mhurhangee/ep-ind-claims huggingface dataset:
A processor for use in a system for obtaining a blood flow velocity measurement based on an angiogram obtained from a subject, wherein the processor is adapted to: obtain an angiogram of a vessel of the subject, the angiogram comprising a plurality of angiogram image frames, wherein the angiogram is representative of the vessel including a contrast agent therein, and wherein the contrast agent has been provided to the vessel in bursts, thereby providing contrast data within the angiogram; for each angiogram image frame of the angiogram that includes contrast data: estimate an instantaneous blood flow velocity based on the contrast data; calculate a confidence value of the angiogram image frame based on the contrast data; and estimate a point within a cardiac cycle represented by the angiogram image frame; estimate a period of the cardiac cycle; and generate a velocity curve representing the blood flow velocity within the vessel over the cardiac cycle based on the period of the cardiac cycle, the estimated instantaneous blood flow velocity of each angiogram image frame, the confidence value of each angiogram image frame and the point within the cardiac cycle represented by each angiogram image frame. obtain an angiogram of a vessel of the subject, the angiogram comprising a plurality of angiogram image frames, wherein the angiogram is representative of the vessel including a contrast agent therein, and wherein the contrast agent has been provided to the vessel in bursts, thereby providing contrast data within the angiogram; for each angiogram image frame of the angiogram that includes contrast data: estimate an instantaneous blood flow velocity based on the contrast data; calculate a confidence value of the angiogram image frame based on the contrast data; and estimate a point within a cardiac cycle represented by the angiogram image frame; estimate an instantaneous blood flow velocity based on the contrast data; calculate a confidence value of the angiogram image frame based on the contrast data; and estimate a point within a cardiac cycle represented by the angiogram image frame; estimate a period of the cardiac cycle; and generate a velocity curve representing the blood flow velocity within the vessel over the cardiac cycle based on the period of the cardiac cycle, the estimated instantaneous blood flow velocity of each angiogram image frame, the confidence value of each angiogram image frame and the point within the cardiac cycle represented by each angiogram image frame.
A zinc-polysulfide rechargeable flow battery comprising: - a first half-cell (110; 310; 410; 510; 610; 710) comprising a first electrolyte (114; 314; 414; 514; 614; 714) containing a source of Zn 2+ ions and a static or flowable electrode disposed within the first half-cell, said first half-cell being connected in a closed-loop configuration through a first pump to a first external tank containing the first electrolyte; - a second half-cell (120; 620; 720; 820; 920; 1020; 1120; 1220; 1320; 1420; 1520; 1620; 1720; 1820; 1920; 2020; 2120; 2220; 2320) comprising a second electrolyte (124; 721; 821; 921; 1021; 1121; 1221; 1321; 1421; 1521; 1621; 1721; 1821; 1921; 2021; 2121; 2221; 2321) in which polysulfides are dissolved and a static (122; 622; 722; 822; 922; 1022; 1122; 1222; 1322; 1422; 1522; 1622; 1722; 1822; 1922; 2022; 2122; 2222; 2322) or flowable electrode, disposed within the second half-cell, said second half-cell being connected in a closed-loop configuration through a second pump to a second external tank containing the second electrolyte; - in the second half-cell, a catalyst on the surface of a static electrode or dispersed in the second electrolyte in the form of particles (711; 911); and - a separator (130; 160) between the two half-cells. - a first half-cell (110; 310; 410; 510; 610; 710) comprising a first electrolyte (114; 314; 414; 514; 614; 714) containing a source of Zn 2+ ions and a static or flowable electrode disposed within the first half-cell, said first half-cell being connected in a closed-loop configuration through a first pump to a first external tank containing the first electrolyte; - a second half-cell (120; 620; 720; 820; 920; 1020; 1120; 1220; 1320; 1420; 1520; 1620; 1720; 1820; 1920; 2020; 2120; 2220; 2320) comprising a second electrolyte (124; 721; 821; 921; 1021; 1121; 1221; 1321; 1421; 1521; 1621; 1721; 1821; 1921; 2021; 2121; 2221; 2321) in which polysulfides are dissolved and a static (122; 622; 722; 822; 922; 1022; 1122; 1222; 1322; 1422; 1522; 1622; 1722; 1822; 1922; 2022; 2122; 2222; 2322) or flowable electrode, disposed within the second half-cell, said second half-cell being connected in a closed-loop configuration through a second pump to a second external tank containing the second electrolyte; - in the second half-cell, a catalyst on the surface of a static electrode or dispersed in the second electrolyte in the form of particles (711; 911); and - a separator (130; 160) between the two half-cells.
A paper particle reduction device comprising: a housing containing an inlet for receiving material into a flow chamber, at least two adjacently and vertically spaced particle reduction stages (30, 40, 50) through which material flows from one stage to the other for reducing the particle size of the material, and an outlet for outputting processed material with reduced particle size; each particle reduction stage having an impact member (32, 42, 52) that rotates about a central shaft for impacting material into smaller particles; wherein at least one of the stages has a screen (45, 55) located downstream from the impact member, the screen having perforations through which particles of a sufficiently small size can pass; characterized in that the impact member comprises elongated beaters (32, 42, 52) supported on and extending radially from a beater plate (33, 43, 53) mounted to the central shaft; and wherein the housing has a multi-faceted interior wall. a housing containing an inlet for receiving material into a flow chamber, at least two adjacently and vertically spaced particle reduction stages (30, 40, 50) through which material flows from one stage to the other for reducing the particle size of the material, and an outlet for outputting processed material with reduced particle size; each particle reduction stage having an impact member (32, 42, 52) that rotates about a central shaft for impacting material into smaller particles; wherein at least one of the stages has a screen (45, 55) located downstream from the impact member, the screen having perforations through which particles of a sufficiently small size can pass; characterized in that the impact member comprises elongated beaters (32, 42, 52) supported on and extending radially from a beater plate (33, 43, 53) mounted to the central shaft; and wherein the housing has a multi-faceted interior wall.
An external fetal monitoring system comprising: a. two or more anchor strips, each of which include a layer of adhesive material disposed on one side and one or more fasteners disposed on the opposite side; b. one or more elastomeric straps, each of which include one or more fastener receivers disposed at either end, wherein said fasteners and fastener receivers mate to form a fastener pair; and c. one or more monitor transducers, each of which include retaining features on one side thereof, said retaining features allowing said one or more transducers to be slidably affixed to said one or more elastomeric straps. a. two or more anchor strips, each of which include a layer of adhesive material disposed on one side and one or more fasteners disposed on the opposite side; b. one or more elastomeric straps, each of which include one or more fastener receivers disposed at either end, wherein said fasteners and fastener receivers mate to form a fastener pair; and c. one or more monitor transducers, each of which include retaining features on one side thereof, said retaining features allowing said one or more transducers to be slidably affixed to said one or more elastomeric straps.
Method of applying a layer of a recording liquid on a recording medium by application of droplets of the recording liquid using an inkjet printing technique, which recording liquid is curable, the method comprising a. applying a first layer of droplets of the recording liquid on the recording medium such that the first layer substantially completely covers a predetermined part of the recording medium; b. curing the droplets of the first layer within a first period of time after application; c. applying a second layer of droplets of the recording liquid on the cured first layer; d. leaving the second layer uncured for a second period of time to allow the droplets to spread and coalesce for the second layer to have a smooth glossy surface; and e. curing the second layer after the second period of time; characterised in that the first period of time is shorter than the second period of time. a. applying a first layer of droplets of the recording liquid on the recording medium such that the first layer substantially completely covers a predetermined part of the recording medium; b. curing the droplets of the first layer within a first period of time after application; c. applying a second layer of droplets of the recording liquid on the cured first layer; d. leaving the second layer uncured for a second period of time to allow the droplets to spread and coalesce for the second layer to have a smooth glossy surface; and e. curing the second layer after the second period of time; characterised in that the first period of time is shorter than the second period of time.
A method of producing a spark plug, said spark plug including: a center electrode; an insulator which holds said center electrode therein in a state where a tip end portion of said center electrode protrudes therefrom; a metal shell which holds said insulator therein; a ground electrode which is fixed to said metal shell, said ground electrode having an inner side face having a width that is smaller as it advances toward a tip end side, in a portion of the inner side face positioned between a pair of tapered faces; and a discharge portion which is bonded to said inner side face of said ground electrode by laser welding so as to attain a diameter of 0.8 mm or less and a height of 0.5 mm or more, a discharge gap being formed between said discharge portion and said tip end portion of said center electrode, characterized in that said method comprises: forming said tapered faces before said discharge portion is laser-welded to said inner side face, forming said molten bond by laser welding so as to extend from said inner side face to said tapered faces, said molten bond having a curved shape at a corner formed between said inner side face and said tapered faces. a center electrode; an insulator which holds said center electrode therein in a state where a tip end portion of said center electrode protrudes therefrom; a metal shell which holds said insulator therein; a ground electrode which is fixed to said metal shell, said ground electrode having an inner side face having a width that is smaller as it advances toward a tip end side, in a portion of the inner side face positioned between a pair of tapered faces; and a discharge portion which is bonded to said inner side face of said ground electrode by laser welding so as to attain a diameter of 0.8 mm or less and a height of 0.5 mm or more, a discharge gap being formed between said discharge portion and said tip end portion of said center electrode, characterized in that said method comprises: forming said tapered faces before said discharge portion is laser-welded to said inner side face, forming said molten bond by laser welding so as to extend from said inner side face to said tapered faces, said molten bond having a curved shape at a corner formed between said inner side face and said tapered faces. forming said tapered faces before said discharge portion is laser-welded to said inner side face, forming said molten bond by laser welding so as to extend from said inner side face to said tapered faces, said molten bond having a curved shape at a corner formed between said inner side face and said tapered faces.
An indoor unit of an air conditioner comprising: a cabinet including air outlets on both sides; and a front panel mounted to a front of the cabinet, the front panel includes a central air inlet; and outlet units mounted to each of the air outlets for guiding air being discharged from an inside, wherein the outlet unit includes; a body mounted to each of the air outlets, the body having an air outlet, characterised in that the air conditioner further comprises a groove for securing an electric cable, the groove is formed in the body and positioned between the cabinet and the body, and a rib mounted to the body, the rib covers the groove such that the rib prevents the electric cable from falling off the groove. a cabinet including air outlets on both sides; and a front panel mounted to a front of the cabinet, the front panel includes a central air inlet; and outlet units mounted to each of the air outlets for guiding air being discharged from an inside, wherein the outlet unit includes; a body mounted to each of the air outlets, the body having an air outlet, characterised in that the air conditioner further comprises a groove for securing an electric cable, the groove is formed in the body and positioned between the cabinet and the body, and a rib mounted to the body, the rib covers the groove such that the rib prevents the electric cable from falling off the groove.
Telescopic fork comprising a fixed base, a first intermediate slide telescopically movable with respect to the fixed base, a second intermediate slide and/or a third intermediate slide telescopically movable with respect to the first intermediate slide and/or with respect to the second intermediate slide, and a top slide in turn telescopically movable with respect to the third intermediate slide or with respect to the second intermediate slide, at least one of said movable slides (12, 13, 14, 15) being moved independently of the other slides by relative actuation means, characterized in that the telescopic fork comprises: - first actuation means (M1, 31) configured to transmit motion to the top slide through the movement of at least one intermediate slide (12, 13, 14); - second actuation means (M2, 32) configured to transmit motion to at least one intermediate slide (12, 13); - third actuation means (M3, 33) configured to transmit motion to the first intermediate slide. - first actuation means (M1, 31) configured to transmit motion to the top slide through the movement of at least one intermediate slide (12, 13, 14); - second actuation means (M2, 32) configured to transmit motion to at least one intermediate slide (12, 13); - third actuation means (M3, 33) configured to transmit motion to the first intermediate slide.
A method for transmitting a communication signal from a local device to a remote device or from a remote device to a local device, the method comprising - generating a plurality of data symbols including a first data symbol according to a first mapping and a second data symbol according to a second mapping; wherein a first portion of the communication signal is for the first data symbol and a second portion of the communication signal is for the second data symbol; - encoding the communication signal by modulating the first portion of the communication signal according to a first waveform wherein the first waveform has a leading edge that is indicative to a first waveform; generating a modified second waveform by modifying the leading edge of a second waveform to have a shape substantially similar to a shape of the leading edge of the first waveform; and modulating the second portion of the communication signal according to the second modified waveform; - transmitting the modulated communication signal from a local device to a remote device or from a remote device to a local device over a transmission medium - decoding the communication signal according to the mapping of the first data symbol to the first waveform, and to the mapping of the second data symbol to the second waveform. - generating a plurality of data symbols including a first data symbol according to a first mapping and a second data symbol according to a second mapping; wherein a first portion of the communication signal is for the first data symbol and a second portion of the communication signal is for the second data symbol; - encoding the communication signal by modulating the first portion of the communication signal according to a first waveform wherein the first waveform has a leading edge that is indicative to a first waveform; generating a modified second waveform by modifying the leading edge of a second waveform to have a shape substantially similar to a shape of the leading edge of the first waveform; and modulating the second portion of the communication signal according to the second modified waveform; - transmitting the modulated communication signal from a local device to a remote device or from a remote device to a local device over a transmission medium - decoding the communication signal according to the mapping of the first data symbol to the first waveform, and to the mapping of the second data symbol to the second waveform.
A system for connecting two catenary contact wires, the system comprising a coupling body adapted to accommodate and retain together two contact wires placed end-to-end, the coupling body having, for each of the contact wires, a first hooking relief, characterised in that it includes a tool for preparing the contact wires, independent of the coupling body, the preparation tool including: - a shaping die having a deformation relief identical to the first hooking relief; - compression means coupled to the shaping die to clamp it on a contact wire and deform the contact wire so that it has a second hooking relief, complementary with the first hooking relief, the coupling body being attached on the contact wires after removal of the preparation tool, the preparation tool being dedicated to making of each second hooking relief on the contact wires, the coupling body being intended to make the connection thanks to the first hooking reliefs that it has. - a shaping die having a deformation relief identical to the first hooking relief; - compression means coupled to the shaping die to clamp it on a contact wire and deform the contact wire so that it has a second hooking relief, complementary with the first hooking relief, the coupling body being attached on the contact wires after removal of the preparation tool, the preparation tool being dedicated to making of each second hooking relief on the contact wires, the coupling body being intended to make the connection thanks to the first hooking reliefs that it has.
Granulate for binding of environmental poisons in water, characterized in that it comprises from 70 to 99 weight-% olivine material and from 1 to 30 weight-% binder selected from the group of cement and water-insoluble binders.
A method comprising: performing a session of dynamically controlling the timings of printing fluid drop ejections to deposit printing fluid on a print zone of a substrate according to a height profile of the print zone, while performing a session of measuring a height profile of a pre-print zone, characterised in that the method further comprises: heating a zone of the substrate, wherein the pre-print zone is in a same temperature section of the print zone and temperature sections are defined by respective heating elements to heat the substrate. heating a zone of the substrate, wherein the pre-print zone is in a same temperature section of the print zone and temperature sections are defined by respective heating elements to heat the substrate.
Composition comprising - at least one polyol and - at least one, preferably liquid, carbodiimide of the formula where R 1, R 2, R 4 and R 6 is each independently C 3 -C 6 -alkyl and R 3 and R 5 is each independently C 1 -C 3 -alkyl, and - at least one diisocyanate, where the ratio of diisocyanate to polyol is 20-50:100 parts by weight, more preferably 25 to 35:100 parts by weight. - at least one polyol and - at least one, preferably liquid, carbodiimide of the formula where R 1, R 2, R 4 and R 6 is each independently C 3 -C 6 -alkyl and R 3 and R 5 is each independently C 1 -C 3 -alkyl, and where R 1, R 2, R 4 and R 6 is each independently C 3 -C 6 -alkyl and R 3 and R 5 is each independently C 1 -C 3 -alkyl, and - at least one diisocyanate, where the ratio of diisocyanate to polyol is 20-50:100 parts by weight, more preferably 25 to 35:100 parts by weight.
Method of using a motive power unit for a pedal vehicle, in particular a bicycle, said motive power unit comprising a control unit (38, 106) arranged to produce a first and second control signal, a first (5, 105) and second motor (4, 104) as well as an epicyclic train (24, 124) having a planet holder (14, 114), a ring (12, 112') and a sun gear (13, 113), said first motor (5, 105) being connected to the epicyclic train (24, 124), said motive power unit also comprising a bottom-bracket spindle (11, 111), the second motor (4, 104) being meshed on the bottom-bracket spindle (11, 111) and the first motor (5, 105) being connected to the sun gear (13, 113), the planet holder (14, 114) being connected to an output sprocket (23, 123) of the motive power unit, said first (5, 105) and respectively second motor (4, 104) being provided with a first and respectively a second sensor arranged to measure the angular velocity of the motor with which it is associated, said first and second sensors being connected to the control unit (38, 106), said motive power unit comprising a measuring element arranged to produce a measurement signal indicating a torque supplied by the first motor (5, 105), the second control signal being a torque control signal that is supplied to the second motor (4, 104), characterized in that the ring (12, 112') is connected to the bottom-bracket spindle (11, 111) in order to form a first input of the epicyclic train (24, 124), in that said control unit (38, 106) is arranged to produce the first and second control signal on the basis of the angular speeds measured by the sensors and predetermined set values as well as the measurement signal indicating the torque, and in that said first control signal is a rotation speed control signal that is supplied to the first motor (5, 105). characterized in that the ring (12, 112') is connected to the bottom-bracket spindle (11, 111) in order to form a first input of the epicyclic train (24, 124), in that said control unit (38, 106) is arranged to produce the first and second control signal on the basis of the angular speeds measured by the sensors and predetermined set values as well as the measurement signal indicating the torque, and in that said first control signal is a rotation speed control signal that is supplied to the first motor (5, 105).
A safety system having at least one transponder and at least one RFID reading unit, wherein a sinusoidal signal can be read from the transponder by means of the RFID reading unit and can be fed to a computer unit via an analogue-to-digital converter, characterised in that control means are provided in which the period of the sinusoidal signal is predetermined, in that the control means for sampling the sinusoidal signal during a sampling period predetermine four sampling instants which are each equidistant from one another by a quarter of the period of the sinusoidal signal, in that the analogue-to-digital converter is used to obtain a sampling value SO, S1, S2 and S3 for each sampling instant, and in that the control means for sampling the sinusoidal signal during a sampling period predetermine four sampling instants which are each equidistant from one another by a quarter of the period of the sinusoidal signal. S3 is obtained for each sampling time point, and that the phase shift φ of the signal curve obtained by the samplings with respect to the sinusoidal signal is determined in the control means from the sampling values S0, S1, S2 and S3 for the four sampling time points.