mhurhangee/ep-ind-claims huggingface dataset:
A holder suitable for holding a liquid fuel container, said liquid fuel container comprising a filling opening for filling and emptying the liquid container, said holder comprising: a frame defining an opening in which the liquid container can be placed; a closing part connected pivotally to the frame, wherein the closing part is movable between a first state, in which the closing part grips and holds fast the liquid container placed in the opening of the frame, and a second state in which the liquid container can be removed from the frame; wherein the closing part comprises a pouring spout which in the first state can be connected or is connected to the filling opening; wherein the closing part further comprises a first clamping part which is pivotally connected on a side to the frame and pivotally or rigidly connected on another side to the pouring spout; wherein a length of the first clamping part is adapted to a position of the filling opening such that during movement from the second state to the first state the pouring spout is brought into a position in which it can engage or does engage the filling opening; characterized in that the frame comprises a bottom part and an upright connected thereto, wherein the first clamping part is pivotally connected to the upright at an end of the upright remote from the bottom part; and in that the bottom part is provided with a profiling and/or upright edges for clamping the liquid container at least when the pouring spout is connected to the filling opening. a frame defining an opening in which the liquid container can be placed; a closing part connected pivotally to the frame, wherein the closing part is movable between a first state, in which the closing part grips and holds fast the liquid container placed in the opening of the frame, and a second state in which the liquid container can be removed from the frame; wherein the closing part comprises a pouring spout which in the first state can be connected or is connected to the filling opening; wherein the closing part further comprises a first clamping part which is pivotally connected on a side to the frame and pivotally or rigidly connected on another side to the pouring spout; wherein a length of the first clamping part is adapted to a position of the filling opening such that during movement from the second state to the first state the pouring spout is brought into a position in which it can engage or does engage the filling opening; characterized in that the frame comprises a bottom part and an upright connected thereto, wherein the first clamping part is pivotally connected to the upright at an end of the upright remote from the bottom part; and in that the bottom part is provided with a profiling and/or upright edges for clamping the liquid container at least when the pouring spout is connected to the filling opening.
Method for providing a functionality by means of a driver assistance system of a motor vehicle, comprising the steps of: - detecting an object in an environmental region of the motor vehicle based on sensor data of a sensor device of the driver assistance system, - determining a current distance (d) of the object from the motor vehicle, and - determining a point of time (t1, t2, t3) for providing the functionality depending on the current distance (d), - determining a reaction time of a driver, which the driver requires for taking an action due to the object while the point of time (t1, t2, t3) for providing the functionality is determined depending on the reaction time, wherein the object is detected based on image data of a camera and/or based on sensor data of an infrared sensor and/or based on sensor data of a lidar sensor as the sensor device characterized in that the reaction time of the driver is determined according to the Pieron's law. - detecting an object in an environmental region of the motor vehicle based on sensor data of a sensor device of the driver assistance system, - determining a current distance (d) of the object from the motor vehicle, and - determining a point of time (t1, t2, t3) for providing the functionality depending on the current distance (d), - determining a reaction time of a driver, which the driver requires for taking an action due to the object while the point of time (t1, t2, t3) for providing the functionality is determined depending on the reaction time,
A balloon type medical apparatus comprising: a tubular member extending from a proximal portion to a distal portion along a longitudinal axis; an actuator shaft extending from inside the tubular member to an actuator shaft distal end; a first balloon comprising a first balloon distal portion coupled to the actuator shaft distal end and a first balloon proximal portion coupled to a slidable coupler; a second balloon comprising a second balloon proximal portion coupled to the tubular member and a second balloon distal portion coupled to the slidable coupler, in which the slidable coupler includes: a coupler body with an opening extending along the longitudinal axis through the coupler body, the opening configured to allow movement of the coupler body relative to the actuator shaft and provide a sealing fit between the coupler body with the actuator shaft. a tubular member extending from a proximal portion to a distal portion along a longitudinal axis; an actuator shaft extending from inside the tubular member to an actuator shaft distal end; a first balloon comprising a first balloon distal portion coupled to the actuator shaft distal end and a first balloon proximal portion coupled to a slidable coupler; a second balloon comprising a second balloon proximal portion coupled to the tubular member and a second balloon distal portion coupled to the slidable coupler, in which the slidable coupler includes: a coupler body with an opening extending along the longitudinal axis through the coupler body, the opening configured to allow movement of the coupler body relative to the actuator shaft and provide a sealing fit between the coupler body with the actuator shaft.
A fuel cell system comprising: a combustor where a mixture of oxygen and gas which is contained in fuel is combusted; a reformer configured to generate a reformed gas to be used as the fuel through a reforming reaction from supplied gaseous fuel using a combustion exhaust gas generated in the combustor as a heat source; a fuel cell configured to generate electric power through a reaction of the reformed gas and an oxidation gas; a first cathode air heating part configured to heat the oxidation gas to be supplied to the fuel cell using the combustion exhaust gas which has heated the reformer as a heat source; a desulfurizer configured to remove a sulfur ingredient contained in the fuel to be supplied to the reformer using the combustion exhaust gas which has heated the first cathode air heating part as a heat source; and an evaporator configured to generate water vapor to be supplied to the reformer by evaporating a supplied water using the combustion exhaust gas which has heated the desulfurizer as a heat source, wherein the reformer, the first cathode air heating part, the desulfurizer, and the evaporator are disposed in this order along a heat transfer direction of the combustion exhaust gas from the combustor in such a manner that the combustion exhaust gas flows from a device which operates at a higher temperature to a device which operates at a lower temperature. a combustor where a mixture of oxygen and gas which is contained in fuel is combusted; a reformer configured to generate a reformed gas to be used as the fuel through a reforming reaction from supplied gaseous fuel using a combustion exhaust gas generated in the combustor as a heat source; a fuel cell configured to generate electric power through a reaction of the reformed gas and an oxidation gas; a first cathode air heating part configured to heat the oxidation gas to be supplied to the fuel cell using the combustion exhaust gas which has heated the reformer as a heat source; a desulfurizer configured to remove a sulfur ingredient contained in the fuel to be supplied to the reformer using the combustion exhaust gas which has heated the first cathode air heating part as a heat source; and an evaporator configured to generate water vapor to be supplied to the reformer by evaporating a supplied water using the combustion exhaust gas which has heated the desulfurizer as a heat source, wherein the reformer, the first cathode air heating part, the desulfurizer, and the evaporator are disposed in this order along a heat transfer direction of the combustion exhaust gas from the combustor in such a manner that the combustion exhaust gas flows from a device which operates at a higher temperature to a device which operates at a lower temperature.
An apparatus configured to process medical images, comprising: - a receiver which receives an image of an inside of a subject, which image is obtained with a medical image acquisition apparatus from a group comprising: computer tomography apparatus; a magnetic resonance imager; an X-ray apparatus; and an ultrasonic apparatus; - a controller, which processes the image through multiple predetermined types of image processing, when the image of the subject is received, and generates objects corresponding to the processed image; and - a display, which displays generated objects corresponding to the processed image, wherein the controller pre-processes the image to remove artifacts or errors generated due to a physical structure of the image acquisition apparatus, and post-processes the image resulting from having undergone pre-processing separately through a first type, basic image post-processing and simultaneously through second types of image post-processing to improve the quality of the image having undergone pre-processing, and generates multiple objects corresponding to the respective images processed through the second types of image post-processing, and wherein the display is controlled to display the multiple objects in a first region thereof and the first type, basic post-processed image on a second region of the display, wherein the controller further accepts user input, such as a touch or click, of a selected one of the multiple objects for magnified display in the second region of the corresponding processed image represented by the selected one of the multiple objects, selects second types of image post-processing from all second types of image post-processing, which a user often uses, by calculating the use frequencies of the second types of image post-processing selected by the user, and forms the multiple objects of the selected second types of image post-processing. - a receiver which receives an image of an inside of a subject, which image is obtained with a medical image acquisition apparatus from a group comprising: computer tomography apparatus; a magnetic resonance imager; an X-ray apparatus; and an ultrasonic apparatus; - a controller, which processes the image through multiple predetermined types of image processing, when the image of the subject is received, and generates objects corresponding to the processed image; and - a display, which displays generated objects corresponding to the processed image,
A duplex stainless steel consisting of, in mass%: C: 0.03% or less; Si: 0.05% to 1.0%; Mn: 0.1% to 7.0%; P: 0.05% or less; S: 0.0001% to 0.0010%; Ni: 0.5% to 5.0%; Cr: 18.0% to 25.0%; N: 0.10% to 0.30%; Al: 0.05% or less; Ca: 0.0010% to 0.0040%; Sn: 0.01% to 0.2%; optionally one or more selected from Mo: 1.5% or less, Cu: 0.3% to 2.0%, W: 0.05% to 1.0%, Co: 2.0% or less, V: 0.05% to 0.5%, Nb: 0.01% to 0.20%, Ti: 0.003% to 0.05%, B: 0.0005% to 0.0050%, Mg: 0.0001% to 0.0030%, and REM: 0.005 to 0.10%; and with the remainder being Fe and inevitable impurities, wherein a ratio Ca/O of the amounts of Ca and O is in a range of 0.3 to 1.0, and a pitting index PI shown by formula is in a range of less than 30, PI = Cr + 3.3 ⁢ Mo + 16 ⁢ N wherein the chemical symbols in the formula indicate the amounts of the elements. C: 0.03% or less; Si: 0.05% to 1.0%; Mn: 0.1% to 7.0%; P: 0.05% or less; S: 0.0001% to 0.0010%; Ni: 0.5% to 5.0%; Cr: 18.0% to 25.0%; N: 0.10% to 0.30%; Al: 0.05% or less; Ca: 0.0010% to 0.0040%; Sn: 0.01% to 0.2%; optionally one or more selected from Mo: 1.5% or less, Cu: 0.3% to 2.0%, W: 0.05% to 1.0%, Co: 2.0% or less, V: 0.05% to 0.5%, Nb: 0.01% to 0.20%, Ti: 0.003% to 0.05%, B: 0.0005% to 0.0050%, Mg: 0.0001% to 0.0030%, and REM: 0.005 to 0.10%; and with the remainder being Fe and inevitable impurities, wherein a ratio Ca/O of the amounts of Ca and O is in a range of 0.3 to 1.0, and a pitting index PI shown by formula is in a range of less than 30, PI = Cr + 3.3 ⁢ Mo + 16 ⁢ N wherein the chemical symbols in the formula indicate the amounts of the elements.
A method of transmitting a reference signal by a base station (20, 800) in a wireless communication system including a relay station (25 - 27, 900), the method comprising: generating a plurality of relay-physical downlink control channel, R-PDCCH, reference signals for demodulation of an R-PDCCH which is a control channel for the relay station respectively for a plurality of layers; mapping the plurality of R-PDCCH reference signals to an R-PDCCH region included in a relay zone within at least one resource block based on a predetermined reference signal pattern; and transmitting the at least one resource block through a plurality of antenna ports, wherein the predetermined reference signal pattern is determined based on a maximum number of resource elements, REs, that can be allocated to a demodulation reference signal, DMRS, and wherein two R-PDCCH reference signals are multiplexed based on a code division multiplexing, CDM, and are then mapped to first and third orthogonal frequency division multiplexing, OFDM, symbols in a same sub-carrier in the R-PDCCH region. generating a plurality of relay-physical downlink control channel, R-PDCCH, reference signals for demodulation of an R-PDCCH which is a control channel for the relay station respectively for a plurality of layers; mapping the plurality of R-PDCCH reference signals to an R-PDCCH region included in a relay zone within at least one resource block based on a predetermined reference signal pattern; and transmitting the at least one resource block through a plurality of antenna ports, wherein the predetermined reference signal pattern is determined based on a maximum number of resource elements, REs, that can be allocated to a demodulation reference signal, DMRS, and wherein two R-PDCCH reference signals are multiplexed based on a code division multiplexing, CDM, and are then mapped to first and third orthogonal frequency division multiplexing, OFDM, symbols in a same sub-carrier in the R-PDCCH region.
Method for melting raw iron in a blast furnace operated with oxygen or a smelting reduction system, having a reduction area, wherein the cleaned raw gas (GG, EG) discharged from the reduction area is recirculated into the reduction area by adding hydrocarbons, characterised in that the cleaned raw gas (GG, EG) is firstly compressed in a compressor, mixed with hydrocarbons and then with reduction gas (REDG), which has a temperature above 1000°C, and which is generated by partial oxidation of hydrocarbons using oxygenated gas, which has an oxygen content of 90 vol%, in order to form a recirculation gas (REZG) with a temperature above 800°C, in an adequate mixing section or a mixing chamber in order to set a uniform temperature distribution, and the recirculation gas (REZG) is recirculated into the reduction area following an automatic reformation process.
An oil tank for a gas turbine engine, wherein the oil tank comprises: a top; a bottom disposed vertically beneath the top; an overfill return passage extending from the bottom of the oil tank toward the top of the oil tank; an outlet formed on the bottom of the oil tank and inside the overfill return passage; and a check valve inside the overfill return passage and connected to the outlet, wherein the check valve comprises: a seat circumscribing the outlet; and a plug inside the overfill return passage, wherein the plug has a lower density than an oil disposed inside the oil tank, wherein the check valve does not include a spring such that the plug is configured to translate freely inside the overfill return passage. a top; a bottom disposed vertically beneath the top; an overfill return passage extending from the bottom of the oil tank toward the top of the oil tank; an outlet formed on the bottom of the oil tank and inside the overfill return passage; and a check valve inside the overfill return passage and connected to the outlet, wherein the check valve comprises: a seat circumscribing the outlet; and a plug inside the overfill return passage, wherein the plug has a lower density than an oil disposed inside the oil tank, wherein the check valve does not include a spring such that the plug is configured to translate freely inside the overfill return passage. a seat circumscribing the outlet; and a plug inside the overfill return passage, wherein the plug has a lower density than an oil disposed inside the oil tank, wherein the check valve does not include a spring such that the plug is configured to translate freely inside the overfill return passage.
A high temperature furnace comprising a heating chamber; at least one first burner for heating said heating chamber; and a condensation device arranged in fluid connection with said heating chamber via an exhaust outlet, wherein said at least one burner comprises a hydrogen-oxyfuel burner which is arranged for providing a water vapor atmosphere in said heating chamber, and wherein the condensation device is arranged for condensing an exhaust gas generated by said first burner, and wherein the furnace does not comprise a chimney for emission of exhaust gases to the atmosphere. a heating chamber; at least one first burner for heating said heating chamber; and a condensation device arranged in fluid connection with said heating chamber via an exhaust outlet, wherein said at least one burner comprises a hydrogen-oxyfuel burner which is arranged for providing a water vapor atmosphere in said heating chamber, and wherein the condensation device is arranged for condensing an exhaust gas generated by said first burner, and wherein the furnace does not comprise a chimney for emission of exhaust gases to the atmosphere.
Method for determining an alternative trajectory (T1, T2, T3) for a self-driving motor vehicle wherein, starting from an original trajectory, when an obstacle is detected by a vehicle sensor system, multiple alternative trajectories (T1, T2, T3) for the motor vehicle are calculated by a control device through the use of various algorithms, which replace at least a portion of the original trajectory of the motor vehicle, wherein the alternative trajectory (T1, T2, T3) that has a minimum disturbance sum (S1, S2, S3) of disturbance summands (yl-y7), consisting of a respective weighting factor (wl-w7) and a respective disturbance value (xl-x7), is selected, and this alternative trajectory replaces at least a portion of the original trajectory, characterized in that a log file is stored in the control device, wherein this log file comprises the information collected by the vehicle sensor system and relating to the obstacle, the original trajectory, the calculated alternative trajectories (T1, T2, T3) and the respective values of the disturbance summands (S1, S2, S3). the alternative trajectory (T1, T2, T3) that has a minimum disturbance sum (S1, S2, S3) of disturbance summands (yl-y7), consisting of a respective weighting factor (wl-w7) and a respective disturbance value (xl-x7), is selected, and this alternative trajectory replaces at least a portion of the original trajectory, characterized in that a log file is stored in the control device, wherein this log file comprises the information collected by the vehicle sensor system and relating to the obstacle, the original trajectory, the calculated alternative trajectories (T1, T2, T3) and the respective values of the disturbance summands (S1, S2, S3).
Transport device having at least one transport unit, individualized by an identification means, that has at least one goods storage device and at least one grip and that is stackable with in each case like transport units, wherein the transport device has at least two electronic devices to which power is supplied, which are arranged on the same transport unit and/or on different transport units and at least one of which performs the function of a user interface and at least one of which performs the function of a detection device, and which each have integrated data-processing means and means for wireless data transmission, characterized - in that each electronic device to which power is supplied is individualizable by at least one identification means that uses a machine-detectable identifier, - in that the electronic devices to which power is supplied are arranged on the transport device in such a way that the spatial position of at least one further electronic device on the transport device is ascertainable by the at least one detection device, and - in that the transport device is configured to use the data-processing means and the means for wireless data transmission to ascertain the respective identifier and the respective spatial position on the transport device in a mutually associable manner for at least two of the electronic devices to which power is supplied. - in that each electronic device to which power is supplied is individualizable by at least one identification means that uses a machine-detectable identifier, - in that the electronic devices to which power is supplied are arranged on the transport device in such a way that the spatial position of at least one further electronic device on the transport device is ascertainable by the at least one detection device, and - in that the transport device is configured to use the data-processing means and the means for wireless data transmission to ascertain the respective identifier and the respective spatial position on the transport device in a mutually associable manner for at least two of the electronic devices to which power is supplied.
A vacuum pump, in particular a turbomolecular pump, comprising: a housing; a primary structure which vibrates in the operation of the pump; and a damping device (22, 24) for damping the vibration of the primary structure, wherein the damping device has a damping mass which is connected to the primary structure by means of a spring element, and wherein the primary structure is decoupled from the housing of the vacuum pump, characterized in that the spring element is resilient in only one direction, with at least one further damping device (22, 24) being provided whose spring element is resilient in another direction, and/or in that a damping device (22, 24) having at least one damping mass and at least one spring element is provided, with the damping device (22, 24) having a damping effect in two mutually perpendicular spatial directions. a housing; a primary structure which vibrates in the operation of the pump; and a damping device (22, 24) for damping the vibration of the primary structure, wherein the damping device has a damping mass which is connected to the primary structure by means of a spring element, and wherein the primary structure is decoupled from the housing of the vacuum pump, characterized in that the spring element is resilient in only one direction, with at least one further damping device (22, 24) being provided whose spring element is resilient in another direction, and/or in that a damping device (22, 24) having at least one damping mass and at least one spring element is provided, with the damping device (22, 24) having a damping effect in two mutually perpendicular spatial directions.