material and overlaps with an opening edge of the cover member (42, 66) located on a periphery of the opening (44, 68, 86), characterized in that the lip (50, 72, 90) is pushed against the opening edge of the cover member (42, 66) either from inside or from outside under elastic deformation. a cover member (42, 66) covering an exterior of the vehicle body and having an opening (44, 68, 86) facing the prescribed detecting direction of the detection device (38, 60, 80); and a device side garnish (46, 70, 88) extending from an outer periphery of the detection device (38, 60, 80), and including a lip (50, 72, 90) that is made of elastomeric material and overlaps with an opening edge of the cover member (42, 66) located on a periphery of the opening (44, 68, 86), characterized in that the lip (50, 72, 90) is pushed against the opening edge of the cover member (42, 66) either from inside or from outside under elastic deformation.
Method of handling a call to be moved within a system having an unmonitored domain and a monitored domain, wherein said unmonitored domain and said monitored domain belong to one same overall domain; and wherein said system contains any device or configuration to be able to perform call handling, processing and management; said method comprising the steps: - upon first arrival of said call in said system, providing a call context by said monitored domain of said call based on a called number, a calling number, and any redirection number/s included in said call, and - for each movement of said call between said unmonitored domain and said monitored domain, providing a unique number by said monitored domain to be temporarily used for said particular movement, based on said call context, while avoiding that said unique number is used to move any other call within the system at the same time. - upon first arrival of said call in said system, providing a call context by said monitored domain of said call based on a called number, a calling number, and any redirection number/s included in said call, and - for each movement of said call between said unmonitored domain and said monitored domain, providing a unique number by said monitored domain to be temporarily used for said particular movement, based on said call context, while avoiding that said unique number is used to move any other call within the system at the same time.
A trickle body for the air conditioning of buildings, preferably animal housings, having a plurality of mutually connected layer elements, which are corrugated to form alternately adjacent wave troughs and wave peaks, and having flow channels between respectively adjacent corrugated layer elements, wherein the layer elements are, for the one part, of closed-wall configuration and, for the other part, of permeable configuration, to form partially closed and partially permeable flow channels, and/or wave troughs and wave peaks, between adjacent layer elements, characterized in that the wave troughs and wave peaks of the layer elements are provided with a course of their direction of longitudinal extent, which course has several changes of direction, in that all wave troughs and/or wave peaks of the waves of the respective layer element have trapezoidal cross sections having respectively two oppositely obliquely inclined side members, which are connected by a common web (28, 29), wherein only the side members of the wave troughs and/or wave peaks are in part of permeable configuration and the permeably configured parts of the flow channels and/or wave troughs and wave peaks of the adjacent layer elements are of meshed and/or latticed configuration or are formed by a mesh and/or lattice structure
A preparation method of super absorbent polymer granules, comprising the steps of: forming a hydrogel polymer by carrying out a thermal polymerization or a photopolymerization of a monomer composition including a water-soluble ethylene-based unsaturated monomer and a polymerization initiator; drying and pulverizing the hydrogel polymer; classifying the pulverized polymer into a first fine powder having a particle size of 150 μm or less, and a base resin having a particle size of 150 μm or more and 850 μm or less; surface-crosslinking the base resin; classifying the surface crosslinked base resin to separate a second fine powder having a particle diameter size of 150 μ m or less; and forming fine powder granules by mixing the first fine powder, the second fine powder, and silica in a wet state. forming a hydrogel polymer by carrying out a thermal polymerization or a photopolymerization of a monomer composition including a water-soluble ethylene-based unsaturated monomer and a polymerization initiator; drying and pulverizing the hydrogel polymer; classifying the pulverized polymer into a first fine powder having a particle size of 150 μm or less, and a base resin having a particle size of 150 μm or more and 850 μm or less; surface-crosslinking the base resin; classifying the surface crosslinked base resin to separate a second fine powder having a particle diameter size of 150 μ m or less; and forming fine powder granules by mixing the first fine powder, the second fine powder, and silica in a wet state.
A method for detecting an audio adversarial attack with respect to a voice command processed by an automatic speech recognition system, the method being implemented by a detection device connected to the automatic speech recognition system, wherein the method comprises: obtaining an audio signal associated with the voice command; performing a phonetic transcription of the audio signal, according to a phonetic transcription scheme, delivering a first character string; obtaining a transcript resulting from the processing, by the automatic speech recognition system, of the audio signal; performing a phonetic transcription of the transcript, according to the phonetic transcription scheme, delivering a second character string; computing a similarity score between the first character string and the second character string; and delivering a piece of data representative of a detection of an audio adversarial attack, as a function of a result of a comparison between the similarity score and a predetermined threshold. obtaining an audio signal associated with the voice command; performing a phonetic transcription of the audio signal, according to a phonetic transcription scheme, delivering a first character string; obtaining a transcript resulting from the processing, by the automatic speech recognition system, of the audio signal; performing a phonetic transcription of the transcript, according to the phonetic transcription scheme, delivering a second character string; computing a similarity score between the first character string and the second character string; and delivering a piece of data representative of a detection of an audio adversarial attack, as a function of a result of a comparison between the similarity score and a predetermined threshold.
A method for detecting a physiological state of a patient deviating from a reference physiological state, in which, after having determined, in each of Q frequency bands, a reference pole PR q with q∈[1...Q] representative of the reference physiological state, the following steps are repeated in a loop: - performing measurements, in M time segments, of an electro-encephalographic signal of the patient along n pathways and at p instants to generate M measurement matrices X m comprising nxp samples, for m∈[1...M]; - filtering and centering each measurement matrix Xm in the Q frequency bands to obtain MxQ filtered measurement matrices X m,q and determining MxQ standardized matrices of spatial covariance by the formula C m, q = X m, q X m, q T / trace X m, q X m, q T; - for each time segment m, determining distances d m,q between each standardized matrix of spatial covariance C m,q and the reference pole PR q, and determining a deviation e m from the reference physiological state as a function of the distances d m,q; - comparing each of the deviations e m from the reference physiological state to a determined threshold S. - performing measurements, in M time segments, of an electro-encephalographic signal of the patient along n pathways and at p instants to generate M measurement matrices X m comprising nxp samples, for m∈[1...M]; - filtering and centering each measurement matrix Xm in the Q frequency bands to obtain MxQ filtered measurement matrices X m,q and determining MxQ standardized matrices of spatial covariance by the formula C m, q = X m, q X m, q T / trace X m, q X m, q T; - for each time segment m, determining distances d m,q between each standardized matrix of spatial covariance C m,q and the reference pole PR q, and determining a deviation e m from the reference physiological state as a function of the distances d m,q; - comparing each of the deviations e m from the reference physiological state to a determined threshold S.
A method in a power tool for enabling unlocking and locking of the power tool for prevention of unauthorized use of the power tool, the method comprising: - receiving an unlock message to a control unit, the message including an instruction to unlock the power tool, - unlocking the power tool according to the instruction by the control unit via an actuator unit, thereby enabling prevention of unauthorized use of the power tool by remote unlocking, - counting an authorization time period from reception of a first unlock message to the control unit by a counter, - when a second unlock message is received before a predetermined threshold of the authorization time period is reached, restarting the counter such that the power tool remains unlocked, - receiving a position message including an alert signal received by the control unit, the position message including an instruction to repeatedly transmit a response signal as a response to the alert signal, thereby enabling positioning of the tool, and - when the predetermined threshold of the counted authorization time period is reached, or the power tool leaves a predetermined area, locking the power tool according to the instruction by the control unit via the actuator unit. - receiving an unlock message to a control unit, the message including an instruction to unlock the power tool, - unlocking the power tool according to the instruction by the control unit via an actuator unit, thereby enabling prevention of unauthorized use of the power tool by remote unlocking, - counting an authorization time period from reception of a first unlock message to the control unit by a counter, - when a second unlock message is received before a predetermined threshold of the authorization time period is reached, restarting the counter such that the power tool remains unlocked, - receiving a position message including an alert signal received by the control unit, the position message including an instruction to repeatedly transmit a response signal as a response to the alert signal, thereby enabling positioning of the tool, and - when the predetermined threshold of the counted authorization time period is reached, or the power tool leaves a predetermined area, locking the power tool according to the instruction by the control unit via the actuator unit.
A non-aqueous coating composition comprising: A. An isocyanate reactive agent comprising at least one secondary diamine comprising the reaction product of at least one diamine and alkyl esters of 2-butendioic acid; B. at least one polyisocyanate resin; C. at least one gloss reducing agent; and D. at least one viscosity modifier; wherein C) and D) comprise less than about 35% of the total coating formulation, and wherein the gloss reducing agent comprises a fine-grained, organic treated precipitated silica. A. An isocyanate reactive agent comprising at least one secondary diamine comprising the reaction product of at least one diamine and alkyl esters of 2-butendioic acid; B. at least one polyisocyanate resin; C. at least one gloss reducing agent; and D. at least one viscosity modifier; wherein C) and D) comprise less than about 35% of the total coating formulation, and
A rotor assembly, comprising a rotor core having at least one magnet groove and a rotation shaft hole; a permanent magnet disposed in the at least one magnet groove; a rotation shaft disposed in the rotation shaft hole, wherein a gap is defined between the rotation shaft and the rotor core, and wherein the rotation shaft has a first end and a second end that extend out of the rotation shaft hole; a first end vibration damping member disposed on a first end surface of the rotor core and connected to the rotor core; and a first transmission member disposed within the first end vibration damping member, wherein the first transmission member interacts with the rotation shaft, and wherein the rotor core is capable of driving the rotation shaft at least sequentially by the first end vibration damping member and the first transmission member characterised in that a part of the first end vibration damping member directly interacts with the rotation shaft, and wherein the rotor core is further capable of driving the rotation shaft by the part of the first end vibration damping member and sequentially by the first end vibration damping member and the first transmission member, optionally, wherein the part of the first end vibration damping member has a thickness L in an axial direction of the rotation shaft, where Lid 0.5 mm.
A truck-mounted concrete pump having a vehicle and a concrete distributor boom that is arranged on said vehicle and comprises multiple boom arms that can be stowed as an arm assembly on a boom resting unit that is fixed to the vehicle, and a boom hydraulics system that is embodied so as to stow and unfold the arm assembly, said boom hydraulics system comprising at least one hydraulic cylinder that moves the arm assembly in a stowing movement against the boom resting unit, characterized by a protective circuit that is coupled to the hydraulic cylinder and terminates the stowing movement, said protective circuit comprising a switching unit that can be actuated under the load of the arm assembly, wherein the switching unit comprises a load receiving element that is arranged on the boom resting unit and can be deformed in a resilient manner when stowing the arm assembly, and wherein the arm assembly is only supported on the boom resting unit by way of the load receiving element.
A method of making vacuum insulating glass units, the method comprising: providing an oven having an oven interior and a wall in which a plurality of openings are formed, each opening corresponding to a different level of the oven and each level being suitable to accommodate a respective VIG unit subassembly, wherein a laser-grade mirror is located in the oven interior at each said level and wherein at least one window (23', 33a, 33b) is located in each said opening; and supplying VIG unit subassemblies to the oven at different respective levels thereof, the VIG unit subassemblies each having a pump-out tube to be sealed; locating, at each level, the pump-out tube of the corresponding VIG unit subassembly, using a vision system and a contrast-enhancing backlight provided at that level, the contrast-enhancing backlight being originated from a light source located external to the oven and being conveyed to the oven interior via a quartz rod; emitting laser beams from laser sources located outside of the oven, each said laser beam being (a) emitted through an associated opening and any windows (23', 33a, 33b) of the associated opening, (b) directed towards the mirror associated with that opening, and (c) redirected by the mirror towards the pump-out tube of the VIG unit subassembly at the corresponding level; the pump-out tubes being melted in making the VIG units. providing an oven having an oven interior and a wall in which a plurality of openings are formed, each opening corresponding to a different level of the oven and each level being suitable to accommodate a respective VIG unit subassembly, wherein a laser-grade mirror is located in the oven interior at each said level and wherein at least one window (23', 33a, 33b) is located in each said opening; and supplying VIG unit subassemblies to the oven at different respective levels thereof, the VIG unit subassemblies each having a pump-out tube to be sealed; locating, at each level, the pump-out tube of the corresponding VIG unit subassembly, using a vision system and a contrast-enhancing backlight provided at that level, the contrast-enhancing backlight being originated from a light source located external to the oven and being conveyed to the oven interior via a quartz rod; emitting laser beams from laser sources located outside of the oven, each said laser beam being (a) emitted through an associated opening and any windows (23', 33a, 33b) of the associated opening, (b) directed towards the mirror associated with that opening, and (c) redirected by the mirror towards the pump-out tube of the VIG unit subassembly at the corresponding level; (a) emitted through an associated opening and any windows (23', 33a, 33b) of the associated opening, (b) directed towards the mirror associated with that opening, and (c) redirected by the mirror towards the pump-out tube of the VIG unit subassembly at the corresponding level; the pump-out tubes being melted in making the VIG units.
A ready-to-use dialysis fluid or ready-to-use dialysis replacement fluid or ready-to-use peritoneal dialysis fluid comprising selenium (Se) in a concentration of 0.5-2.5 μM, preferably 0.6-1.8 μM, and more preferably 1-1.5 μM for use in dialysis treatment of a patient.