mhurhangee/patent-ind-claim-en huggingface dataset:
An organic light emitting diode, comprising: a first electrode ; a second electrode facing the first electrode ; and a first emitting material layer between the first and second electrodes ; characterized in that the organic light emitting diode further comprises: a second emitting material layer (130c") between the first emitting material layer and the second electrode and including a base material and an electron injection material , wherein the second emitting material layer (130c") physically contacts the second electrode . wherein the base material is a host material of the first emitting material layer , and wherein the electron injection material has a first density in a lower portion, which is adjacent to the first emitting material layer , of the second emitting material layer (130c"), and a second density, which is larger than the first density, in an upper portion, which is adjacent to the second electrode , of the second emitting material layer (130c"). a first electrode ; a second electrode facing the first electrode ; and a first emitting material layer between the first and second electrodes ; characterized in that the organic light emitting diode further comprises: a second emitting material layer (130c") between the first emitting material layer and the second electrode and including a base material and an electron injection material , wherein the second emitting material layer (130c") physically contacts the second electrode . wherein the base material is a host material of the first emitting material layer , and wherein the electron injection material has a first density in a lower portion, which is adjacent to the first emitting material layer , of the second emitting material layer (130c"), and a second density, which is larger than the first density, in an upper portion, which is adjacent to the second electrode , of the second emitting material layer (130c"). a second emitting material layer (130c") between the first emitting material layer and the second electrode and including a base material and an electron injection material , wherein the second emitting material layer (130c") physically contacts the second electrode . wherein the base material is a host material of the first emitting material layer , and wherein the electron injection material has a first density in a lower portion, which is adjacent to the first emitting material layer , of the second emitting material layer (130c"), and a second density, which is larger than the first density, in an upper portion, which is adjacent to the second electrode , of the second emitting material layer (130c").
An aerosolisable product comprising an aerosol forming material, wherein the aerosol forming material is infused with smoke from tobacco; wherein the aerosol forming material is infused with smoke treated to selectively remove therefrom one or more aromatic hydrocarbons.
Automatic analysis appliance comprising a waste disposal system for disposing of consumables through a waste shaft into a waste container , the waste disposal system comprising a waste shaft with an opening , characterized in that the waste shaft comprises a plurality of self-resetting lamellas for partial or complete closure of the opening .
A method that facilitates hot-word free interaction between a user and an automated assistant, the method implemented by one or more processors and comprising: receiving , at a client device , a stream of image frames that are based on output from one or more cameras of the client device; processing , at the client device, the image frames of the stream using at least one trained machine learning model stored locally on the client device to detect occurrence of: a gaze of a user that is directed toward the client device; determining, at the client device, a distance of the user relative to the client device, wherein determining the distance of the user relative to the client device is based on one or both of: one or more of the image frames, and additional sensor data from an additional sensor of the client device; determining , at the client device and based on detecting the occurrence of the gaze of the user and based on the distance of the user relative to the client device, to perform: certain processing of audio data detected by one or more microphones of the client device, wherein at least a portion of the audio data is buffered audio data that is buffered, prior to detecting the gaze of the user, in a temporary buffer local to the client device; and initiating , at the client device, the certain processing of the audio data responsive to determining to perform the certain processing of the audio data. receiving , at a client device , a stream of image frames that are based on output from one or more cameras of the client device; processing , at the client device, the image frames of the stream using at least one trained machine learning model stored locally on the client device to detect occurrence of: a gaze of a user that is directed toward the client device; determining, at the client device, a distance of the user relative to the client device, wherein determining the distance of the user relative to the client device is based on one or both of: one or more of the image frames, and additional sensor data from an additional sensor of the client device; one or more of the image frames, and additional sensor data from an additional sensor of the client device; determining , at the client device and based on detecting the occurrence of the gaze of the user and based on the distance of the user relative to the client device, to perform: certain processing of audio data detected by one or more microphones of the client device, wherein at least a portion of the audio data is buffered audio data that is buffered, prior to detecting the gaze of the user, in a temporary buffer local to the client device; and initiating , at the client device, the certain processing of the audio data responsive to determining to perform the certain processing of the audio data.
A method for processing digital data to be transmitted in the form of a radiofrequency signal from a transmitter towards a receiver , the processing method comprising the following steps: a) grouping the digital data into a data block, so-called original data block , having a determined bit size, b) generating , based on the original data block , a plurality of so-called secondary data blocks , each secondary data block being obtained by permutation, according to an algorithm and determined parameters, of the digital data grouped together in the original block , the algorithm and the parameters being selected to minimise the correlation between the secondary blocks of the plurality, and c) building a data frame comprising a series of a determined number of secondary blocks from the plurality of previously generated secondary blocks, the frame thus built defining the radiofrequency signal to be transmitted. a) grouping the digital data into a data block, so-called original data block , having a determined bit size, b) generating , based on the original data block , a plurality of so-called secondary data blocks , each secondary data block being obtained by permutation, according to an algorithm and determined parameters, of the digital data grouped together in the original block , the algorithm and the parameters being selected to minimise the correlation between the secondary blocks of the plurality, and c) building a data frame comprising a series of a determined number of secondary blocks from the plurality of previously generated secondary blocks, the frame thus built defining the radiofrequency signal to be transmitted.
An insertion ultrasonic sensor assembly , comprising: an elongated sensor body having a distal end , the distal end including two projections at the distal end, the two projections defining a measurement axis; a pair of ultrasonic transceivers , each transceiver of the pair mounted to a corresponding projection of the two projections, the pair of ultrasonic transceivers defining a measurement section therebetween, along the measurement axis; and a mounting assembly configured to couple to a wall of a container of flowing fluid so that the sensor body projects into the container having the distal end exposed to the flowing fluid, in manner that the measurement axis of the sensor body is oriented at an oblique angle relative to the flow of the fluid within the container. an elongated sensor body having a distal end , the distal end including two projections at the distal end, the two projections defining a measurement axis; a pair of ultrasonic transceivers , each transceiver of the pair mounted to a corresponding projection of the two projections, the pair of ultrasonic transceivers defining a measurement section therebetween, along the measurement axis; and a mounting assembly configured to couple to a wall of a container of flowing fluid so that the sensor body projects into the container having the distal end exposed to the flowing fluid, in manner that the measurement axis of the sensor body is oriented at an oblique angle relative to the flow of the fluid within the container.
An access method of multiple internal registers of a server , comprising: - a transmission of access commands from a user external to the server to a service processor of the server , via a communication protocol, IPMI, directly comprehensible by said service processor , - an access of said service processor , to said internal registers , via one or more access protocols (61 to 63) to said internal registers , - an automatic transformation of command lines transmitted by said user into said access commands in said communication protocol, IPMI, by one or more service modules , the language of said command lines being of a higher level than said communication protocol, IPMI, said service module or modules associating, to the names of said internal registers contained in said command lines , at least the corresponding addresses of said internal registers , in said access commands, characterized in that, upon said access of said service processor to said internal registers , controlled by said user, a possible risk of collision with a monitoring access, to said internal registers , controlled directly by said service processor in order to update a copy of the status of said internal registers , is managed by said service processor , the implementation of said monitoring access comprises at least the sequence of a reconfiguration step of a multiplexer located between the service processor and said internal registers and a step of reading at least one of said internal registers , and said risk of collision is avoided by putting on hold said access controlled by said user during all the implementation steps of said monitoring access which will be uninterrupted. - a transmission of access commands from a user external to the server to a service processor of the server , via a communication protocol, IPMI, directly comprehensible by said service processor , - an access of said service processor , to said internal registers , via one or more access protocols (61 to 63) to said internal registers , - an automatic transformation of command lines transmitted by said user into said access commands in said communication protocol, IPMI, by one or more service modules , the language of said command lines being of a higher level than said communication protocol, IPMI, said service module or modules associating, to the names of said internal registers contained in said command lines , at least the corresponding addresses of said internal registers , in said access commands,
A decanter centrifuge comprising: - a centrifugal bowl rotatable around a preferably horizontal axis of rotation including at least one liquid phase discharge outlet at one end and at least one solids discharge opening at the other end; - a scroll conveyor mounted substantially concentrically inside the bowl for rotation about said axis of rotation of said centrifugal bowl at a slightly different speed relative to the bowl for transporting the solid phase towards said solids discharge opening ; - said liquid phase discharge enabled through port members characterized in that - a set of bushings for solid discharge is provided to adjust the solid discharge diameter inside the bowl . - a centrifugal bowl rotatable around a preferably horizontal axis of rotation including at least one liquid phase discharge outlet at one end and at least one solids discharge opening at the other end; - a scroll conveyor mounted substantially concentrically inside the bowl for rotation about said axis of rotation of said centrifugal bowl at a slightly different speed relative to the bowl for transporting the solid phase towards said solids discharge opening ; - said liquid phase discharge enabled through port members characterized in that - a set of bushings for solid discharge is provided to adjust the solid discharge diameter inside the bowl .
A wound closure device comprising: a filamentary element having a proximal end and a distal end ; a stop element , in the form of a tab, coupled to the distal end of the filamentary element, the stop element having a leading edge area defined by thickness and a width, the leading edge area facing substantially perpendicular to a longitudinal axis of the filamentary element , and a total surface area; wherein the ratio of the leading edge area to the total surface area is less than 10%, and wherein the leading edge thickness includes a maximum thickness at a center and at first and second outer edges , and a minimum thickness at a location between the center and the first outer edge and between the center and the second outer edge. a filamentary element having a proximal end and a distal end ; a stop element , in the form of a tab, coupled to the distal end of the filamentary element, the stop element having a leading edge area defined by thickness and a width, the leading edge area facing substantially perpendicular to a longitudinal axis of the filamentary element , and a total surface area; wherein the ratio of the leading edge area to the total surface area is less than 10%, and wherein the leading edge thickness includes a maximum thickness at a center and at first and second outer edges , and a minimum thickness at a location between the center and the first outer edge and between the center and the second outer edge.
Oven cavity for a cooking appliance , wherein the oven cavity comprises - cavity walls defining a cooking chamber for cooking foodstuff, and - a central opening for placing foodstuff into the cooking chamber , wherein - at least one surface of at least one of the cavity walls is coated with a layer comprising aluminium, characterized in that said layer is coated with a first coating being made of an enamel having a softening point between 450°C and 560°C. - cavity walls defining a cooking chamber for cooking foodstuff, and - a central opening for placing foodstuff into the cooking chamber , wherein - at least one surface of at least one of the cavity walls is coated with a layer comprising aluminium, characterized in that said layer is coated with a first coating being made of an enamel having a softening point between 450°C and 560°C. - at least one surface of at least one of the cavity walls is coated with a layer comprising aluminium, characterized in that said layer is coated with a first coating being made of an enamel having a softening point between 450°C and 560°C.
A beverage product comprising: liquid; and 25-40 wt% enzymatically-treated pomace, wherein the enzymatically-treated pomace is derived from pomace selected from a group consisting of at least one fruit, at least one vegetable, or a combination thereof; wherein the beverage product has a viscosity measured with spindle #2 of a Brookfield viscometer at 20 r.p.m. of between 700-1800 cP at 20 °C; and wherein the beverage product comprises at least 1 wt% fiber. liquid; and 25-40 wt% enzymatically-treated pomace, wherein the enzymatically-treated pomace is derived from pomace selected from a group consisting of at least one fruit, at least one vegetable, or a combination thereof; wherein the beverage product has a viscosity measured with spindle #2 of a Brookfield viscometer at 20 r.p.m. of between 700-1800 cP at 20 °C; and wherein the beverage product comprises at least 1 wt% fiber.
A method for fabricating a microelectronic device with at least a transistor comprising a semiconductor structure provided with semiconductor bars positioned above one another, the method comprising the following steps: - forming, on a substrate , a stacked structure comprising an alternation of first bars (14 1 , 14 3 , 14 5 , 14 7 ) of a first material and second bars (14 2 , 14 4 , 14 6 ) of a second material, the second material being a semiconductor, the second bars (14 2 , 14 4 , 14 6 ) comprising lateral portions protruding with respect to the lateral portion(s) of the first bar(s), then, - surface doping the lateral portions of the structure, then - forming insulating inner spacers against the first bars (14 1 , 14 3 , 14 5 , 14 7 ), the forming of insulating inner spacers comprising depositing a dielectric material layer on the stacked structure then etching the dielectric material, the method further comprising, during etching of the layer of dielectric material or after etching of the dielectric material layer; a removal of a material thickness at the side face of the protuding lateral portions and so as to reveal end regions of the second semiconductor bars based on the second material, then - forming source and drain blocks via growth of semiconductor material at regions of ends of said lateral portions . - forming, on a substrate , a stacked structure comprising an alternation of first bars (14 1 , 14 3 , 14 5 , 14 7 ) of a first material and second bars (14 2 , 14 4 , 14 6 ) of a second material, the second material being a semiconductor, the second bars (14 2 , 14 4 , 14 6 ) comprising lateral portions protruding with respect to the lateral portion(s) of the first bar(s), then, - surface doping the lateral portions of the structure, then - forming insulating inner spacers against the first bars (14 1 , 14 3 , 14 5 , 14 7 ), the forming of insulating inner spacers comprising depositing a dielectric material layer on the stacked structure then etching the dielectric material, the method further comprising, during etching of the layer of dielectric material or after etching of the dielectric material layer; a removal of a material thickness at the side face of the protuding lateral portions and so as to reveal end regions of the second semiconductor bars based on the second material, then - forming source and drain blocks via growth of semiconductor material at regions of ends of said lateral portions .
Method for producing an electrical system comprising at least one device that comprises a support carrying, on a first face, at least one electronic component provided with at least one electrical connector , the method comprising: - a step of placing a cover over the component, said cover comprising at least one passage according to a dimension in thickness of the cover so as to form an access to the at least one electrical connector , - a step of forming a sealing seam such that the component is at least partially located inside a cavity delimited by the first face of the support , the first face of the cover and the sealing seam , said forming step being configured so that the sealing seam comprises a first seam at the at least one electrical connector , the first seam extending around the at least one passage in the form of a closed contour forming a continuous and solid wall laterally delimiting a through-space opening onto the at least one passage ; the method comprising a step of filling, after the forming step, with an electrically conductive material, the through-space opening by means of the at least one passage of the cover so as to establish electrical continuity between the electrically conductive material and the at least one electrical connector , forming a tapping , the sealing seam being dielectric. - a step of placing a cover over the component, said cover comprising at least one passage according to a dimension in thickness of the cover so as to form an access to the at least one electrical connector , - a step of forming a sealing seam such that the component is at least partially located inside a cavity delimited by the first face of the support , the first face of the cover and the sealing seam , said forming step being configured so that the sealing seam comprises a first seam at the at least one electrical connector , the first seam extending around the at least one passage in the form of a closed contour forming a continuous and solid wall laterally delimiting a through-space opening onto the at least one passage ;
A system comprising: a wet extrusion process machine configured to receive, mix, and convey a plurality of ingredients to an extrusion die , the plurality of ingredients including a protein powder, an oil, and water; and an electronic process control system (EPCS) configured to control the wet extrusion machine using a plurality of process settings effective to produce an extrusion die mixture which is forced into, passes through, and is output from the extrusion die; characterized in that the system comprises a supervisory machine intelligence control system (SMICS) operatively coupled with at least one of a direct fibrosity measurement (DFM) subsystem configured to directly measure one or more physical fibrosity parameters of the extrusion die mixture, and an indirect fibrosity measurement (IFM) subsystem configured to measure one or more extrusion process parameters associated with the extrusion die mixture; wherein the SMICS is configured to modify one or more of the plurality process settings in response to at least one of the one or more physical fibrosity parameters, and the one or more extrusion process parameters. a wet extrusion process machine configured to receive, mix, and convey a plurality of ingredients to an extrusion die , the plurality of ingredients including a protein powder, an oil, and water; and an electronic process control system (EPCS) configured to control the wet extrusion machine using a plurality of process settings effective to produce an extrusion die mixture which is forced into, passes through, and is output from the extrusion die; characterized in that the system comprises a supervisory machine intelligence control system (SMICS) operatively coupled with at least one of a direct fibrosity measurement (DFM) subsystem configured to directly measure one or more physical fibrosity parameters of the extrusion die mixture, and an indirect fibrosity measurement (IFM) subsystem configured to measure one or more extrusion process parameters associated with the extrusion die mixture; wherein the SMICS is configured to modify one or more of the plurality process settings in response to at least one of the one or more physical fibrosity parameters, and the one or more extrusion process parameters.