mhurhangee/ep-ind-claims huggingface dataset:
Method for transmitting useful data signals in a broadcast single frequency communication network comprising - at least one first ground station and at least one second ground station and a plurality of terminals, - wherein the at least one first and the at least one second ground station transmit received useful data to the terminals, and - wherein the at least one second ground station is further able to receive and transmit data from a terminal, wherein with this method - the at least one first and the at least one second ground station receive simultaneously or substantially simultaneously identical useful data that is transmitted to the terminals simultaneously or substantially simultaneously, and - the at least one first and the at least one second ground station transmit processable configuration data to the terminals in addition to the useful data, - wherein the configuration data transmitted by one of the at least one first ground station signalizes to those terminals receiving this configuration data that the respective first ground station is potentially not able to receive and/or to further transmit data sent from these terminals, - wherein exclusively the configuration data transmitted by one of the at least one second ground station signalizes to those terminals receiving this configuration data that the respective second ground station can potentially receive and further transmit data sent from these terminals, and - wherein the at least one first ground station and the at least one second ground station send the respective configuration data by using the same frequency band, the same time slot and the same spreading code. - at least one first ground station and at least one second ground station and a plurality of terminals, - wherein the at least one first and the at least one second ground station transmit received useful data to the terminals, and - wherein the at least one second ground station is further able to receive and transmit data from a terminal, - the at least one first and the at least one second ground station receive simultaneously or substantially simultaneously identical useful data that is transmitted to the terminals simultaneously or substantially simultaneously, and - the at least one first and the at least one second ground station transmit processable configuration data to the terminals in addition to the useful data, - wherein the configuration data transmitted by one of the at least one first ground station signalizes to those terminals receiving this configuration data that the respective first ground station is potentially not able to receive and/or to further transmit data sent from these terminals, - wherein exclusively the configuration data transmitted by one of the at least one second ground station signalizes to those terminals receiving this configuration data that the respective second ground station can potentially receive and further transmit data sent from these terminals, and - wherein the at least one first ground station and the at least one second ground station send the respective configuration data by using the same frequency band, the same time slot and the same spreading code.
A light-emitting electrochemical cell comprising: a light-emitting layer; and electrodes (13,14) respectively disposed on faces of the light-emitting layer, the light-emitting layer comprising: a light-emitting organic polymeric material; and a combination of two or more organic salts, wherein the combination of organic salts is any one of combinations of organic salts whose cations and anions are the same and different, respectively, and combinations of organic salts whose cations and anions are different and the same, respectively, wherein the molecular weight of a cation in each organic salt is 270 or higher and 900 or lower, and wherein the organic salts are each selected from phosphonium salts. a light-emitting layer; and electrodes (13,14) respectively disposed on faces of the light-emitting layer, the light-emitting layer comprising: a light-emitting organic polymeric material; and a combination of two or more organic salts, wherein the combination of organic salts is any one of combinations of organic salts whose cations and anions are the same and different, respectively, and combinations of organic salts whose cations and anions are different and the same, respectively, wherein the molecular weight of a cation in each organic salt is 270 or higher and 900 or lower, and wherein the organic salts are each selected from phosphonium salts. a light-emitting organic polymeric material; and a combination of two or more organic salts, wherein the combination of organic salts is any one of combinations of organic salts whose cations and anions are the same and different, respectively, and combinations of organic salts whose cations and anions are different and the same, respectively, wherein the molecular weight of a cation in each organic salt is 270 or higher and 900 or lower, and wherein the organic salts are each selected from phosphonium salts.
Imaging device for a photo finish type system, including a first camera aligned on a finish line, and characterized in that the device includes: a second camera also aligned on said finish line and offset by a first height (h) from said first camera for the display of three dimensional stereoscopic images. a second camera also aligned on said finish line and offset by a first height (h) from said first camera for the display of three dimensional stereoscopic images.
A measuring method of measuring a concentration of a target ingredient in blood introduced into a reagent layer by using a sensor including an interdigitated array electrode, that includes a first electrode having a first comb tooth and a second electrode having a second comb tooth, and the reagent layer on the interdigitated array electrode, in which the first comb tooth and the second comb tooth are alternately arrayed, the measuring method comprising: a step of applying a voltage to between the first electrode and the second electrode; a step of measuring a first current value of an electric current flowing between the first electrode and the second electrode at a first measurement time; a step of measuring a second current value of the current flowing between the first electrode and the second electrode at a second measurement time, wherein a period of time till the first current value is measured since applying the voltage is termed the first measurement time, a period of time till the second current value is measured since applying the voltage is termed the second measurement time, and the first current value is measured before a measurement of the second current value; a step of calculating the concentration of the target ingredient in the blood, based on a third current value; characterised in that the method further comprising a step of calculating a correction value for correcting influence by a hematocrit value in the blood, based on the first current value and the second current value; and a step of correcting the concentration of the target ingredient in the blood, based on the correction value. a step of applying a voltage to between the first electrode and the second electrode; a step of measuring a first current value of an electric current flowing between the first electrode and the second electrode at a first measurement time; a step of measuring a second current value of the current flowing between the first electrode and the second electrode at a second measurement time, wherein a period of time till the first current value is measured since applying the voltage is termed the first measurement time, a period of time till the second current value is measured since applying the voltage is termed the second measurement time, and the first current value is measured before a measurement of the second current value; a step of calculating the concentration of the target ingredient in the blood, based on a third current value; characterised in that the method further comprising a step of calculating a correction value for correcting influence by a hematocrit value in the blood, based on the first current value and the second current value; and a step of correcting the concentration of the target ingredient in the blood, based on the correction value.
System for controlling an aircraft control parameter, said control system comprising a control interface, which includes: - a mobile element configured to move on a travel, said travel defining at least two portions of travel (26, 28) separated by a neutral position; - a return element configured to bring the mobile element back to said neutral position when said mobile element is not actuated; and - an interaction element, said control system also comprising a control unit configured to: - memorize an item of information corresponding to a first position of the mobile element at an instant of activation of the interaction element; and - generate a setpoint of said aircraft control parameter, characterized in that said setpoint is generated as a function of a control associated with: • said first position of the mobile element for which said information has been memorized at said instant of activation of the interaction element; or • a current position of the mobile element, when this current position and the first position are situated on the same portion of travel and this current position is more remote from the neutral position than the first position is remote from the neutral position. - a mobile element configured to move on a travel, said travel defining at least two portions of travel (26, 28) separated by a neutral position; - a return element configured to bring the mobile element back to said neutral position when said mobile element is not actuated; and - an interaction element, - memorize an item of information corresponding to a first position of the mobile element at an instant of activation of the interaction element; and - generate a setpoint of said aircraft control parameter, characterized in that said setpoint is generated as a function of a control associated with: • said first position of the mobile element for which said information has been memorized at said instant of activation of the interaction element; or • a current position of the mobile element, when this current position and the first position are situated on the same portion of travel and this current position is more remote from the neutral position than the first position is remote from the neutral position. • said first position of the mobile element for which said information has been memorized at said instant of activation of the interaction element; or • a current position of the mobile element, when this current position and the first position are situated on the same portion of travel and this current position is more remote from the neutral position than the first position is remote from the neutral position.
A method for handling mobility synchronization measurements, the method being performed by a wireless device, the method comprising the steps of: receiving an indication to perform mobility measurements on a set of transmission beams (15a, 15b, 15c, 15d, 15e, 15f) associated with a unique identity, wherein the unique identity is represented by a sequence of binary digits, and identities of single transmission beams (15a, 15b, 15c, 15d, 15e, 15f) in the set of transmission beams share at least a subset of the sequence of binary digits; checking if said unique identity has previously been stored by the wireless device, and if so: performing (S106a) mobility measurements on the set of transmission beams based on previously stored synchronization information of the set of transmission beams, wherein said synchronization information is identified by said unique identity. receiving an indication to perform mobility measurements on a set of transmission beams (15a, 15b, 15c, 15d, 15e, 15f) associated with a unique identity, wherein the unique identity is represented by a sequence of binary digits, and identities of single transmission beams (15a, 15b, 15c, 15d, 15e, 15f) in the set of transmission beams share at least a subset of the sequence of binary digits; checking if said unique identity has previously been stored by the wireless device, and if so: performing (S106a) mobility measurements on the set of transmission beams based on previously stored synchronization information of the set of transmission beams, wherein said synchronization information is identified by said unique identity.
A method at a node in a wireless communication network that is configured for Coordinated Multi-Point, "CoMP", operation, said method comprising configuring one or more transmission points in a set of CoMP transmission points on a dynamic basis, with respect to one or more defined Interference Measurement Resources, "IMRs", including configuring a first transmission point to follow a first rule according to which the first transmission point: transmits on at least one of the IMRs, if the first transmission point is deemed as being not likely to transmit data at a time relevant to the at least one IMR; and does not transmit on the at least one IMR, if the first transmission point is deemed as being likely to transmit data at a time relevant to the at least one IMR. transmits on at least one of the IMRs, if the first transmission point is deemed as being not likely to transmit data at a time relevant to the at least one IMR; and does not transmit on the at least one IMR, if the first transmission point is deemed as being likely to transmit data at a time relevant to the at least one IMR.
Method for producing a fiber-reinforced transparent composite material, comprising the process steps: a) providing a material matrix melt; and b) producing reinforcing fibers, wherein process step b) comprises the process steps: b1) providing a mixture comprising a silicon source and a carbon source, wherein the silicon source and the carbon source are together present in particles of solid granules; b2) treating the mixture provided in process step b1) at a temperature in a range from ≥ 1400°C to ≤ 2000°C, in particular in a range from ≥ 1650°C to ≤ 1850°C in order to produce reinforcing fibers with a thickness in a range from ≥ 0.1 μm to ≤ 2 μm, wherein the reinforcing fibers being formed from silicon carbide, wherein the silicon carbide is monocrystalline 3C-SiC or 6HSiC, wherein the method comprises the further process steps: c) introducing the reinforcing fibers into the material melt in such a way that the reinforcing fibers are present in an amount of ≥ 2 vol.-% to ≤ 60 vol.-%; and d) optionally cooling the material melt in order to form a transparent composite material. a) providing a material matrix melt; and b) producing reinforcing fibers, wherein process step b) comprises the process steps: b1) providing a mixture comprising a silicon source and a carbon source, wherein the silicon source and the carbon source are together present in particles of solid granules; b2) treating the mixture provided in process step b1) at a temperature in a range from ≥ 1400°C to ≤ 2000°C, in particular in a range from ≥ 1650°C to ≤ 1850°C in order to produce reinforcing fibers with a thickness in a range from ≥ 0.1 μm to ≤ 2 μm, wherein the reinforcing fibers being formed from silicon carbide, wherein the silicon carbide is monocrystalline 3C-SiC or 6HSiC, wherein the method comprises the further process steps: b1) providing a mixture comprising a silicon source and a carbon source, wherein the silicon source and the carbon source are together present in particles of solid granules; b2) treating the mixture provided in process step b1) at a temperature in a range from ≥ 1400°C to ≤ 2000°C, in particular in a range from ≥ 1650°C to ≤ 1850°C in order to produce reinforcing fibers with a thickness in a range from ≥ 0.1 μm to ≤ 2 μm, wherein the reinforcing fibers being formed from silicon carbide, wherein the silicon carbide is monocrystalline 3C-SiC or 6HSiC, wherein the method comprises the further process steps: c) introducing the reinforcing fibers into the material melt in such a way that the reinforcing fibers are present in an amount of ≥ 2 vol.-% to ≤ 60 vol.-%; and d) optionally cooling the material melt in order to form a transparent composite material.
An information transmission method, comprising: generating an orthogonal frequency division multiplexing, OFDM, symbol, wherein the OFDM symbol comprises a π/2, pi/2,-binary phase shift keying, BPSK, modulated data signal and a pi/2-BPSK modulated phase tracking reference signal, PTRS; and sending the OFDM symbol; wherein the method further comprises: phase-shifting a BPSK modulated PTRS, to obtain the pi/2-BPSK modulated PTRS, wherein the BPSK modulated PTRS comprises one or more PTRS blocks, each PTRS block comprises one or more BPSK modulated symbols; a phase shift amount of each BPSK modulated symbol in the one or more PTRS blocks is related to a location of the each BPSK modulated symbol in a sequence, wherein the sequence comprises one or more BPSK modulated data signals and the BPSK modulated PTRS. generating an orthogonal frequency division multiplexing, OFDM, symbol, wherein the OFDM symbol comprises a π/2, pi/2,-binary phase shift keying, BPSK, modulated data signal and a pi/2-BPSK modulated phase tracking reference signal, PTRS; and sending the OFDM symbol; wherein the method further comprises: phase-shifting a BPSK modulated PTRS, to obtain the pi/2-BPSK modulated PTRS, wherein the BPSK modulated PTRS comprises one or more PTRS blocks, each PTRS block comprises one or more BPSK modulated symbols; a phase shift amount of each BPSK modulated symbol in the one or more PTRS blocks is related to a location of the each BPSK modulated symbol in a sequence, wherein the sequence comprises one or more BPSK modulated data signals and the BPSK modulated PTRS. phase-shifting a BPSK modulated PTRS, to obtain the pi/2-BPSK modulated PTRS, wherein the BPSK modulated PTRS comprises one or more PTRS blocks, each PTRS block comprises one or more BPSK modulated symbols; a phase shift amount of each BPSK modulated symbol in the one or more PTRS blocks is related to a location of the each BPSK modulated symbol in a sequence, wherein the sequence comprises one or more BPSK modulated data signals and the BPSK modulated PTRS.
Transport bag for transporting an item of goods in a system for transporting suspended goods, comprising a suspending member by which the transport bag can be suspended from the system for transporting suspended goods, a bag-body having a front wall, a rear wall and, therebetween, a floor, the front wall having an opening, and a raising member by means of which the bag-body hangs from the suspending member and by which the bag-body can be changed over between at least two positions in which the front wall and the rear wall assume different vertical positions relative to one another, the opening being positioned and designed in such a way that, in a first of the at least two positions of the bag-body, the opening is at a distance from a lowest point of the bag-body suitable for the item of goods to be safely received in the bag-body, characterised in that, in a second of the at least two positions of the bag-body, the opening reaches down to the lowest point of the bag-body, the item of goods thus being able to slide out of bag-body, through the opening, by gravity in the second position. by means of which the bag-body hangs from the suspending member and by which the bag-body can be changed over between at least two positions in which the front wall and the rear wall assume different vertical positions relative to one another,
A method of operating a wireless mesh network, characterized by: actuating a sleeping neighbor wireless mesh network node in proximity to a second node to be added to the mesh network, causing the sleeping neighbor wireless mesh network to be woke from a synchronized sleep state prior to a scheduled synchronized wake period of a sleep schedule, wherein during the synchronized sleep state the sleeping neighbor wireless mesh network node is inactive and wherein actuating the sleeping neighbor wireless mesh network node triggers an interrupt or other monitored I/O function operable to wake up the sleeping neighbor wireless mesh network node;and adding the second node to the wireless mesh network, the second node exchanging data, including the sleep schedule, with the neighbor wireless mesh network node to join the network; wherein, after the second node joins the network, the second node and the neighbor wireless mesh network node return to a sleep state until a next scheduled synchronized wake period according to the sleep schedule; wherein the sleep schedule coordinates sleep periods and synchronized wake periods such that the neighbor wireless mesh network node, the second node, and one or more other wireless mesh network nodes are awake at the same time. actuating a sleeping neighbor wireless mesh network node in proximity to a second node to be added to the mesh network, causing the sleeping neighbor wireless mesh network to be woke from a synchronized sleep state prior to a scheduled synchronized wake period of a sleep schedule, wherein during the synchronized sleep state the sleeping neighbor wireless mesh network node is inactive and wherein actuating the sleeping neighbor wireless mesh network node triggers an interrupt or other monitored I/O function operable to wake up the sleeping neighbor wireless mesh network node;and adding the second node to the wireless mesh network, the second node exchanging data, including the sleep schedule, with the neighbor wireless mesh network node to join the network;
A method of computing weighting factors for wireless signals received at a wireless receiver, the method comprising: factoring a covariance matrix determined for a first received signal to determine a covariance factor matrix for the first received signal; determining a first set of weighting factors for the first received signal based on the covariance factor matrix; and reusing the covariance factor matrix to determine a second set of weighting factors for a second received signal characterized in that reusing the covariance factor matrix comprises: determining (232, 234; 233, 235) a set of weighting factor updates for the second received signal based on the covariance factor matrix; and adding the first set of weighting factors to the set of weighting factor updates to determine the second set of weighting factors. factoring a covariance matrix determined for a first received signal to determine a covariance factor matrix for the first received signal; determining a first set of weighting factors for the first received signal based on the covariance factor matrix; and reusing the covariance factor matrix to determine a second set of weighting factors for a second received signal reusing the covariance factor matrix comprises: determining (232, 234; 233, 235) a set of weighting factor updates for the second received signal based on the covariance factor matrix; and adding the first set of weighting factors to the set of weighting factor updates to determine the second set of weighting factors. determining (232, 234; 233, 235) a set of weighting factor updates for the second received signal based on the covariance factor matrix; and adding the first set of weighting factors to the set of weighting factor updates to determine the second set of weighting factors.