mhurhangee/ep-ind-claims huggingface dataset:
A camera apparatus comprising: an imaging sensor circuit to produce a sequence of images (IMAGE 1,... IMAGE n) using a pixel sensor array, each image being produced during a plurality of time intervals; a driver mode control circuit coupled to the imaging sensor circuit, to produce a control signal that is asserted during a first predetermined portion of the plurality of time intervals and is not asserted during a second predetermined portion of the plurality of time intervals, wherein the first predetermined portion of the plurality of time intervals is part of a pixel signal integration phase; a lens to form a light image on the pixel sensor array of the imaging sensor circuit; an electro-mechanical actuator coupled to move the lens or the pixel sensor array; and a driver circuit coupled to drive the electro-mechanical actuator, the driver circuit having a linear drive section and a switch mode drive section, wherein the driver circuit is configured to drive the electro-mechanical actuator a) with the switch mode drive section and not the linear drive section when the control signal is asserted, and b) with the linear drive section and not the switch mode drive section when the control signal is de-asserted. an imaging sensor circuit to produce a sequence of images (IMAGE 1,... IMAGE n) using a pixel sensor array, each image being produced during a plurality of time intervals; a driver mode control circuit coupled to the imaging sensor circuit, to produce a control signal that is asserted during a first predetermined portion of the plurality of time intervals and is not asserted during a second predetermined portion of the plurality of time intervals, wherein the first predetermined portion of the plurality of time intervals is part of a pixel signal integration phase; a lens to form a light image on the pixel sensor array of the imaging sensor circuit; an electro-mechanical actuator coupled to move the lens or the pixel sensor array; and a driver circuit coupled to drive the electro-mechanical actuator, the driver circuit having a linear drive section and a switch mode drive section, wherein the driver circuit is configured to drive the electro-mechanical actuator a) with the switch mode drive section and not the linear drive section when the control signal is asserted, and b) with the linear drive section and not the switch mode drive section when the control signal is de-asserted.
A method for intelligently controlling an ambient room temperature in a structure, comprising: receiving a future outdoor temperature forecast related to a geographic area where the structure is located (306, 406); altering a temperature profile for controlling the ambient room temperature based on the future outdoor temperature forecast; monitoring a temperature of a room over a period of time; receiving outdoor temperature information over the period of time; characterised by comparing the temperature of the room to the outdoor temperature over the period of time; determing one or more metrics based on the comparison, wherein one of the one or more metrics comprises an insulation metric that determines the insulating capability of the structure; receiving a temperature profile from a user, the temperature profile comprising a desired room temperature at a desired time (300, 400); calculating a heating or cooling start time based on the desired room temperature and the desired start time (304, 402); and modifying the start time based on the insulation metric when the future temperature forecast indicates that the outdoor temperature will be more than a predetermined difference from a baseline temperature. receiving a future outdoor temperature forecast related to a geographic area where the structure is located (306, 406); altering a temperature profile for controlling the ambient room temperature based on the future outdoor temperature forecast; monitoring a temperature of a room over a period of time; receiving outdoor temperature information over the period of time; characterised by comparing the temperature of the room to the outdoor temperature over the period of time; determing one or more metrics based on the comparison, wherein one of the one or more metrics comprises an insulation metric that determines the insulating capability of the structure; receiving a temperature profile from a user, the temperature profile comprising a desired room temperature at a desired time (300, 400); calculating a heating or cooling start time based on the desired room temperature and the desired start time (304, 402); and modifying the start time based on the insulation metric when the future temperature forecast indicates that the outdoor temperature will be more than a predetermined difference from a baseline temperature.
A work vehicle comprising: an engine; a generator motor for generating electric power by operating on drive power of the engine; an electric motor operating on electric power supplied from the generator motor; drive wheels rotating with drive power of the electric motor transmitted thereto; a hydraulic pump for force feeding hydraulic oil by operating on the drive power transmitted from the engine or the generator motor operating as a motor; a hydraulic actuator (108, 109, 111L, 111R) operating on the hydraulic oil supplied from the hydraulic pump; a throttle device for actuating an exhaust brake as disposed at a tube exhaust duct of the engine; and a controller for controlling operations of the generator motor and the throttle device, characterized in that the controller calculates a regenerative power outputted from the electric motor and a target hydraulic driving power for driving the hydraulic pump, supplies the regenerative power to the generator motor operating as the motor and makes the generator motor consume the regenerative power in a case where the regenerative power is equal to or smaller than the target hydraulic driving power, and supplies the regenerative power to the generator motor operating as the motor and makes the exhaust brake consume a power equivalent to a difference between the regenerative power and the target hydraulic driving power in a case where the regenerative power is larger than the target hydraulic driving power. characterized in that the controller calculates a regenerative power outputted from the electric motor and a target hydraulic driving power for driving the hydraulic pump, supplies the regenerative power to the generator motor operating as the motor and makes the generator motor consume the regenerative power in a case where the regenerative power is equal to or smaller than the target hydraulic driving power, and supplies the regenerative power to the generator motor operating as the motor and makes the exhaust brake consume a power equivalent to a difference between the regenerative power and the target hydraulic driving power in a case where the regenerative power is larger than the target hydraulic driving power.
A method performed by a network node of a radio network, for controlling power of uplink transmissions from a user node configured to switch between a first operating mode comprising single antenna transmission and a second operating mode comprising multiple antenna transmission when transmitting radio signals, the method comprising: - signalling to the user node a first value of a maximum allowed transmit power to be applied by the user node when operating in the first operating mode using a nominal band of relatively narrow bandwidth and a second value of the maximum allowed transmit power to be applied by the user node when operating in the second operating mode using a nominal band of relatively wide bandwidth, thereby requiring the user node to use a transmit power not exceeding the first value when transmitting radio signals in the first operating mode, and to use a transmit power not exceeding the second value when transmitting radio signals in the second operating mode such that the user node is instructed to transmit with lower power when operating in the second operating mode as compared to when operating in the first operating mode. - signalling to the user node a first value of a maximum allowed transmit power to be applied by the user node when operating in the first operating mode using a nominal band of relatively narrow bandwidth and a second value of the maximum allowed transmit power to be applied by the user node when operating in the second operating mode using a nominal band of relatively wide bandwidth, thereby requiring the user node to use a transmit power not exceeding the first value when transmitting radio signals in the first operating mode, and to use a transmit power not exceeding the second value when transmitting radio signals in the second operating mode such that the user node is instructed to transmit with lower power when operating in the second operating mode as compared to when operating in the first operating mode.
A boost system for driving a high side n-channel MOSFET (340, 350, 360), comprising: a boost converter configured to supply a boost voltage (VBST) to a gate of an n- channel MOSFET; a boost converter power supply for providing a first current to the boost converter to power the boost converter; a second boost converter power supply (Q103, R102) for providing a second current to the boost converter, the second current being larger than the first current; a voltage monitoring circuit for monitoring the output of the boost converter; characterised by an RC timing (C131, R171) circuit included in the second boost converter power supply that provides for current flow from the second boost converter power supply to the boost converter for a selected period of time, and a switch disposed between the boost converter and the gate of the n-channel MOSFET, the switch responsive to a signal from the voltage monitoring circuit to provide a voltage to the gate of the n-channel MOSFET when the voltage monitoring circuit determines the output of the boost converter exceeds a selected threshold and is stable. a boost converter configured to supply a boost voltage (VBST) to a gate of an n- channel MOSFET; a boost converter power supply for providing a first current to the boost converter to power the boost converter; a second boost converter power supply (Q103, R102) for providing a second current to the boost converter, the second current being larger than the first current; a voltage monitoring circuit for monitoring the output of the boost converter; characterised by an RC timing (C131, R171) circuit included in the second boost converter power supply that provides for current flow from the second boost converter power supply to the boost converter for a selected period of time, and a switch disposed between the boost converter and the gate of the n-channel MOSFET, the switch responsive to a signal from the voltage monitoring circuit to provide a voltage to the gate of the n-channel MOSFET when the voltage monitoring circuit determines the output of the boost converter exceeds a selected threshold and is stable.
A die lip driving structure for adjusting a gap between a first lip and a second lip by applying a pressing load or a tensile load to a flexible lip portion which forms at least one of the first lip and the second lip provided in a die body, the die lip driving structure comprising a plurality of driving mechanisms along the width direction of the die body and a plurality of actuators that drive the plurality of driving mechanisms wherein each driving mechanisms includes: a lever supported by a rotating shaft as a fulcrum, a position of the rotating shaft with respect to the die body being fixed; and an operating rod which is supported to be displaced in an axial direction by the die body and is supported at a point of action of the lever, wherein a rotational force of the lever is converted into a force in the axial direction of the operating rod, and the force in the axial direction becomes a pressing load or a tensile load exerted on the flexible lip portion, and the lever directly applies a force to the operating rod at the point of action of the lever, characterized in that the point of action of the lever is positioned closer to the die body side than the rotating shaft, and the lever comprises a body of which one end portion is rotatably supported by the rotating shaft, and a connection portion provided to extend from said end portion of the body towards the die body and connected to the operating rod at the point of action. a lever supported by a rotating shaft as a fulcrum, a position of the rotating shaft with respect to the die body being fixed; and an operating rod which is supported to be displaced in an axial direction by the die body and is supported at a point of action of the lever, wherein a rotational force of the lever is converted into a force in the axial direction of the operating rod, and the force in the axial direction becomes a pressing load or a tensile load exerted on the flexible lip portion, and the lever directly applies a force to the operating rod at the point of action of the lever, characterized in that the point of action of the lever is positioned closer to the die body side than the rotating shaft, and the lever comprises a body of which one end portion is rotatably supported by the rotating shaft, and a connection portion provided to extend from said end portion of the body towards the die body and connected to the operating rod at the point of action.
A method performed by a network node for handling a Single User, SU, Multiple Input Multiple Output, MIMO, transmission from a User Equipment, UE, in a wireless communications network, the method comprising: selecting an allowed precoding matrix set for the SU MIMO transmission, estimating full rank precoding matrix over a number of Transmission Time Intervals, TTIs, and estimating a precoded covariance matrix based on channel estimation according to the DMRS of the PUSCH received from the UE, and estimating a raw covariance matrix for the SU MIMO transmission, based on a Demodulation Reference Signal, DMRS, of a Physical Uplink Shared Channel, PUSCH, received from the UE, wherein estimating the raw covariance matrix for the SU MIMO transmission, based on the DMRS, of the PUSCH, received from the UE comprises estimating the raw covariance matrix for the SU MIMO transmission based on the estimated precoded covariance matrix and the estimated full rank precoding matrix, selecting (205, 206) a precoding matrix and a rank for the SU MIMO transmission, based on the estimated raw covariance matrix and the selected allowed precoding matrix set. selecting an allowed precoding matrix set for the SU MIMO transmission, estimating full rank precoding matrix over a number of Transmission Time Intervals, TTIs, and estimating a precoded covariance matrix based on channel estimation according to the DMRS of the PUSCH received from the UE, and estimating a raw covariance matrix for the SU MIMO transmission, based on a Demodulation Reference Signal, DMRS, of a Physical Uplink Shared Channel, PUSCH, received from the UE, wherein estimating the raw covariance matrix for the SU MIMO transmission, based on the DMRS, of the PUSCH, received from the UE comprises estimating the raw covariance matrix for the SU MIMO transmission based on the estimated precoded covariance matrix and the estimated full rank precoding matrix,
A phenolic resin foam comprising: cyclopentane as a hydrocarbon having a carbon number of 6 or less; optionally another hydrocarbon having a carbon number of 6 or less; and a high-boiling hydrocarbon with a boiling point of 140 °C or more and 350 °C or less which is a single compound or a plurality of compounds selected from cyclooctane, nonane, decane, decalin, undecane, dodecane, tridecane, tetradecane, pentadecane, hexadecane, heptadecane, octadecane, nonadecane, and icosane, and having a density of 10 kg/m 3 or more and 150 kg/m 3 or less, wherein a value of a content X in units of mol of the cyclopentane per a space volume of 22.4 × 10 -3 m 3 in the phenolic resin foam, determined as described in " Content of hydrocarbon having a carbon number of 6 or less, content of hydrofluoroolefin having a carbon number of 3 or 4, and content of halogenated saturated hydrocarbon in foam" in the description, is 0.25 or more and 0.85 or less, a ratio of the cyclopentane in the hydrocarbon having a carbon number of 6 or less or the hydrocarbons having a carbon number of 6 or less contained in the phenolic resin foam, determined as described in " Content of hydrocarbon having a carbon number of 6 or less, content of hydrofluoroolefin having a carbon number of 3 or 4, and content of halogenated saturated hydrocarbon in foam" in the description, is 60 mol% or more and 100 mol% or less, and a value of an extraction amount Y in units of g of the high-boiling hydrocarbon with a boiling point of 140 °C or more and 350 °C or less extracted into heptane when the phenolic resin foam is ground and subjected to an extraction treatment in the heptane, per a space volume of 22.4 × 10 -3 m 3 in the phenolic resin foam, is in a range of not more than a coefficient a calculated according to the following formula and not less than a coefficient b calculated according to the following formula: a = − 1.95 X + 6.2 b = 0.47 X + 0.14
Method for controlling an ozone generator with a high-voltage electrode and at least one counter electrode, wherein the high-voltage electrode and the at least one counter electrode bound a space, in which at least one dielectric is arranged and which is perfused by an oxygen-containing gas with a particle density n gas, and wherein the high-voltage electrode and the at least one counter electrode are provided with a connection for an electrical power supply for generating silent discharges in at least one discharge gap, and whereby discharge distances d of the discharge are distributed between a minimum discharge distance d min and a maximum discharge distance d max, characterised in that for an ozone concentration to be generated > 12 wt% ozone, the voltage amplitude U 0 of an AC voltage to the electrical power supply is selected so that U 0 < 130 ∗ 10 -21 V ∗ m 2 ∗ n gas ∗ d max ∗ (C DL +C G)/C DL, with the particle density n gas, the maximum distance d max, the capacity of the dielectric C DL and the capacity of the discharge gap C g.
A device for forming a substantially round anastomosis having a radius (r) comprising: a first elongate component having a length and a width (w); and a second elongate component magnetically attracted to said first component and having a length and a width (w); wherein the width (w) is narrow enough to fit within a working channel of a standard endoscope; and wherein the length is related to a desired radius (r) of a resulting, substantially round anastomosis according to the formula = (π)(r) - (w) as the body over time remodels the shape of the necrotic core tissue created by the implanted elongate components to the native vessel shape which is approximately round. a first elongate component having a length and a width (w); and a second elongate component magnetically attracted to said first component and having a length and a width (w); wherein the width (w) is narrow enough to fit within a working channel of a standard endoscope; and wherein the length is related to a desired radius (r) of a resulting, substantially round anastomosis according to the formula = (π)(r) - (w) as the body over time remodels the shape of the necrotic core tissue created by the implanted elongate components to the native vessel shape which is approximately round.
A drive arrangement for a running gear, in particular for a rail vehicle, comprising - a wheel unit defining an axial direction and a radial direction, - a first torque transmission device and - a second torque transmission device; - said first torque transmission device being connected in a torsionally rigid manner to said wheel unit and said second torque transmission device being connected in a torsionally rigid manner to said first torque transmission device using a connecting device such that an arrangement substantially coaxial to said axial direction is formed; - said wheel unit having a wheel unit end section (103.1) protruding, along said wheel axis, into a receptacle (112.1) of said second torque transmission device; characterized in that - a protective unit (115; 215; 315) is arranged between the said wheel unit end section (103.1) and said second torque transmission device; - said protective unit (115; 215; 315) being configured to protect said wheel unit end section (103.1) against damage by said second torque transmission device in case of failure of said connecting device. - a wheel unit defining an axial direction and a radial direction, - a first torque transmission device and - a second torque transmission device; - said first torque transmission device being connected in a torsionally rigid manner to said wheel unit and said second torque transmission device being connected in a torsionally rigid manner to said first torque transmission device using a connecting device such that an arrangement substantially coaxial to said axial direction is formed; - said wheel unit having a wheel unit end section (103.1) protruding, along said wheel axis, into a receptacle (112.1) of said second torque transmission device; characterized in that - a protective unit (115; 215; 315) is arranged between the said wheel unit end section (103.1) and said second torque transmission device; - said protective unit (115; 215; 315) being configured to protect said wheel unit end section (103.1) against damage by said second torque transmission device in case of failure of said connecting device.
A transmitting method comprising: transmitting video control information for reproduction of video data having an individually reproducible unit; transmitting the video data that is divided into a plurality of video packets; determining a transmission order of audio control information for reproduction of audio data in a reproduction interval corresponding to a reproduction interval of the video data in such a way that the audio control information is transmitted after the video control information is transmitted, and transmitting the audio control information according to the determined transmission order; and transmitting the audio data that is divided into one or more audio packets, characterized in that in the transmission order, the plurality of video packets is transmitted discontinuously after the video control information is transmitted, while the one or more audio packets are transmitted continuously as a group after the audio control information is transmitted. transmitting video control information for reproduction of video data having an individually reproducible unit; transmitting the video data that is divided into a plurality of video packets; determining a transmission order of audio control information for reproduction of audio data in a reproduction interval corresponding to a reproduction interval of the video data in such a way that the audio control information is transmitted after the video control information is transmitted, and transmitting the audio control information according to the determined transmission order; and transmitting the audio data that is divided into one or more audio packets, characterized in that in the transmission order, the plurality of video packets is transmitted discontinuously after the video control information is transmitted, while the one or more audio packets are transmitted continuously as a group after the audio control information is transmitted.
An anti-α5β1 antibody comprising a VL domain comprising a CDR-L1 comprising residues 23-34 of SEQ ID NO: 8; a CDR-L2 comprising residues 49-60 of SEQ ID NO: 8; a CDR-L3 comprising residues 93-101 of SEQ ID NO:8; and a VH domain comprising a CDR-HI comprising residues 31-35 of SEQ ID NO: 14; a CDR-H2 comprising residues 50-68 of SEQ ID NO: 14; and a CDR-H3 comprising residues 101-109 of SEQ ID NO: 14.