mhurhangee/patent-ind-claim-en huggingface dataset:
Use of a piezoelectric element for a vibration sensor in which the electrical signal generates a frequency in a range from 1 Hz to 10 kHz for a measured voltage, the piezoelectric element comprising a piezoelectric material comprising a copolymer of vinylidene fluoride (VdF) and one or more monomers copolymerizable with VdF.
Method for producing a device with superimposed levels (N1, N2) of components including, in this order, the following steps: a) providing on a given level (N 1 ) provided with one or more components (T 11 , T 12 ) produced at least partially in a first semiconductor layer : a stack including a second semiconductor layer capable of receiving at least one transistor channel (T 21 ) of level (N 2 ) above said given level (N 1 ), said stack including a so-called ground plane layer made of conductor or semiconductor material or doped semiconductor material situated between the first semiconductor layer and the second semiconductor layer as well as an insulator layer separating the ground plane layer from the second semiconductor layer , one or more islands being defined in the second semiconductor layer , b) forming a gate of a transistor (T 21 ) on at least one island among said one or more islands, c) defining by etching one or more distinct portions in the ground plane layer so as to free a space around at least one first etched portion of the ground plane layer arranged under and facing said island, d) forming an isolation zone around said island and said first portion by deposition of at least one layer made of insulator material covering the gate and said island , the layer of insulator material filling said space around said first portion of the ground plane layer, e) formation of conductive pads traversing said layer made of insulator material , one or more of said conductive pads being connected with said island , at least one other conductive pad being connected with said first portion of the ground plane layer . a) providing on a given level (N 1 ) provided with one or more components (T 11 , T 12 ) produced at least partially in a first semiconductor layer : a stack including a second semiconductor layer capable of receiving at least one transistor channel (T 21 ) of level (N 2 ) above said given level (N 1 ), said stack including a so-called ground plane layer made of conductor or semiconductor material or doped semiconductor material situated between the first semiconductor layer and the second semiconductor layer as well as an insulator layer separating the ground plane layer from the second semiconductor layer , one or more islands being defined in the second semiconductor layer , b) forming a gate of a transistor (T 21 ) on at least one island among said one or more islands, c) defining by etching one or more distinct portions in the ground plane layer so as to free a space around at least one first etched portion of the ground plane layer arranged under and facing said island, d) forming an isolation zone around said island and said first portion by deposition of at least one layer made of insulator material covering the gate and said island , the layer of insulator material filling said space around said first portion of the ground plane layer, e) formation of conductive pads traversing said layer made of insulator material , one or more of said conductive pads being connected with said island , at least one other conductive pad being connected with said first portion of the ground plane layer .
Tarpaulin body of a utility vehicle (N), in particular a truck, trailer or semitrailer, with two longitudinal roof spars and with a sliding roof which is supported on the longitudinal roof spars and is adjustable relative to the longitudinal roof spars from a closed position closing the roof into an open position releasing the roof for loading the tarpaulin body and back, wherein the sliding roof has at least one bow connecting the longitudinal roof spars to one another and longitudinally displaceable relative to the longitudinal roof spars , wherein the bow has at least two carriages , respectively with at least one roof roller engaging in at least one guide link of each longitudinal roof spar for displacing the bow relative to the longitudinal roof spars , wherein the guide link has respectively at least one running surface for rolling the at least one roof roller and respectively at least one baffle surface arranged adjacent to an end face of the roof roller , characterized in that the baffle surfaces are formed at least in sections by at least one inlay formed from a different material relative to the base material of the longitudinal roof spars .
A lighting driver , comprising: a negative third harmonic generator configured to generate a negative third harmonic signal corresponding to a third harmonic of an AC input voltage shifted by 180 degrees, an adder circuit configured to generate an adder output signal by adding the negative third harmonic signal to a voltage divider output signal generated from the AC input voltage; and a controller configured to control generation of a DC output voltage provided by the lighting driver based on a control signal generated from the adder output signal; characterised in that : the negative third harmonic generator comprises a comparator circuit , a low pass filter , and a phase shifter , wherein the low pass filter is configured to generate a filtered output signal from an output signal of the comparator circuit , and wherein the phase shifter is configured to shift the generated negative third harmonic signal to compensate for the phase shift of the low pass filter . a negative third harmonic generator configured to generate a negative third harmonic signal corresponding to a third harmonic of an AC input voltage shifted by 180 degrees, an adder circuit configured to generate an adder output signal by adding the negative third harmonic signal to a voltage divider output signal generated from the AC input voltage; and a controller configured to control generation of a DC output voltage provided by the lighting driver based on a control signal generated from the adder output signal; characterised in that : the negative third harmonic generator comprises a comparator circuit , a low pass filter , and a phase shifter , wherein the low pass filter is configured to generate a filtered output signal from an output signal of the comparator circuit , and wherein the phase shifter is configured to shift the generated negative third harmonic signal to compensate for the phase shift of the low pass filter .
A method for applying a Real Michael Addition (RMA) crosslinked coating with improved adhesion, comprising the steps of I. providing a RMA crosslinkable composition comprising a) one or more crosslinkable components comprising a reactive component A with at least two acidic protons C-H in activated methylene or methine groups, preferably predominantly malonate b) a reactive component B with at least two activated unsaturated C=C groups, preferably acryloyl and c) a catalyst C for catalyzing the RMA crosslinking reaction between components A and B, preferably a carbondioxide blocked strong base, d) optional reactivity moderator D and e) optional organic solvent T, II. applying on the substrate surface a layer of an epoxy primer comprising an epoxy functional polymer binder and a crosslinker, wherein adhesion of the RMA crosslinked coating to the epoxy primer layer is improved by said primer comprising after curing functional groups X reactable with crosslinkable component A or B of the RMA crosslinkable composition or a precursor of functional groups X, preferably a moisture deblockable precursor, III. at least partial curing of the primer layer, IV. applying, over the at least partially cured primer layer, a coating layer of the RMA crosslinkable composition and V. curing the coating layer. I. providing a RMA crosslinkable composition comprising a) one or more crosslinkable components comprising a reactive component A with at least two acidic protons C-H in activated methylene or methine groups, preferably predominantly malonate b) a reactive component B with at least two activated unsaturated C=C groups, preferably acryloyl and c) a catalyst C for catalyzing the RMA crosslinking reaction between components A and B, preferably a carbondioxide blocked strong base, d) optional reactivity moderator D and e) optional organic solvent T, a) one or more crosslinkable components comprising a reactive component A with at least two acidic protons C-H in activated methylene or methine groups, preferably predominantly malonate b) a reactive component B with at least two activated unsaturated C=C groups, preferably acryloyl and c) a catalyst C for catalyzing the RMA crosslinking reaction between components A and B, preferably a carbondioxide blocked strong base, d) optional reactivity moderator D and e) optional organic solvent T, II. applying on the substrate surface a layer of an epoxy primer comprising an epoxy functional polymer binder and a crosslinker, wherein adhesion of the RMA crosslinked coating to the epoxy primer layer is improved by said primer comprising after curing functional groups X reactable with crosslinkable component A or B of the RMA crosslinkable composition or a precursor of functional groups X, preferably a moisture deblockable precursor, III. at least partial curing of the primer layer, IV. applying, over the at least partially cured primer layer, a coating layer of the RMA crosslinkable composition and V. curing the coating layer.
A method of manufacturing a liquid crystal (LC) display of the polymer stabilised (PS) alignment mode, which comprises a) providing a first substrate and a second substrate, b) depositing an alignment layer material, or a precursor thereof, on the first substrate and the second substrate, to form a first alignment layer on the first substrate and a second alignment layer on the second substrate, c) optionally curing the alignment layer material, or the precursor thereof, d) interposing an LC medium comprising a polymerisable component between the first and the second substrate, such that it is in contact with the first alignment layer and the second alignment layer, e) polymerising the polymerisable component of the LC medium between the first and second substrate, characterized in that in step b) the alignment layer material, or the precursor thereof, deposited on the first substrate contains a polymerisation inhibitor which inhibits polymerisation of the polymerisable component of the LC medium. a) providing a first substrate and a second substrate, b) depositing an alignment layer material, or a precursor thereof, on the first substrate and the second substrate, to form a first alignment layer on the first substrate and a second alignment layer on the second substrate, c) optionally curing the alignment layer material, or the precursor thereof, d) interposing an LC medium comprising a polymerisable component between the first and the second substrate, such that it is in contact with the first alignment layer and the second alignment layer, e) polymerising the polymerisable component of the LC medium between the first and second substrate,
A compound represented by formula (I) [wherein: R 2 represents an ethyl group; n represents 0, 1, or 2; G 1 represents CH; G 2 represents CR 3b ; G 3 represents CR 3c ; G 4 represents CH; R 3b and R 3c are identical to or different from each other, and each represent a C1-C3 alkyl group optionally substituted with one or more halogen atom(s), a cyclopropyl group, a phenyl group optionally substituted with one or more halogen atom(s), OR 12 , a hydrogen atom, or a halogen atom; R 12 represents a C1-C3 alkyl group optionally substituted with one or more halogen atom(s); Q represents a group represented by Q1 or a group represented by Q2; Z represents an oxygen atom; A 2 and A 3 each represent CH; B 1 represents a nitrogen atom or CH; B 2 represents CR 1 ; B 3 represents a nitrogen atom or CH; and R 1 represents a C1-C3 fluoroalkyl group] or an N-oxide thereof. R 2 represents an ethyl group; n represents 0, 1, or 2; G 1 represents CH; G 2 represents CR 3b ; G 3 represents CR 3c ; G 4 represents CH; R 3b and R 3c are identical to or different from each other, and each represent a C1-C3 alkyl group optionally substituted with one or more halogen atom(s), a cyclopropyl group, a phenyl group optionally substituted with one or more halogen atom(s), OR 12 , a hydrogen atom, or a halogen atom; R 12 represents a C1-C3 alkyl group optionally substituted with one or more halogen atom(s); Q represents a group represented by Q1 or a group represented by Q2; Z represents an oxygen atom; A 2 and A 3 each represent CH; B 1 represents a nitrogen atom or CH; B 2 represents CR 1 ; B 3 represents a nitrogen atom or CH; and R 1 represents a C1-C3 fluoroalkyl group] or an N-oxide thereof.
A method performed by a graphics processing unit, GPU, the GPU comprising a shader pipeline having a plurality of single instruction multiple data, SIMD, units, the method, comprising: determining a condition related to the power consumption of the GPU, wherein the condition is based on one or more operating conditions including any one or a combination of temperature, current, and processor activity; programming a configuration register to disable one or more SIMD units in the shader pipeline in response to the determined condition; dynamically enabling and disabling the one or more SIMD units in the shader pipeline based on the determined condition, wherein the dynamically enabling the one or more SIMD units includes dynamically controlling one or more clocks to each of the one or more SIMD units, wherein the dynamically disabling the one or more SIMD units includes dynamic clock gating of SIMD units, wherein the dynamic disabling takes effect after current in-flight work thread requests are serviced by the one or more SIMDs to be disabled; and assigning one or more work threads to the one or more enabled SIMD units in the shader pipeline, wherein the work threads are assigned to one or more enabled SIMD units without having to flush the shader pipeline. determining a condition related to the power consumption of the GPU, wherein the condition is based on one or more operating conditions including any one or a combination of temperature, current, and processor activity; programming a configuration register to disable one or more SIMD units in the shader pipeline in response to the determined condition; dynamically enabling and disabling the one or more SIMD units in the shader pipeline based on the determined condition, wherein the dynamically enabling the one or more SIMD units includes dynamically controlling one or more clocks to each of the one or more SIMD units, wherein the dynamically disabling the one or more SIMD units includes dynamic clock gating of SIMD units, wherein the dynamic disabling takes effect after current in-flight work thread requests are serviced by the one or more SIMDs to be disabled; and assigning one or more work threads to the one or more enabled SIMD units in the shader pipeline, wherein the work threads are assigned to one or more enabled SIMD units without having to flush the shader pipeline.
A portable medical device for injecting a medicament comprising means for injecting a medicament in a patient, means for automatically recording the amount of medicament that is injected at a certain time point as an ejection event, and a proximity sensor that can sense the proximity of a solid object in the same direction as an injection needle when the needle is attached to the device , where the medical device is configured to tag the ejection event as an injection event if the injection takes place in the proximity of a solid object and tagging the ejection event as a priming ejection if the ejection does not take place in the vicinity of a solid object characterized in that said proximity sensor is able to detect the proximity of the solid object , wherein no contact with the solid object is made.
A user position management server , comprising: a position obtaining unit that obtains a position from a recipient user terminal; and a nearby user information providing unit that provides information about a source user terminal which is an information source to the recipient user terminal which receives said information, wherein the nearby user information providing unit provides said information about the source user terminal to the recipient user terminal only if the distance between the position that is obtained from the recipient user terminal and a position obtained from the source user terminal is less than a given distance, and characterized in that the position obtaining unit obtains said information comprising the position and user ID information from the source user terminal, together with a privacy indicator indicating if the position is inside a privacy area set by the user; and wherein the nearby user information providing unit does not provide said information about the source user terminal to the recipient user terminal if the position obtained from the source user terminal is a position inside the privacy area set by the user of the source user terminal, as indicated by the privacy indicator. a position obtaining unit that obtains a position from a recipient user terminal; and a nearby user information providing unit that provides information about a source user terminal which is an information source to the recipient user terminal which receives said information, wherein the nearby user information providing unit provides said information about the source user terminal to the recipient user terminal only if the distance between the position that is obtained from the recipient user terminal and a position obtained from the source user terminal is less than a given distance, and characterized in that the position obtaining unit obtains said information comprising the position and user ID information from the source user terminal, together with a privacy indicator indicating if the position is inside a privacy area set by the user; and wherein the nearby user information providing unit does not provide said information about the source user terminal to the recipient user terminal if the position obtained from the source user terminal is a position inside the privacy area set by the user of the source user terminal, as indicated by the privacy indicator.
A device for holding a smoking article that has a liquid delivery member disposed therein, the device comprising: a support portion for supporting the smoking article during smoking of the smoking article ; and a crusher configured to apply external force to the liquid delivery member in the smoking article , characterized in that the crusher comprises at least one lever for amplifying a force applied by a consumer, to provide the external force on the liquid delivery member in the smoking article . a support portion for supporting the smoking article during smoking of the smoking article ; and a crusher configured to apply external force to the liquid delivery member in the smoking article , characterized in that the crusher comprises at least one lever for amplifying a force applied by a consumer, to provide the external force on the liquid delivery member in the smoking article .
A liquid analytical reagent dispensing apparatus, the apparatus comprising: a container having a first end , a second end , a first side , a second side , a bottom side , a top side , a first cavity being open at the top side of the container , a flange extending around the open top of the first cavity , and a second cavity being open near the second end of the container , thereby forming a second cavity opening being located on the top side of the container near the second end ; the second cavity being substantially cylindrical in shape with a closed end located longitudinally opposite from the second cavity opening ; a first liquid reagent disposed within the first cavity ; a second liquid reagent disposed within the second cavity ; and a single flexible cover removably affixed to the flange of the container to seal the first liquid reagent in the first cavity and the second liquid reagent in the second cavity , wherein upon complete removal of the single flexible cover from the flange , the first liquid reagent is gravitationally dispensed from the first cavity , while the second liquid reagent remains and is contained in the opened second cavity when the container is oriented such that the first end of the container is positioned substantially vertically beneath the second end of the container . a container having a first end , a second end , a first side , a second side , a bottom side , a top side , a first cavity being open at the top side of the container , a flange extending around the open top of the first cavity , and a second cavity being open near the second end of the container , thereby forming a second cavity opening being located on the top side of the container near the second end ; the second cavity being substantially cylindrical in shape with a closed end located longitudinally opposite from the second cavity opening ; a first liquid reagent disposed within the first cavity ; a second liquid reagent disposed within the second cavity ; and a single flexible cover removably affixed to the flange of the container to seal the first liquid reagent in the first cavity and the second liquid reagent in the second cavity , wherein upon complete removal of the single flexible cover from the flange , the first liquid reagent is gravitationally dispensed from the first cavity , while the second liquid reagent remains and is contained in the opened second cavity when the container is oriented such that the first end of the container is positioned substantially vertically beneath the second end of the container .
Floor access module for a lift system , comprising: - at least one frame element for arranging the floor access module in a façade opening (F) of a building (G), - at least one closure element on the lift side for access protection - at least one door element on the building side for access protection, wherein the at least one closure element and the at least one door element are operatively connected to the at least one frame element , wherein the at least one closure element can be actuated by a device of the lift system , wherein the frame element has at least one access opening on the lift side and at least one access opening on the building side, the access opening on the lift side being delimited by the closure element and the access opening on the building side being delimited by the door element . - at least one frame element for arranging the floor access module in a façade opening (F) of a building (G), - at least one closure element on the lift side for access protection - at least one door element on the building side for access protection, wherein the at least one closure element and the at least one door element are operatively connected to the at least one frame element , wherein the at least one closure element can be actuated by a device of the lift system , wherein the frame element has at least one access opening on the lift side and at least one access opening on the building side, the access opening on the lift side being delimited by the closure element and the access opening on the building side being delimited by the door element .