mhurhangee/ep-ind-claims huggingface dataset:
An interface cable system for providing electrical interconnection between an intrauterine pressure catheter system and a monitoring system, the interface cable system comprising: a first connector configured to provide electrical interconnection with the intrauterine pressure catheter system; a second connector configured to provide electrical interconnection with the monitoring system; a plurality of conductors electrically connected to the first and second connector (110, 104) for carrying signals between the intrauterine pressure catheter system and the monitoring system; a momentary switch for configuring said interface cable system to provide, upon operation of said momentary switch, a time period in which a zeroing operation of the intrauterine pressure catheter system, which comprises a short circuiting operation, may be performed, and configured to activate the short circuiting operation by short circuiting at least two of the plurality of conductors when said momentary switch is pressed; an indicator for indicating that the momentary switch has been operated, thereby indicating that the zeroing operation may be performed during the time period; the interface cable system further comprising a signal processing circuit configured to receive a signal from the momentary switch, and activate the indicator during the time period and configured to perform the short circuiting operation by engaging an analogue switch during the time period. a first connector configured to provide electrical interconnection with the intrauterine pressure catheter system; a second connector configured to provide electrical interconnection with the monitoring system; a plurality of conductors electrically connected to the first and second connector (110, 104) for carrying signals between the intrauterine pressure catheter system and the monitoring system; a momentary switch for configuring said interface cable system to provide, upon operation of said momentary switch, a time period in which a zeroing operation of the intrauterine pressure catheter system, which comprises a short circuiting operation, may be performed, and configured to activate the short circuiting operation by short circuiting at least two of the plurality of conductors when said momentary switch is pressed; an indicator for indicating that the momentary switch has been operated, thereby indicating that the zeroing operation may be performed during the time period; the interface cable system further comprising a signal processing circuit configured to receive a signal from the momentary switch, and activate the indicator during the time period and configured to perform the short circuiting operation by engaging an analogue switch during the time period.
A method of frequency regulation of an electrical grid operatively coupled with at least one wind turbine generator, the method comprising: operating the wind turbine generator to consume electrical power from the electrical grid, wherein operating the wind turbine generator to consume electrical power comprises increasing the power consumption with increasing grid frequencies if the grid frequency is above a threshold frequency (fnom+f1) located above a nominal grid frequency (fnom) to provide downward frequency regulation, and decreasing the power consumption with decreasing grid frequencies if the grid frequency is below a threshold frequency (fnom-f1) located below the nominal grid frequency (fnom) to provide upward frequency regulation. operating the wind turbine generator to consume electrical power from the electrical grid, wherein operating the wind turbine generator to consume electrical power comprises increasing the power consumption with increasing grid frequencies if the grid frequency is above a threshold frequency (fnom+f1) located above a nominal grid frequency (fnom) to provide downward frequency regulation, and decreasing the power consumption with decreasing grid frequencies if the grid frequency is below a threshold frequency (fnom-f1) located below the nominal grid frequency (fnom) to provide upward frequency regulation.
A radio-frequency front-end circuit of a multi-frequency terminal, comprising a radio-frequency transceiver chip, a radio-frequency amplifier chip and one radio-frequency switch, wherein: in the radio-frequency transceiver chip, all frequency bands share one transmission port; the radio-frequency amplifier chip comprises a plurality of radio-frequency amplifiers respectively corresponding to a plurality of frequency bands in which the radio-frequency transceiver chip transmits signals, the plurality of radio-frequency amplifiers are integrated together and share one input port; the input port of the radio-frequency amplifier chip is connected to a transmission port of the radio-frequency transceiver chip; the one radio-frequency switch is used to connect to an output of the radio-frequency amplifier chip, and is configured to switch signals in different frequency bands; wherein: the radio-frequency front-end circuit of the multi-frequency terminal further comprises a plurality of filters respectively corresponding to a plurality of frequency bands in which the radio-frequency transceiver chip transmits signals, and inputs of the plurality of filters are connected to an output of the radio-frequency switch and thus parallelly connected to the output of the radio-frequency amplifier chip via the radio-frequency switch. in the radio-frequency transceiver chip, all frequency bands share one transmission port; the radio-frequency amplifier chip comprises a plurality of radio-frequency amplifiers respectively corresponding to a plurality of frequency bands in which the radio-frequency transceiver chip transmits signals, the plurality of radio-frequency amplifiers are integrated together and share one input port; the input port of the radio-frequency amplifier chip is connected to a transmission port of the radio-frequency transceiver chip; the one radio-frequency switch is used to connect to an output of the radio-frequency amplifier chip, and is configured to switch signals in different frequency bands; wherein: the radio-frequency front-end circuit of the multi-frequency terminal further comprises a plurality of filters respectively corresponding to a plurality of frequency bands in which the radio-frequency transceiver chip transmits signals, and inputs of the plurality of filters are connected to an output of the radio-frequency switch and thus parallelly connected to the output of the radio-frequency amplifier chip via the radio-frequency switch.
A method for LDP-IGP synchronization on a broadcast network, said method being performed on a network element (105, 110, 130, 140, 145, 150, 155, 160, 165, 170; 120) and comprising the following steps: a) detecting that a broadcast interface of the network element has become operational, wherein the broadcast interface will be used to carry traffic through a label switched path, LSP, between the network element and the broadcast network; b) determining that there is at least one alternate path to reach the broadcast network besides through the broadcast interface; and c) excluding the broadcast interface in a link state advertisement, LSA, until label distribution protocol, LDP, is operational with all neighbors (160, 120) on that broadcast interface. a) detecting that a broadcast interface of the network element has become operational, wherein the broadcast interface will be used to carry traffic through a label switched path, LSP, between the network element and the broadcast network; b) determining that there is at least one alternate path to reach the broadcast network besides through the broadcast interface; and c) excluding the broadcast interface in a link state advertisement, LSA, until label distribution protocol, LDP, is operational with all neighbors (160, 120) on that broadcast interface.
Method for estimating the energy consumption of a motor vehicle over a given route, comprising the following steps: a) a step for splitting the route into route portions, b) a step for allocating a set speed to each route portion, as a function of at least one characteristic of said portion, c) a step for estimating, for each route portion, the change in speed of the vehicle as a function of time, the speed being estimated as a function of at least one characteristic of the route portion and as a function of a predetermined driving behaviour associated with the set speed of said portion, so as to establish for the whole of the route an estimate of the change in speed of the vehicle as a function of time, d) a step for estimating the energy consumption of the vehicle over the route, as a function of the change in the estimated speed, characterized in that the step for estimating the change in speed of the vehicle as a function of time is carried out using an autoregressive-moving-average model and is obtained by working out the average of several estimates. a) a step for splitting the route into route portions, b) a step for allocating a set speed to each route portion, as a function of at least one characteristic of said portion, c) a step for estimating, for each route portion, the change in speed of the vehicle as a function of time, the speed being estimated as a function of at least one characteristic of the route portion and as a function of a predetermined driving behaviour associated with the set speed of said portion, so as to establish for the whole of the route an estimate of the change in speed of the vehicle as a function of time, d) a step for estimating the energy consumption of the vehicle over the route, as a function of the change in the estimated speed,
A continuous process for recycling a waste plastics material, comprising: (i) continuously introducing into a reactor a waste plastics material as a feedstock, wherein the waste plastics material contains chlorinated plastics, wherein the reactor comprises at least one reaction chamber; (ii) introducing the feedstock and hydrogen gas into a dechlorination reaction chamber and maintaining the dechlorination reaction chamber at a temperature (T 1) of from 50 to 300°C and a pressure (P 1) of up to 1x10 7 Pa (absolute) (100 bar (absolute)); recovering HCl from the dechlorination reaction chamber; and separately recovering dechlorinated feedstock from the dechlorination reaction chamber; (iii) introducing the dechlorinated feedstock from step (ii) and hydrogen into a hydrocracking reaction chamber and maintaining the hydrocracking reaction chamber at a temperature (T 2) of from 50°C to 500°C and a pressure (P 2) less than about 2x10 7 Pa (absolute) (about 200 bar (absolute)) and contacting the feedstock with a zeolite, silica/alumina or alumina catalyst; and (iv) recovering hydrocracked feedstock from the hydrocracking reaction chamber; (v) optionally reintroducing non-hydrocracked or partially hydrocracked feedstock from the hydrocracking reaction chamber into the hydrocracking reactor chamber. (i) continuously introducing into a reactor a waste plastics material as a feedstock, wherein the waste plastics material contains chlorinated plastics, wherein the reactor comprises at least one reaction chamber; (ii) introducing the feedstock and hydrogen gas into a dechlorination reaction chamber and maintaining the dechlorination reaction chamber at a temperature (T 1) of from 50 to 300°C and a pressure (P 1) of up to 1x10 7 Pa (absolute) (100 bar (absolute)); recovering HCl from the dechlorination reaction chamber; and separately recovering dechlorinated feedstock from the dechlorination reaction chamber; (iii) introducing the dechlorinated feedstock from step (ii) and hydrogen into a hydrocracking reaction chamber and maintaining the hydrocracking reaction chamber at a temperature (T 2) of from 50°C to 500°C and a pressure (P 2) less than about 2x10 7 Pa (absolute) (about 200 bar (absolute)) and contacting the feedstock with a zeolite, silica/alumina or alumina catalyst; and (iv) recovering hydrocracked feedstock from the hydrocracking reaction chamber; (v) optionally reintroducing non-hydrocracked or partially hydrocracked feedstock from the hydrocracking reaction chamber into the hydrocracking reactor chamber.
Bistatic interferometric radar comprising a main radar unit provided with at least one first transmitting unit and at least one first receiving unit at least one amplifier transponder (5, 50) placed far away from said main unit, provided with ground fixing means and also provided with a second receiving unit and a second transmitting unit, said at least one first transmitting unit and said at least one first receiving unit being respectively arranged to transmit and receive a signal towards and from a target to be monitored or said amplifier transponder (5, 50), said second receiving unit and second transmitting unit being respectively arranged to receive and transmit a signal towards and from said target to be monitored or said main unit, an acquisition and processing unit of radar signals operatively connected to said main radar unit to acquire in succession or simultaneously at least one monostatic radar image obtained by using the signal received from said target, at least one bistatic radar image of the target obtained by using the signal passing through said amplifier transponder, characterized in that said radar is a terrestrial radar provided with ground fixing means of said main radar unit and in that said acquisition and processing unit is operatively connected to said main radar unit to process said monostatic and bistatic images by interferometry to measure two components (c 1, c 2) of the displacement of the target corresponding to said monostatic and bistatic images. a main radar unit provided with at least one first transmitting unit and at least one first receiving unit at least one amplifier transponder (5, 50) placed far away from said main unit, provided with ground fixing means and also provided with a second receiving unit and a second transmitting unit, said at least one first transmitting unit and said at least one first receiving unit being respectively arranged to transmit and receive a signal towards and from a target to be monitored or said amplifier transponder (5, 50), said second receiving unit and second transmitting unit being respectively arranged to receive and transmit a signal towards and from said target to be monitored or said main unit, an acquisition and processing unit of radar signals operatively connected to said main radar unit to acquire in succession or simultaneously at least one monostatic radar image obtained by using the signal received from said target, at least one bistatic radar image of the target obtained by using the signal passing through said amplifier transponder,
A carton for holding a plurality of containers, the carton comprising: a plurality of panels that extends at least partially around an interior of the carton, the plurality of panels comprises a top panel, a bottom panel, a first side panel (13, 15), and a second side panel (13, 15), the first side panel (13, 15) has a first curved edge (79, 81, 89, 91) and the second side panel (13, 15) has a second curved edge (79, 81, 89, 91); and a plurality of end flaps (55, 57), each end flap of the plurality of end flaps is respectively foldably connected to a respective panel of the plurality of panels for at least partially closing an end (67, 69) of the carton, the plurality of end flaps comprising a first end flap (55, 57) foldably connected to the top panel, the first end flap (55, 57) comprises a first portion (82, 87) foldably connected to the top panel and a second portion (83, 89) foldably connected to the first portion (82, 87), the first curved edge (79, 81, 89, 91) and the second curved edge (79, 81, 89, 91) are generally adjacent the first end flap (55, 57); characterized in that a plurality of cuts (101, 103, 105, 107, 109, N) are positioned in at least one portion of the carton, the at least one portion of the carton being selected from the group consisting of at least one panel of the plurality of panels and at least one end flap of the plurality of end flaps, and the plurality of cuts (101, 103, 105, 107, 109, N) forms at least one texture in the exterior of the carton. a plurality of panels that extends at least partially around an interior of the carton, the plurality of panels comprises a top panel, a bottom panel, a first side panel (13, 15), and a second side panel (13, 15), the first side panel (13, 15) has a first curved edge (79, 81, 89, 91) and the second side panel (13, 15) has a second curved edge (79, 81, 89, 91); and a plurality of end flaps (55, 57), each end flap of the plurality of end flaps is respectively foldably connected to a respective panel of the plurality of panels for at least partially closing an end (67, 69) of the carton, the plurality of end flaps comprising a first end flap (55, 57) foldably connected to the top panel, the first end flap (55, 57) comprises a first portion (82, 87) foldably connected to the top panel and a second portion (83, 89) foldably connected to the first portion (82, 87), the first curved edge (79, 81, 89, 91) and the second curved edge (79, 81, 89, 91) are generally adjacent the first end flap (55, 57); characterized in that a plurality of cuts (101, 103, 105, 107, 109, N) are positioned in at least one portion of the carton, the at least one portion of the carton being selected from the group consisting of at least one panel of the plurality of panels and at least one end flap of the plurality of end flaps, and the plurality of cuts (101, 103, 105, 107, 109, N) forms at least one texture in the exterior of the carton.
A composition comprising a dextran ether compound, wherein the dextran ether compound comprises: (i) 87-93 wt% glucose linked at positions 1 and 6; (ii) 0.1-1.2 wt% glucose linked at positions 1 and 3; (iii) 0.1-0.7 wt% glucose linked at positions 1 and 4; (iv) 7.7-8.6 wt% glucose linked at positions 1, 3 and 6; (v) 0.4-1.7 wt% glucose linked at: (a) positions 1, 2 and 6, or (b) positions 1, 4 and 6; and (vi) a degree of substitution (DoS) with at least one organic group of 0.0025 to 3.0; wherein the weight-average molecular weight (Mw) of said dextran ether compound is 50-200 million Daltons. (i) 87-93 wt% glucose linked at positions 1 and 6; (ii) 0.1-1.2 wt% glucose linked at positions 1 and 3; (iii) 0.1-0.7 wt% glucose linked at positions 1 and 4; (iv) 7.7-8.6 wt% glucose linked at positions 1, 3 and 6; (v) 0.4-1.7 wt% glucose linked at: (a) positions 1, 2 and 6, or (b) positions 1, 4 and 6; and (a) positions 1, 2 and 6, or (b) positions 1, 4 and 6; (vi) a degree of substitution (DoS) with at least one organic group of 0.0025 to 3.0;
A method for performing three dimensional, stereo measurement, comprising: obtaining a sensor image from a sensor providing an image of a scene; providing (402, 406) first and second reference images of the scene that are a stereo pair of images; registering the sensor image with the first reference image; selecting a point of interest from one of the sensor image and the first reference image; performing a stereo point measurement from the selected point of interest and the first reference image to determine a point in the second reference image that represents a stereo mate of the selected point in the first reference image; defining a three dimensional grid; and using parametric data from the selected points of interest in the first and second reference images to process each three dimensional point within said grid, to determine three dimensional coordinates of a calculated point within said second reference image that is a minimum distance from said stereo mate point in the second reference image; and denoting said calculated point as the optimum stereo coordinate measurement of said point in said second reference image. obtaining a sensor image from a sensor providing an image of a scene; providing (402, 406) first and second reference images of the scene that are a stereo pair of images; registering the sensor image with the first reference image; selecting a point of interest from one of the sensor image and the first reference image; performing a stereo point measurement from the selected point of interest and the first reference image to determine a point in the second reference image that represents a stereo mate of the selected point in the first reference image; defining a three dimensional grid; and using parametric data from the selected points of interest in the first and second reference images to process each three dimensional point within said grid, to determine three dimensional coordinates of a calculated point within said second reference image that is a minimum distance from said stereo mate point in the second reference image; and denoting said calculated point as the optimum stereo coordinate measurement of said point in said second reference image.
An apparatus for producing a metal powder (Msp), comprising: a supply unit adapted to downwardly supply a molten metal; a combustion flame injection unit adapted to convergently inject a supersonic combustion flame from a combustion flame injection port to the molten metal supplied from the supply unit, wherein the supersonic combustion flame is adapted to inject as a supersonic gas flow at a temperature higher than a melting point of the molten metal, and adapted to jet the convergent combustion flame as a focused jet flow directly downward; and a pulverization device having a pulverization cooling cylinder that is adapted to form a revolving water flow along an inner peripheral wall of the pulverization cooling cylinder, which has an axis line (CLa) that is inclined relative to a vertical direction, and that is adapted to thrust the focused jet flow inflowing from an upper opening into the revolving water flow, wherein a convergence position of the combustion flame is in an open space above the opening, wherein the convergence position of the combustion flame is above the axis line (CLa) of the pulverization cooling cylinder, wherein the convergence position of the combustion flame is above a virtual horizontal plane passing through an upper end edge of the pulverization cooling cylinder, wherein an inclination angle of the axis line (CLa) of the pulverization cooling cylinder with respect to the vertical direction is from 10° to 55°, and wherein a tip of the combustion flame injection port is above a virtual horizontal plane passing through an upper end edge of the pulverization cooling cylinder. a supply unit adapted to downwardly supply a molten metal; a combustion flame injection unit adapted to convergently inject a supersonic combustion flame from a combustion flame injection port to the molten metal supplied from the supply unit, wherein the supersonic combustion flame is adapted to inject as a supersonic gas flow at a temperature higher than a melting point of the molten metal, and adapted to jet the convergent combustion flame as a focused jet flow directly downward; and a pulverization device having a pulverization cooling cylinder that is adapted to form a revolving water flow along an inner peripheral wall of the pulverization cooling cylinder, which has an axis line (CLa) that is inclined relative to a vertical direction, and that is adapted to thrust the focused jet flow inflowing from an upper opening into the revolving water flow, wherein a convergence position of the combustion flame is in an open space above the opening, wherein the convergence position of the combustion flame is above the axis line (CLa) of the pulverization cooling cylinder, wherein the convergence position of the combustion flame is above a virtual horizontal plane passing through an upper end edge of the pulverization cooling cylinder, wherein an inclination angle of the axis line (CLa) of the pulverization cooling cylinder with respect to the vertical direction is from 10° to 55°, and wherein a tip of the combustion flame injection port is above a virtual horizontal plane passing through an upper end edge of the pulverization cooling cylinder.