mhurhangee/ep-ind-claims huggingface dataset:
A machine for extracorporeal blood treatment, comprising at least one housing for accommodating operational components of the machine for extracorporeal blood treatment which forms part of the machine for extracorporeal blood treatment; and a light-emitting unit having no diffusion disk (LLa to LLe; OLa to OLe), wherein the light-emitting unit (LLa to LLe; OLa to OLe) is arranged in a predetermined route and/or with predetermined shaping on at least one portion of the housing, the light-emitting unit (LLa toLLe; OLa to OLe) is a flexible light conductor (LLa to LLe) including at least one end-face light coupling surface at a first end and at least one end-face light output surface at a second end, or is a self-luminous flat and/or flexible OLED unit (OLa to OLe), characterized in that at least a part of the machine surface lights up; and the light-emitting unit (LLa to LLe; OLa to OLe) is arranged to project, according to the ambient light principle, an operating condition and/or a therapy condition of the machine for extracorporeal blood treatment onto a surface in the environment of said machine in such a way that the operating condition and/or therapy condition of the machine for extracorporeal blood treatment is visible on a surface in the room illuminated by the light-emitting device.
A method for classifying an object as an obstacle or non-obstacle for a vehicle which includes a sensor for recording the surroundings, wherein the sensor for recording the surroundings is used to record stationary and moving objects in a scene ahead of a vehicle and to track the path of motion of the objects, and the method includes an observer to record the path of motion of moving objects which have been identified as vehicles in the surroundings of at least one stationary object and to classify the stationary object based on this, characterized in that the sensor for recording the surroundings is used to detect a road edge, and another observer classifies the classified stationary object based on its shape and classifies a stationary, laterally extending, continuous object which extends beyond the road edge as a potential bridge and hence a non-obstacle.
A control apparatus of a direct injection internal combustion engine having fuel injection means for injecting fuel into a cylinder, the control apparatus comprising: control means for performing a control to inject fuel from the fuel injection means under the state of opening of an intake valve upon normal operation of the internal combustion engine, characterized by a control performable by the control means to delay a fuel injection timing and inject fuel from the fuel injection means under the state of closing of the intake valve for a predetermined time period upon satisfaction of a predetermined automatic stop condition which makes the internal combustion engine stop automatically. control means for performing a control to inject fuel from the fuel injection means under the state of opening of an intake valve upon normal operation of the internal combustion engine, a control performable by the control means to delay a fuel injection timing and inject fuel from the fuel injection means under the state of closing of the intake valve for a predetermined time period upon satisfaction of a predetermined automatic stop condition which makes the internal combustion engine stop automatically.
A method of drilling a wellbore with a drilling system, the method comprising: obtaining a measurement of drilling fluid flow from the wellbore through one or more of a plurality of flowmeters of the drilling system disposed in parallel communication; controlling, with one or more valves (101, 102, 104, 105, 110, 120) of the drilling system, upstream surface back pressure of the drilling fluid flow in the wellbore based at least in part on feedback of the obtained measurement to control the drilling of the wellbore by operating at least one of first adjustable choke of the one or more valves (101, 102, 104, 105, 110, 120), disposed in fluid communication upstream of the plurality of flowmeters, to adjust the upstream surface backpressure; and selectively distributing, with one or more valves (101, 102, 104, 105, 110, 120), the drilling fluid flow from the wellbore through the one or more of the plurality of flowmeters of the drilling system based at least in part on feedback of the obtained measurement. obtaining a measurement of drilling fluid flow from the wellbore through one or more of a plurality of flowmeters of the drilling system disposed in parallel communication; controlling, with one or more valves (101, 102, 104, 105, 110, 120) of the drilling system, upstream surface back pressure of the drilling fluid flow in the wellbore based at least in part on feedback of the obtained measurement to control the drilling of the wellbore by operating at least one of first adjustable choke of the one or more valves (101, 102, 104, 105, 110, 120), disposed in fluid communication upstream of the plurality of flowmeters, to adjust the upstream surface backpressure; and selectively distributing, with one or more valves (101, 102, 104, 105, 110, 120), the drilling fluid flow from the wellbore through the one or more of the plurality of flowmeters of the drilling system based at least in part on feedback of the obtained measurement.
A method for the recovery of a radioactive isotope from a spent waste resin of a nuclear power plant, wherein the waste resin is an ion exchange resin selected from the group consisting of cationic and anionic exchange resins, mixed bed ionexchange resins, and mixtures thereof, and wherein the spent waste resin is loaded with at least one radioisotope, the method comprising the steps of: a) treating the spent waste resin with an organic acid or an alkaline compound to release the at least one radioisotope from the spent waste resin and to obtain a process solution containing the at least one radioisotope; b) separating the at least one radioisotope from the process solution through a reaction specific to the radioisotope so as to obtain a process solution depleted of the at least one radioisotope, wherein said reaction specific to the radioisotope is selected from the group of a physical reaction, an electrochemical reaction, a precipitation reaction, and a combination thereof and wherein said depleted process solution comprises the organic acid or alkaline compound and ionic components; c) reacting the organic acid or alkaline compound in the depleted process solution from step b) by in situ oxidation to water and form gaseous reaction products; and d) passing the reacted process solution from step c) through the treated waste resin of step a) to reload the ionic components on the waste resin. a) treating the spent waste resin with an organic acid or an alkaline compound to release the at least one radioisotope from the spent waste resin and to obtain a process solution containing the at least one radioisotope; b) separating the at least one radioisotope from the process solution through a reaction specific to the radioisotope so as to obtain a process solution depleted of the at least one radioisotope, wherein said reaction specific to the radioisotope is selected from the group of a physical reaction, an electrochemical reaction, a precipitation reaction, and a combination thereof and wherein said depleted process solution comprises the organic acid or alkaline compound and ionic components; c) reacting the organic acid or alkaline compound in the depleted process solution from step b) by in situ oxidation to water and form gaseous reaction products; and d) passing the reacted process solution from step c) through the treated waste resin of step a) to reload the ionic components on the waste resin.
A method for determining the normal static and dynamic intramaxillary ratios of a patient, comprising the steps of: a. performing an intraoral scan of the patient at maximum intercuspation and in the rest position, said scan comprising a scan of the upper arch, lower arch and occlusal ratio; b. taking a plurality of photographs of the face of the patient which contain the front view of the mouth so as to obtain initial parameters for said mouth of the patient; c. performing a latero-lateral teleradiograph, in order to perform a cephalometric analysis; d. providing a virtual CAD model of a pair of intraoral plates (20, 40) on the basis of the acquisitions obtained in the preceding steps a., b., c., said pair of plates (20, 40) comprising an upper plate, which is adapted to be fixed to the upper dental arch of the patient and to support a tracing tip, and a lower plate, which is adapted to be fixed to the lower dental arch of the patient and comprises a recording disk which is configured to record the movements of said tracing tip; e. manufacturing said pair of intraoral plates starting from said virtual CAD model; f. fixing said upper plate and said lower plate respectively to the upper dental arch and lower dental arch of the patient; g. determining the normal static and dynamic intramaxillary ratios of the patient taking as a basis at least partially the movements of the tracing tip recorded by the recording disk. a. performing an intraoral scan of the patient at maximum intercuspation and in the rest position, said scan comprising a scan of the upper arch, lower arch and occlusal ratio; b. taking a plurality of photographs of the face of the patient which contain the front view of the mouth so as to obtain initial parameters for said mouth of the patient; c. performing a latero-lateral teleradiograph, in order to perform a cephalometric analysis; d. providing a virtual CAD model of a pair of intraoral plates (20, 40) on the basis of the acquisitions obtained in the preceding steps a., b., c., said pair of plates (20, 40) comprising an upper plate, which is adapted to be fixed to the upper dental arch of the patient and to support a tracing tip, and a lower plate, which is adapted to be fixed to the lower dental arch of the patient and comprises a recording disk which is configured to record the movements of said tracing tip; e. manufacturing said pair of intraoral plates starting from said virtual CAD model; f. fixing said upper plate and said lower plate respectively to the upper dental arch and lower dental arch of the patient; g. determining the normal static and dynamic intramaxillary ratios of the patient taking as a basis at least partially the movements of the tracing tip recorded by the recording disk.
A ceramic metal circuit board comprising: a ceramic substrate; first and second metal plates (3, 4) bonded to first and second opposite surfaces, respectively, of the ceramic substrate through respective bonding layers (5, 6); a metal film (7, 8) on a surface of the first metal plate opposite the ceramic substrate, the thickness of the metal film (7, 8) being 10 μm or less on average; and at least a part of a surface of the second metal plate opposite the ceramic substrate is not provided with the metal film (7, 8), characterized in that the ceramic metal circuit board further comprises a semiconductor element or a metal terminal mounted to the part of the surface of the second metal plate that is provided with no metal film (7, 8), and the maximum height surface roughness Rz of the surface of the first metal plate, the second metal plate, or both, that is provided with the metal film (7, 8) is 1.5 μm or less. a ceramic substrate; first and second metal plates (3, 4) bonded to first and second opposite surfaces, respectively, of the ceramic substrate through respective bonding layers (5, 6); a metal film (7, 8) on a surface of the first metal plate opposite the ceramic substrate, the thickness of the metal film (7, 8) being 10 μm or less on average; and at least a part of a surface of the second metal plate opposite the ceramic substrate is not provided with the metal film (7, 8), characterized in that the ceramic metal circuit board further comprises a semiconductor element or a metal terminal mounted to the part of the surface of the second metal plate that is provided with no metal film (7, 8), and the maximum height surface roughness Rz of the surface of the first metal plate, the second metal plate, or both, that is provided with the metal film (7, 8) is 1.5 μm or less.
Ultrasound transducer assembly, comprising: - a first plurality of ultrasound transducer elements (34, 38) for receiving ultrasound waves and for providing transducer signals (X2, X4) corresponding to the respectively received ultrasound waves, a second plurality of ultrasound transducer elements (32, 40) for receiving ultrasound waves and for providing transducer signals (X1, X5) corresponding to the respectively received ultrasound waves, - a plurality of signal combiners (42, 44; 60, 62, 64) for providing a plurality of different output signals (Y1, Y2) on the basis of the transducer signals of the first and second plurality of transducer elements, and - a plurality of timing elements (48, 52; 68, 70; 72, 74) for providing different time shifts (τ) to the transducer signals of the first plurality of transducer elements, wherein each of the first plurality of ultrasound transducer elements is connected to a plurality of the timing elements for providing the different time shifts to each of the transducer signals of the first plurality of transducer elements, - a respective delay element associated to each of the second plurality of transducer elements for providing a fixed time delay (τ1) to each of the respective transducer signals of the second plurality of transducer elements, wherein each of the first plurality of transducer elements is connected to a plurality of the signal combiners for providing the transducer signals of the first plurality of transducer elements including the different time shifts to different of the signal combiners, wherein each of the second plurality of transducer elements is connected to only one of the signal combiners, and wherein the plurality of signal combiners are connected to an overall combiner configured to combine the plurality of output signals to an overall output signal of the transducer assembly. - a first plurality of ultrasound transducer elements (34, 38) for receiving ultrasound waves and for providing transducer signals (X2, X4) corresponding to the respectively received ultrasound waves, a second plurality of ultrasound transducer elements (32, 40) for receiving ultrasound waves and for providing transducer signals (X1, X5) corresponding to the respectively received ultrasound waves, - a plurality of signal combiners (42, 44; 60, 62, 64) for providing a plurality of different output signals (Y1, Y2) on the basis of the transducer signals of the first and second plurality of transducer elements, and - a plurality of timing elements (48, 52; 68, 70; 72, 74) for providing different time shifts (τ) to the transducer signals of the first plurality of transducer elements, wherein each of the first plurality of ultrasound transducer elements is connected to a plurality of the timing elements for providing the different time shifts to each of the transducer signals of the first plurality of transducer elements, - a respective delay element associated to each of the second plurality of transducer elements for providing a fixed time delay (τ1) to each of the respective transducer signals of the second plurality of transducer elements,
Gas pressure container, in particular for an airbag system of a motor vehicle, comprising a tube element with high bursting resistance when internal pressure is applied, wherein the tube element consists of a steel alloy and in a first longitudinal portion has a tensile strength (R m,11) which is greater than (>) 800 MPa, a transition temperature (T u,11) lower than -40° C and an outer circumference (U 1), wherein the tube element comprises a second longitudinal portion which extends axially from the first longitudinal portion, wherein the second longitudinal portion and the first longitudinal portion are made in one piece and from the same material as a seamless or welded tube, wherein the second longitudinal portion has an outer circumference (U 12) which is reduced compared to the outer circumference (U 11) of the first longitudinal portion, characterised in that in the second longitudinal portion the tube element has a transition temperature (T u,12) lower than (<) -50° C and lower than (<) the transition temperature (T u,11) of the first longitudinal portion.
A computer-implemented method for estimating a likelihood of a current existence of a real-world map feature, the method comprising: accessing, by a computing system with one or more associated processors, a plurality of data records representing instances in which the real-world map feature is observed; the method being characterised in that it comprises the steps of: determining, by the computing system, a temporal frequency at which the real-world map feature is observed based on the plurality of data records representing instances in which the real-world map feature is observed; determining, by the computing system, an elapsed time between a most recent instance in which the real-world map feature was observed and a current time; estimating, by the computing system, a likelihood that the map feature currently exists in the real world based, at least in part, on the temporal frequency and the elapsed time; determining, by the computing system, that the likelihood that the map feature currently exists is below a predetermined likelihood threshold; and altering, by the computing system, geographic map data to remove the real-world map feature. accessing, by a computing system with one or more associated processors, a plurality of data records representing instances in which the real-world map feature is observed; the method being characterised in that it comprises the steps of: determining, by the computing system, a temporal frequency at which the real-world map feature is observed based on the plurality of data records representing instances in which the real-world map feature is observed; determining, by the computing system, an elapsed time between a most recent instance in which the real-world map feature was observed and a current time; estimating, by the computing system, a likelihood that the map feature currently exists in the real world based, at least in part, on the temporal frequency and the elapsed time; determining, by the computing system, that the likelihood that the map feature currently exists is below a predetermined likelihood threshold; and altering, by the computing system, geographic map data to remove the real-world map feature. determining, by the computing system, a temporal frequency at which the real-world map feature is observed based on the plurality of data records representing instances in which the real-world map feature is observed; determining, by the computing system, an elapsed time between a most recent instance in which the real-world map feature was observed and a current time; estimating, by the computing system, a likelihood that the map feature currently exists in the real world based, at least in part, on the temporal frequency and the elapsed time; determining, by the computing system, that the likelihood that the map feature currently exists is below a predetermined likelihood threshold; and altering, by the computing system, geographic map data to remove the real-world map feature.
A can combustion chamber comprising a casing having a longitudinal axis and housing a plurality of cans, each can comprising a wall and a perforated cooling liner around the wall, characterized in that cooling liners have perforations staggered with respect to perforations of the liners of adjacent cans and in that the perforations of each liner project on the liners of adjacent cans perpendicularly to a plane passing through the longitudinal axis and between the two adjacent cans.
Building panels comprising: a first building panel, a second building panel, and a displaceable tongue inserted into a sidewardly open displacement groove provided at an edge of the first building panel, said displaceable tongue being configured to cooperate with a tongue groove provided at an adjacent edge of the second building panel for locking the edge and the adjacent edge vertically, the building panels further comprising a strip that protrudes:below the displacement groove and outwardly beyond an upper part of the edge of the first building panel; or below the tongue groove and outwardly beyond an upper part of the adjacent edge of the second building panel, characterized in that the displaceable tongue comprises a pulling extension at its outer part configured to cooperate with a pulling protrusion formed at the adjacent edge such that the displaceable tongue is pulled out from the displacement groove and into the tongue groove when the edges of said building panels are displaced vertically relative to each other, and wherein the displaceable tongue is configured to bend in a length direction of the displaceable tongue. a first building panel, a second building panel, and a displaceable tongue inserted into a sidewardly open displacement groove provided at an edge of the first building panel, said displaceable tongue being configured to cooperate with a tongue groove provided at an adjacent edge of the second building panel for locking the edge and the adjacent edge vertically, the building panels further comprising a strip that protrudes:below the displacement groove and outwardly beyond an upper part of the edge of the first building panel; or below the tongue groove and outwardly beyond an upper part of the adjacent edge of the second building panel, characterized in that the displaceable tongue comprises a pulling extension at its outer part configured to cooperate with a pulling protrusion formed at the adjacent edge such that the displaceable tongue is pulled out from the displacement groove and into the tongue groove when the edges of said building panels are displaced vertically relative to each other, and wherein the displaceable tongue is configured to bend in a length direction of the displaceable tongue.
A tire (100; 200; 300) comprising: a tread; an undertread below the tread; a belt region (120; 220) below the undertread; a pair of beads (105, 110; 210), each bead (105, 110; 210) including a bead core and a bead filler; a pair of abrasion areas, each abrasion area being associated with one of the pair of beads (105, 110; 210); a body ply (115; 205) having a pair of turn up portions that wrap around the bead cores and the bead fillers and extend to the belt region (120; 220) of the tire (100; 200; 300); a pair of sidewalls (140, 145; 215) outside the body ply (115; 205), each sidewall (140, 145; 215) extending between the tread and one of the abrasion areas; characterised in that the tire comprises a metal filament (170; 230; 310) including a metal core and an electrically conductive rubber coating, extending from at least one of the abrasion areas to the belt region (120; 220) of the tire (100; 200; 300). a tread; an undertread below the tread; a belt region (120; 220) below the undertread; a pair of beads (105, 110; 210), each bead (105, 110; 210) including a bead core and a bead filler; a pair of abrasion areas, each abrasion area being associated with one of the pair of beads (105, 110; 210); a body ply (115; 205) having a pair of turn up portions that wrap around the bead cores and the bead fillers and extend to the belt region (120; 220) of the tire (100; 200; 300); a pair of sidewalls (140, 145; 215) outside the body ply (115; 205), each sidewall (140, 145; 215) extending between the tread and one of the abrasion areas; characterised in that the tire comprises a metal filament (170; 230; 310) including a metal core and an electrically conductive rubber coating, extending from at least one of the abrasion areas to the belt region (120; 220) of the tire (100; 200; 300).