mhurhangee/ep-ind-claims huggingface dataset:
Method of joint beam selection and partitioning of transmission resources for a downlink between a base station, BS, and a user equipment, UE, in a cellular network, the transmission resources being partitioned with a partitioning factor, β between a data communication service, in which data are transmitted on the downlink, and a localization service, in which the UE is localized, the BS comprising a memory in which are stored a plurality of beam dictionaries, BD k, k =1,..,N, each dictionary BD k being associated with a given beamwidth θ k and defining a set of beams having the same beamwidth and different orientations, wherein (a) the BS is provided with an estimate ( d̂) of the position of the UE along with a standard deviation ( σ d) of this estimate; (b) the BS is provided with an estimate of the angle of arrival ( ψ̂) of the signal at the UE along with a standard deviation ( σ ψ) of this estimate; (c) for each beam dictionary, BD k, k =1,..,N and a BS beam of this dictionary having a coverage area including the UE, it is determined a partitioning factor, β k ∗, which maximizes a communication performance indicator f com ( k,β) while meeting a predetermined constraint of a localization performance indicator; (d) the beam dictionary, ƒ com k β k ∗, corresponding to the highest value of the communication performance indicators ƒ com k β k ∗, k =1,..,N is selected, the optimal partitioning factor ( β com∗) corresponding to said highest value being used for partitioning said transmission resources and the BS using for data communication the beam in the selected beam dictionary, BD k∗, having a coverage area including the UE; (e) the optimal partitioning factor is sent by the BS to the UE. (a) the BS is provided with an estimate ( d̂) of the position of the UE along with a standard deviation ( σ d) of this estimate; (b) the BS is provided with an estimate of the angle of arrival ( ψ̂) of the signal at the UE along with a standard deviation ( σ ψ) of this estimate; (c) for each beam dictionary, BD k, k =1,..,N and a BS beam of this dictionary having a coverage area including the UE, it is determined a partitioning factor, β k ∗, which maximizes a communication performance indicator f com ( k,β) while meeting a predetermined constraint of a localization performance indicator; (d) the beam dictionary, ƒ com k β k ∗, corresponding to the highest value of the communication performance indicators ƒ com k β k ∗, k =1,..,N is selected, the optimal partitioning factor ( β com∗) corresponding to said highest value being used for partitioning said transmission resources and the BS using for data communication the beam in the selected beam dictionary, BD k∗, having a coverage area including the UE; (e) the optimal partitioning factor is sent by the BS to the UE.
In vitro method of screening antibacterial molecule that inhibits the Mfd activity comprising the steps of: a- preparing several pairs of cultures of a pathogenic bacteria expressing a functional Mfd in culture media containing different concentrations of said molecule to be tested; said concentrations of molecule to be tested being inferior or equal to 1 mM; b- incubating one of each pair of cultures to nitric oxide stress, leaving the other pair of culture untreated; c- evaluating the bacterial survival in each of the cultures; d- calculating the concentration of the molecule to be tested required to decrease by 50% the survival rate of the bacteria (IC 50) by comparing the cfu of the culture with the molecule to be tested in two conditions: untreated and following nitric oxide stress; d2- selecting the molecule showing an IC50 less or equal to 200 μM; e- incubating the Mfd peptide with the molecule identified as a Mfd inhibitor; and f- determining whether or not the ATPase activity of Mfd is reduced relative to the activity of a Mfd that has not been contacted with said molecule. a- preparing several pairs of cultures of a pathogenic bacteria expressing a functional Mfd in culture media containing different concentrations of said molecule to be tested; said concentrations of molecule to be tested being inferior or equal to 1 mM; b- incubating one of each pair of cultures to nitric oxide stress, leaving the other pair of culture untreated; c- evaluating the bacterial survival in each of the cultures; d- calculating the concentration of the molecule to be tested required to decrease by 50% the survival rate of the bacteria (IC 50) by comparing the cfu of the culture with the molecule to be tested in two conditions: untreated and following nitric oxide stress; d2- selecting the molecule showing an IC50 less or equal to 200 μM; e- incubating the Mfd peptide with the molecule identified as a Mfd inhibitor; and f- determining whether or not the ATPase activity of Mfd is reduced relative to the activity of a Mfd that has not been contacted with said molecule.
A method for discontinuous reception, comprising: receiving, by a terminal, switch indication information sent by a network device and used to instruct the terminal to switch from a first discontinuous reception DRX pattern being used to a second DRX pattern, wherein each of the first DRX pattern and the second DRX pattern indicates a duration of a DRX sleeping period and a duration of a DRX active period; and switching, by the terminal, between the DRX sleeping period and the DRX active period with the second DRX pattern based on the switch indication information, characterized in that the duration of the DRX sleeping period and/or the duration of the DRX active period are determined based on at least one of the following: service quality or a service attribute corresponding to downlink data to be transmitted; time required for encoding uplink and/or downlink data; or time required for decoding uplink and/or downlink data. receiving, by a terminal, switch indication information sent by a network device and used to instruct the terminal to switch from a first discontinuous reception DRX pattern being used to a second DRX pattern, wherein each of the first DRX pattern and the second DRX pattern indicates a duration of a DRX sleeping period and a duration of a DRX active period; and switching, by the terminal, between the DRX sleeping period and the DRX active period with the second DRX pattern based on the switch indication information, characterized in that the duration of the DRX sleeping period and/or the duration of the DRX active period are determined based on at least one of the following: service quality or a service attribute corresponding to downlink data to be transmitted; time required for encoding uplink and/or downlink data; or time required for decoding uplink and/or downlink data. service quality or a service attribute corresponding to downlink data to be transmitted; time required for encoding uplink and/or downlink data; or time required for decoding uplink and/or downlink data.
Method for optoelectronic distance measurement, in which the distance is determined via a position of distinguishable light points (6, 7), wherein at least one pair of light points (6, 7) is imaged on an object moving along an optical axis of a light source, wherein the distance of the moving object is determined from an angle of rotation (θ) of the light points (6, 7) of the pair of points with respect to one another, wherein the light points (6, 7) are generated from a light beam by phase shift, the light points (6, 7) of the pair of points rotating about one another with the angle of rotation (θ) during the movement of the object while the angle of rotation (θ) is changing, characterized in that a wavelength of the light beam generating the light points (6, 7) is changed at least once during the distance measurement, the angle of rotation (θ) for the at least one pair of points (6, 7) being determined for each wavelength.
A gas turbine component, comprising: a body portion or wall; and a cooling scheme (64;164;264;364) disposed inside said body portion or formed inside said wall, said cooling scheme (64;164;264;364) including: a vascular engineered lattice structure (80; 180); wherein said cooling scheme further comprises a non-vascular heat transfer device (81;181A,181B;281A,281B;381A,381B;381C) adjacent to said vascular engineered lattice structure (80;180); said non-vascular heat transfer device (81; 181A,181B; 281A,281B; 381A,381B; 381C) includes a plurality of trip strips, a plurality of dimples, a plurality of pins or a plurality of chevron trip strips; characterised in that said non-vascular heat transfer device (81; 181A; 181B; 281A,281B) is disposed upstream from said vascular engineered lattice structure (80; 180) or is disposed downstream from said vascular engineered lattice structure. a body portion or wall; and a cooling scheme (64;164;264;364) disposed inside said body portion or formed inside said wall, said cooling scheme (64;164;264;364) including: a vascular engineered lattice structure (80; 180); wherein said cooling scheme further comprises a non-vascular heat transfer device (81;181A,181B;281A,281B;381A,381B;381C) adjacent to said vascular engineered lattice structure (80;180); said non-vascular heat transfer device (81; 181A,181B; 281A,281B; 381A,381B; 381C) includes a plurality of trip strips, a plurality of dimples, a plurality of pins or a plurality of chevron trip strips; characterised in that said non-vascular heat transfer device (81; 181A; 181B; 281A,281B) is disposed upstream from said vascular engineered lattice structure (80; 180) or is disposed downstream from said vascular engineered lattice structure.
A portable multi-lead electrocardiogram device, comprising: a holding case; a signal processing module located in the holding case; and three metal contacts located on an exterior surface of the holding case and electrically connected to the signal processing module; the three metal contacts respectively being a body contact; a left hand contact for contacting a finger or a palm of a left hand, the left hand contact having a left hand contact plane; and a right hand contact for contacting a finger or a palm of a right hand, the right hand contact having a right hand contact plane, the portable multi-lead electrocardiogram device has a body contact direction and a transverse direction which are perpendicular to each other; and that the left hand contact and the right hand contact are located on a top of the holding case; the portable multi-lead electrocardiogram device being characterized in that the left hand contact plane and the right hand contact plane are inclined respectively toward opposite sides along the transverse direction. a holding case; a signal processing module located in the holding case; and three metal contacts located on an exterior surface of the holding case and electrically connected to the signal processing module; the three metal contacts respectively being a body contact; a left hand contact for contacting a finger or a palm of a left hand, the left hand contact having a left hand contact plane; and a right hand contact for contacting a finger or a palm of a right hand, the right hand contact having a right hand contact plane, a body contact; a left hand contact for contacting a finger or a palm of a left hand, the left hand contact having a left hand contact plane; and a right hand contact for contacting a finger or a palm of a right hand, the right hand contact having a right hand contact plane, the portable multi-lead electrocardiogram device has a body contact direction and a transverse direction which are perpendicular to each other; and that the left hand contact and the right hand contact are located on a top of the holding case; the portable multi-lead electrocardiogram device being characterized in that the left hand contact plane and the right hand contact plane are inclined respectively toward opposite sides along the transverse direction.
A method for wireless communication, comprising: transmitting from a base station first control information to support communication for at least one first user equipment, UE, on a first system bandwidth; and transmitting from the base station second control information to support communication for at least one second UE on a second system bandwidth overlapping the first system bandwidth, and wherein the second system bandwidth comprises the first system bandwidth and additional bandwidth; wherein the at least one first UE communicates with the base station on the first system bandwidth for downlink and on a third system bandwidth for uplink, wherein the at least one second UE communicates with the base station on the second system bandwidth for the downlink and on a fourth system bandwidth for the uplink, and wherein the fourth system bandwidth overlaps the third system bandwidth and comprises the third system bandwidth and another additional bandwidth; and wherein resource blocks within the first system bandwidth are assigned unique indices, resource blocks within the additional bandwidth are assigned unique indices, and a given resource block has a same index for the first bandwidth and the bandwidth portion of the second system bandwidth that overlaps the first bandwidth; and further comprising transmitting a cell-specific reference signal, CRS, across the first system bandwidth. transmitting from a base station first control information to support communication for at least one first user equipment, UE, on a first system bandwidth; and transmitting from the base station second control information to support communication for at least one second UE on a second system bandwidth overlapping the first system bandwidth, and wherein the second system bandwidth comprises the first system bandwidth and additional bandwidth; wherein the at least one first UE communicates with the base station on the first system bandwidth for downlink and on a third system bandwidth for uplink, wherein the at least one second UE communicates with the base station on the second system bandwidth for the downlink and on a fourth system bandwidth for the uplink, and wherein the fourth system bandwidth overlaps the third system bandwidth and comprises the third system bandwidth and another additional bandwidth; and wherein resource blocks within the first system bandwidth are assigned unique indices, resource blocks within the additional bandwidth are assigned unique indices, and a given resource block has a same index for the first bandwidth and the bandwidth portion of the second system bandwidth that overlaps the first bandwidth; and further comprising transmitting a cell-specific reference signal, CRS, across the first system bandwidth.
A method for processing a terminal anomaly, comprising: recording use habit information of a user on a terminal; acquiring operation information that is currently detected by the terminal; and reporting anomaly alarm information to a predetermined object when the operation information does not match the use habit information, characterized in that the use habit information comprises at least one of the following: holding manner, distance between the terminal and the user's eyes, and holding angle and further characterized in that reporting anomaly alarm information to a predetermined object when the operation information does not match the use habit information comprises: counting the number of times of non-matching events within a predetermined time duration; determining whether the counted number of times is greater than or equal to a predetermined threshold of the number of times; and reporting the anomaly alarm information to the predetermined object if the counted number of times is greater than or equal to the predetermined threshold of the number of times. recording use habit information of a user on a terminal; acquiring operation information that is currently detected by the terminal; and reporting anomaly alarm information to a predetermined object when the operation information does not match the use habit information, characterized in that the use habit information comprises at least one of the following: holding manner, distance between the terminal and the user's eyes, and holding angle and further characterized in that reporting anomaly alarm information to a predetermined object when the operation information does not match the use habit information comprises: counting the number of times of non-matching events within a predetermined time duration; determining whether the counted number of times is greater than or equal to a predetermined threshold of the number of times; and reporting the anomaly alarm information to the predetermined object if the counted number of times is greater than or equal to the predetermined threshold of the number of times. holding manner, distance between the terminal and the user's eyes, and holding angle and further characterized in that reporting anomaly alarm information to a predetermined object when the operation information does not match the use habit information comprises: counting the number of times of non-matching events within a predetermined time duration; determining whether the counted number of times is greater than or equal to a predetermined threshold of the number of times; and reporting the anomaly alarm information to the predetermined object if the counted number of times is greater than or equal to the predetermined threshold of the number of times. counting the number of times of non-matching events within a predetermined time duration; determining whether the counted number of times is greater than or equal to a predetermined threshold of the number of times; and reporting the anomaly alarm information to the predetermined object if the counted number of times is greater than or equal to the predetermined threshold of the number of times.
A light source control method using a light detector comprising an image sensor, a display, a user interface, and a decoder, the light source control method characterized in that it comprises: - performing a capturing sequence, comprising capturing an image of a set of light sources using the image sensor and displaying the image on the display; requesting a user to point the light detector at at least a subset of the set of light sources, one light source at a time; capturing a sub-image (400a-400f) for each pointing; and, for each sub-image, detecting using the decoder individually coded light emitted from any light source emitting individually coded light and being present in the sub-image; - performing a selection sequence comprising displaying a panoramic image on the display showing a combination of the sub-images and information related to decoded light sources overlaid on the corresponding light sources in the panoramic image; and receiving user input using the user interface, the user input representing user selection of a portion of the panoramic image; and - performing a control sequence comprising controlling at least one light source emitting individually coded light and having been detected in at least one of the sub-images comprising the selected portion. - performing a capturing sequence, comprising capturing an image of a set of light sources using the image sensor and displaying the image on the display; requesting a user to point the light detector at at least a subset of the set of light sources, one light source at a time; capturing a sub-image (400a-400f) for each pointing; and, for each sub-image, detecting using the decoder individually coded light emitted from any light source emitting individually coded light and being present in the sub-image; - performing a selection sequence comprising displaying a panoramic image on the display showing a combination of the sub-images and information related to decoded light sources overlaid on the corresponding light sources in the panoramic image; and receiving user input using the user interface, the user input representing user selection of a portion of the panoramic image; and - performing a control sequence comprising controlling at least one light source emitting individually coded light and having been detected in at least one of the sub-images comprising the selected portion.
A use of an austenitic heat resistant nickel-base alloy comprising (in % by mass) 0.03 - 0.1 % C 28 - 32 % Cr 0.01 - < 0.5 % Mn 0.01 - ≤ 0.3% Si 0.01 - < 1.0 % Mo 2.5 - 3.2 % Ti 0.01 - ≤ 0.5%Nb 0.01 - ≤ 0.5% Cu 0.05 - ≤ 2.0 % Fe 0.7 - 1.0 % Al 0.001 - ≤ 0.03 % mag 0.01 - ≤ 1.0 % Co 0.01 - 0.10 % Hf 0.01 - 0.10 % Zr 0.002 - 0.02 % B 0.001 - 0.01 % N max. 0.01 % S max. 0.005 % Pb max. 0.0005 % Bi max. 0.01 % Ag the rest being Ni and production-related admixtures, wherein the total of Ti + Al is comprised between 3.3 and 4.3 %, the total of C + (10 x B) is comprised between 0.05 and 0.2 %, the total of Hf + Zr is comprised between 0.05 and 0.15 %, the ratio Ti/Al is > 3 and the ratio Zr/Hf = 0.1 - 0.5 % as a valve material. 0.03 - 0.1 % C 28 - 32 % Cr 0.01 - < 0.5 % Mn 0.01 - ≤ 0.3% Si 0.01 - < 1.0 % Mo 2.5 - 3.2 % Ti 0.01 - ≤ 0.5%Nb 0.01 - ≤ 0.5% Cu 0.05 - ≤ 2.0 % Fe 0.7 - 1.0 % Al 0.001 - ≤ 0.03 % mag 0.01 - ≤ 1.0 % Co 0.01 - 0.10 % Hf 0.01 - 0.10 % Zr 0.002 - 0.02 % B 0.001 - 0.01 % N max. 0.01 % S max. 0.005 % Pb max. 0.0005 % Bi max. 0.01 % Ag the rest being Ni and production-related admixtures, wherein the total of Ti + Al is comprised between 3.3 and 4.3 %, the total of C + (10 x B) is comprised between 0.05 and 0.2 %, the total of Hf + Zr is comprised between 0.05 and 0.15 %, the ratio Ti/Al is > 3 and the ratio Zr/Hf = 0.1 - 0.5 % as a valve material.
Housing for a motor vehicle heating, ventilation and/or air conditioning system intended for the thermal treatment of an air flow, the housing comprising a joining portion between the housing and a component of the heating, ventilation and/or air conditioning system, said joining portion forming part of a unit called intake unit of the housing, intended to receive the intake fan for moving the air in said housing, and also a control unit for the intake fan, wherein the joining portion is designed to discharge a flow of water from the air flow and comprises at least one water diversion wall (5, 6, 7) disposed along an edge of an orifice in such a way that the water flows between said wall and another part of the housing, said orifice being intended to receive the fan control unit, the housing further comprising: - a curved or sloping portion disposed downstream of the joining portion relative to the flow of water, characterized in that the housing comprises: - a tongue in the extension of the curved portion, and - a receiving unit for receiving a heat exchanger of the heating, ventilation and/or air conditioning system, said receiving unit being secured to the tongue by an interlocking member, the tongue being disposed on the interlocking member while protruding from said interlocking member. - a curved or sloping portion disposed downstream of the joining portion relative to the flow of water, characterized in that the housing comprises: - a tongue in the extension of the curved portion, and - a receiving unit for receiving a heat exchanger of the heating, ventilation and/or air conditioning system, said receiving unit being secured to the tongue by an interlocking member, the tongue being disposed on the interlocking member while protruding from said interlocking member. - a tongue in the extension of the curved portion, and - a receiving unit for receiving a heat exchanger of the heating, ventilation and/or air conditioning system, said receiving unit being secured to the tongue by an interlocking member, the tongue being disposed on the interlocking member while protruding from said interlocking member.