mhurhangee/ep-ind-claims huggingface dataset:
A reader for a smart card, comprising - acquisition means for acquiring biometric data from a user, - derivation means (128, 130) for deriving an identifier from the biometric data, - release means (120, 128, 136) for releasing a smart card function with the identifier, - communication means (120, 144) for enabling communication between a computer and the smart card for use of the smart card function by the computer, wherein the derivation means are designed to carry out a one-way function in order to derive the identifier from the biometric data, characterised in that the acquisition means comprise at least a first sensor (122.1) for acquiring a first biometric feature and a second sensor (122.2) for acquiring a second biometric feature, wherein the first sensor is associated with a first smart card type and the second sensor is associated with a second smart card type, and in that the reader has query means for querying the smart card type from the smart card, wherein the acquisition means are designed such that the first sensor or the second sensor is selected for acquiring the biometric data depending on the smart card type of the smart card. - acquisition means for acquiring biometric data from a user, - derivation means (128, 130) for deriving an identifier from the biometric data, - release means (120, 128, 136) for releasing a smart card function with the identifier, - communication means (120, 144) for enabling communication between a computer and the smart card for use of the smart card function by the computer,
Air turbine plant, comprising at least one air turbine and at least one compressed air source, wherein the air turbine has at least one inlet and one exhaust air shaft, and wherein the inlet of the air turbine can be connected to the compressed air source via a supply line, wherein along an expansion path of the air turbine, a first line with a first valve branches off, and the first line is connected to an air storage vessel, characterized in that the turbine plant is set up such that - during expansion operation of the air turbine plant, at least one partial volume flow of dry air can be taken off via the first line and stored in the air storage vessel; and - the dry air stored in the air storage vessel can be routed back into the air turbine when a maximum permissible air humidity is reached in the air turbine. - during expansion operation of the air turbine plant, at least one partial volume flow of dry air can be taken off via the first line and stored in the air storage vessel; and - the dry air stored in the air storage vessel can be routed back into the air turbine when a maximum permissible air humidity is reached in the air turbine.
A pharmaceutical composition comprising: stable, amorphous solid dispersion particles, wherein the particles consist of a protein kinase inhibitor selected from the group consisting of dasatinib, dasatinib hydrate, dasatinib solvate, dasatinib salt, and combinations thereof, and at least one polymeric stabilizing and matrix-forming component, wherein the particles have a degree of amorphicity of 100%, and wherein the amount of the protein kinase inhibitor in said particles is from 10% by weight to 70% by weight. stable, amorphous solid dispersion particles, wherein the particles consist of a protein kinase inhibitor selected from the group consisting of dasatinib, dasatinib hydrate, dasatinib solvate, dasatinib salt, and combinations thereof, and at least one polymeric stabilizing and matrix-forming component, wherein the particles have a degree of amorphicity of 100%, and wherein the amount of the protein kinase inhibitor in said particles is from 10% by weight to 70% by weight.
An immunoassay test strip system for use in conducting diagnostic measurements comprising: an immunoassay test strip including a substrate; at least one test area located on said substrate for capturing antigens that flow through the immunoassay test strip; a radio frequency identification (RFID) tag and sensor module integrated with said substrate and being adapted to sense and transmit signals that correspond to the antigens captured by said at least one test area; a wireless reader adapted to communicate with said RFID tag and sensor module through the use of multiple protocols to receive said signals that correspond to the antigens captured by said at least one test area; and said wireless reader further adapted to communicate over a network through the use of multiple communication protocols to download software from a remote location to enable reading and analysis of the signals received from said RFID tag and sensor module. an immunoassay test strip including a substrate; at least one test area located on said substrate for capturing antigens that flow through the immunoassay test strip; a radio frequency identification (RFID) tag and sensor module integrated with said substrate and being adapted to sense and transmit signals that correspond to the antigens captured by said at least one test area; a wireless reader adapted to communicate with said RFID tag and sensor module through the use of multiple protocols to receive said signals that correspond to the antigens captured by said at least one test area; and said wireless reader further adapted to communicate over a network through the use of multiple communication protocols to download software from a remote location to enable reading and analysis of the signals received from said RFID tag and sensor module.
Water-bearing household appliance, in particular a dishwasher, to which fluid can be supplied during at least one filling step and which has at least one drain pump for conveying fluid out of the water-bearing household appliance and an overfill protection facility to prevent too high a water level in the water-bearing household appliance, characterised in that the overfill protection facility is configured to capture at least one operating parameter of the drain pump and after the filling step, if a malfunction of the drain pump that can be derived from the at least one operating parameter is present, prevents the performance of a further filling step and wherein the water-bearing household appliance is set up so that the drain pump can be activated after the water-bearing household appliance has been switched on, in order to check the function of the drain pump, or the water-bearing household appliance is set up so that after the water-bearing household appliance has been switched on, an error state can be queried by the overfill protection facility, which error state results from a previous malfunction of the drain pump.
A light-emitting element comprising: an insulator; a first electrode over the insulator; a second electrode over the first electrode; and a layer between the first electrode and the second electrode, wherein the layer contains an anthracene derivative represented by general formula wherein R 1 to R 13 are hydrogen; A 1 and A 2 are independently hydrogen, an alkyl group having 1 to 6 carbon atoms, or an aryl group having 6 to 14 carbon atoms. an insulator; a first electrode over the insulator; a second electrode over the first electrode; and a layer between the first electrode and the second electrode, wherein the layer contains an anthracene derivative represented by general formula wherein R 1 to R 13 are hydrogen; A 1 and A 2 are independently hydrogen, an alkyl group having 1 to 6 carbon atoms, or an aryl group having 6 to 14 carbon atoms.
An ultrasound diagnostic apparatus comprising: an ultrasound probe; a probe position detection unit configured to detect a position of the ultrasound probe; an image acquisition unit configured to acquire an ultrasound image of a subject using the ultrasound probe; a monitor; a three-dimensional data generation unit configured to generate three-dimensional ultrasound data of a blood vessel of the subject based on a plurality of frames of the ultrasound images acquired by the image acquisition unit while performing scanning with the ultrasound probe along a major axis direction of the blood vessel and the position of the ultrasound probe detected by the probe position detection unit; a blood vessel detection unit configured to detect the blood vessel from the three-dimensional ultrasound data generated by the three-dimensional data generation unit; a depth detection unit configured to detect a depth from a body surface to the blood vessel of the subject based on the blood vessel detected by the blood vessel detection unit; and a blood vessel image generation unit configured to generate a blood vessel image depicting a position and a shape of the blood vessel in a plan view based on the position of the ultrasound probe detected by the probe position detection unit, the blood vessel detected by the blood vessel detection unit, and the depth detected by the depth detection unit, and to display the blood vessel image on the monitor with changing a display form of the blood vessel image on the monitor according to the depth detected by the depth detection unit. an ultrasound probe; a probe position detection unit configured to detect a position of the ultrasound probe; an image acquisition unit configured to acquire an ultrasound image of a subject using the ultrasound probe; a monitor; a three-dimensional data generation unit configured to generate three-dimensional ultrasound data of a blood vessel of the subject based on a plurality of frames of the ultrasound images acquired by the image acquisition unit while performing scanning with the ultrasound probe along a major axis direction of the blood vessel and the position of the ultrasound probe detected by the probe position detection unit; a blood vessel detection unit configured to detect the blood vessel from the three-dimensional ultrasound data generated by the three-dimensional data generation unit; a depth detection unit configured to detect a depth from a body surface to the blood vessel of the subject based on the blood vessel detected by the blood vessel detection unit; and a blood vessel image generation unit configured to generate a blood vessel image depicting a position and a shape of the blood vessel in a plan view based on the position of the ultrasound probe detected by the probe position detection unit, the blood vessel detected by the blood vessel detection unit, and the depth detected by the depth detection unit, and to display the blood vessel image on the monitor with changing a display form of the blood vessel image on the monitor according to the depth detected by the depth detection unit.
A method for predicting heat exchanger blockage in an aircraft, the method characterized by comprising: generating a reduced order model that predicts a ram air fan surge margin that correlates to a heat exchanger blockage parameter; calculating, using the ROM, a predicted RAF surge margin value using a sensor signal received from a sensor connected to a ram air fan; calculating the heat exchanger blockage parameter using at least the predicted RAF surge margin value; and reporting, to a user, the heat exchanger blockage parameter that indicates when a heat exchanger blockage condition is present. generating a reduced order model that predicts a ram air fan surge margin that correlates to a heat exchanger blockage parameter; calculating, using the ROM, a predicted RAF surge margin value using a sensor signal received from a sensor connected to a ram air fan; calculating the heat exchanger blockage parameter using at least the predicted RAF surge margin value; and reporting, to a user, the heat exchanger blockage parameter that indicates when a heat exchanger blockage condition is present.
An airfoil for a gas turbine engine, comprising: an external airfoil surface; an airfoil body comprising an external wall structure and an internal wall structure, wherein the external airfoil surface is adjacent the external wall structure, wherein the airfoil body defines: a skin core extending along_at least a portion of a leading edge of the airfoil and at least partially defined by a first section of the external wall structure and a first section of the internal wall structure, wherein a skin core heat transfer augmentation feature is formed within the skin core on a skin core surface of the first section of the external wall structure; and an embedded core, wherein an embedded core heat transfer augmentation feature is formed within the embedded core on an embedded core surface of the first section of the internal wall structure, wherein the embedded core heat transfer augmentation feature is disposed between the skin core and the embedded core and formed on the embedded core surface of the first section of the internal wall structure; characterised in that the embedded core is entirely defined by the internal wall structure. an external airfoil surface; an airfoil body comprising an external wall structure and an internal wall structure, wherein the external airfoil surface is adjacent the external wall structure, wherein the airfoil body defines: a skin core extending along_at least a portion of a leading edge of the airfoil and at least partially defined by a first section of the external wall structure and a first section of the internal wall structure, wherein a skin core heat transfer augmentation feature is formed within the skin core on a skin core surface of the first section of the external wall structure; and an embedded core, wherein an embedded core heat transfer augmentation feature is formed within the embedded core on an embedded core surface of the first section of the internal wall structure, wherein the embedded core heat transfer augmentation feature is disposed between the skin core and the embedded core and formed on the embedded core surface of the first section of the internal wall structure; a skin core extending along_at least a portion of a leading edge of the airfoil and at least partially defined by a first section of the external wall structure and a first section of the internal wall structure, wherein a skin core heat transfer augmentation feature is formed within the skin core on a skin core surface of the first section of the external wall structure; and an embedded core, wherein an embedded core heat transfer augmentation feature is formed within the embedded core on an embedded core surface of the first section of the internal wall structure, wherein the embedded core heat transfer augmentation feature is disposed between the skin core and the embedded core and formed on the embedded core surface of the first section of the internal wall structure; characterised in that the embedded core is entirely defined by the internal wall structure.
A grass cutter comprising a mower, the mower comprising: a pair of right and left rotary blades cutting grass by being driven to rotate, a mower deck housing the rotary blades, and a pair of right and left fans generating carrier air, the right and left fans being located above the right and left rotary blades, respectively, a pair of right and left shafts, and a duct extending between the right and left fans, the duct including a duct body communicating with the mower deck and extending in a conveyance direction of grass clippings cut by the rotary blade, and an opening configured to allow carrier air generated by the fan to be introduced into the duct body, characterized in that the duct body includes right and left side walls facing the right and left fans respectively, the opening being formed on each of the right and left side walls; and in that the right and left fans are arranged above the mower deck in a manner to align the axis of the shaft with the axis of the rotary blade for each of the fans, each of the respective shafts being fixed to the respective rotary blade and the respective fan; right and left fan covers are arranged to cover the right and left fans, respectively each of the fan covers includes a guide plate for guiding the carrier air generated by the fan toward the duct; and an opening is formed on the guide plate at a position facing the opening of the duct. a pair of right and left rotary blades cutting grass by being driven to rotate, a mower deck housing the rotary blades, and a pair of right and left fans generating carrier air, the right and left fans being located above the right and left rotary blades, respectively, a pair of right and left shafts, and a duct extending between the right and left fans, the duct including a duct body communicating with the mower deck and extending in a conveyance direction of grass clippings cut by the rotary blade, and an opening configured to allow carrier air generated by the fan to be introduced into the duct body, the duct body includes right and left side walls facing the right and left fans respectively, the opening being formed on each of the right and left side walls; and in that the right and left fans are arranged above the mower deck in a manner to align the axis of the shaft with the axis of the rotary blade for each of the fans, each of the respective shafts being fixed to the respective rotary blade and the respective fan; right and left fan covers are arranged to cover the right and left fans, respectively each of the fan covers includes a guide plate for guiding the carrier air generated by the fan toward the duct; and an opening is formed on the guide plate at a position facing the opening of the duct.
A method for separating nucleic acid from a liquid sample, said method comprising the steps of applying a liquid sample containing or suspected of containing said nucleic acid to a sample receiving section of a bibulous membrane which does not carry any specific binding agents for nucleic acids, causing said liquid sample to flow along the bibulous membrane, so that nucleic acid is distributed along the length of the membrane and thereafter, detecting nucleic acid on or recovering nucleic acid from a region of said membrane which is spaced from the sample receiving section.
An apparatus for interference reduction in radio frequency ablation applications using real-time ultrasound based monitoring, said apparatus comprising: - an ablation device arranged for generating RF ablation signals (S(a)) supplied to an ablation electrode, - an ultrasound device; - an ultrasound transducer connected to said ultrasound device; wherein said apparatus is arranged for generating at least two ultrasound excitation pulses (S(c); S, S, S) in order to excite said ultrasound transducer, said ultrasound transducer being arranged for performing an ultrasound scan for each ultrasound excitation pulse, each ultrasound scan including ultrasound signals, and for receiving at least two combined ultrasound signals (S(e), S, S, S(f)); wherein the received combined ultrasound signals each include an interference signal (S(b)) of interference between said RF ablation signals (S(a)) and an ultrasound echo signal (S(d)) in response to an ultrasound excitation pulse, wherein at least one received combined ultrasound signal is processed with at least another one received combined ultrasound signal in order to reduce the negative effect on ultrasound based monitoring that would be caused by said interference signal (S(b)). - an ablation device arranged for generating RF ablation signals (S(a)) supplied to an ablation electrode, - an ultrasound device; - an ultrasound transducer connected to said ultrasound device;
A hand-held power tool with a pneumatic striking mechanism, which comprises a motor-driven exciter, a guide tube and a piston-shaped striker, the piston-shaped striker being guided by the inside of the guide tube and in said guide tube, together with the exciter, delimiting a pneumatic spring, characterized in that the guide tube is formed from a metal strip (30, 91) bent to form a tube, its two opposed longitudinal edges (53, 92) being joined together by a seam (55, 107) and/or by a positive closure (108, 109) achieved by means of interlocking teeth.
A communication control device located within a radio communication device, the communication control device comprising: an acquisition unit configured to acquire downlink reception timing information related to a timing at which a second radio communication device receives a downlink signal from a base station performing radio communication with a first radio communication device or the second radio communication device; and a decision unit configured to determine a D2D transmission timing at which the second radio communication device transmits a device-to-device, D2D, signal to the first radio communication device based on a predetermined condition; characterized in that the predetermined condition corresponds to a condition related to whether the first radio communication device and the second radio communication device belong to a same timing advance group or not; wherein the D2D transmission timing is determined based on the downlink reception timing information and a first timing advance information, TA, corresponding to the second radio communication device in case the first radio communication device and the second radio communication device do not belong to the same timing advance group, and the D2D transmission timing is determined based only on the downlink reception timing information in case the first radio communication device and the second radio communication device belong to the same timing advance group. an acquisition unit configured to acquire downlink reception timing information related to a timing at which a second radio communication device receives a downlink signal from a base station performing radio communication with a first radio communication device or the second radio communication device; and a decision unit configured to determine a D2D transmission timing at which the second radio communication device transmits a device-to-device, D2D, signal to the first radio communication device based on a predetermined condition; characterized in that the predetermined condition corresponds to a condition related to whether the first radio communication device and the second radio communication device belong to a same timing advance group or not; wherein the D2D transmission timing is determined based on the downlink reception timing information and a first timing advance information, TA, corresponding to the second radio communication device in case the first radio communication device and the second radio communication device do not belong to the same timing advance group, and the D2D transmission timing is determined based only on the downlink reception timing information in case the first radio communication device and the second radio communication device belong to the same timing advance group.
Household appliance having a controller (1, 11), which has the following components: a computer-like control part (2, 12), a control part for settings data (3, 13), a control part for operating data (4, 14) and actuators (8.1 to 8.n; 18.1 to 18.n), which are activated by way of amplifiers (7, 7.1 to 7.n; 17.1 to 17.n), wherein data for activating the actuators is determined by the computer-like control part (2, 12) from the settings data and the operating data, wherein operation of the controller is provided on a novel energy supply network (EVN') having a data network for exchanging data by way of said energy supply network (EVN'), characterised in that the computer-like control part is connected to a control part of the controller (1, 11), in which a graph algorithm is implemented, wherein it can be made possible, by means of the interaction of the computer-like control part, the control part and the graph algorithm, for data of the data network of the energy supply network (EVN') present for the household appliance to be taken into account so that operation of the household appliance can always be continued. a computer-like control part (2, 12), a control part for settings data (3, 13), a control part for operating data (4, 14) and actuators (8.1 to 8.n; 18.1 to 18.n), which are activated by way of amplifiers (7, 7.1 to 7.n; 17.1 to 17.n), wherein data for activating the actuators is determined by the computer-like control part (2, 12) from the settings data and the operating data,