mhurhangee/ep-ind-claims huggingface dataset:
A catheter mount configured to be attached to a respiratory apparatus, the catheter mount comprising: a plurality of ports (250e, 300e, 350e) in fluid communication with each other, wherein the plurality of ports (250e, 300e, 350e) comprise: an interface port configured to connect to an interface tube; a conduit port configured to connect to a conduit tube; at least one suction port configured to allow insertion of a suction catheter; characterized in that at least one of the interface port or the conduit port are attached to a ball-joint rotatable assembly configured to allow the interface port and the conduit port to rotate relative to each other and the suction catheter, when inserted, to access both the interface port and the conduit port. an interface port configured to connect to an interface tube; a conduit port configured to connect to a conduit tube; at least one suction port configured to allow insertion of a suction catheter; characterized in that at least one of the interface port or the conduit port are attached to a ball-joint rotatable assembly configured to allow the interface port and the conduit port to rotate relative to each other and the suction catheter, when inserted, to access both the interface port and the conduit port.
A binocular telescope, characterized by comprising: a pair of Schmidt-Pechan roof prisms, wherein each of the Schmidt-Pechan roof prisms comprises a first half pentaprism and a Schmidt roof prism, each of the first half pentaprisms comprises a first lateral surface, and the first lateral surface of each of the first half pentaprisms substantially faces the other first half pentaprism; a second half pentaprism, connected to the first lateral surface of one of the first half pentaprisms and comprising a second lateral surface, wherein the second lateral surface of the second half pentaprism substantially faces the other first half pentaprism; a right-angle prism, comprising a third lateral surface and a fourth lateral surface, wherein the third lateral surface and the fourth lateral surface are spatially perpendicular to each other, the third lateral surface of the right-angle prism is connected to the second lateral surface of the second half pentaprism, a normal of the fourth lateral surface of the right-angle prism is perpendicular to an imaginary plane, and the imaginary plane comprises a normal of the first lateral surface and a normal of the second lateral surface; a main circuit board, comprising a control module; and an auxiliary circuit board, comprising a light emitting and receiving module, wherein the light emitting and receiving module comprises a light emitter and a light receiver, and the light emitter and the light receiver are arranged above the fourth lateral surface of the right-angle prism and electrically connected with the main circuit board respectively. a pair of Schmidt-Pechan roof prisms, wherein each of the Schmidt-Pechan roof prisms comprises a first half pentaprism and a Schmidt roof prism, each of the first half pentaprisms comprises a first lateral surface, and the first lateral surface of each of the first half pentaprisms substantially faces the other first half pentaprism; a second half pentaprism, connected to the first lateral surface of one of the first half pentaprisms and comprising a second lateral surface, wherein the second lateral surface of the second half pentaprism substantially faces the other first half pentaprism; a right-angle prism, comprising a third lateral surface and a fourth lateral surface, wherein the third lateral surface and the fourth lateral surface are spatially perpendicular to each other, the third lateral surface of the right-angle prism is connected to the second lateral surface of the second half pentaprism, a normal of the fourth lateral surface of the right-angle prism is perpendicular to an imaginary plane, and the imaginary plane comprises a normal of the first lateral surface and a normal of the second lateral surface; a main circuit board, comprising a control module; and an auxiliary circuit board, comprising a light emitting and receiving module, wherein the light emitting and receiving module comprises a light emitter and a light receiver, and the light emitter and the light receiver are arranged above the fourth lateral surface of the right-angle prism and electrically connected with the main circuit board respectively.
Apparatus (500, 600, 700, 800, 900, 1000) for endovascularly replacing a patient's heart valve, the apparatus comprising: a replacement valve (520, 620, 720, 820, 920, 1020); and an expandable anchor (30', 30, 300, 350, 470, 630, 730, 830, 930, 1030), wherein the replacement valve and the anchor are configured for endovascular delivery to a vicinity of the patient's heart valve with no portion of the replacement valve being wrapped about the anchor, and wherein at least a wrapping portion (528, 628, 728, 828, 928, 1028) of the replacement valve is configured to be wrapped about an end of the anchor in a deployed configuration, characterized in that the wrapped portion of the replacement valve is configured to be held between the anchor and the patient tissue upon endovascular deployment. a replacement valve (520, 620, 720, 820, 920, 1020); and an expandable anchor (30', 30, 300, 350, 470, 630, 730, 830, 930, 1030), wherein the replacement valve and the anchor are configured for endovascular delivery to a vicinity of the patient's heart valve with no portion of the replacement valve being wrapped about the anchor, and wherein at least a wrapping portion (528, 628, 728, 828, 928, 1028) of the replacement valve is configured to be wrapped about an end of the anchor in a deployed configuration, characterized in that the wrapped portion of the replacement valve is configured to be held between the anchor and the patient tissue upon endovascular deployment.
A jug for the preparation of beverages comprising: a body with at least a first receptacle for receiving ingredients for the preparation of beverages; a cover closing the body; a first fluid connection arranged for receiving a beverage from a beverage producing machine and collecting the beverage in the first receptacle; characterized in that the jug further comprises; - a second receptable; - a second fluid connection to a beverage producing machine, in fluid communication with the second receptacle; - at least a first stirrer provided for arrangement in one of the first receptacle and second receptacle. a body with at least a first receptacle for receiving ingredients for the preparation of beverages; a cover closing the body; a first fluid connection arranged for receiving a beverage from a beverage producing machine and collecting the beverage in the first receptacle; characterized in that the jug further comprises; - a second receptable; - a second fluid connection to a beverage producing machine, in fluid communication with the second receptacle; - at least a first stirrer provided for arrangement in one of the first receptacle and second receptacle. - a second receptable; - a second fluid connection to a beverage producing machine, in fluid communication with the second receptacle; - at least a first stirrer provided for arrangement in one of the first receptacle and second receptacle.
Method for carrying out chemical equilibrium reactions in which carbon dioxide and hydrogen are converted, using a permselective membrane, wherein quantitative proportions of at least water as one of products obtained in the reaction are separated and removed from the reaction through the action of the permselective membrane, characterized in that the equilibrium reaction is either a Sabatier reaction or a methanol production reaction and a permselective membrane is used which is made from a material containing at least carbon and / or hydrocarbons, said material having a porous structure with mean pore sizes of less than 0.45 nm (4.5 Å) and being hydrophobic at least on the free surfaces thereof.
An opener device comprising: means to remove a cap of a container, and means to clean at least part of the container, characterised in that, the cleaning means is configured to emit energy to clean at least part of a container. means to remove a cap of a container, and means to clean at least part of the container, characterised in that, the cleaning means is configured to emit energy to clean at least part of a container.
Method for evaluating a performance of at least one environmental sensor (s1 to sz) of a vehicle, in particular of a vehicle set up for an automated driving operation, in particular for a highly automated driving operation, characterized by the method steps of - detecting false negatives of the environmental sensor (s1 to sz) with respect to at least one reference object (RO1, RO2, RO3), - classifying the false negatives recorded during a given evaluation time period according to their length of time and assigning each to one of a plurality of given time classes, - determining a false negative rate of the particular time class for each of the time classes, which indicates how often false negatives of the particular time class occur during the given evaluation time period, - presetting a false negative threshold for each of the time classes, - determining for each time class how often the false negative rate of the particular time class exceeds the false negative threshold given for this time class, - evaluating the performance of the environmental sensor (s1 to sz) as impaired if the determined number of times the false negative threshold given for the particular time class is exceeded by the false negative rate is higher than a value given for the particular time class. - detecting false negatives of the environmental sensor (s1 to sz) with respect to at least one reference object (RO1, RO2, RO3), - classifying the false negatives recorded during a given evaluation time period according to their length of time and assigning each to one of a plurality of given time classes, - determining a false negative rate of the particular time class for each of the time classes, which indicates how often false negatives of the particular time class occur during the given evaluation time period, - presetting a false negative threshold for each of the time classes, - determining for each time class how often the false negative rate of the particular time class exceeds the false negative threshold given for this time class, - evaluating the performance of the environmental sensor (s1 to sz) as impaired if the determined number of times the false negative threshold given for the particular time class is exceeded by the false negative rate is higher than a value given for the particular time class.
A multi-layer foam sheet with an apparent density of 30 to 300 kg/m 3 and a thickness of 0.05 to 2 mm, comprising a foam layer that comprises a polyethylene-based resin, and an antistatic layer that is fusion-laminated by coextrusion on each of both sides of the foam layer, wherein the polyethylene-based resin contains low density polyethylene in an amount of at least 90% by weight, wherein the antistatic layer has a basis weight of 1 to 10 g/m 2 and contains a polyethylene-based resin, a polystyrene-based resin, a styrenic elastomer and a polymeric antistatic agent, with the polystyrene-based resin being present in an amount of 15 to 70% by weight based on the weight of the antistatic layer, and wherein the polystyrene-based resin has a melt flow rate of 5.0 to 30 g/10min at a temperature 200°C and a load of 5kg wherein the melt flow rate of the polystyrene-based resin is 0.5 to 2 times that of the polyethylene-based resin.
A method for generating a map indicative of a transmit radio frequency field for each coil in an RF coil array having a plurality of RF coils that forms a part of a magnetic resonance imaging system, the steps of the method comprising: a) directing the MRI system to operate the plurality of coils of the RF coil array to generate a transmit RF field and obtain an absolute measurement of an RF transmission (B1+) map for the RF coil array; b) directing the MRI system to, for each given coil in the RF coil array, operate said given coil of the plurality of coils in the RF coil array to generate a transmit RF field and obtain a relative measurement of the B1+map for said given coil in the RF coil array by varying at least one of a magnitude value and a phase value of an RF waveform provided to the given coil in the RF coil array relative to other coils in the RF coil array; c) computing a global B1+ map for the plurality of coils of the RF coil array from the absolute measurement; and d) producing a B1+ map for each coil in the RF coil array by weighting the global B1+ map using information derived from the relative measurement obtained for that coil; wherein step d) includes producing the B1+ map for a coil in the RF coil array by weighting the global B1+ map using a relative phase computed from the relative measure of the B1+ map obtained for that coil; and wherein the relative phase is computed by forming a signal ratio by dividing magnetic resonance signals obtained by the coil in step a) by reference magnetic resonance signals. a) directing the MRI system to operate the plurality of coils of the RF coil array to generate a transmit RF field and obtain an absolute measurement of an RF transmission (B1+) map for the RF coil array; b) directing the MRI system to, for each given coil in the RF coil array, operate said given coil of the plurality of coils in the RF coil array to generate a transmit RF field and obtain a relative measurement of the B1+map for said given coil in the RF coil array by varying at least one of a magnitude value and a phase value of an RF waveform provided to the given coil in the RF coil array relative to other coils in the RF coil array; c) computing a global B1+ map for the plurality of coils of the RF coil array from the absolute measurement; and d) producing a B1+ map for each coil in the RF coil array by weighting the global B1+ map using information derived from the relative measurement obtained for that coil; wherein step d) includes producing the B1+ map for a coil in the RF coil array by weighting the global B1+ map using a relative phase computed from the relative measure of the B1+ map obtained for that coil; and wherein the relative phase is computed by forming a signal ratio by dividing magnetic resonance signals obtained by the coil in step a) by reference magnetic resonance signals.
A compound represented by the following formula or a salt thereof, wherein in the formula, R 1 denotes a hydrogen atom, a methyl group, or a hydroxymethyl group, and n is an integer of 1 or 2.
A method for producing ammonia, wherein a carbon-containing energy carrier flow and an oxygen flow from an oxygen-producing assembly are fed to a synthesis gas reactor assembly for obtaining a synthesis gas flow with hydrogen and carbon oxides, wherein the synthesis gas flow is fed to an adsorption device for separating the synthesis gas flow into a hydrogen flow, which comprises hydrogen, and a purge flow, and wherein the hydrogen flow and a nitrogen flow are fed to an ammonia reactor assembly and converted into ammonia there, wherein the purge flow is fed to a recovery device which recovers a hydrogen-containing recovery flow from the purge flow and discharges a waste gas flow therefrom, and wherein the hydrogen of the recovery flow is at least partly fed to the ammonia reactor assembly for conversion into ammonia, characterized in that the synthesis gas reactor assembly obtains the synthesis gas flow from the energy carrier flow by autothermic reforming with the oxygen flow, so that a catalytic partial oxidation provides the heat required for the endothermic reforming reactions.
A medical imaging system comprising: a microwave antenna array comprising a transmitting antenna and a plurality of receiving antennae, wherein the transmitting antenna is configured to transmit microwave signals so as to illuminate a body part of a patient and the receiving antennae are configured to receive the microwave signals following scattering within the body part; a processor configured to process the scattered microwave signals and generate an output indicative of the internal structure of the body part to identify a target within the body part; and a delivery device comprising a delivery needle for implanting a marker at the site of the target, the delivery device being movable relative to the microwave antenna array; characterised in that: the delivery needle has an integrated coaxial feed line for supplying microwave signals to the tip of the needle, such that the delivery needle itself is configured to radiate microwave signals; the receiving antennae are further configured to receive microwave signals radiated by the delivery needle; and the processor is further configured to use the received microwave signals radiated by the delivery needle to monitor a position of the delivery needle as it is guided to the target within the body part. a microwave antenna array comprising a transmitting antenna and a plurality of receiving antennae, wherein the transmitting antenna is configured to transmit microwave signals so as to illuminate a body part of a patient and the receiving antennae are configured to receive the microwave signals following scattering within the body part; a processor configured to process the scattered microwave signals and generate an output indicative of the internal structure of the body part to identify a target within the body part; and a delivery device comprising a delivery needle for implanting a marker at the site of the target, the delivery device being movable relative to the microwave antenna array; characterised in that: the delivery needle has an integrated coaxial feed line for supplying microwave signals to the tip of the needle, such that the delivery needle itself is configured to radiate microwave signals; the receiving antennae are further configured to receive microwave signals radiated by the delivery needle; and the processor is further configured to use the received microwave signals radiated by the delivery needle to monitor a position of the delivery needle as it is guided to the target within the body part. the delivery needle has an integrated coaxial feed line for supplying microwave signals to the tip of the needle, such that the delivery needle itself is configured to radiate microwave signals; the receiving antennae are further configured to receive microwave signals radiated by the delivery needle; and the processor is further configured to use the received microwave signals radiated by the delivery needle to monitor a position of the delivery needle as it is guided to the target within the body part.
Fastening device (1; 100) for a disk brake comprising a brake carrier, the brake carrier comprising two struts (12, 12a) arranged in parallel with a brake disk, the struts (12, 12a) having two end portions (15, 15a) in their direction of extension and the struts (12, 12a) being connected to one another at their two end portions (15, 15a) via two connection elements (14, 14a), the struts having fastening means (16, 16a, 16b) for flange-mounting on a vehicle axle, characterized in that the fastening device (1; 100) has a receptacle in the brake carrier and said receptacle is designed to accommodate a rotational speed sensor for detecting a wheel rotational speed.
An automatic gain control system for a receiver, the system comprising: an automatic gain control loop configured to provide a gain control signal coupled to both a first transimpedance amplifier coupled to a first analog-to-digital converter forming a first tributary, and a second transimpedance amplifier coupled to a second analog-to-digital converter forming a second tributary; and an offset gain control voltage operable to gain balance, with the automatic gain control loop, a transimpedance amplifier gain of the first tributary and a transimpedance amplifier gain of the second tributary, the automatic gain control loop being configured to add the offset gain control voltage to the gain control signal to one of the transimpedance amplifiers (12, 14), wherein the automatic gain control loop is configured to be selectively operated in a common mode in which the transimpedance amplifier gain of the first tributary and the transimpedance amplifier gain of the second tributary are gain balanced and a normal mode in which the transimpedance amplifier gain of the first tributary and the transimpedance amplifier gain of the second tributary are not gain balanced. an automatic gain control loop configured to provide a gain control signal coupled to both a first transimpedance amplifier coupled to a first analog-to-digital converter forming a first tributary, and a second transimpedance amplifier coupled to a second analog-to-digital converter forming a second tributary; and an offset gain control voltage operable to gain balance, with the automatic gain control loop, a transimpedance amplifier gain of the first tributary and a transimpedance amplifier gain of the second tributary, the automatic gain control loop being configured to add the offset gain control voltage to the gain control signal to one of the transimpedance amplifiers (12, 14), wherein the automatic gain control loop is configured to be selectively operated in a common mode in which the transimpedance amplifier gain of the first tributary and the transimpedance amplifier gain of the second tributary are gain balanced and a normal mode in which the transimpedance amplifier gain of the first tributary and the transimpedance amplifier gain of the second tributary are not gain balanced.
A folding bellows of a gangway between two articulately connected vehicles or vehicle parts (1, 2), e.g. of an articulated bus, wherein the folding bellows comprises two lateral walls, wherein the lateral walls of the folding bellows are connected with each other by a bellows floor, wherein the folding bellows comprises a plurality of insert fold units in the transition area from the lateral wall to the bellows floor, wherein the lateral wall includes lateral wall folds, wherein the lateral wall folds comprise respectively one bellows frame on the exterior of the bellows, characterized in that each insert fold unit extends on the bellows interior between the respective lateral wall folds, wherein the insert fold unit comprises at least two horizontally extending insert folds (20, 22), which are held by the bellows frame of the lateral wall fold on the exterior of the bellows, between which the insert fold unit extends.