mhurhangee/ep-ind-claims huggingface dataset:
A redox flow battery electrode having: a conductive sheet comprising carbon nanotubes with an average fiber diameter of 1 μm or less, and a porous sheet that is laminated to the conductive sheet and is formed from fibers with an average fiber diameter of greater than 1 μm, characterized in that (i) the carbon nanotubes comprise first carbon nanotubes having an average fiber diameter of 100 to 1,000 nm, and second carbon nanotubes having an average fiber diameter of 30 nm or less, or (ii) the conductive sheet comprises carbon fibers having an average fiber diameter of greater than 1 μm. a conductive sheet comprising carbon nanotubes with an average fiber diameter of 1 μm or less, and a porous sheet that is laminated to the conductive sheet and is formed from fibers with an average fiber diameter of greater than 1 μm, characterized in that (i) the carbon nanotubes comprise first carbon nanotubes having an average fiber diameter of 100 to 1,000 nm, and second carbon nanotubes having an average fiber diameter of 30 nm or less, or (ii) the conductive sheet comprises carbon fibers having an average fiber diameter of greater than 1 μm. (i) the carbon nanotubes comprise first carbon nanotubes having an average fiber diameter of 100 to 1,000 nm, and second carbon nanotubes having an average fiber diameter of 30 nm or less, or (ii) the conductive sheet comprises carbon fibers having an average fiber diameter of greater than 1 μm.
A crystalline modification type II compound of the following Chemical Formula 1, wherein angles of 2θ representing XRD peaks of the crystalline modification include 5.81°, 7.10°, 8.49°, 9.32°, 11.74°, 15.97°, and 16.45° (°2θ, ± 0.1° using Cu-Kα1 radiation).
Packaging structure comprising: - at least one hermetically sealed cavity in which at least one microelectronic device is arranged, the cavity being formed between a substrate and at least one cap layer through which several release holes are formed, - at least one diffusion barrier layer comprising at least one non-metallic material which is a ceramic material and/or an oxide material, arranged on the cap layer and forming a diffusion barrier against an atmosphere outside the cavity at least around the release holes, characterized in that it also comprises several separated portions of metallic material such that each one is arranged on the cap layer above and around one of the release holes and forms an individual and hermetical plug of said one of the release holes, wherein the diffusion barrier layer is arranged between the cap layer and the portions of metallic material, and wherein parts of the diffusion barrier layer are not covered by the portions of metallic material. - at least one hermetically sealed cavity in which at least one microelectronic device is arranged, the cavity being formed between a substrate and at least one cap layer through which several release holes are formed, - at least one diffusion barrier layer comprising at least one non-metallic material which is a ceramic material and/or an oxide material, arranged on the cap layer and forming a diffusion barrier against an atmosphere outside the cavity at least around the release holes, characterized in that it also comprises several separated portions of metallic material such that each one is arranged on the cap layer above and around one of the release holes and forms an individual and hermetical plug of said one of the release holes, wherein the diffusion barrier layer is arranged between the cap layer and the portions of metallic material, and wherein parts of the diffusion barrier layer are not covered by the portions of metallic material. characterized in that it also comprises several separated portions of metallic material such that each one is arranged on the cap layer above and around one of the release holes and forms an individual and hermetical plug of said one of the release holes, wherein the diffusion barrier layer is arranged between the cap layer and the portions of metallic material, and wherein parts of the diffusion barrier layer are not covered by the portions of metallic material.
Cooking appliance, comprising at least one hob having at least one hotplate and having at least one heating device provided for heating at least one cooking region and having at least one safety device, with which at least one safety sensor unit is associated, the safety sensor unit being designed for detecting at least one characteristic variable for temperatures, and having at least one control device and having at least one sensor device, the sensor device being provided for detecting at least one characteristic variable for temperatures of the cooking region, and the control device being at least partially designed and suitable for controlling the heating device depending on the variable detected by the sensor device, at least one first sensor unit and at least one further sensor unit being associated with the sensor device, a first sensor unit being designed and suitable for contactlessly detecting heat radiation and the safety sensor unit being associated with the sensor device as the further sensor unit, characterised in that the sensor device has at least one filter device (43, 53) and additionally another sensor unit, the filter device (43, 53) being designed and suitable for reflecting and/or transmitting electromagnetic radiation depending on the wavelength and/or the polarisation and/or the angle of incidence, the first sensor unit and the other sensor unit being suitable for contactlessly detecting heat radiation and being designed as a thermopile, and the sensor units (13, 23) each having a filter device (43, 53) and being provided for detecting heat radiation coming from the cooking region, the filter devices (43, 53) acting differently on the optical sensor units (13, 23), the filter device being thermally conductively attached to the sensor unit by means of an adhesive connecting means and the connecting means being an adhesive having a thermal conductivity of at least 0.5 W m -1 K -1, the heat being passed on from the filter device to the thermal compensation device via the sensor unit.
A scroll compressor having a step portion on each of a top surface and a bottom surface of a spiral wrap (25B, 27B) of a fixed scroll member and an orbiting scroll member pair, each formed of an end plate (27A, 27B) and the spiral wrap (25B, 27B) mounted upright thereon, the height of the spiral wrap (25B, 27B) on an outer peripheral side of the step portion (25E, 25F, 27E, 27F) being made higher than the height of the spiral wrap (25B, 27B) on an inner peripheral side, the scroll compressor being configured to be capable of three-dimensional compression in a circumferential direction and a height direction of the spiral wrap (25B, 27B), the top surfaces (25C, 25G, 25H, 27C, 27G, 27H) on the outer peripheral side and on the inner peripheral side of the spiral wrap (25B, 27B) each being provided with a tip seal (51, 53), characterised in that a back-pressure introducing portion (55, 57) where a gap between a back surface at a step-portion end of the tip seal (51, 53) and a groove bottom surface (25D, 27D) of a tip seal groove (25L, 27L, 25M, 27M) is made larger than a gap at the other portion is provided between the step-portion end of the tip seal (51, 53) provided on the top surface (25G, 27G) on the outer peripheral side of the spiral wrap and the tip seal groove (25L, 27L) to which the tip seal (51, 53) is fitted; wherein b > T2 holds where b is the width of an edge formed at the step-portion end of the tip seal groove (25L, 25M, 27L, 27M) and T2 is the width of edges formed along and on both sides of the tip seal groove (25L, 25M, 27L, 27M); and the edge width b with respect to the edge width T2 is set to be b ≤ 2.5 * T2.
An interface comprising a supple envelope, with an air supply aperture and a pair of protruding nostril locators protruding from the envelope, each nostril locator including an outlet aperture, the envelope inflating under internal pressure from a pressurised gases supply and being configured to create a seal with the nose or face of a user in addition to any seal provided by the nostril locators, when pressed against the face of the user, wherein a region of the envelope immediately adjacent the nostril locators is stiffer than the rest of the envelope, a frame supporting the envelope, a strap to pass around the back of the head to support the interface, and the frame incorporating a swivel or ball joint to allow a flexible conduit for delivering breathable gas to rotate through different angles and orientations, characterized in that the envelope or the body of the envelope, when pressed against the face of the user, forms a substantially continuous seal against the user's nose and face that surrounds the nostril locators, the body of the envelope including left and right side body portions (510, 520) that cover the user's cheeks to an equal extent on each side of the user's nose.
A surface treatment composition comprising: a 0.05 - 5% of poly aluminium chloride, b 0.05 - 5% of a carboxylic polymer, c 0.01 - 5% of a weak organic acid, and d Aqueous liquid; wherein the pH of the composition is between 7 and 9.5; and wherein the PAC: carboxylic polymer ratio is at least 2:5. a 0.05 - 5% of poly aluminium chloride, b 0.05 - 5% of a carboxylic polymer, c 0.01 - 5% of a weak organic acid, and d Aqueous liquid;
A process for determining the radius of a ground column which is produced by jet grouting, the process comprising the steps: introducing at least one level rod (4, 4') into the ground and lowering a jet grouting tool such that the level rod (4, 4') und the jet grouting tool comprise a defined distance (B, B') from one another, which is smaller than a maximum range of the jet; lifting the jet grouting tool while carrying out rotational and pivoting movements while the jet is activated, wherein, while the jet is passing vibrations are generated at the level rod (4, 4'); and recording a signal representing vibrations at the at least one level rod (4, 4') by means of a sensor (5, 5') which is fixed to the level rod (4, 4'). introducing at least one level rod (4, 4') into the ground and lowering a jet grouting tool such that the level rod (4, 4') und the jet grouting tool comprise a defined distance (B, B') from one another, which is smaller than a maximum range of the jet; lifting the jet grouting tool while carrying out rotational and pivoting movements while the jet is activated, wherein, while the jet is passing vibrations are generated at the level rod (4, 4'); and recording a signal representing vibrations at the at least one level rod (4, 4') by means of a sensor (5, 5') which is fixed to the level rod (4, 4').
Method for, in particular industrial, measurement of a surface, in particular according to the principle of Optical Coherence Tomography, whereby based on interferograms distances to points of the surface are measured, with • generating a laser beam, • emitting the laser beam onto the surface, • receiving at least a part of the laser beam, reflected by a respective point of the surface, • generating an interferogram by superposition of the received laser beam with a reference laser beam, the method further comprising classifying (6a, 6b, 6b') a respective interferogram or the distance derived therefrom as non-valid or valid (6b, 6b') based on evaluation of amplitude change, and in particular phase change, of the respective interferogram, characterized in that the evaluation comprises detecting if the amplitude of a respective interferogram is temporarily below an amplitude threshold and a respective measurement (2, 11, 13, 19) is classified as non-valid if an interferogram fraction (F, B) with amplitude below the amplitude threshold is above a fraction threshold. • generating a laser beam, • emitting the laser beam onto the surface, • receiving at least a part of the laser beam, reflected by a respective point of the surface, • generating an interferogram by superposition of the received laser beam with a reference laser beam, the method further comprising classifying (6a, 6b, 6b') a respective interferogram or the distance derived therefrom as non-valid or valid (6b, 6b') based on evaluation of amplitude change, and in particular phase change, of the respective interferogram, characterized in that the evaluation comprises detecting if the amplitude of a respective interferogram is temporarily below an amplitude threshold and a respective measurement (2, 11, 13, 19) is classified as non-valid if an interferogram fraction (F, B) with amplitude below the amplitude threshold is above a fraction threshold. the method further comprising classifying (6a, 6b, 6b') a respective interferogram or the distance derived therefrom as non-valid or valid (6b, 6b') based on evaluation of amplitude change, and in particular phase change, of the respective interferogram, characterized in that the evaluation comprises detecting if the amplitude of a respective interferogram is temporarily below an amplitude threshold and a respective measurement (2, 11, 13, 19) is classified as non-valid if an interferogram fraction (F, B) with amplitude below the amplitude threshold is above a fraction threshold.
Strap buckle assembly for clamping a strap comprising - a first and a second part (3, 4) for clamping the strap in-between, - wherein the first and the second part (3, 4) are relatively movable to each other, and - an operating mechanism having a spring and an actuating member, - wherein the spring is arc-shaped having a variable bending radius and comprises a first end connected to the first part as well as a second end connected to the second part, - and - wherein the operating mechanism is configured to vary the bending radius of the spring such that said first and second end (5c, 5d) of the spring are displaceable with respect to each other between a clamping position and an adjusting position, - characterized in that - the operating mechanism further comprises a pivoting bar which is mounted to the spring, wherein the operating mechanism is configured to vary the bending radius of the spring by moving the pivoting bar, - wherein the actuating member interacts with the pivoting bar to vary the distance of the two ends (5c, 5d) of the spring and/or to apply a force to the pivoting bar and, - wherein the pivoting bar comprises two opposite end portions, wherein a first end portion (5a-1) is mounted to an end of the spring and a second end portion (5a-2) is rotatably mounted at the actuating member. - a first and a second part (3, 4) for clamping the strap in-between, - wherein the first and the second part (3, 4) are relatively movable to each other, and - an operating mechanism having a spring and an actuating member, - wherein the spring is arc-shaped having a variable bending radius and comprises a first end connected to the first part as well as a second end connected to the second part, - and - wherein the operating mechanism is configured to vary the bending radius of the spring such that said first and second end (5c, 5d) of the spring are displaceable with respect to each other between a clamping position and an adjusting position, - characterized in that - the operating mechanism further comprises a pivoting bar which is mounted to the spring, wherein the operating mechanism is configured to vary the bending radius of the spring by moving the pivoting bar, - wherein the actuating member interacts with the pivoting bar to vary the distance of the two ends (5c, 5d) of the spring and/or to apply a force to the pivoting bar and, - wherein the pivoting bar comprises two opposite end portions, wherein a first end portion (5a-1) is mounted to an end of the spring and a second end portion (5a-2) is rotatably mounted at the actuating member.
Induction energy supply device (10a; 10b) with a supply unit (12a; 12b) that has at least one supplying induction element (14a; 14b) for inductively providing energy to a positioned unit (16a, 18a; 16b, 18b), with an inverter unit for operating the supplying induction element (14a; 14b), with a snubber unit which is allocated to the inverter unit and has a plurality of snubber capacitors (24a, 26a, 28a, 30a), and with a control unit (32a; 32b) for controlling the inverter unit, characterised in that the control unit (32a; 32b) has a data reception element (34a; 34b) for wireless reception of at least one operating parameter from the positioned unit (16a, 18a; 16b, 18b) and is provided to adjust a setting of the snubber unit on the basis of the operating parameter.
A method for a base station to transmit and receive signals, the method comprising: transmitting a first message for configuring a resource block, RB, for a first type terminal; transmitting a second message for allocating at least one subcarrier of the RB for the first type terminal; and transmitting and receiving a signal to and from the first type terminal on a symbol of the allocated at least one subcarrier, wherein, in said symbol, at least control information for a second type terminal and a cell-specific reference signal, CRS, are not transmitted, wherein a type of the first type terminal is different from that of the second type terminal; and wherein 2 symbols in a subframe is used for the second type terminal and the remaining 12 symbols in the subframe are used for the first type terminal. transmitting a first message for configuring a resource block, RB, for a first type terminal; transmitting a second message for allocating at least one subcarrier of the RB for the first type terminal; and transmitting and receiving a signal to and from the first type terminal on a symbol of the allocated at least one subcarrier, wherein, in said symbol, at least control information for a second type terminal and a cell-specific reference signal, CRS, are not transmitted, wherein a type of the first type terminal is different from that of the second type terminal; and wherein 2 symbols in a subframe is used for the second type terminal and the remaining 12 symbols in the subframe are used for the first type terminal.
A method for monitoring a structure, which separates a first medium from a second medium, wherein a) the first medium exerts a higher pressure on the structure than the second medium and b1) wherein at least one first sensor on the higher pressure side and b2) at least one second sensor on the lower pressure side each capture at least one physical quantity concerning this structure, c) wherein a dependency in terms of a physical correlation exists between these physical quantities and relates to a real transfer function, and wherein one computing device transmits respective measured values (7, 8) concerning the corresponding physical quantities, wherein d) on the basis of the measured value of the first sensor a data value of the second sensor is modeled by using a linear transfer function model, based on regression data sets, prediction data sets and mean value data sets, wherein the prediction data sets are generated based on both the measured values (7, 8) of the first and second sensor (4, 5) from the past and their chronological sequence; e) wherein the modeled data value and the measured value of the second sensor are used for assessment of the structure; f) wherein from a comparison of the prediction data set with the measured values of the at least one second sensor a deviation is determined and wherein the comparison is conducted in time-steps. a) the first medium exerts a higher pressure on the structure than the second medium and b1) wherein at least one first sensor on the higher pressure side and b2) at least one second sensor on the lower pressure side each capture at least one physical quantity concerning this structure, c) wherein a dependency in terms of a physical correlation exists between these physical quantities and relates to a real transfer function, and wherein one computing device transmits respective measured values (7, 8) concerning the corresponding physical quantities, wherein d) on the basis of the measured value of the first sensor a data value of the second sensor is modeled by using a linear transfer function model, based on regression data sets, prediction data sets and mean value data sets, wherein the prediction data sets are generated based on both the measured values (7, 8) of the first and second sensor (4, 5) from the past and their chronological sequence; e) wherein the modeled data value and the measured value of the second sensor are used for assessment of the structure; f) wherein from a comparison of the prediction data set with the measured values of the at least one second sensor a deviation is determined and wherein the comparison is conducted in time-steps.
An adjuvant concentrate, comprising: an alkylated sulfonated aromatic hydrocarbon acid; one or more oils, wherein the one or more oils is a pure oil, and wherein the one or more oils is at least one oil selected from the group consisting of a soybean methyl ester, a corn methyl ester, and a castor oil methyl ester, and wherein the adjuvant concentrate further comprises a citrus oil; and a pH adjuster, wherein the pH adjuster is a base, wherein the adjuvant concentrate is stable in a concentrated form and in a diluted form, and wherein the adjuvant concentrate yields, when diluted, a composition having a buffered pH value of from 4 to 8. an alkylated sulfonated aromatic hydrocarbon acid; one or more oils, wherein the one or more oils is a pure oil, and wherein the one or more oils is at least one oil selected from the group consisting of a soybean methyl ester, a corn methyl ester, and a castor oil methyl ester, and wherein the adjuvant concentrate further comprises a citrus oil; and a pH adjuster, wherein the pH adjuster is a base, wherein the adjuvant concentrate is stable in a concentrated form and in a diluted form, and wherein the adjuvant concentrate yields, when diluted, a composition having a buffered pH value of from 4 to 8.
Method for detecting fires in machines for producing hollow glass, a production process on a production machine being controlled by means of a process controller and the production machine being permanently monitored by means for detecting fires, characterized in that in a first step the means for detecting fires generate an alarm signal and transmit it to the process controller, in a second step the process controller terminates the request for material for the production process and further material is retained in a fireproof support, while the production machine processes or ejects material already inserted and is then stopped, and in a third step all machines supplying material and discharging products are stopped.