mhurhangee/ep-ind-claims huggingface dataset:
A clamping head for an epilator comprising: an axle arranged for driven movement around a centre axle axis; a stationary clamping element (110, 140, 170) that is stationary with respect to a movement in axial direction, the stationary clamping element (110, 140, 170) arranged for rotation together with the axle, the stationary clamping element (110, 140, 170) having at least a first stationary functional surface; a first moveable clamping element having a functional surface; the first functional surface of the stationary clamping element (110, 140, 170) being arranged face-to-face with the functional surface of the first moveable clamping element; and the first moveable clamping element being arranged for repeatedly being moved towards and away from the stationary clamping element (110, 140, 170) such that repeatedly a closed position is obtained in which the two functional surfaces abut on each other, further comprising at least a first actuator associated with the first moveable clamping element, wherein the first actuator is arranged for being movable in axial direction towards the stationary clamping element (110, 140, 170) such that the functional surface of the first moveable clamping element and the first functional surface are moved into the closed position; wherein at least the first moveable clamping element and the first actuator are provided as an integral element characterized by wherein the integrally formed first actuator and first moveable clamping element is injection molded and L-shaped in cross section. an axle arranged for driven movement around a centre axle axis; a stationary clamping element (110, 140, 170) that is stationary with respect to a movement in axial direction, the stationary clamping element (110, 140, 170) arranged for rotation together with the axle, the stationary clamping element (110, 140, 170) having at least a first stationary functional surface; a first moveable clamping element having a functional surface; the first functional surface of the stationary clamping element (110, 140, 170) being arranged face-to-face with the functional surface of the first moveable clamping element; and the first moveable clamping element being arranged for repeatedly being moved towards and away from the stationary clamping element (110, 140, 170) such that repeatedly a closed position is obtained in which the two functional surfaces abut on each other, further comprising at least a first actuator associated with the first moveable clamping element, wherein the first actuator is arranged for being movable in axial direction towards the stationary clamping element (110, 140, 170) such that the functional surface of the first moveable clamping element and the first functional surface are moved into the closed position; wherein at least the first moveable clamping element and the first actuator are provided as an integral element characterized by wherein the integrally formed first actuator and first moveable clamping element is injection molded and L-shaped in cross section.
Method for identifying a transmission ratio on a bicycle, in particular on an electric bicycle, wherein there is provision that the bicycle has a magnetic field sensor which is coupled to the frame, a drive unit which can be activated by means of muscle power and/or an electric motor, an output gear (150, 210) with a gear shift, and a transmission means (160, 220) which connects the drive unit and the gear shift, wherein in order to detect the transmission ratio • magnetic field sensor signals of at least one magnet which is mounted in the transmission means (160, 220) is detected by means of the magnetic field sensor, and • a rotational speed of the drive unit is sensed, and • a rotational speed of the output gear (150, 210) is sensed, and • a first transmission variable (i_Ges), which represents the overall transmission ratio from the drive unit to the output gear (150, 210), is generated as a function of the magnetic field sensor signals, the rotational speed of the drive unit and the rotational speed of the output gear (150, 210), and • a second transmission variable (i_Kettenblatt), which represents the transmission ratio from the drive unit to the transmission means (160, 220), is generated as a function of the magnetic field sensor signals, the rotational speed of the drive unit and the rotational speed of the output gear (150, 210). • magnetic field sensor signals of at least one magnet which is mounted in the transmission means (160, 220) is detected by means of the magnetic field sensor, and • a rotational speed of the drive unit is sensed, and • a rotational speed of the output gear (150, 210) is sensed, and • a first transmission variable (i_Ges), which represents the overall transmission ratio from the drive unit to the output gear (150, 210), is generated as a function of the magnetic field sensor signals, the rotational speed of the drive unit and the rotational speed of the output gear (150, 210), and • a second transmission variable (i_Kettenblatt), which represents the transmission ratio from the drive unit to the transmission means (160, 220), is generated as a function of the magnetic field sensor signals, the rotational speed of the drive unit and the rotational speed of the output gear (150, 210).
An apparatus of a terminal in a wireless communication system, the apparatus comprising: at least one processor; and at least one transceiver operatively coupled to the at least one processor, wherein the at least one processor is configured to: receive, from a base station, a measurement configuration, perform a measurement based on the measurement configuration, and transmit, to the base station, a measurement report including a measurement result for a cell, and wherein the measurement result for the cell comprises: a result of a layer-3 filtering for a cell quality of the cell, and path diversity information for indicating the number of one or more available beams, each of the one or more available beams providing a signal quality higher than a threshold, wherein the cell quality is obtained based on an average of signal qualities of downlink signals using multiple beams associated with the cell, and wherein each of the signal qualities is higher than the threshold. at least one processor; and at least one transceiver operatively coupled to the at least one processor, wherein the at least one processor is configured to: receive, from a base station, a measurement configuration, perform a measurement based on the measurement configuration, and transmit, to the base station, a measurement report including a measurement result for a cell, and receive, from a base station, a measurement configuration, perform a measurement based on the measurement configuration, and transmit, to the base station, a measurement report including a measurement result for a cell, and wherein the measurement result for the cell comprises: a result of a layer-3 filtering for a cell quality of the cell, and path diversity information for indicating the number of one or more available beams, each of the one or more available beams providing a signal quality higher than a threshold, a result of a layer-3 filtering for a cell quality of the cell, and path diversity information for indicating the number of one or more available beams, each of the one or more available beams providing a signal quality higher than a threshold, wherein the cell quality is obtained based on an average of signal qualities of downlink signals using multiple beams associated with the cell, and wherein each of the signal qualities is higher than the threshold.
Method for operating an open-end rotor spinning machine comprising a plurality of similar workstations, which each have an open-end-spinning device for producing a thread and a winding device for producing a cross-wound bobbin as well as an individually driven device for preparing a thread end required for rejoining a thread, wherein the winding device comprises a pivotably mounted creel, a drive drum driven by a reversible single drive and a single motor driven yarn traversing device and the workstations are each equipped with a pivotably mounted suction nozzle, characterised in that a workstation that has reached the end of the batch is stopped, in that a signal is output which indicates the end of the batch, which indicates to the operator that manual steps need to be carried out which are necessary for changing the batch and in that the workstation after being released by the operator automatically performs further steps requires for starting the batch.
An austenitic alloy tube consisting of, in mass%: C: 0.01% to 0.15%; Cr: 10.0% to 40.0%; Ni: 8.0% to 80.0%; Si: 0.05 to 1.00%; Mn: 0.05% to 2.00%; P: 0.030% or less; S: 0.030% or less; Ti: 0.1% to 0.5%; Cu: 0.6% or less; Al: 0.5% or less; N: 0.20% or less; and the remainder containing Fe and impurities, wherein the austenitic alloy tube has a metallographic structure satisfying the following Expressions (i) to (iii), R ≤ f 1 R = I 220 / I 111 f 1 = 0.28 × F 111 8.0 / F 111 8.0 + 0.35 8.0 where, in the above Expressions, R is a ratio of an integrated intensity of to an integrated intensity of on a surface layer which is measured by a grazing incidence X-ray diffraction method, I 220 is the integrated intensity of, I 111 is the integrated intensity of, and F 111 is full width of half maximum of on the surface layer which is measured by the grazing incidence X-ray diffraction method. C: 0.01% to 0.15%; Cr: 10.0% to 40.0%; Ni: 8.0% to 80.0%; Si: 0.05 to 1.00%; Mn: 0.05% to 2.00%; P: 0.030% or less; S: 0.030% or less; Ti: 0.1% to 0.5%; Cu: 0.6% or less; Al: 0.5% or less; N: 0.20% or less; and the remainder containing Fe and impurities, wherein the austenitic alloy tube has a metallographic structure satisfying the following Expressions (i) to (iii), R ≤ f 1 R = I 220 / I 111 f 1 = 0.28 × F 111 8.0 / F 111 8.0 + 0.35 8.0 where, in the above Expressions, R is a ratio of an integrated intensity of to an integrated intensity of on a surface layer which is measured by a grazing incidence X-ray diffraction method, I 220 is the integrated intensity of, I 111 is the integrated intensity of, and F 111 is full width of half maximum of on the surface layer which is measured by the grazing incidence X-ray diffraction method.
An electro-hydrostatic actuator system having at least two movable axes, comprising: a volumetric and/or rotational speed variable hydraulic machine driven by an electric motor comprising two terminals with two connection lines for providing a volume flow of a hydraulic fluid; a main axis that is movable by the hydraulic fluid and has at least one first chamber, wherein the first chamber is hydraulically connected to at least one first main hydraulic line and a first main valve via a first connecting line to a first connection of the hydraulic machine; a secondary axis that is movable by the hydraulic fluid with at least one first chamber, wherein the first chamber is hydraulically connected to at least one first secondary hydraulic line and a first secondary valve via a second connecting line to a second connection of the hydraulic machine, or via the first connecting line to the first connection of the hydraulic machine; and wherein a hydraulic accumulator is hydraulically connected to the first secondary hydraulic line in the region between the first chamber of the secondary axis and the first secondary valve, characterized in that the main axis has at least one second chamber, wherein the second chamber is hydraulically connected to at least one second main hydraulic line, and a second main valve is hydraulically connected to the second connection of the hydraulic machine via the second connecting line. a volumetric and/or rotational speed variable hydraulic machine driven by an electric motor comprising two terminals with two connection lines for providing a volume flow of a hydraulic fluid; a main axis that is movable by the hydraulic fluid and has at least one first chamber, wherein the first chamber is hydraulically connected to at least one first main hydraulic line and a first main valve via a first connecting line to a first connection of the hydraulic machine; a secondary axis that is movable by the hydraulic fluid with at least one first chamber, wherein the first chamber is hydraulically connected to at least one first secondary hydraulic line and a first secondary valve via a second connecting line to a second connection of the hydraulic machine, or via the first connecting line to the first connection of the hydraulic machine; and wherein a hydraulic accumulator is hydraulically connected to the first secondary hydraulic line in the region between the first chamber of the secondary axis and the first secondary valve, characterized in that the main axis has at least one second chamber, wherein the second chamber is hydraulically connected to at least one second main hydraulic line, and a second main valve is hydraulically connected to the second connection of the hydraulic machine via the second connecting line.
Anode compartment for rechargeable lithium or sodium batteries comprising: - a solid electrolyte; - a collector deposited on the solid electrolyte; and - an active material made of lithium metal or sodium metal that is grown between the solid electrolyte and the collector in order to form with the collector an electrode made of lithium metal or sodium metal, in which the collector is made of an amorphous alloy, characterized in that the amorphous alloy has a maximum relative coefficient of elongation greater than 1.8%. - a solid electrolyte; - a collector deposited on the solid electrolyte; and - an active material made of lithium metal or sodium metal that is grown between the solid electrolyte and the collector in order to form with the collector an electrode made of lithium metal or sodium metal,
A system for providing therapy to a body passageway of a patient, the system comprising: at least one energy delivery body positionable within the body passageway and configured to deliver energy to a wall of the body passageway; at least one sensor positionable on or within the patient, wherein the at least one sensor is configured to receive sensed information from the patient; and a generator having at least one energy delivery algorithm configured to provide electric signals of the energy to the at least one energy delivery body, wherein the electric signals includes a test signal configured to generate the sensed information and a therapeutic electrical signal configured to provide therapy to the body passageway while maintaining a cellular matrix of the portion of the wall, wherein the therapeutic electric signal comprises packets of high voltage pulses. at least one energy delivery body positionable within the body passageway and configured to deliver energy to a wall of the body passageway; at least one sensor positionable on or within the patient, wherein the at least one sensor is configured to receive sensed information from the patient; and a generator having at least one energy delivery algorithm configured to provide electric signals of the energy to the at least one energy delivery body, wherein the electric signals includes a test signal configured to generate the sensed information and a therapeutic electrical signal configured to provide therapy to the body passageway while maintaining a cellular matrix of the portion of the wall, wherein the therapeutic electric signal comprises packets of high voltage pulses.
Apparatus for conveying material during track construction, comprising material conveyance silo units which can be moved on a track and which receive material between sidewalls, which span the silo chamber, on a bottom conveyor belt for conveying the material along the bottom, wherein a material conveyance silo comprises a plurality of material silo units which are coupled together and which in the region of the mutually facing end surfaces thereof comprise devices for transferring the material from one material conveyance silo unit to the next material conveyance silo unit, wherein the material conveyance silo is of articulated design and wherein the frames (8, 9) of two mutually adjoining material conveyance silo units are supported in an articulated manner on a common running gear, characterised in that the silo chamber is of continuous design with an at least approximately identical silo chamber cross-section over the material conveyance silo length.
An aerosol-generating device comprising: a housing defining at least one internal compartment, wherein the housing is waterproof; a power supply positioned within the at least one internal compartment; an electric heater positioned within the at least one internal compartment; and a haptic feedback device positioned within the at least one internal compartment. a housing defining at least one internal compartment, wherein the housing is waterproof; a power supply positioned within the at least one internal compartment; an electric heater positioned within the at least one internal compartment; and a haptic feedback device positioned within the at least one internal compartment.
Apparatus (7; 10; 20; 30; 40; 100) configured to perform a sample analysis of a Peltier controlled sample in a Polarimeter, the sample contained in a sample tube (5; 15; 25; 35; 45), characterized by a combination of a sample tube adapter (6; 16; 26; 36; 46) and sample support rails (1; 11; 21; 31; 41); the sample tube adapter (6; 16; 26; 36; 46) being made of thermally conductive material, and configured with a first part to at least partially contain and touch a sample tube (5; 15; 25; 35; 45) having a sample therein, and configured with a second part to provide a thermal path for heat transfer to and from the sample tube (5; 15; 25; 35; 45) and a thermal assembly, having a combination of a temperature control plate, a Peltier device (3; 13; 23; 33; 43) and a heatsink (4; 14; 24; 34; 44), for performing a sample analysis; and the sample support rails (1; 11; 21; 31; 41) configured to receive the sample tube adapter (6; 16; 26; 36; 46) to provide physical support for the sample tube (5; 15; 25; 35; 45) for performing the sample analysis, orient the sample tube adapter (6; 16; 26; 36; 46) in relation to the thermal assembly (2, 3, 4) so there is contact between the second part of the sample tube adapter (6; 16; 26; 36; 46) and some part of the thermal assembly (2, 3, 4) in order to provide the thermal path for heat transfer to and from the sample tube (5; 15; 25; 35; 45) and the thermal assembly (2, 3, 4) for performing the sample analysis, and align the sample tube adapter (6; 16; 26; 36; 46) in relation to a light source and a light beam provided by the light source for performing the sample analysis. a combination of a sample tube adapter (6; 16; 26; 36; 46) and sample support rails (1; 11; 21; 31; 41); the sample tube adapter (6; 16; 26; 36; 46) being made of thermally conductive material, and configured with a first part to at least partially contain and touch a sample tube (5; 15; 25; 35; 45) having a sample therein, and configured with a second part to provide a thermal path for heat transfer to and from the sample tube (5; 15; 25; 35; 45) and a thermal assembly, having a combination of a temperature control plate, a Peltier device (3; 13; 23; 33; 43) and a heatsink (4; 14; 24; 34; 44), for performing a sample analysis; and the sample support rails (1; 11; 21; 31; 41) configured to receive the sample tube adapter (6; 16; 26; 36; 46) to provide physical support for the sample tube (5; 15; 25; 35; 45) for performing the sample analysis, orient the sample tube adapter (6; 16; 26; 36; 46) in relation to the thermal assembly (2, 3, 4) so there is contact between the second part of the sample tube adapter (6; 16; 26; 36; 46) and some part of the thermal assembly (2, 3, 4) in order to provide the thermal path for heat transfer to and from the sample tube (5; 15; 25; 35; 45) and the thermal assembly (2, 3, 4) for performing the sample analysis, and align the sample tube adapter (6; 16; 26; 36; 46) in relation to a light source and a light beam provided by the light source for performing the sample analysis.
Photovoltaic module comprising - at least one photoactive component, such as a solar cell or a thin film, and - an encapsulant (3, 3') covering the at least one photoactive component on at least one side, wherein the encapsulant (3, 3') is formed from a material having at a first temperature a first complex viscosity and at a second temperature a second complex viscosity, wherein the first complex viscosity is larger than the second complex viscosity, wherein the complex viscosity is determined according to Standard ASTM D5289 and/or ASTM D6204 and is measured at a frequency of 1 Hz and 10% strain, wherein the first temperature is between 70°C and 100°C and the second temperature is between 120°C and 160° C, and wherein the second complex viscosity is less than 100.000 Pa·s, characterized in that the first complex viscosity amounts to at least 200.000 Pa·s. - at least one photoactive component, such as a solar cell or a thin film, and - an encapsulant (3, 3') covering the at least one photoactive component on at least one side, wherein the encapsulant (3, 3') is formed from a material having at a first temperature a first complex viscosity and at a second temperature a second complex viscosity, wherein the first complex viscosity is larger than the second complex viscosity, wherein the complex viscosity is determined according to Standard ASTM D5289 and/or ASTM D6204 and is measured at a frequency of 1 Hz and 10% strain, wherein the first temperature is between 70°C and 100°C and the second temperature is between 120°C and 160° C, and wherein the second complex viscosity is less than 100.000 Pa·s, characterized in that the first complex viscosity amounts to at least 200.000 Pa·s.
A thermally actuated assembly for a gas turbine system comprising: a heat transfer component having a first portion and a second portion, wherein the first portion is disposable within a first cavity having a first temperature and the second portion is disposable in a second cavity having a second temperature, wherein the heat transfer component extends in use J through a cavity wall, wherein the first temperature is greater than the second temperature; a temperature sensitive element disposable within the second cavity and in operable communication with the heat transfer component; a flow manipulating device (30,32) disposable within the second cavity and configured to displace in response to a temperature change in the first cavity; wherein the flow manipulating device comprises a valve disc and valve stem extending from the valve disc to the temperature sensitive element; characterized in that the heat transfer component comprises a heat pipe surroundingly enclosing the temperature sensitive element. a heat transfer component having a first portion and a second portion, wherein the first portion is disposable within a first cavity having a first temperature and the second portion is disposable in a second cavity having a second temperature, wherein the heat transfer component extends in use J through a cavity wall, wherein the first temperature is greater than the second temperature; a temperature sensitive element disposable within the second cavity and in operable communication with the heat transfer component; a flow manipulating device (30,32) disposable within the second cavity and configured to displace in response to a temperature change in the first cavity; wherein the flow manipulating device comprises a valve disc and valve stem extending from the valve disc to the temperature sensitive element; characterized in that the heat transfer component comprises a heat pipe surroundingly enclosing the temperature sensitive element.