mhurhangee/ep-ind-claims huggingface dataset:
A method for recognising an analogue sensor with a memory at a measurement amplifier and for automatically adapting the measurement amplifier to the sensor, wherein the memory of the sensor includes sensor data, the measurement amplifier can be connected to the sensor via a plug connection comprising a plug connector, and includes at least one pair of contacts comprising a first contact and a second contact, the plug connector includes at least one pair of contacts comprising a first contact and a second contact coupled to the first contact, the contacts of the measurement amplifier and of the plug connector can be brought into contact with each other, and wherein said method comprises the following steps: the measurement amplifier applies an electrical potential to the first contact of the pair of contacts, the measurement amplifier measures the electrical potential at the second contact of the pair of contacts, the measurement amplifier compares the electrical potential at the first contact with the electrical potential at the second contact, the measurement amplifier then reads, if the electrical potentials of the first contact and of the second contact are equal or approximately equal, the sensor data from the memory of the sensor and compares the retrieved sensor data with previous sensor data stored in the measurement amplifier, and the measurement amplifier is then adjusted, on the basis of the retrieved sensor data, if the retrieved sensor data differ from the previous sensor data. the measurement amplifier applies an electrical potential to the first contact of the pair of contacts, the measurement amplifier measures the electrical potential at the second contact of the pair of contacts, the measurement amplifier compares the electrical potential at the first contact with the electrical potential at the second contact, the measurement amplifier then reads, if the electrical potentials of the first contact and of the second contact are equal or approximately equal, the sensor data from the memory of the sensor and compares the retrieved sensor data with previous sensor data stored in the measurement amplifier, and the measurement amplifier is then adjusted, on the basis of the retrieved sensor data, if the retrieved sensor data differ from the previous sensor data.
A hydroponic growing apparatus, comprising: a housing; a water reservoir positioned in the housing and comprising a bottom surface and an open top surface; a support structure configured to fit into the open top surface of the housing and defining a plurality of openings; at least one cover plate configured to fit over the support structure in the open top surface of the housing, the at least one cover plate comprising a plurality of cut-outs corresponding to the plurality of openings of the support structure; a pump positioned in the water reservoir, the pump comprising an inlet and an outlet; a sprayer coupled to the outlet of the pump; and a lighting system coupled to the housing; characterized in that the hydroponic growing apparatus further comprises: a power source positioned in the housing; and a pump power cord extending from the pump in the water reservoir to the power source in the housing, wherein the bottom surface of the water reservoir comprises a channel including raised walls configured to receive the pump power cord. a housing; a water reservoir positioned in the housing and comprising a bottom surface and an open top surface; a support structure configured to fit into the open top surface of the housing and defining a plurality of openings; at least one cover plate configured to fit over the support structure in the open top surface of the housing, the at least one cover plate comprising a plurality of cut-outs corresponding to the plurality of openings of the support structure; a pump positioned in the water reservoir, the pump comprising an inlet and an outlet; a sprayer coupled to the outlet of the pump; and a lighting system coupled to the housing; characterized in that the hydroponic growing apparatus further comprises: a power source positioned in the housing; and a pump power cord extending from the pump in the water reservoir to the power source in the housing, wherein the bottom surface of the water reservoir comprises a channel including raised walls configured to receive the pump power cord.
A minimally invasive implantable mitral valve prosthesis or tricuspid valve prosthesis with a self-expanding, wide-meshed stent, wherein the valve prosthesis is firmly connected to the stent, characterized in that the stent is individually adapted in its shape to a three-dimensionally measured geometry of a left or right atrium of a patient and, after implantation, lies against the inner wall of the atrium of the patient, wherein the stent carries the valve prosthesis for positioning and anchorage and the dimensions of the stent are selected above the measured values in order to ensure a permanent slight outward pressure.
A glass-ceramic article comprising: a composition, in mole%, comprising: SiO 2 in the range from 62 to 75; Al 2 O 3 in the range from 10.5 to 17; Li 2 O in the range from 5 to 13; ZnO in the range from 0 to 4; MgO in the range from 0 to 8; TiO 2 in the range from 2 to 5; B 2 O 3 in the range from 0 to 4; Na 2 O in the range from 0 to 5; K 2 O in the range from 0 to 4; ZrO 2 in the range from 0 to 2; P 2 O 5 in the range from 0 to 7; Fe 2 O 3 in the range from 0 to 0.3; MnOx in the range from 0 to 2; SnO 2 in the range from 0.05 to 0.2; a ratio [ Li 2 O+Na 2 O+K 2 O+MgO+ZnO] [Al 2 O 3 +B 2 O 3] in the range from 0.7 to 1.5; a ratio: [ TiO 2 +SnO 2] [Sio 2 +B 2 O 3] greater than 0.04; and a Vickers crack initiation threshold of at least 15 kgf. SiO 2 in the range from 62 to 75; Al 2 O 3 in the range from 10.5 to 17; Li 2 O in the range from 5 to 13; ZnO in the range from 0 to 4; MgO in the range from 0 to 8; TiO 2 in the range from 2 to 5; B 2 O 3 in the range from 0 to 4; Na 2 O in the range from 0 to 5; K 2 O in the range from 0 to 4; ZrO 2 in the range from 0 to 2; P 2 O 5 in the range from 0 to 7; Fe 2 O 3 in the range from 0 to 0.3; MnOx in the range from 0 to 2; SnO 2 in the range from 0.05 to 0.2; a ratio [ Li 2 O+Na 2 O+K 2 O+MgO+ZnO] [Al 2 O 3 +B 2 O 3] in the range from 0.7 to 1.5; a ratio: [ TiO 2 +SnO 2] [Sio 2 +B 2 O 3] greater than 0.04; and
An installation mounting system, comprising: - an installation mounting which is invariable in length and comprises an installation mounting sleeve pipe and an installation mounting drive rod which is accommodated within the installation mounting sleeve pipe; - an upper bearing bracket which can be removed from the installation mounting and from which the installation mounting drive rod can be operated; and - an adaptor set for the upper and/or drive end of the installation mounting, which can be placed onto the installation mounting sleeve pipe and installation mounting drive rod in place of the bearing bracket, wherein the adaptor set comprises an adaptor set sleeve pipe and an adaptor set drive rod which is accommodated within the adaptor set sleeve pipe, wherein the adaptor set sleeve pipe can be connected to the installation mounting sleeve pipe, and wherein the adaptor set sleeve pipe and the adaptor set drive rod are themselves telescopically extendable or comprise connecting portions for connecting to the installation mounting sleeve pipe and/or installation mounting drive rod which allow the combined sleeve pipe (1, 6) and/or the combined arrangement of drive rods (2, 7) to be telescopically extended. - an installation mounting which is invariable in length and comprises an installation mounting sleeve pipe and an installation mounting drive rod which is accommodated within the installation mounting sleeve pipe; - an upper bearing bracket which can be removed from the installation mounting and from which the installation mounting drive rod can be operated; and - an adaptor set for the upper and/or drive end of the installation mounting, which can be placed onto the installation mounting sleeve pipe and installation mounting drive rod in place of the bearing bracket, wherein the adaptor set comprises an adaptor set sleeve pipe and an adaptor set drive rod which is accommodated within the adaptor set sleeve pipe, wherein the adaptor set sleeve pipe can be connected to the installation mounting sleeve pipe, and wherein the adaptor set sleeve pipe and the adaptor set drive rod are themselves telescopically extendable or comprise connecting portions for connecting to the installation mounting sleeve pipe and/or installation mounting drive rod which allow the combined sleeve pipe (1, 6) and/or the combined arrangement of drive rods (2, 7) to be telescopically extended.
Method for predicting a range change as a result of switching a vehicle function (F1 - F5) of a vehicle on or off, in which a value of an amount of energy (E bat) available in the vehicle is determined, a value is predicted of a first amount of energy (E 1) which, in a basic state, is expected to be consumed for a specific distance and/or travel duration, wherein a first range value (RW 1) is predicted from the predicted value of the first amount of energy (E 1) and the available amount of energy (E bat), a value of a second amount of energy (E 2) is predicted which would be consumed or saved if the vehicle function (F1 - F5) were switched on or off, an ambient temperature of the vehicle is detected, wherein the prediction of at least the value of the second amount of energy (E 2) is dependent on the ambient temperature of the vehicle, a second range value (RW 2) is predicted from the values of the available amount of energy (E bat), the first amount of energy (E 1), and the second amount of energy (E 2), by which second range value (RW 2) the first range value (RW 1) would be increased or decreased if the vehicle function (F1 - F5) were switched on or off, and the second range value (RW 2) is displayed, characterized in that the value of the second amount of energy (E 2) is predicted via the approximation function E 2 = a 3 T 2 + a 4 T + a 5, wherein a 3, a 4, and as are parameters of the approximation function that are specific to the vehicle function (F1 - F5), and T is the ambient temperature of the vehicle. a value of an amount of energy (E bat) available in the vehicle is determined, a value is predicted of a first amount of energy (E 1) which, in a basic state, is expected to be consumed for a specific distance and/or travel duration, wherein a first range value (RW 1) is predicted from the predicted value of the first amount of energy (E 1) and the available amount of energy (E bat), a value of a second amount of energy (E 2) is predicted which would be consumed or saved if the vehicle function (F1 - F5) were switched on or off, an ambient temperature of the vehicle is detected, wherein the prediction of at least the value of the second amount of energy (E 2) is dependent on the ambient temperature of the vehicle, a second range value (RW 2) is predicted from the values of the available amount of energy (E bat), the first amount of energy (E 1), and the second amount of energy (E 2), by which second range value (RW 2) the first range value (RW 1) would be increased or decreased if the vehicle function (F1 - F5) were switched on or off, and the second range value (RW 2) is displayed,
Plug connector contact carrier which is intended to be selectively populated with electrical crimp contact elements or electrical screw contact elements, having a large number of contact chambers for the contact elements (10, 20), which contact chambers are provided in a contact grid, wherein the contact carrier insertion openings for inserting the contact elements (10, 20) into the contact chambers and in the contact chamber there is provided in each case a common bearing surface for a corresponding mating surface to bear against the crimp contact elements or the screw contact elements which can be selectively inserted, characterized in that the plug connector contact carrier has a detachable holding cover in order to secure crimp contact elements which are mounted in the contact carrier in their mounting position, wherein the holding cover has a head plate with a large number of openings which are arranged in the same contact grid of the contact carrier.
A sack-shaped packaging means, which comprises a packing material, which is arranged in at least two layers, wherein a first layer comprises non-woven fabric, wherein the second layer comprises a fiber-containing material, wherein the fiber-containing material composes non-woven fabric or paper and wherein the first and the second layer are connected by means of a connecting material, characterized in that the packaging material comprises ventilation openings, wherein 50 to 80 ventilation openings are provided per square centimeter and wherein the ventilation openings have a diameter of maximally 0.8 mm.
A clamp for a male terminal, comprising: - a pair of jaws; - a clamping ring having a pair of arms with free ends adapted to be moved toward each other by the pair of jaws, said pair of arms having an inner surface configured to engage a male terminal, said inner surface extending between a wider portion, contiguous to the pair of jaws along a contact line, and a narrower portion, opposite to wider portion, the narrower portion defining an edge of the inner surface; - a set of first grooves formed in the inner surface of said pair of arms, each first groove extending between a first end portion at the wider portion and a second end portion at the narrower portion; characterized in that: - each first groove has a maximum depth at the first end portion and a minimum depth at the second end portion. - a pair of jaws; - a clamping ring having a pair of arms with free ends adapted to be moved toward each other by the pair of jaws, said pair of arms having an inner surface configured to engage a male terminal, said inner surface extending between a wider portion, contiguous to the pair of jaws along a contact line, and a narrower portion, opposite to wider portion, the narrower portion defining an edge of the inner surface; - a set of first grooves formed in the inner surface of said pair of arms, each first groove extending between a first end portion at the wider portion and a second end portion at the narrower portion; characterized in that: - each first groove has a maximum depth at the first end portion and a minimum depth at the second end portion.
A method for controlling a system configuration of a hardware system by using a blockchain associated with the hardware system, wherein the blockchain comprises entries with configuration data of the hardware system, wherein the hardware system comprises a plurality of hardware components (102, 106), wherein each of the hardware components (102, 106) comprises at least one processor (122, 152), a memory (110, 140) with configuration data (118, 148) for the particular hardware component (102, 106), and a communication interface (126, 156) for communicating with one or more of the hardware components (102, 106) of the hardware system, wherein the method comprises the steps of: • creating and sending a first change request for a first change to the system configuration of the hardware system by means of a first hardware component of the plurality of hardware components (102, 106), • receiving the first change request by means of the further hardware components of the plurality of hardware components (102, 106), • checking the first change request by means of the further hardware components for compatibility of the change request with the configuration of the particular receiving hardware component by using configuration data of the receiving hardware component, • in the case that the requested first change to the system configuration is compatible with the configuration of the receiving hardware component, generating and sending an approval of the first change to the system configuration by means of the receiving hardware component, and in the case that an approval quorum of the hardware components (102, 106) of the plurality of hardware components that is necessary for consent is achieved: • entering the requested first change to the system configuration of the hardware system into the blockchain, • implementing the requested first change to the system configuration in the hardware system. • creating and sending a first change request for a first change to the system configuration of the hardware system by means of a first hardware component of the plurality of hardware components (102, 106), • receiving the first change request by means of the further hardware components of the plurality of hardware components (102, 106), • checking the first change request by means of the further hardware components for compatibility of the change request with the configuration of the particular receiving hardware component by using configuration data of the receiving hardware component, • in the case that the requested first change to the system configuration is compatible with the configuration of the receiving hardware component, generating and sending an approval of the first change to the system configuration by means of the receiving hardware component, and • entering the requested first change to the system configuration of the hardware system into the blockchain, • implementing the requested first change to the system configuration in the hardware system.
A modular chiller for an aircraft galley cart compartment, comprising: a cassette (50,150) that houses an air return duct, a heat exchanger (30, 130), a fan (35, 135, 440), and an air supply outlet (70, 170); a control valve (75, 175) for controlling an amount of chilled liquid passing through the heat exchanger; and an electronic control box; wherein said cassette (50, 150) is removably connectable to a chilled liquid system and configured for removable insertion into a trolley compartment disposed below a galley work deck such that an upper surface of the cassette (50, 150) is disposed beneath the galley work deck and a lower surface of the cassette (50,150) is configured to be disposed adjacent to an upper surface of one or more trolleys housed within the trolley compartment, said modular chiller has an input port removably connectable for receiving a chilled liquid from the chilled liquid system and an output port removably connectable for returning the chilled liquid to the chilled liquid system, and a speed of said fan (35, 135, 440) is controlled by the electronic control box such that adjustment of said speed causes adjustment of a volume of air passing through the heat exchanger (30, 130), characterized in that the modular chiller further comprises a connection block having an electrical connector, a condensate drain, a locating pin, and the chilled liquid input and output ports. a cassette (50,150) that houses an air return duct, a heat exchanger (30, 130), a fan (35, 135, 440), and an air supply outlet (70, 170); a control valve (75, 175) for controlling an amount of chilled liquid passing through the heat exchanger; and an electronic control box; wherein said cassette (50, 150) is removably connectable to a chilled liquid system and configured for removable insertion into a trolley compartment disposed below a galley work deck such that an upper surface of the cassette (50, 150) is disposed beneath the galley work deck and a lower surface of the cassette (50,150) is configured to be disposed adjacent to an upper surface of one or more trolleys housed within the trolley compartment, said modular chiller has an input port removably connectable for receiving a chilled liquid from the chilled liquid system and an output port removably connectable for returning the chilled liquid to the chilled liquid system, and a speed of said fan (35, 135, 440) is controlled by the electronic control box such that adjustment of said speed causes adjustment of a volume of air passing through the heat exchanger (30, 130), characterized in that the modular chiller further comprises a connection block having an electrical connector, a condensate drain, a locating pin, and the chilled liquid input and output ports.
Method for producing cement clinker, having the following steps: - preheating calcium carbonate-containing raw meal in a preheating stage which is heated by exhaust gases from a sintering stage which follows in the gas flow direction, - deacidifying the preheated raw meal, - sintering the deacidified raw meal into cement clinker in a sintering stage, - cooling the cement clinker from the sintering stage in a cooling stage (45, 45a, 45b) which cools the cement clinker by means of a gas, characterized in that the method furthermore has the following steps: - combining the exhaust gases from the sintering stage with the exhaust gases (32a, 32c) from deacidification, and - routing the combined exhaust gases in the open gas circuit which is continuously, batchwise or interruptedly fed with gas and freed of gas, as a result of which - an enrichment of CO 2 from combustion (32b, 32c) and deacidification gases occurs in the combined exhaust gases routed in the open gas circuit, and - transferring heat from the combined exhaust gases which leave the preheating stage into a gas (23', 23") which is routed in the open gas circuit and which is extracted from the gas for cooling the cement clinker in order to dry the raw meal in a preceding grinding stage. - preheating calcium carbonate-containing raw meal in a preheating stage which is heated by exhaust gases from a sintering stage which follows in the gas flow direction, - deacidifying the preheated raw meal, - sintering the deacidified raw meal into cement clinker in a sintering stage, - cooling the cement clinker from the sintering stage in a cooling stage (45, 45a, 45b) which cools the cement clinker by means of a gas, - combining the exhaust gases from the sintering stage with the exhaust gases (32a, 32c) from deacidification, and - routing the combined exhaust gases in the open gas circuit which is continuously, batchwise or interruptedly fed with gas and freed of gas, as a result of which - an enrichment of CO 2 from combustion (32b, 32c) and deacidification gases occurs in the combined exhaust gases routed in the open gas circuit, and - transferring heat from the combined exhaust gases which leave the preheating stage into a gas (23', 23") which is routed in the open gas circuit and which is extracted from the gas for cooling the cement clinker in order to dry the raw meal in a preceding grinding stage.
A jaw crusher for use with a construction machine, said jaw crusher comprising a fixed jaw fixed in a bucket, and a moving jaw opposed to the fixed jaw and pivotally supported on the top of the bucket by an eccentric shaft and supported on the bottom of the bucket by a toggle mechanism, the fixed jaw and the moving jaw being arranged such that a space on a scooping side of the bucket is opened wide as an inlet and is gradually narrowed toward the depth and continues to an outlet of the bucket, for use in crushing slag and other materials to be crushed by swing of the moving jaw, said jaw crusher further comprises a hydraulic motor located in the bucket for rotating the eccentric shaft forward and reverse; characterized in that said jaw crusher further comprises a crushing control means configured to, in response to the operation of a pedal for crushing work provided in the construction machine, automatically rotate the eccentric shaft in reverse by reversing the hydraulic motor and then rotate the shaft forward when crushing the material to be crushed. a hydraulic motor located in the bucket for rotating the eccentric shaft forward and reverse; characterized in that said jaw crusher further comprises a crushing control means configured to, in response to the operation of a pedal for crushing work provided in the construction machine, automatically rotate the eccentric shaft in reverse by reversing the hydraulic motor and then rotate the shaft forward when crushing the material to be crushed.