mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for decoding to obtain a reconstructed audio signal envelope, comprising: a signal envelope reconstructor adapted to generate the reconstructed audio signal envelope depending on one or more splitting points, and an output interface adapted to output the reconstructed audio signal envelope, wherein the signal envelope reconstructor is configured to generate the reconstructed audio signal envelope such that the one or more splitting points divide the reconstructed audio signal envelope into two or more audio signal envelope portions, wherein a predefined assignment rule defines a signal envelope portion value for each signal envelope portion of the two or more signal envelope portions depending on said signal envelope portion, and wherein the signal envelope reconstructor is configured to generate the reconstructed audio signal envelope such that, for each of the two or more signal envelope portions, an absolute value of its signal envelope portion value is greater than half of an absolute value of the signal envelope portion value of each of the other signal envelope portions. a signal envelope reconstructor adapted to generate the reconstructed audio signal envelope depending on one or more splitting points, and an output interface adapted to output the reconstructed audio signal envelope, wherein the signal envelope reconstructor is configured to generate the reconstructed audio signal envelope such that the one or more splitting points divide the reconstructed audio signal envelope into two or more audio signal envelope portions, wherein a predefined assignment rule defines a signal envelope portion value for each signal envelope portion of the two or more signal envelope portions depending on said signal envelope portion, and wherein the signal envelope reconstructor is configured to generate the reconstructed audio signal envelope such that, for each of the two or more signal envelope portions, an absolute value of its signal envelope portion value is greater than half of an absolute value of the signal envelope portion value of each of the other signal envelope portions.
An image analysis apparatus configured to analyze a skin condition from a video of a face of a subject captured with an imaging part, the image analysis apparatus comprising: a tracking part configured to: - track positions of a plurality of tracking points arranged in advance in an analysis region of the face based on a change in an expression of the face included in the video, and - obtain an amount of strain of a skin in the analysis region based on a change in a distance between the plurality of tracking points; and a skin condition analysis part configured to: - classify a wrinkle with respect to the analysis region, based on the tracking points arranged in the region, and calculate a wrinkle parameter for the classified wrinkle, said wrinkle parameter including at least one of a wrinkle area, a wrinkle length, a wrinkle ratio, and - analyze the skin condition of the subject based on the amount of strain obtained by the tracking part and the calculated wrinkle parameter. a tracking part configured to: - track positions of a plurality of tracking points arranged in advance in an analysis region of the face based on a change in an expression of the face included in the video, and - obtain an amount of strain of a skin in the analysis region based on a change in a distance between the plurality of tracking points; and - track positions of a plurality of tracking points arranged in advance in an analysis region of the face based on a change in an expression of the face included in the video, and - obtain an amount of strain of a skin in the analysis region based on a change in a distance between the plurality of tracking points; and a skin condition analysis part configured to: - classify a wrinkle with respect to the analysis region, based on the tracking points arranged in the region, and calculate a wrinkle parameter for the classified wrinkle, said wrinkle parameter including at least one of a wrinkle area, a wrinkle length, a wrinkle ratio, and - analyze the skin condition of the subject based on the amount of strain obtained by the tracking part and the calculated wrinkle parameter. - classify a wrinkle with respect to the analysis region, based on the tracking points arranged in the region, and calculate a wrinkle parameter for the classified wrinkle, said wrinkle parameter including at least one of a wrinkle area, a wrinkle length, a wrinkle ratio, and - analyze the skin condition of the subject based on the amount of strain obtained by the tracking part and the calculated wrinkle parameter.
A method for receiving a Wireless Local-Area Network, WLAN, data transmission, the method comprising: receiving, at a first WLAN device from a remote WLAN device, a WLAN transmission comprising first bits that are modulated and encoded using a first Modulation and Coding Scheme, MCS, associated with a first modulation scheme and a first Forward Error Correction, FEC, coding rate; computing first soft-decoding metrics for the first bits; receiving, from the remote WLAN device, a WLAN retransmission corresponding to the WLAN transmission, the WLAN retransmission comprising second bits that are modulated and encoded using a second MCS associated with a second modulation scheme and a second FEC coding rate, the second MCS having better error performance than the first MCS; computing second soft-decoding metrics for the second bits; combining the first soft-decoding metrics and the second soft-decoding metrics, to produce combined soft- decoding metrics; and reconstructing data carried by the WLAN transmission by applying FEC decoding to the combined soft-decoding metrics, wherein the second bits of the WLAN retransmission comprise i) one or more second bits that do not have corresponding first bits in the WLAN transmission having the first MCS, rand ii) one or more second bits that have corresponding first bits in the WLAN transmission having the first MCS, and further comprising buffering the first soft-decoding metrics in a memory buffer while retaining in the memory buffer spaces for the soft-decoding metrics of the second bits that do not have corresponding first bits. receiving, at a first WLAN device from a remote WLAN device, a WLAN transmission comprising first bits that are modulated and encoded using a first Modulation and Coding Scheme, MCS, associated with a first modulation scheme and a first Forward Error Correction, FEC, coding rate; computing first soft-decoding metrics for the first bits; receiving, from the remote WLAN device, a WLAN retransmission corresponding to the WLAN transmission, the WLAN retransmission comprising second bits that are modulated and encoded using a second MCS associated with a second modulation scheme and a second FEC coding rate, the second MCS having better error performance than the first MCS; computing second soft-decoding metrics for the second bits; combining the first soft-decoding metrics and the second soft-decoding metrics, to produce combined soft- decoding metrics; and reconstructing data carried by the WLAN transmission by applying FEC decoding to the combined soft-decoding metrics, wherein the second bits of the WLAN retransmission comprise i) one or more second bits that do not have corresponding first bits in the WLAN transmission having the first MCS, rand ii) one or more second bits that have corresponding first bits in the WLAN transmission having the first MCS, and further comprising buffering the first soft-decoding metrics in a memory buffer while retaining in the memory buffer spaces for the soft-decoding metrics of the second bits that do not have corresponding first bits.
A molded article, comprising a tubular base portion and an opening portion disposed in the base portion, wherein the base portion has a base wall, a first side wall, a second side wall and an opposite wall, a peripheral edge of the opening portion has a pair of long-side portions opposite to each other and a pair of short-side portions disposed to be connected to the pair of long-side portions, characterized in that multiple V-groove-shaped first ribs are disposed at a position adjacent to the opening portion (3b, 4b), along the long-side portion on a side of the first side wall and along the pair of short-side portions.
A solder consisting of: between greater than or equal to 0.3 wt.% and less than or equal to 0.7 wt.% Ag; between greater than or equal to 0.7 wt.% and less than or equal to 1.2 wt.% Cu; between greater than or equal to 0.01 wt.% and less than or equal to 0.09 wt.% Mn; and a remainder of Sn. between greater than or equal to 0.3 wt.% and less than or equal to 0.7 wt.% Ag; between greater than or equal to 0.7 wt.% and less than or equal to 1.2 wt.% Cu; between greater than or equal to 0.01 wt.% and less than or equal to 0.09 wt.% Mn; and a remainder of Sn.
A hot runner installable into a hot half of an injection molding apparatus, the hot runner comprising: a nozzle having a nozzle body, a nozzle tip, a heater, and a nozzle channel running therethrough; a manifold having a manifold heater and a manifold channel for delivering molding material to the nozzle; and a valve pin bushing disposed in a bore in the nozzle body, the valve pin bushing including a body, a projecting portion that extends from the body into the nozzle channel, and a bore extending therethrough to accommodate a valve pin, wherein the projection portion extends into the nozzle channel to define an annular section of the nozzle channel. characterized in that an upstream side of the projecting portion includes a flow restrictor disposed in the annular section of the nozzle channel, wherein the flow restrictor is an enlarged part of the upstream side of the projecting portion and the downstream side of the projecting portion includes a narrow portion, the flow restrictor is separated from a wall of the nozzle channel by a gap that defines a restricted region of the annular section, and the narrow portion defines an unrestricted region of the annular section opposite the restricted region, wherein the flow restrictor establishes a resistance to a flow of molding material on the upstream side of the projecting portion, thereby diverting molding material to the downstream side of the projecting portion behind the narrow portion a nozzle having a nozzle body, a nozzle tip, a heater, and a nozzle channel running therethrough; a manifold having a manifold heater and a manifold channel for delivering molding material to the nozzle; and a valve pin bushing disposed in a bore in the nozzle body, the valve pin bushing including a body, a projecting portion that extends from the body into the nozzle channel, and a bore extending therethrough to accommodate a valve pin, wherein the projection portion extends into the nozzle channel to define an annular section of the nozzle channel. characterized in that an upstream side of the projecting portion includes a flow restrictor disposed in the annular section of the nozzle channel, wherein the flow restrictor is an enlarged part of the upstream side of the projecting portion and the downstream side of the projecting portion includes a narrow portion, the flow restrictor is separated from a wall of the nozzle channel by a gap that defines a restricted region of the annular section, and the narrow portion defines an unrestricted region of the annular section opposite the restricted region, wherein the flow restrictor establishes a resistance to a flow of molding material on the upstream side of the projecting portion, thereby diverting molding material to the downstream side of the projecting portion behind the narrow portion
A connecting assembly for connecting a plurality of orthopedic components, the connecting assembly comprising: a male-type connecting member (181, 200) projecting from a first orthopedic component and having a general longitudinal axis (184, L 1); and a female-type aperture situated in a second orthopedic component and having a central longitudinal axis, said aperture for receiving at least a portion of the male-type connecting member for connecting the first orthopedic component to the second orthopedic component, wherein the male-type connecting member (181, 200) is forcibly received in the female-type aperture and includes a distal longitudinal segment (182, 202) and a proximal longitudinal segment (186, 203), wherein in a single reference plane that includes said general longitudinal axis (184, L 1) the distal longitudinal segment (182,202) extends in a linear fashion and the proximal longitudinal segment (186,203) extends in a curvilinear fashion, characterised in that the aperture has a truncated generally conical shape with a taper angle that is less than a taper angle of the truncated generally cone-shaped distal segment (182,202), and in that, when the male-type connecting member (181, 200) is introduced into the aperture in a generally coaxial fashion, initial contact between the male-type connecting member (181, 200) and an interior wall of the aperture occurs proximal of a distal most location of the distal longitudinal segment (182, 202). a male-type connecting member (181, 200) projecting from a first orthopedic component and having a general longitudinal axis (184, L 1); and a female-type aperture situated in a second orthopedic component and having a central longitudinal axis, said aperture for receiving at least a portion of the male-type connecting member for connecting the first orthopedic component to the second orthopedic component, wherein the male-type connecting member (181, 200) is forcibly received in the female-type aperture and includes a distal longitudinal segment (182, 202) and a proximal longitudinal segment (186, 203), wherein in a single reference plane that includes said general longitudinal axis (184, L 1) the distal longitudinal segment (182,202) extends in a linear fashion and the proximal longitudinal segment (186,203) extends in a curvilinear fashion, characterised in that the aperture has a truncated generally conical shape with a taper angle that is less than a taper angle of the truncated generally cone-shaped distal segment (182,202), and in that, when the male-type connecting member (181, 200) is introduced into the aperture in a generally coaxial fashion, initial contact between the male-type connecting member (181, 200) and an interior wall of the aperture occurs proximal of a distal most location of the distal longitudinal segment (182, 202).
An anti-EGFR mAb806 antibody or an antigen-binding fragment thereof for use in the treatment of a tyrosine kinase inhibitor resistant EGFR-mediated cancer in a mammal, wherein said resistant EGFR-mediated cancer comprises a secondary T790M mutation in EGFR.
An apparatus comprising a processor, a memory, and communication circuitry, the apparatus being connected to a network via its communication circuitry, the apparatus further comprising computer-executable instructions stored in the memory of the apparatus which, when executed by the processor of the apparatus, cause the apparatus to perform operations comprising: receiving, from a second apparatus (701, 702, 703), a first signal indicating a publishing intent associated with a topic indicator; receiving, from a third apparatus (704, 705), a subscription request associated with the topic indicator; generating, based on the publishing intent and the subscription request, a topic instance; and sending, to the third apparatus, based on the received subscription request, at least one second signal comprising notifications and publish instances associated with the generated topic instance. receiving, from a second apparatus (701, 702, 703), a first signal indicating a publishing intent associated with a topic indicator; receiving, from a third apparatus (704, 705), a subscription request associated with the topic indicator; generating, based on the publishing intent and the subscription request, a topic instance; and sending, to the third apparatus, based on the received subscription request, at least one second signal comprising notifications and publish instances associated with the generated topic instance.
A control device for a fuel pump including a cylinder, a plunger provided to be slidable inside the cylinder of the fuel pump, and an electric actuator configured to move the plunger, the fuel pump being an electric fuel pump configured to supply fuel to a fuel pipe to which a fuel injection valve is coupled, the fuel injection valve being disposed so as to inject fuel into a cylinder of an internal combustion engine, and the fuel pump being configured to perform suction of fuel and discharge of fuel as the plunger reciprocates by an energization control to the electric actuator, the control device comprising an electronic control unit (100; 400) configured to: execute an inter-injection discharge control of executing fuel discharge from the fuel pump at a predetermined timing between an Nth fuel injection and an (N+1)th fuel injection from the fuel injection valve; and change a discharge ratio in accordance with an operational state of the internal combustion engine during the execution of the inter-injection discharge control, the discharge ratio being a ratio of the number of times of fuel discharge from the fuel pump to the fuel pipe to the number of times of fuel injection from the fuel injection valve, characterized in that the electronic control unit (100; 400) is configured to execute fuel discharge from the fuel pump after a predetermined preparation time has elapsed after an end of the Nth fuel injection and before a start of the (N+1)th fuel injection, in the inter-injection discharge control. execute an inter-injection discharge control of executing fuel discharge from the fuel pump at a predetermined timing between an Nth fuel injection and an (N+1)th fuel injection from the fuel injection valve; and change a discharge ratio in accordance with an operational state of the internal combustion engine during the execution of the inter-injection discharge control, the discharge ratio being a ratio of the number of times of fuel discharge from the fuel pump to the fuel pipe to the number of times of fuel injection from the fuel injection valve,
A method for sharing a packet data protocol, PDP, context among a plurality of devices, the method comprising: a wireless transmit/receive unit, WTRU (102, 402), sending a request to modify an established PDP context, wherein the WTRU (102, 402) acts as a gateway and for at least one other device (114a, 114b) in a shared context group, and the WTRU (102, 402) sends the request on behalf of the at least one other device (114a, 114b) in the shared context group; and the WTRU (102, 402) receiving a response indicating that the request to modify the established PDP context was accepted, wherein the WTRU (102, 402) receives the response on behalf of the at least one other device (114a, 114b) in the shared context group. a wireless transmit/receive unit, WTRU (102, 402), sending a request to modify an established PDP context, wherein the WTRU (102, 402) acts as a gateway and for at least one other device (114a, 114b) in a shared context group, and the WTRU (102, 402) sends the request on behalf of the at least one other device (114a, 114b) in the shared context group; and the WTRU (102, 402) receiving a response indicating that the request to modify the established PDP context was accepted, wherein the WTRU (102, 402) receives the response on behalf of the at least one other device (114a, 114b) in the shared context group.
A peritoneal dialysis machine comprising: a console including a compartment configured to releasably receive a dialysis fluid cassette and first and second movable piston heads (134A', 134B'), wherein the first and second movable piston heads are movable in a direction substantially perpendicular to the dialysis fluid cassette when the dialysis fluid cassette is received in the compartment, wherein the first and second movable piston heads of the console each include one or more thermoelectric modules (145a, 145b) located thereon and arranged to be adjacent the cassette while the cassette is received by the compartment and to effectuate energy transfer with a dialysis fluid in a respective pump chamber (138A, 138B) of the cassette that is adjacent the one or more thermoelectric modules; and one or more processors coupled to the console and configured to control the one or more thermoelectric modules such that: i) during a heating mode the one or more thermoelectric modules heat the dialysis fluid in the fluid flow path of the cassette and ii) during a cooling mode the one or more thermoelectric modules cool the dialysis fluid in the fluid flow path of the cassette. a console including a compartment configured to releasably receive a dialysis fluid cassette and first and second movable piston heads (134A', 134B'), wherein the first and second movable piston heads are movable in a direction substantially perpendicular to the dialysis fluid cassette when the dialysis fluid cassette is received in the compartment, wherein the first and second movable piston heads of the console each include one or more thermoelectric modules (145a, 145b) located thereon and arranged to be adjacent the cassette while the cassette is received by the compartment and to effectuate energy transfer with a dialysis fluid in a respective pump chamber (138A, 138B) of the cassette that is adjacent the one or more thermoelectric modules; and a compartment configured to releasably receive a dialysis fluid cassette and first and second movable piston heads (134A', 134B'), wherein the first and second movable piston heads are movable in a direction substantially perpendicular to the dialysis fluid cassette when the dialysis fluid cassette is received in the compartment, wherein the first and second movable piston heads of the console each include one or more thermoelectric modules (145a, 145b) located thereon and arranged to be adjacent the cassette while the cassette is received by the compartment and to effectuate energy transfer with a dialysis fluid in a respective pump chamber (138A, 138B) of the cassette that is adjacent the one or more thermoelectric modules; and one or more processors coupled to the console and configured to control the one or more thermoelectric modules such that: i) during a heating mode the one or more thermoelectric modules heat the dialysis fluid in the fluid flow path of the cassette and ii) during a cooling mode the one or more thermoelectric modules cool the dialysis fluid in the fluid flow path of the cassette.