mhurhangee/ep-ind-claims huggingface dataset:
Working medium for absorption heat pumps, comprising at least one refrigerant, at least one monohydric aliphatic alcohol having from 6 to 10 carbon atoms and at least one ionic liquid composed of at least one organic cation and at least one anion.
Electromagnetic compatibility test bench, said "EMC", comprising: • an item of equipment under test, noted "SRT", intended to be loaded on board an aircraft, said item of equipment being subjected to EMC tests and delivering electrical interfaces of type "Aeronautical Radio, Incorporated", noted "ARINC", as inputs and as output; • an electrical interfaces device, noted "EID", representative of an item of anti-lightning equipment and comprising an ARINC signals acquisition and/or generation card connected to the ARINC inputs and outputs of the item of equipment under test; et • a command/control rack, noted "CCR", for the analysis of control signals originating from the electrical interfaces device comprising an ARINC signals acquisition and/or generation card; characterised in that it further comprises • a signals conversion system for protecting the command/control rack adapted to convert an electrical ARINC signal into an optical signal and vice versa, said signals conversion system being connected between said command/control rack and the electrical interface device. • an item of equipment under test, noted "SRT", intended to be loaded on board an aircraft, said item of equipment being subjected to EMC tests and delivering electrical interfaces of type "Aeronautical Radio, Incorporated", noted "ARINC", as inputs and as output; • an electrical interfaces device, noted "EID", representative of an item of anti-lightning equipment and comprising an ARINC signals acquisition and/or generation card connected to the ARINC inputs and outputs of the item of equipment under test; et • a command/control rack, noted "CCR", for the analysis of control signals originating from the electrical interfaces device comprising an ARINC signals acquisition and/or generation card; • a signals conversion system for protecting the command/control rack adapted to convert an electrical ARINC signal into an optical signal and vice versa, said signals conversion system being connected between said command/control rack and the electrical interface device.
A mounting apparatus configured to be attached to a patient table, the mounting apparatus comprising a first arm extending between a first end that includes a first hook and a second end that includes a second hook, a second arm extending between a third end that includes a third hook and a fourth end that includes a fourth hook, wherein the first and second arms (10, 12) are each transitionable between an extended position and a contracted position, wherein each of the first and second arms (10, 12) comprises a first and second tensioning means (22, 24), respectively, configured to allow the first and second arm (10, 12) to be extended to open the mounting apparatus such that upon attaching to the patient table, the tensioning means (22, 24) retract to secure the mounting apparatus to the patient table, and wherein the first, second, third, and fourth hooks (14, 16, 18, 20) are configured to engage the patient table as the first and second arms (10, 12) transition from the extended position to the contracted position, and at least one coupling rod (33, 35) coupled between the first arm and the second arm. a first arm extending between a first end that includes a first hook and a second end that includes a second hook, a second arm extending between a third end that includes a third hook and a fourth end that includes a fourth hook, wherein the first and second arms (10, 12) are each transitionable between an extended position and a contracted position, wherein each of the first and second arms (10, 12) comprises a first and second tensioning means (22, 24), respectively, configured to allow the first and second arm (10, 12) to be extended to open the mounting apparatus such that upon attaching to the patient table, the tensioning means (22, 24) retract to secure the mounting apparatus to the patient table, and wherein the first, second, third, and fourth hooks (14, 16, 18, 20) are configured to engage the patient table as the first and second arms (10, 12) transition from the extended position to the contracted position, and at least one coupling rod (33, 35) coupled between the first arm and the second arm.
Traction drive of an industrial truck with an electric motor which is arranged in a motor housing of the traction drive and has an output shaft, and with a spring-loaded braking device which acts on the output shaft of the electric motor, wherein the spring-loaded braking device has a brake rotor, which is connected to the output shaft for rotation therewith, and an axially displaceable pressure plate, wherein the pressure plate is acted upon by a spring device in the direction of a braking position of the spring-loaded braking device and by a ventilating device, which acts counter to the spring device, in the direction of a release position of the spring-loaded braking device, wherein the output shaft is mounted rotatably in an end shield of the motor housing by means of a bearing device, and the spring-loaded braking device has a brake stator, against which the brake rotor can be applied by means of the axially displaceable pressure plate, wherein the brake rotor is arranged between the pressure plate and the brake stator, characterized in that the brake rotor is arranged in an axially displaceable manner on the output shaft of the electric motor and the spring-loaded braking device is fitted into the end shield of the motor housing, wherein the brake stator is configured as a closure cover of the end shield, wherein the ventilating device, the spring device, the pressure plate and the brake rotor are arranged in the end shield of the motor housing.
A method of controlling a task lighting component (130, 230) and a face lighting component (140, 240, 340A...D) of at least one lighting fixture (120, 220, 320), comprising: monitoring a light level proximal a task area; providing task lighting from at least one lighting fixture over said task area to said task area when said light level proximal said task area is below a threshold value; characterized in comprising monitoring each of a plurality of user segments for human presence, said user segments being adjacent to said task area and utilized for user interaction with said task area; and providing face lighting from said at least one lighting fixture over said task area only to said user segment having said human presence; wherein said face lighting and task lighting are independently adjustable such that the task lighting is distinct from the face lighting in at least one of intensity, spectral composition, and dynamic behavior. monitoring a light level proximal a task area; providing task lighting from at least one lighting fixture over said task area to said task area when said light level proximal said task area is below a threshold value; characterized in comprising monitoring each of a plurality of user segments for human presence, said user segments being adjacent to said task area and utilized for user interaction with said task area; and providing face lighting from said at least one lighting fixture over said task area only to said user segment having said human presence; wherein said face lighting and task lighting are independently adjustable such that the task lighting is distinct from the face lighting in at least one of intensity, spectral composition, and dynamic behavior.
An electrosurgical system, comprising: an ablation device formed from an electrode assembly having an active electrode and a return electrode, wherein the active electrode is insulated from the return electrode; and an electrosurgical unit configured to power the electrode assembly by generating a radio frequency output to drive the electrode assembly, wherein the electrosurgical unit is configured to generate an amplitude modulated waveform in which the waveform operates in a high mode or in a low mode, whereby both the high mode and the low mode are greater than zero amps, characterized in that the electrosurgical unit is configured to generate and supply to the electrode assembly a continuous waveform when sensed impedance at the electrode assembly is greater than a threshold value and wherein the electrosurgical unit is configured to generate and supply to the electrode assembly the amplitude modulated waveform when sensed impedance at the electrode assembly is less than or equal to the threshold value. an ablation device formed from an electrode assembly having an active electrode and a return electrode, wherein the active electrode is insulated from the return electrode; and an electrosurgical unit configured to power the electrode assembly by generating a radio frequency output to drive the electrode assembly, wherein the electrosurgical unit is configured to generate an amplitude modulated waveform in which the waveform operates in a high mode or in a low mode, whereby both the high mode and the low mode are greater than zero amps, characterized in that the electrosurgical unit is configured to generate and supply to the electrode assembly a continuous waveform when sensed impedance at the electrode assembly is greater than a threshold value and wherein the electrosurgical unit is configured to generate and supply to the electrode assembly the amplitude modulated waveform when sensed impedance at the electrode assembly is less than or equal to the threshold value.
An apparatus comprising means configured to perform: determining one of a plurality of audio modes for presentation of first audio to a user based on the location and/or movement of the user within a virtual scene, wherein the first audio comprises a plurality of audio tracks located at different locations within the virtual scene; and rendering the first audio to the user in the determined audio mode, wherein: in a first audio mode of the plurality of audio modes, the locations of the audio tracks within the virtual scene are fixed and in a second audio mode of the plurality of audio modes, the locations of the audio tracks within the virtual scene move with the user, wherein a transitioning from the second audio mode to the first audio mode is characterized in that the first audio mode is initiated immediately in the event that the user is determined to be stationary for more than a threshold period of time, otherwise the rendering is adjusted gradually such that the movements of the audio tracks are smoothed. determining one of a plurality of audio modes for presentation of first audio to a user based on the location and/or movement of the user within a virtual scene, wherein the first audio comprises a plurality of audio tracks located at different locations within the virtual scene; and rendering the first audio to the user in the determined audio mode, wherein: in a first audio mode of the plurality of audio modes, the locations of the audio tracks within the virtual scene are fixed and in a second audio mode of the plurality of audio modes, the locations of the audio tracks within the virtual scene move with the user, wherein a transitioning from the second audio mode to the first audio mode is characterized in that the first audio mode is initiated immediately in the event that the user is determined to be stationary for more than a threshold period of time, otherwise the rendering is adjusted gradually such that the movements of the audio tracks are smoothed.
A method of wireless communication of a base station, comprising: determining at least one of i) a number of one or more demodulation reference signal, DM-RS, symbols (702, 802, 852, 902, 952, 1002, 1052) or ii) one or more locations within a subframe for transmission of the one or more DM-RS symbols (702, 802, 852, 902, 952, 1002, 1052); transmitting the at least one of i) the number of the one or more DM-RS symbols (702, 802, 852, 902, 952, 1002, 1052) or ii) the one or more locations within the subframe for the transmission of the one or more DM-RS symbols (702, 802, 852, 902, 952,1002,1052) to a user equipment, UE; determining a resource allocation scheme for a phase noise compensation reference signal, PC-RS, wherein the PC-RS is located in resource elements different from resource elements carrying the DM-RS; and transmitting the resource allocation scheme for the PC-RS to the UE. determining at least one of i) a number of one or more demodulation reference signal, DM-RS, symbols (702, 802, 852, 902, 952, 1002, 1052) or ii) one or more locations within a subframe for transmission of the one or more DM-RS symbols (702, 802, 852, 902, 952, 1002, 1052); transmitting the at least one of i) the number of the one or more DM-RS symbols (702, 802, 852, 902, 952, 1002, 1052) or ii) the one or more locations within the subframe for the transmission of the one or more DM-RS symbols (702, 802, 852, 902, 952,1002,1052) to a user equipment, UE; determining a resource allocation scheme for a phase noise compensation reference signal, PC-RS, wherein the PC-RS is located in resource elements different from resource elements carrying the DM-RS; and transmitting the resource allocation scheme for the PC-RS to the UE.
An electrical discharge machining method wherein a workpiece is immersed in a machining fluid and a voltage is applied to a machining gap between an electrode and the workpiece to generate electrical discharge, whereby the workpiece is subjected to machining, the electrical discharge machine comprising: immersing the workpiece in machining fluid in a machining tank for electrical discharge machining; storing the machining fluid in a reservoir unit in order to supply to and recover the machining fluid from the machining tank; characterised in detecting (SA01; SB01; SC01; SD01) a machining tank non-storage condition that the machining fluid is not stored in the machining tank; specifying (SA03; SB03; SC03; SD03) an addable amount by: calculating the volume of the machining fluid stored in the reservoir unit when it is detected that the machining fluid is not stored in the machining tank and specifying an addable amount, which is an addable machining fluid amount, based on the capacity of the reservoir unit and the calculated volume of the machining fluid stored in the reservoir unit; and adding (SA05; SB06; SC07; SD05) machining fluid in the addable amount or less. immersing the workpiece in machining fluid in a machining tank for electrical discharge machining; storing the machining fluid in a reservoir unit in order to supply to and recover the machining fluid from the machining tank; characterised in detecting (SA01; SB01; SC01; SD01) a machining tank non-storage condition that the machining fluid is not stored in the machining tank; specifying (SA03; SB03; SC03; SD03) an addable amount by: calculating the volume of the machining fluid stored in the reservoir unit when it is detected that the machining fluid is not stored in the machining tank and specifying an addable amount, which is an addable machining fluid amount, based on the capacity of the reservoir unit and the calculated volume of the machining fluid stored in the reservoir unit; and calculating the volume of the machining fluid stored in the reservoir unit when it is detected that the machining fluid is not stored in the machining tank and specifying an addable amount, which is an addable machining fluid amount, based on the capacity of the reservoir unit and the calculated volume of the machining fluid stored in the reservoir unit; and adding (SA05; SB06; SC07; SD05) machining fluid in the addable amount or less.
A crane, comprising: a boom that supports a suspension rope suspended from the boom; a winch device configured to perform winding and unwinding of the suspension rope; a winch control unit configured to control the winding and the unwinding of the suspension rope by the winch device; and a load measurement device that is connected to the suspension rope and is configured to measure a load by a suspended load that is suspended from the boom; characterized in that the crane further comprises an allowable deceleration rate derivation unit configured to derive an allowable deceleration rate that represents an allowable value of a deceleration rate of the winding of the suspension rope, from a measured load that is a load by the suspended load and measured by the load measurement device, wherein: the allowable deceleration rate derivation unit is configured to derive the allowable deceleration rate that is decreased with a decrease in the measured load; and the winch control unit is configured to decelerate the winding of the suspension rope by the winch device at a deceleration rate limited within a range equal to or less than the allowable deceleration rate. a boom that supports a suspension rope suspended from the boom; a winch device configured to perform winding and unwinding of the suspension rope; a winch control unit configured to control the winding and the unwinding of the suspension rope by the winch device; and a load measurement device that is connected to the suspension rope and is configured to measure a load by a suspended load that is suspended from the boom; characterized in that the crane further comprises an allowable deceleration rate derivation unit configured to derive an allowable deceleration rate that represents an allowable value of a deceleration rate of the winding of the suspension rope, from a measured load that is a load by the suspended load and measured by the load measurement device, wherein: the allowable deceleration rate derivation unit is configured to derive the allowable deceleration rate that is decreased with a decrease in the measured load; and the winch control unit is configured to decelerate the winding of the suspension rope by the winch device at a deceleration rate limited within a range equal to or less than the allowable deceleration rate. the allowable deceleration rate derivation unit is configured to derive the allowable deceleration rate that is decreased with a decrease in the measured load; and the winch control unit is configured to decelerate the winding of the suspension rope by the winch device at a deceleration rate limited within a range equal to or less than the allowable deceleration rate.
A Cassia acutifolia and/or Cassia angustifolia extract depleted in total sennosides, wherein said total sennosides have a concentration in weight percentage ≤0.5%.
A tear preventer (2, 3) on a side air cushion outlet seam of a vehicle seat covering for a vehicle seat, characterized in that in each case a fabric tube is arranged on an inner face of the vehicle seat covering on the two seam ends of the side air cushion outlet seam and is connected by a positive, material and/or non-positive connection to the vehicle seat covering.
Method of checking the functioning of a measuring instrument for gravimetric material moisture determination, comprising a weighing device and a heating device for heating a material which is to be measured and which is positioned on a load receiver, comprising the steps of: - positioning the material, which is to be measured, on the load receiver, - heating the material, which is to be measured, in accordance with a predetermined monotonous course of heating, - determining a weight course of the material, which is to be measured, by measuring at least two weight values at different points in time, of which at least one is measured during the heating step, - extracting a test value from the determined weight course and - comparing the test value with a stored reference value, characterised in that the weight course is determined by measuring a plurality of weight values at different points in time during the heating step and as test value the amount of the gradient of a straight section, which is representative of a characteristic test region of the weight course, is determined and that the reference value is a gradient value which is to be expected for the material to be measured and which is stored. - positioning the material, which is to be measured, on the load receiver, - heating the material, which is to be measured, in accordance with a predetermined monotonous course of heating, - determining a weight course of the material, which is to be measured, by measuring at least two weight values at different points in time, of which at least one is measured during the heating step, - extracting a test value from the determined weight course and - comparing the test value with a stored reference value,
A method for manufacturing an iron core product, the method comprising: providing an iron core body which includes a magnet insertion hole (16, 16A 1, 16A 2) in which a permanent magnet is disposed; injecting a molten resin into the magnet insertion hole (16, 16A 1, 16A 2) of the iron core body at a first pressure; and setting a pressure applied to the molten resin to a second pressure lower than the first pressure after the molten resin is injected into the magnet insertion hole (16, 16A 1, 16A 2) and before the molten resin is cured. providing an iron core body which includes a magnet insertion hole (16, 16A 1, 16A 2) in which a permanent magnet is disposed; injecting a molten resin into the magnet insertion hole (16, 16A 1, 16A 2) of the iron core body at a first pressure; and setting a pressure applied to the molten resin to a second pressure lower than the first pressure after the molten resin is injected into the magnet insertion hole (16, 16A 1, 16A 2) and before the molten resin is cured.