mhurhangee/ep-ind-claims huggingface dataset:
A capacitor comprising two capacitor electrodes separated by an insulating material, wherein at least one of the two capacitor electrodes comprises a carbon nanotube filled with one or more non-carbon materials comprising titanium, a titanium compound, manganese, a manganese compound, cobalt, nickel, palladium, platinum, bromine, iodine, an interhalogen compound, or the combination thereof.
Device having a base station and at least one processing unit that can be detached from the base station and has a tool for processing a medium, wherein the processing unit has a vessel for receiving the medium, a closure unit for closing the vessel and a sensor device for measuring at least one parameter of the medium, wherein at least a portion of the sensor device is disposed in and/or on the vessel in a stationary manner such that a parameter can be measured during the simultaneous processing of the medium, and wherein the device has a wireless module for producing a wireless connection and at least for transmitting data between the base station and the processing unit, wherein the device has a plurality of functionally different processing units, each processing unit, by means of coding stored on a transponder unit, is assigned a specific identification signal so that the base station can identify the respective processing unit, wherein the base station has a program memory having a plurality of processing programs, and wherein the base station is configured in a manner such that, by means of the specific identification signal, a specific processing program can be selected from the program memory, characterized in that a maximum operating time of a or each processing unit can be captured and/or stored by means of the transponder unit, with the result that a maximum operating time can be defined for a or each processing unit, wherein the base station can detect when this maximum operating time is reached.
A method of treating a fabric, said method comprising: contacting a fabric with an aqueous composition comprising a poly alpha-1,3-glucan ether compound represented by the structure: wherein (i) n is at least 6, (ii) each R is independently an H or an organic group, and (iii) the poly alpha-1,3-glucan ether compound has a degree of substitution of about 0.05 to about 3.0. (i) n is at least 6, (ii) each R is independently an H or an organic group, and (iii) the poly alpha-1,3-glucan ether compound has a degree of substitution of about 0.05 to about 3.0.
Control system for a gesture sensing arrangement with at least one sensor, the sensor designed to send and detect light and to generate data sets from the detected light, the control system designed to - operate the sensor in a proximity mode (PROX); - determine a presence of an object in a predetermined vicinity of the sensor from a data set generated by the sensor while operating in the proximity mode (PROX); - when the presence of the object has been determined, operate the sensor in a gesture mode (GEST), wherein the power consumption of the sensor is lower in the proximity mode (PROX) than in the gesture mode (GEST); - determine an end of a gesture, based on one or more data sets received from the sensor while operating in the gesture mode (GEST); - when the end of a gesture is determined operate the sensor in the proximity mode (PROX), wherein - the sensor is implemented as a directional light sensor array, comprising at least one light-sending element and at least two photodetectors, implemented to detect light incident from a predominant direction specified for each photodetector individually. - operate the sensor in a proximity mode (PROX); - determine a presence of an object in a predetermined vicinity of the sensor from a data set generated by the sensor while operating in the proximity mode (PROX); - when the presence of the object has been determined, operate the sensor in a gesture mode (GEST), wherein the power consumption of the sensor is lower in the proximity mode (PROX) than in the gesture mode (GEST); - determine an end of a gesture, based on one or more data sets received from the sensor while operating in the gesture mode (GEST); - when the end of a gesture is determined operate the sensor in the proximity mode (PROX), wherein - the sensor is implemented as a directional light sensor array, comprising at least one light-sending element and at least two photodetectors, implemented to detect light incident from a predominant direction specified for each photodetector individually.
A clamping system for connecting a first and a second tube (1, 2) whose facing ends have bearing surfaces (1'A, 2'A) protruding relative to the cylindrical external surface of said tubes, the system comprising a clampable collar and a seal, the collar including a belt able to cooperate with said bearing surfaces by its internal periphery delimiting a recess into which the bearing surfaces can be inserted, the seal being supported by the collar in the unclamped state of the latter and comprising an annular sealing portion, which comprises a metal washer (22, 122) and a non-metal based washer (24, 124) fixed to the metal washer, the non-metal based washer (22, 122) being formed from a composite material.
A Lactobacillus plantarum CCFM8661 which has been deposited on November 29, 2011 by China General Microbiological Culture Collection Center of Institute of Microbiology, with the preservation number of CGMCC No.5494.
A piston ring, comprising a piston ring bearing surface, a piston ring interior opposite the piston ring bearing surface and an upper and a lower piston ring flank (8, 10), wherein the piston ring has a chamfer at the edge between piston ring interior and lower piston ring flank, wherein several recesses are arranged in the upper piston ring flank, extending radially outwardly starting from the piston ring interior, wherein the several recesses and the chamfer extend from the piston ring interior in radial direction to at most a position of a center of area of an axial cross-sectional area of the piston ring and the several recesses face the chamfer with respect to the piston ring interior, characterized in that a lower edge of the several recesses runs obliquely to the upper piston ring flank, wherein the piston ring has a negative twist in the installed state. wherein several recesses are arranged in the upper piston ring flank, extending radially outwardly starting from the piston ring interior, wherein the several recesses and the chamfer extend from the piston ring interior in radial direction to at most a position of a center of area of an axial cross-sectional area of the piston ring and the several recesses face the chamfer with respect to the piston ring interior, characterized in that a lower edge of the several recesses runs obliquely to the upper piston ring flank, wherein the piston ring has a negative twist in the installed state.
Metal shell for electrical switchgear such as a circuit breaker or a disconnect switch which is intended to be connected to two conductors (3, 4) under a metal sheath (6, 7) through which passes a nominal current flowing according to a direction of passage, with this shell being passed through by a return current induced by the nominal current and flowing in the opposite direction according to the direction of passage, characterised in that this shell comprises: - a shell body including at least one lateral flank (14, 16) provided with at least one through-slot of an artifice (19, 21) extending perpendicularly to the direction of passage of current in order to oppose the passage of the return current in this lateral flank (14, 16) by offering an electrical resistance aiming to reduce the electrical intensity of the current flowing in the flank (14, 16); - an outer wall (24, 26) passing along each flank (14, 16) provided with at least one slot (19, 21) and spaced from the latter while still being connected to the shell body upstream and downstream of the at least one slot (19, 21) in relation to the direction of passage of the current, with each outer wall (24, 26) offering the return current an electrical resistance that is less than the flank (14, 16) with at least one slot (19, 21) that it passes along. - a shell body including at least one lateral flank (14, 16) provided with at least one through-slot of an artifice (19, 21) extending perpendicularly to the direction of passage of current in order to oppose the passage of the return current in this lateral flank (14, 16) by offering an electrical resistance aiming to reduce the electrical intensity of the current flowing in the flank (14, 16); - an outer wall (24, 26) passing along each flank (14, 16) provided with at least one slot (19, 21) and spaced from the latter while still being connected to the shell body upstream and downstream of the at least one slot (19, 21) in relation to the direction of passage of the current, with each outer wall (24, 26) offering the return current an electrical resistance that is less than the flank (14, 16) with at least one slot (19, 21) that it passes along.
Solar reflector characterized in that it comprises: a) a curved or planar substrate (a) which is a part moulded in composite material based on resin reinforced with cut fibres, said reinforcing cut fibres are selected from glass fibres, aramid fibres, basalt fibres, flax fibres, hemp fibres, or bamboo fibres, the curved or planar substrate having a roughness (mean Ra) of less than 30 nm, more particularly less than 20 nm, b) attachment elements carried integrally by said moulded part, substrate a), by the means of moulding alone and without any perforation of said substrate and without any adhesive or gluing means, these means b) being: b1) means for attaching said reflector to a support, said means being anchored or moulded in said moulded part, substrate a), and optionally b2) moulded attachment means which are means for assembly between moulded parts, substrates a), c) a reflective layer (c) of silver-based metallic coating with a thickness of from 60 to 200 nm, having a reflectance of more than 94% in accordance with standard ISO 9050; d) a first organic, adhesion-promoting coating layer (d) being applied directly to said substrate a) and before said reflective layer (c), and said metallic coating of the reflective layer (c) is applied to the first organic, adhesion promoting layer (d). layer a) a curved or planar substrate (a) which is a part moulded in composite material based on resin reinforced with cut fibres, said reinforcing cut fibres are selected from glass fibres, aramid fibres, basalt fibres, flax fibres, hemp fibres, or bamboo fibres, the curved or planar substrate having a roughness (mean Ra) of less than 30 nm, more particularly less than 20 nm, b) attachment elements carried integrally by said moulded part, substrate a), by the means of moulding alone and without any perforation of said substrate and without any adhesive or gluing means, these means b) being: b1) means for attaching said reflector to a support, said means being anchored or moulded in said moulded part, substrate a), and optionally b2) moulded attachment means which are means for assembly between moulded parts, substrates a), c) a reflective layer (c) of silver-based metallic coating with a thickness of from 60 to 200 nm, having a reflectance of more than 94% in accordance with standard ISO 9050; d) a first organic, adhesion-promoting coating layer (d) being applied directly to said substrate a) and before said reflective layer (c), and said metallic coating of the reflective layer (c) is applied to the first organic, adhesion promoting layer (d). layer
An alignment compensator for use with an inspection apparatus, the inspection apparatus comprising a driven probe magnetically coupled to a tracking probe, the alignment compensator comprising: an alignment sensor configured to detect an alignment between the driven probe and the tracking probe; a first electromagnet for at least partially altering the magnetic attraction between the driven probe and the tracking probe; a variable power supply electrically connected to said first electromagnet; and a controller interoperably connected to said alignment sensor and to said variable power supply, wherein said controller is configured to adjust, in response to a signal from the alignment sensor, the power to said first electromagnet for adjusting the alteration of the magnetic attraction between the driven probe and the tracking probe to compensate for a misalignment between the driven probe and the tracking probe. an alignment sensor configured to detect an alignment between the driven probe and the tracking probe; a first electromagnet for at least partially altering the magnetic attraction between the driven probe and the tracking probe; a variable power supply electrically connected to said first electromagnet; and a controller interoperably connected to said alignment sensor and to said variable power supply, wherein said controller is configured to adjust, in response to a signal from the alignment sensor, the power to said first electromagnet for adjusting the alteration of the magnetic attraction between the driven probe and the tracking probe to compensate for a misalignment between the driven probe and the tracking probe.
A process for producing a hard material layer on a substrate, wherein a TiCNB hard material layer is deposited by chemical vapor deposition from a gas system comprising a titanium source, a boron source, a nitrogen source and a carbon source, characterized in that the titanium source is TiCl 4, the boron source is BCl 3 and the nitrogen source is N 2 and the gas system comprises H 2 as balance gas and the carbon source is ethane and wherein the boron content in the gas system is adjusted such that the TiCNB hard material layer on the substrate has a boron content of up to 5 at%, but at least 0.01 at%, measured with the GDOES method, wherein at a reaction temperature from 750°C to 930°C the carbon to nitrogen ratio in the TiC x N y B 1-x-y system deposited on the substrate is adjusted to 0.75 ≤ X ≤ 0.85.
A battery module comprising: a plurality of carriers stacked on top of one another to form a cell stack having a front end and a rear end, each of the carriers containing a battery cell; a duct extending through the cell stack between the front end and the rear end for collecting escaped gases from the battery cells; and a pressure relief valve placed in the duct toward the rear end of the cell stack. a plurality of carriers stacked on top of one another to form a cell stack having a front end and a rear end, each of the carriers containing a battery cell; a duct extending through the cell stack between the front end and the rear end for collecting escaped gases from the battery cells; and a pressure relief valve placed in the duct toward the rear end of the cell stack.
A defrosting device, comprising: a heating unit provided in an evaporator; and a heat pipe, both end portions of which are connected to an inlet (171d', 171d") and an outlet (171c', 171c") of the heating unit, respectively, and at least part of the heat pipe is disposed adjacent to a cooling tube to dissipate heat to the cooling tube of the evaporator due to high-temperature working fluid heated and transferred by the heating unit, wherein the heating unit comprises: a heater case provided with a vacant space therein, and provided with the inlet and the outlet at positions separated from each other, respectively, along a length direction; and a heater attached to an outer surface of the heater case to heat working fluid within the heater case, characterized in that the heater comprises: a base plate formed of a ceramic material, and attached to the outer surface of the heater case; a hot wire (171b2) formed on the base plate, and configured to dissipate heat during the application of power; and a terminal (171b3) provided on the base plate (171b1) to electrically connect the hot wire (171b2) to the power. a heating unit provided in an evaporator; and a heat pipe, both end portions of which are connected to an inlet (171d', 171d") and an outlet (171c', 171c") of the heating unit, respectively, and at least part of the heat pipe is disposed adjacent to a cooling tube to dissipate heat to the cooling tube of the evaporator due to high-temperature working fluid heated and transferred by the heating unit, wherein the heating unit comprises: a heater case provided with a vacant space therein, and provided with the inlet and the outlet at positions separated from each other, respectively, along a length direction; and a heater attached to an outer surface of the heater case to heat working fluid within the heater case, characterized in that the heater comprises: a base plate formed of a ceramic material, and attached to the outer surface of the heater case; a hot wire (171b2) formed on the base plate, and configured to dissipate heat during the application of power; and a terminal (171b3) provided on the base plate (171b1) to electrically connect the hot wire (171b2) to the power. a heater case provided with a vacant space therein, and provided with the inlet and the outlet at positions separated from each other, respectively, along a length direction; and a heater attached to an outer surface of the heater case to heat working fluid within the heater case, characterized in that the heater comprises: a base plate formed of a ceramic material, and attached to the outer surface of the heater case; a hot wire (171b2) formed on the base plate, and configured to dissipate heat during the application of power; and a terminal (171b3) provided on the base plate (171b1) to electrically connect the hot wire (171b2) to the power. a base plate formed of a ceramic material, and attached to the outer surface of the heater case; a hot wire (171b2) formed on the base plate, and configured to dissipate heat during the application of power; and a terminal (171b3) provided on the base plate (171b1) to electrically connect the hot wire (171b2) to the power.
Connection device for connecting an electrical conductor, comprising a contact element which forms a plug-in opening for the insertion of an electrical conductor, a spring element which is arranged on the contact element and has a spring limb for locking a conductor inserted into the plug-in opening, and an actuating element, which can be moved towards the contact element and has an active section for acting on the spring limb, wherein the spring limb can be moved out of an initial position into an open position with respect to the contact element by moving the actuating element, in order to at least partly open a region of the plug-opening, characterized by an adjusting element, which can be adjusted from a first position to a second position in order to transfer the actuating element for moving the spring limb out of the initial position into the open position, wherein the adjusting element is locked in the second position with respect to the contact element and has a triggering section, which is designed to interact with the conductor to release the locking of the adjusting element when a conductor is inserted into the plug-in opening.
Method of evaluating a time-interval between two excitations, wherein - a first excitation is applied to an excitable semiconductor material for changing this material to an excited amorphous state, - the excitability of the excitable semiconductor material in the excited amorphous state decreases with time, resulting in a voltage threshold value rising with time which marks the transition between low conductivity at low voltages and high conductivity at high voltages, - a second excitation is applied to the excitable semiconductor material in the excited amorphous state, the second excitation being selected such that a temporary change of the excitable semiconductor material from a state with lower electrical conductivity to a state with higher electrical conductivity only takes place if a value for the time-interval between the first and the second excitation is not exceeded, - a temporary change from a state with lower electrical conductivity to a state with higher electrical conductivity in dependence on alteration of excitability of the excitable semiconductor material in the excited amorphous state is triggered by the second excitation, - where evaluation of the time-interval between two excitations takes place due to the fact that the probability of triggering a change with a second excitation decreases over time in accordance with the electrical excitability decreasing over time. - a first excitation is applied to an excitable semiconductor material for changing this material to an excited amorphous state, - the excitability of the excitable semiconductor material in the excited amorphous state decreases with time, resulting in a voltage threshold value rising with time which marks the transition between low conductivity at low voltages and high conductivity at high voltages, - a second excitation is applied to the excitable semiconductor material in the excited amorphous state, the second excitation being selected such that a temporary change of the excitable semiconductor material from a state with lower electrical conductivity to a state with higher electrical conductivity only takes place if a value for the time-interval between the first and the second excitation is not exceeded, - a temporary change from a state with lower electrical conductivity to a state with higher electrical conductivity in dependence on alteration of excitability of the excitable semiconductor material in the excited amorphous state is triggered by the second excitation, - where evaluation of the time-interval between two excitations takes place due to the fact that the probability of triggering a change with a second excitation decreases over time in accordance with the electrical excitability decreasing over time.
A method for determination of target cells or tissue and isolation, extraction or purification of biomolecules from a fixed biological sample, comprising the steps of: mounting at least one part of the fixed biological sample on at least one support, optionally treating at least one part of the sample with a sample treatment agent, wherein said treatment can be carried out at any stage of the procedure before step staining at least one part of the fixed biological sample mounted on at least one support for not more than 60 seconds with at least one cell or tissue staining agent and rinsing the sample with water, visualizing or considering under light or backlight the at least one part stained in step 3 to determine target cells or tissue comprising biomolecules of interest, separating the target cells or tissue from the remainder of the fixed sample mounted on the support, isolating the biomolecules from the separated cells or tissue wherein the biomolecules comprise RNA; wherein the fixed biological sample is a non-formalin-fixed sample. mounting at least one part of the fixed biological sample on at least one support, optionally treating at least one part of the sample with a sample treatment agent, wherein said treatment can be carried out at any stage of the procedure before step staining at least one part of the fixed biological sample mounted on at least one support for not more than 60 seconds with at least one cell or tissue staining agent and rinsing the sample with water, visualizing or considering under light or backlight the at least one part stained in step 3 to determine target cells or tissue comprising biomolecules of interest, separating the target cells or tissue from the remainder of the fixed sample mounted on the support, isolating the biomolecules from the separated cells or tissue wherein the biomolecules comprise RNA; wherein the fixed biological sample is a non-formalin-fixed sample.