mhurhangee/patent-ind-claim-en huggingface dataset:
A method at a transmitting device for communicating via a network, the method comprising: defining a plurality of frequency sub-bands from a frequency band associated with a communications channel; allocating a portion of a total power capability associated with the transmitting device to each of the plurality of frequency sub-bands; and determining a power level for each of the plurality of frequency sub-bands based, at least in part, on the allocated portion of the total power capability and power spectral density, PSD, constraints; further comprising: determining a notch depth associated with different power levels for adjacent frequency sub-bands; selecting a transmission profile based, at least in part, upon the notch depth from among a plurality of transmission profiles for various notch depths, wherein each transmission profile is associated with different PSD roll-off characteristics; and communicating the selected transmission profile to a receiving device prior to utilizing the transmission profile for transmissions to the receiving device. defining a plurality of frequency sub-bands from a frequency band associated with a communications channel; allocating a portion of a total power capability associated with the transmitting device to each of the plurality of frequency sub-bands; and determining a power level for each of the plurality of frequency sub-bands based, at least in part, on the allocated portion of the total power capability and power spectral density, PSD, constraints; determining a notch depth associated with different power levels for adjacent frequency sub-bands; selecting a transmission profile based, at least in part, upon the notch depth from among a plurality of transmission profiles for various notch depths, wherein each transmission profile is associated with different PSD roll-off characteristics; and communicating the selected transmission profile to a receiving device prior to utilizing the transmission profile for transmissions to the receiving device.
A terminal comprising: a receiving section configured to receive, by higher layer signaling, information indicating symbols in which a downlink signal, including a synchronization signal and a physical broadcast channel, PBCH, is to be transmitted; and a control section configured not to perform an uplink data transmission in the symbols when the uplink data is scheduled in the symbols, wherein, if half-duplex communication is performed, the control section is configured not to perform the uplink data transmission in a predetermined time after the downlink signal. a receiving section configured to receive, by higher layer signaling, information indicating symbols in which a downlink signal, including a synchronization signal and a physical broadcast channel, PBCH, is to be transmitted; and a control section configured not to perform an uplink data transmission in the symbols when the uplink data is scheduled in the symbols, wherein, if half-duplex communication is performed, the control section is configured not to perform the uplink data transmission in a predetermined time after the downlink signal.
Use of an insulating multilayer sheet comprising: an electrically insulating resin film layer; and an adhesive layer that is provided on a single surface or both surfaces of the electrically insulating resin film layer, wherein the adhesive layer includes an epoxy group-containing ethylene based copolymer (A) and at least one ethylene based copolymer (B) (excluding the epoxy group-containing ethylene based copolymer (A)) selected from the group consisting of an ethylene/polar monomer copolymer and an ethylene/α-olefin copolymer having a density of 920 kg/m 3 or lower, and wherein the insulating multilayer sheet is used for fixing a solar cell module to a fixing member and encapsulating an end portion of the solar cell module; or wherein the insulating multilayer sheet is used for fixing a solar cell element and an encapsulating resin layer to each other and/or fixing solar cell elements to each other. an electrically insulating resin film layer; and an adhesive layer that is provided on a single surface or both surfaces of the electrically insulating resin film layer, wherein the adhesive layer includes an epoxy group-containing ethylene based copolymer (A) and at least one ethylene based copolymer (B) (excluding the epoxy group-containing ethylene based copolymer (A)) selected from the group consisting of an ethylene/polar monomer copolymer and an ethylene/α-olefin copolymer having a density of 920 kg/m 3 or lower, and wherein the insulating multilayer sheet is used for fixing a solar cell module to a fixing member and encapsulating an end portion of the solar cell module; or wherein the insulating multilayer sheet is used for fixing a solar cell element and an encapsulating resin layer to each other and/or fixing solar cell elements to each other.
Process for manufacturing a segmented discrete ply intended for the formation of a discrete segmented multilayer mat, the process comprising the steps of: a) providing a continuous single-layer sheet comprising, • a continuous pre-impregnated layer composed of unidirectional fibres disposed parallel to a longitudinal direction (D), the fibres being embedded in a resin matrix, • a continuous antiadhesive lining applied to a face of the continuous pre-impregnated layer, b) cutting the continuous single-layer sheet supplied in the step a) so as to form, in the continuous pre-impregnated layer , segments disposed in staggered fashion and thus form a segmented continuous sheet , said cutting being performed in such a way as to leave the continuous antiadhesive lining intact; c) cutting the segmented continuous sheet obtained in the step b) transversely along two cutting lines parallel to cutting directions (d1, d2, d3), oriented transversally with respect to the longitudinal direction (D), the segmented continuous sheet being cut over its entire width and thickness, including the antiadhesive lining, thus forming a segmented discrete ply formed by a discrete segmented pre-impregnated layer and the antiadhesive lining, and wherein the cutting lines form a cutting angle (α) with the longitudinal direction (D); wherein, a continuous sheet is a sheet having a geometry inscribed within a rectangle of length (L) and of width (l) with length-to-width ratio (L/l) greater than 20 (i.e. L/l > 20) and a discrete ply is a ply having a geometry inscribed within a rectangle of length (L) and of width (l) of length-to-width ratio (L/l) less than or equal to 20 (i.e. L/l ≤ 20). a) providing a continuous single-layer sheet comprising, • a continuous pre-impregnated layer composed of unidirectional fibres disposed parallel to a longitudinal direction (D), the fibres being embedded in a resin matrix, • a continuous antiadhesive lining applied to a face of the continuous pre-impregnated layer, • a continuous pre-impregnated layer composed of unidirectional fibres disposed parallel to a longitudinal direction (D), the fibres being embedded in a resin matrix, • a continuous antiadhesive lining applied to a face of the continuous pre-impregnated layer, b) cutting the continuous single-layer sheet supplied in the step a) so as to form, in the continuous pre-impregnated layer , segments disposed in staggered fashion and thus form a segmented continuous sheet , said cutting being performed in such a way as to leave the continuous antiadhesive lining intact; c) cutting the segmented continuous sheet obtained in the step b) transversely along two cutting lines parallel to cutting directions (d1, d2, d3), oriented transversally with respect to the longitudinal direction (D), the segmented continuous sheet being cut over its entire width and thickness, including the antiadhesive lining, thus forming a segmented discrete ply formed by a discrete segmented pre-impregnated layer and the antiadhesive lining, and wherein the cutting lines form a cutting angle (α) with the longitudinal direction (D);
A method for providing power from a multilevel regenerative drive to at least one auxiliary power supply , the multilevel regenerative drive including a converter , operatively connected to an inverter through a DC bus having an upper portion defined by a positive terminal and a neutral point and a lower portion defined by the neutral point and a negative terminal , the inverter coupled to a motor , the DC bus having an output voltage, the method comprising: generating duty cycle signals for upper and lower arms of each phase of the motor that maintain a neutral point current at about zero amperes at the neutral point ; and characterized by providing about half of the output voltage across the upper portion of the DC bus and about half of the output voltage across the lower portion of the DC bus, when the upper and lower portions of the DC bus are unevenly loaded, wherein a first auxiliary power supply is connected to one of the upper and lower portions of the DC bus and receives power from the multilevel regenerative drive ; the method further comprising: applying at least one of unipolar modulation and bipolar modulation to the converter ; and applying at least one of unipolar modulation and bipolar modulation to the inverter . generating duty cycle signals for upper and lower arms of each phase of the motor that maintain a neutral point current at about zero amperes at the neutral point ; and characterized by providing about half of the output voltage across the upper portion of the DC bus and about half of the output voltage across the lower portion of the DC bus, when the upper and lower portions of the DC bus are unevenly loaded, wherein a first auxiliary power supply is connected to one of the upper and lower portions of the DC bus and receives power from the multilevel regenerative drive ; the method further comprising: applying at least one of unipolar modulation and bipolar modulation to the converter ; and applying at least one of unipolar modulation and bipolar modulation to the inverter . applying at least one of unipolar modulation and bipolar modulation to the converter ; and applying at least one of unipolar modulation and bipolar modulation to the inverter .
A variable shaft of a hydraulic unit , comprising: a body having a first end and a second opposite end , a first flange (76 a) and a substantially identical second flange (76 b) integrally formed with the body of the shaft adjacent the second end , the first flange (76 a) located at the second end and the second flange (76 b) axially offset from the first flange (76 a), the first flange (76 a) and the second flange (76 b) each having an axial length parallel to a longitudinal axis of the body of .085 ± .010 inches (.216 ± .0254 cm), the first flange (76 a) and the second flange (76 b) having an outer diameter of 1.359 inches (3.452 cm), the first flange (76 a) and the second flange (76 b) being separated from one another by a distance of about .3162 inches (.8031 cm), wherein a portion of the body between the first flange (76 a) and the second flange (76 b) has an outer diameter of 1.2013 inches (3.051 cm), and characterized in that : a relief is formed about a circumference of the body , a first portion of the body extends between the first end and the relief , a second portion of the body is arranged adjacent the relief , opposite the first portion, and a third portion of the body extends from adjacent the second flange (76 b) towards the first end , an outer diameter of the first portion is .6680 +.000 -.0005 inches (1.697 +.000 -.0013 cm), an outer diameter of the second portion is .703 ± .010 inches (1.786 ± .0254 cm), and an outer diameter of the third portion is .810 ± .010 inches (2.057 ± .0254 cm).
An apparatus for use with a wearable cuff in determining blood pressure and/or pulse rate, wherein the wearable cuff is inflatable to pressurize a measurement site of a subject and the apparatus is configured to: acquire a pressure signal indicative of pressure in the wearable cuff during inflation of the wearable cuff to pressurize the measurement site of the subject ; analyze the acquired pressure signal to detect an artifact corresponding to a decrease in pressure during inflation of the wearable cuff due to cuff slippage; characterised in that the apparatus is further configured to determine the blood pressure and/or pulse rate of the subject by analyzing oscillations in the acquired pressure signal, wherein determining comprises compensating for the detected artifact. acquire a pressure signal indicative of pressure in the wearable cuff during inflation of the wearable cuff to pressurize the measurement site of the subject ; analyze the acquired pressure signal to detect an artifact corresponding to a decrease in pressure during inflation of the wearable cuff due to cuff slippage; characterised in that the apparatus is further configured to determine the blood pressure and/or pulse rate of the subject by analyzing oscillations in the acquired pressure signal, wherein determining comprises compensating for the detected artifact.
A method of illumination control for masking certain parts of a control area of a venue from certain characteristics of a dynamic lighting effect that is part of a light show or a stage effect, the method comprising: obtaining information of the dynamic lighting effect having at least one light variation characteristic comprising at least a light level intensity change, said information obtained for a target portion of a control area illuminated by said dynamic lighting effect, wherein said target portion of the control area is pre-established or determined by reference to audience data or in response to audience inputs; analysing said obtained information to identify one or more light variation characteristics comprising at least the light level intensity change, characterized by determining , based on the identified one or more light variation characteristics, a modifying lighting pattern, and controlling one or more luminaires to output the modifying lighting pattern selectively to only said target portion of the control area, such that said target portion of the control area is thus illuminated by a combination or superposition of the dynamic lighting effect and the modifying lighting effect, thereby reducing at least one of the identified one or more light variation characteristics, comprising at least a reduction in light level intensity change, rendered or perceived at said target portion of the control area, while leaving the identified one or more light variation characteristics of the dynamic lighting effect unaffected elsewhere. obtaining information of the dynamic lighting effect having at least one light variation characteristic comprising at least a light level intensity change, said information obtained for a target portion of a control area illuminated by said dynamic lighting effect, wherein said target portion of the control area is pre-established or determined by reference to audience data or in response to audience inputs; analysing said obtained information to identify one or more light variation characteristics comprising at least the light level intensity change, characterized by determining , based on the identified one or more light variation characteristics, a modifying lighting pattern, and controlling one or more luminaires to output the modifying lighting pattern selectively to only said target portion of the control area, such that said target portion of the control area is thus illuminated by a combination or superposition of the dynamic lighting effect and the modifying lighting effect, thereby reducing at least one of the identified one or more light variation characteristics, comprising at least a reduction in light level intensity change, rendered or perceived at said target portion of the control area, while leaving the identified one or more light variation characteristics of the dynamic lighting effect unaffected elsewhere.
A method for anticipating impacts on service levels of one or more services provided to a User Equipment, UE, while the UE moves along a planned route, each of the one or more services being provided to the UE using a network slice in a network slicing based mobile communication system, the method being performed by an anticipation component and comprising: receiving (S202), from the UE, a service level anticipation request for the planned route of the UE ; triggering (S204) determining an expected impact on the service levels of the one or more services at one or more locations of the planned route; and triggering (S206) sending to the UE a response to the service level anticipation request including information on the expected impact on the service levels, wherein the expected impact on the service levels is determined based on network slice selection information of the UE defining, for each of the one or more services, a network slice to be used for providing the respective service to the UE while the UE moves along the planned route, wherein the network slice selection information corresponds to a Network Slice Selection Assistance Information, NSSAI, which includes, for each network slice to be used for providing the respective service to the UE , a Single Network Slice Selection Assistance Information, S-NSSAI, defining the respective network slice, and wherein the network slice selection information is included in the service level anticipation request. receiving (S202), from the UE, a service level anticipation request for the planned route of the UE ; triggering (S204) determining an expected impact on the service levels of the one or more services at one or more locations of the planned route; and triggering (S206) sending to the UE a response to the service level anticipation request including information on the expected impact on the service levels, wherein the expected impact on the service levels is determined based on network slice selection information of the UE defining, for each of the one or more services, a network slice to be used for providing the respective service to the UE while the UE moves along the planned route, wherein the network slice selection information corresponds to a Network Slice Selection Assistance Information, NSSAI, which includes, for each network slice to be used for providing the respective service to the UE , a Single Network Slice Selection Assistance Information, S-NSSAI, defining the respective network slice, and wherein the network slice selection information is included in the service level anticipation request.
A mask apparatus comprising: a mask body configured to receive a battery at a center region of a front surface of the mask body ; a plurality of electronic components that are disposed at the mask body and that comprise: a pair of fan modules configured to be disposed at left and right sides of the battery , respectively, and a control module configured to be disposed between the battery and at least one of the pair of fan modules ; and a mask body cover that is coupled to the mask body and covers the plurality of electronic components, wherein the control module comprises: a first substrate configured to be disposed between the battery and a first fan module of the pair of fan modules ; and a second substrate configured to be disposed between the battery and a second fan module of the pair of fan modules , and wherein the center region configured to receive the battery , the pair of fan modules , and the first substrate and the second substrate are arranged along a widthwise direction of the mask body . a mask body configured to receive a battery at a center region of a front surface of the mask body ; a plurality of electronic components that are disposed at the mask body and that comprise: a pair of fan modules configured to be disposed at left and right sides of the battery , respectively, and a control module configured to be disposed between the battery and at least one of the pair of fan modules ; and a pair of fan modules configured to be disposed at left and right sides of the battery , respectively, and a control module configured to be disposed between the battery and at least one of the pair of fan modules ; and a mask body cover that is coupled to the mask body and covers the plurality of electronic components, wherein the control module comprises: a first substrate configured to be disposed between the battery and a first fan module of the pair of fan modules ; and a second substrate configured to be disposed between the battery and a second fan module of the pair of fan modules , and wherein the center region configured to receive the battery , the pair of fan modules , and the first substrate and the second substrate are arranged along a widthwise direction of the mask body . a first substrate configured to be disposed between the battery and a first fan module of the pair of fan modules ; and a second substrate configured to be disposed between the battery and a second fan module of the pair of fan modules , and wherein the center region configured to receive the battery , the pair of fan modules , and the first substrate and the second substrate are arranged along a widthwise direction of the mask body .
A cover apparatus for a truck cargo box , the cover apparatus comprising: a plurality of hinge units which is attached in longitudinal directions of a truck cargo box, and each of which includes a fixed element attached to a top surface of a side wall of the truck cargo box, characterized in that each hinge unit further comprises a rotating element coupled to the fixed element via a cross-shaped hinge so that it can be hinged in widthwise and lengthwise directions of the cargo box; and in that the cover apparatus further comprises variable members which are coupled to tops of the hinge units, and lengths of which are variable in accordance with deformation of a shape of the cargo box; covers which are coupled to tops of the variable members, and which selectively open and close a top opening of the cargo box in response to hinge operations of the hinge units; and rotational driving means which enable opening and closing operations of the covers to be automatically performed. a plurality of hinge units which is attached in longitudinal directions of a truck cargo box, and each of which includes a fixed element attached to a top surface of a side wall of the truck cargo box, characterized in that each hinge unit further comprises a rotating element coupled to the fixed element via a cross-shaped hinge so that it can be hinged in widthwise and lengthwise directions of the cargo box; and in that the cover apparatus further comprises variable members which are coupled to tops of the hinge units, and lengths of which are variable in accordance with deformation of a shape of the cargo box; covers which are coupled to tops of the variable members, and which selectively open and close a top opening of the cargo box in response to hinge operations of the hinge units; and rotational driving means which enable opening and closing operations of the covers to be automatically performed.