mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method (400, 800, 900) for seismic processing to generate a seismic image of a subterranean area comprising: • receiving (402, 902) seismic data comprising acquired seismic waveforms that were acquired from a seismic receiver and represent the subterranean area; • generating (406, 904) synthetic waveforms based on an initial model of the subterranean area; • determining (408, 906) a model error; • adjusting (410, 922) the initial model based on the model error to generate an adjusted model; and • performing a full-waveform inversion (412, 924) using the adjusted model as a background model to generate the seismic image of the subterranean area; characterized in that determining the model error comprises: • determining (802, 908) a travel time shift objective function in a time domain, wherein the travel time shift objective function represents a travel time shift between at least one of the acquired waveforms and at least one of the synthetic waveforms; and • determining (804, 912) a local travel time shift error by directly minimizing the travel time shift objective function as a local attribute; • translating (806, 916) the local travel time shift error to an unwrapped instantaneous phase error; • determining (808, 918) an instantaneous phase objective function relation based on the unwrapped instantaneous phase error; and • back projecting (810, 920) the travel time shift error to the model error using the instantaneous phase objective function relation. • receiving (402, 902) seismic data comprising acquired seismic waveforms that were acquired from a seismic receiver and represent the subterranean area; • generating (406, 904) synthetic waveforms based on an initial model of the subterranean area; • determining (408, 906) a model error; • adjusting (410, 922) the initial model based on the model error to generate an adjusted model; and • performing a full-waveform inversion (412, 924) using the adjusted model as a background model to generate the seismic image of the subterranean area; characterized in that determining the model error comprises: • determining (802, 908) a travel time shift objective function in a time domain, wherein the travel time shift objective function represents a travel time shift between at least one of the acquired waveforms and at least one of the synthetic waveforms; and • determining (804, 912) a local travel time shift error by directly minimizing the travel time shift objective function as a local attribute; • translating (806, 916) the local travel time shift error to an unwrapped instantaneous phase error; • determining (808, 918) an instantaneous phase objective function relation based on the unwrapped instantaneous phase error; and • back projecting (810, 920) the travel time shift error to the model error using the instantaneous phase objective function relation.
A mobile phone device comprising: wireless communication means; telephone function means for performing at least a voice telephone call via the wireless communication means; remote operation function means for accepting a remote operation on the mobile phone device from an external; and control means for controlling the remote operation function means to allow accepting the remote operation on the condition that a telephone call using the telephone function means is initiated with a predetermined counterparty that is permitted for the remote operation on the mobile phone device, and also controlling the remote operation function means to stop accepting the remote operation on the condition that the telephone call with the predetermined counterparty is terminated; and telephone book data storage means (102, 200) for storing permission information indicating whether or not the remote operation on the mobile phone device is permitted in as sociation with the telephone number, and the control means refers to a telephone number of the call counterparty of the telephone function means in response to an outgoing call or an incoming call, and when the telephone number of the call counterparty of the telephone function means is recorded on the telephone book data storage means (102, 200) in association with the permission information indicating that the remote operation on the mobile phone device is permitted, the control means is configured to determine that the call counterparty of the telephone function means is the predetermined counterparty. wireless communication means; telephone function means for performing at least a voice telephone call via the wireless communication means; remote operation function means for accepting a remote operation on the mobile phone device from an external; and control means for controlling the remote operation function means to allow accepting the remote operation on the condition that a telephone call using the telephone function means is initiated with a predetermined counterparty that is permitted for the remote operation on the mobile phone device, and also controlling the remote operation function means to stop accepting the remote operation on the condition that the telephone call with the predetermined counterparty is terminated; and telephone book data storage means (102, 200) for storing permission information indicating whether or not the remote operation on the mobile phone device is permitted in as sociation with the telephone number, and the control means refers to a telephone number of the call counterparty of the telephone function means in response to an outgoing call or an incoming call, and when the telephone number of the call counterparty of the telephone function means is recorded on the telephone book data storage means (102, 200) in association with the permission information indicating that the remote operation on the mobile phone device is permitted, the control means is configured to determine that the call counterparty of the telephone function means is the predetermined counterparty.
A bed, in particular a child's bed (1, 1') with a support surface and with a frame consisting of a plurality of frame parts (2, 3), which surrounds the support surface, and with means for height adjustment (20, 21), wherein - the frame is formed as a lattice frame, wherein the frame parts (2, 3) each have a plurality of struts extending between an upper connecting bar and a lower connecting bar in parallel and at a distance from each other, - at least one frame part (2, 3) has at least one limiting strut (4', 4", 4′′′) which has a thickened portion (20, 21) for forming a stop, so that the frame part (2, 3) having the limiting strut (4', 4") is limited in its relative displacement with respect to the bearing surface, wherein the limiting strut (4', 4") has an upper thickening in an upper region thereof with a stop surface for the bearing surface arranged at a lower end thereof, wherein the limiting strut (4', 4") has a lower thickening in a lower region thereof with a stop surface arranged at an upper end thereof, wherein at least two opposite frame parts (2, 3) each have at least one single limiting strut (4") with the upper and the lower thickening (20, 21). - the frame is formed as a lattice frame, wherein the frame parts (2, 3) each have a plurality of struts extending between an upper connecting bar and a lower connecting bar in parallel and at a distance from each other, - at least one frame part (2, 3) has at least one limiting strut (4', 4", 4′′′) which has a thickened portion (20, 21) for forming a stop, so that the frame part (2, 3) having the limiting strut (4', 4") is limited in its relative displacement with respect to the bearing surface, wherein the limiting strut (4', 4") has an upper thickening in an upper region thereof with a stop surface for the bearing surface arranged at a lower end thereof, wherein the limiting strut (4', 4") has a lower thickening in a lower region thereof with a stop surface arranged at an upper end thereof, wherein at least two opposite frame parts (2, 3) each have at least one single limiting strut (4") with the upper and the lower thickening (20, 21).
A device comprising: a processor, an audio port, and an electrical measurement device configured to measure electrical properties of an external device plugged into the audio port over a range of frequencies, the processor configured to: measure, using the electrical measurement device, one or more electrical properties of the external device plugged into the audio port at a plurality of frequencies; determine a sensitivity of the external device using the one or more electrical properties of the external device measured using the electrical measurement device; and, adjust an output level of the audio port based on the sensitivity; the device further comprising a memory storing preconfigured data that relates the sensitivity to electrical properties of external device, the processor further configured to determine the sensitivity using the preconfigured data, wherein the preconfigured data relates the sensitivity to: resistance, inductance and resonance frequencies of external device, the processor further configured to: determine a resistance of the external device, an inductance of the external device, and a resonance frequency of the external device; and determine the sensitivity using the preconfigured data and the resistance, the inductance and the resonance frequency of the external device. measure, using the electrical measurement device, one or more electrical properties of the external device plugged into the audio port at a plurality of frequencies; determine a sensitivity of the external device using the one or more electrical properties of the external device measured using the electrical measurement device; and, adjust an output level of the audio port based on the sensitivity; the device further comprising a memory storing preconfigured data that relates the sensitivity to electrical properties of external device, the processor further configured to determine the sensitivity using the preconfigured data, wherein the preconfigured data relates the sensitivity to: resistance, inductance and resonance frequencies of external device, the processor further configured to: determine a resistance of the external device, an inductance of the external device, and a resonance frequency of the external device; and determine the sensitivity using the preconfigured data and the resistance, the inductance and the resonance frequency of the external device. determine a resistance of the external device, an inductance of the external device, and a resonance frequency of the external device; and determine the sensitivity using the preconfigured data and the resistance, the inductance and the resonance frequency of the external device.
Composition comprising all or part of the aleurone layer of a cereal for use thereof in the prevention or treatment of liver and brain toxicity induced by at least one pollutant particularly contained in a food, said pollutant being a PCB or mixture of PCBs and/or a pesticide selected from among organochlorines, organophosphorus compounds, pyrethroids, carbamates and triazines, the amount of aleurone administered being from 0.01 g/kg bodyweight to 0.5 g/kg BW or from 0.5 g/kg BW to 5 g/kg BW, or from 0.01 g/kg BW to 0.05 g/kg BW, or from 0.05 g/kg BW to 0.1 g/kg BW, or from 0.1 g/kg BW to 0.5 g/kg BW, or from 0.5 g/kg BW to 1 g/kg BW, or from 1 g/kg BW to 3 g/kg BW, or from 3 g/kg BW to 6 g/kg BW.
Electrical heating unit for introduction into the exhaust gas system of an internal combustion engine, in particular upstream with respect to an exhaust gas cleaning unit (4, 6), for instance of a catalytic converter, which for operation requires a temperature higher than the ambient temperature, said electrical heating unit (H, H.1, H.2) comprising a casing (13, 48) and at least one resistance heating element which is designed as a band and is retained inside the casing (13, 48), wherein the at least one heating band (14, 44) has a meandering shape and is arranged with its flat face extending parallel or substantially parallel to the longitudinal axis of the casing (13, 48), characterised in that the heating unit comprises at least one support structure (19, 19.1; 47, 47.1, 47.2) which is located on the end face relative to the heating band (14, 44) and is mechanically connected to the casing, with slot-shaped heating band bearings to retain the heating band (14, 44) inside the casing (13, 48), into which slot-shaped heating band bearings the heating band (14, 44) engages with an edge portion, and by means of which support structure (19, 19.1; 47, 47.1, 47.2) the heating band (14, 44) is electrically insulated from the casing (13, 48).
A wireless communication apparatus characterized by comprising: a reception unit configured to receive group information to identify a group as an operation input for adding the apparatus to the group consisting of a plurality of wireless communication apparatuses (300, 400) sharing a network connection right to connect to a predetermined network via a wireless line (123,... 126); and a control unit configured to transmit (605, 622), when the group information is received, an addition request that requests the additional registration with the group to a management system configured to manage the group via the wireless line (123,... 126). a reception unit configured to receive group information to identify a group as an operation input for adding the apparatus to the group consisting of a plurality of wireless communication apparatuses (300, 400) sharing a network connection right to connect to a predetermined network via a wireless line (123,... 126); and a control unit configured to transmit (605, 622), when the group information is received, an addition request that requests the additional registration with the group to a management system configured to manage the group via the wireless line (123,... 126).
A thermoelectric heating/cooling device comprising: first and second thermally conductive headers (101, 201); a plurality of thermoelectric elements (P, N) thermally coupled in parallel between the first and second thermally conductive headers; and a resistive heating element integrated in a surface of the second header, wherein the second header is between the resistive heating element and the plurality of thermoelectric elements wherein the resistive heating element comprises a pattern of an electrically conductive material. first and second thermally conductive headers (101, 201); a plurality of thermoelectric elements (P, N) thermally coupled in parallel between the first and second thermally conductive headers; and a resistive heating element integrated in a surface of the second header,
A radome for vehicles, comprising: - a substrate formed of a radio transmissive resin, the substrate having a proximal face and a distal face; - a decoration layer applied to the proximal face, the decoration layer comprising a metalloid or a metalloid alloy deposited on the surface of the proximal face; and - a first radio transmissive resin layer partially overlying the decoration layer, the radome also comprising a second radio transmissive resin layer overlying entirely the first radio transmissive resin layer, including the areas of the decoration layer not overlaid by said first radio transmissive resin layer, and said second radio transmissive resin layer is overmolded on said first radio transmissive resin layer, or vice versa, wherein: - both first and second radio transmissive resin layers (22, 21) are made from the same material; - the first radio transmissive resin layer is nontransparent; and - the second radio transmissive resin layer is transparent. - a substrate formed of a radio transmissive resin, the substrate having a proximal face and a distal face; - a decoration layer applied to the proximal face, the decoration layer comprising a metalloid or a metalloid alloy deposited on the surface of the proximal face; and - a first radio transmissive resin layer partially overlying the decoration layer, the radome also comprising a second radio transmissive resin layer overlying entirely the first radio transmissive resin layer, including the areas of the decoration layer not overlaid by said first radio transmissive resin layer, and said second radio transmissive resin layer is overmolded on said first radio transmissive resin layer, or vice versa, wherein: - both first and second radio transmissive resin layers (22, 21) are made from the same material; - the first radio transmissive resin layer is nontransparent; and - the second radio transmissive resin layer is transparent. - both first and second radio transmissive resin layers (22, 21) are made from the same material; - the first radio transmissive resin layer is nontransparent; and - the second radio transmissive resin layer is transparent.
A motor assembly for an architectural covering, the motor assembly including: a motor; a consumer touchpoint; and an architectural covering; wherein: a plurality of respective gestures of the consumer touchpoint may be performed by a user, a respective gesture including one or more movements of the consumer touchpoint which may have a particular sequence; an architectural covering controller is configured to detect a respective gesture of the consumer touchpoint performed by the user and configured to activate the motor to move the architectural covering to a predetermined position based on the respective gesture; characterized in that the motor assembly further includes: a memory storing a favorite position, the favorite position being a position of the architectural covering preferred by the user and intermediate a top and a bottom of a window, and, when the architectural covering controller detects a favorite gesture, the motor is activated to move the architectural covering to the stored favorite position, the favorite gesture being a rapid up-and-down movement or a down-and-up movement of the consumer touchpoint. a motor; a consumer touchpoint; and an architectural covering; wherein: a plurality of respective gestures of the consumer touchpoint may be performed by a user, a respective gesture including one or more movements of the consumer touchpoint which may have a particular sequence; an architectural covering controller is configured to detect a respective gesture of the consumer touchpoint performed by the user and configured to activate the motor to move the architectural covering to a predetermined position based on the respective gesture; characterized in that the motor assembly further includes: a memory storing a favorite position, the favorite position being a position of the architectural covering preferred by the user and intermediate a top and a bottom of a window, and, when the architectural covering controller detects a favorite gesture, the motor is activated to move the architectural covering to the stored favorite position, the favorite gesture being a rapid up-and-down movement or a down-and-up movement of the consumer touchpoint. a plurality of respective gestures of the consumer touchpoint may be performed by a user, a respective gesture including one or more movements of the consumer touchpoint which may have a particular sequence; an architectural covering controller is configured to detect a respective gesture of the consumer touchpoint performed by the user and configured to activate the motor to move the architectural covering to a predetermined position based on the respective gesture; characterized in that the motor assembly further includes: a memory storing a favorite position, the favorite position being a position of the architectural covering preferred by the user and intermediate a top and a bottom of a window, and, when the architectural covering controller detects a favorite gesture, the motor is activated to move the architectural covering to the stored favorite position, the favorite gesture being a rapid up-and-down movement or a down-and-up movement of the consumer touchpoint.
A composition for forming thermoset film having photo-alignment properties, comprising: a component that is a compound having a photo-aligning group and a hydroxy group; a component that is a melamine formaldehyde resin; and a component that is a crosslinker; wherein the photo-aligning group of the component is a moiety to be photodimerized or photoisomerized, said moiety to be photodimerized being selected from the group consisting of a cinnamoyl group, a calcone group, a coumarin group, and an anthracene group, and said moiety to be photoisomerized being selected from the group consisting of a moiety containing an azobenzene and a stilbene; and wherein the crosslinker as the component is selected from the group consisting of an epoxy compound, a methylol compound, and an isocyanate compound; and wherein the ratio between the component and the component is 5:95 to 60:40 in a mass ratio. a component that is a compound having a photo-aligning group and a hydroxy group; a component that is a melamine formaldehyde resin; and a component that is a crosslinker;
A medical device for performing endoscopic procedures, comprising: a member having at least one lumen extending from a proximal end to a distal end, wherein the at least one lumen has both a device portion and at least one anchoring portion (110a, 110b), wherein the device portion is defined and formed in part by at least one curved walled portion (108a, 108b); an actuator having a proximal end and a distal end disposed within the device portion of the at least one lumen; an endoscopic device attached to the distal end of the actuator; and a housing having a base and at least one leg (124, 126), wherein the base has a hole sized to permit deployment of the endoscopic device therethrough; characterized in that: the shape of the at least one lumen provides control of the actuator by: i) the device portion being sized to the actuator only; and ii) the at least one anchoring portion (110a, 110b) being disposed at the side of the device portion, and adapted to engage the at least one leg (124, 126) to anchor the housing in place within the member. a member having at least one lumen extending from a proximal end to a distal end, wherein the at least one lumen has both a device portion and at least one anchoring portion (110a, 110b), wherein the device portion is defined and formed in part by at least one curved walled portion (108a, 108b); an actuator having a proximal end and a distal end disposed within the device portion of the at least one lumen; an endoscopic device attached to the distal end of the actuator; and a housing having a base and at least one leg (124, 126), wherein the base has a hole sized to permit deployment of the endoscopic device therethrough; characterized in that: the shape of the at least one lumen provides control of the actuator by: i) the device portion being sized to the actuator only; and ii) the at least one anchoring portion (110a, 110b) being disposed at the side of the device portion, and adapted to engage the at least one leg (124, 126) to anchor the housing in place within the member. the shape of the at least one lumen provides control of the actuator by: i) the device portion being sized to the actuator only; and ii) the at least one anchoring portion (110a, 110b) being disposed at the side of the device portion, and adapted to engage the at least one leg (124, 126) to anchor the housing in place within the member. i) the device portion being sized to the actuator only; and ii) the at least one anchoring portion (110a, 110b) being disposed at the side of the device portion, and adapted to engage the at least one leg (124, 126) to anchor the housing in place within the member.