mhurhangee/patent-ind-claim-en huggingface dataset:
A display module comprising: a display panel comprising an inorganic light emitting element and a pixel circuit configured to provide a driving current to the inorganic light emitting element; and a driver configured to drive the pixel circuit, wherein the pixel circuit comprises a pulse amplitude modulation PAM circuit configured to control an amplitude of the driving current based on an applied PAM data voltage, and a pulse width modulation PWM circuit configured to control a pulse width of the driving current based on an applied PWM data voltage, and wherein the driver comprises a source driver circuit configured to apply the PAM data voltage to the pulse amplitude modulation PAM circuit and to apply the PWM data voltage to the pulse width modulation PWM circuit; wherein the driver comprises a power supply circuit configured to provide, to the PAM circuit through a first line, a first power supply voltage for driving the PAM circuit, and provide, to the PWM circuit through a second line, a second power supply voltage for driving the PWM circuit, wherein the second power supply voltage is lower than the first power supply voltage. a display panel comprising an inorganic light emitting element and a pixel circuit configured to provide a driving current to the inorganic light emitting element; and a driver configured to drive the pixel circuit, wherein the pixel circuit comprises a pulse amplitude modulation PAM circuit configured to control an amplitude of the driving current based on an applied PAM data voltage, and a pulse width modulation PWM circuit configured to control a pulse width of the driving current based on an applied PWM data voltage, and wherein the driver comprises a source driver circuit configured to apply the PAM data voltage to the pulse amplitude modulation PAM circuit and to apply the PWM data voltage to the pulse width modulation PWM circuit; wherein the driver comprises a power supply circuit configured to provide, to the PAM circuit through a first line, a first power supply voltage for driving the PAM circuit, and provide, to the PWM circuit through a second line, a second power supply voltage for driving the PWM circuit, wherein the second power supply voltage is lower than the first power supply voltage.
A cell identifier allocation method for allocating a cell identifier to a target cell of a target base station (10-1) from among a plurality of base stations in a mobile communication system, comprising: an identification step (A23) of identifying, , a first cell that has the greatest reception power or the lowest propagation loss, from among the cells of the adjacent base stations; and, an allocation step (A24) of allocating, , a cell identifier in which a code sequence number of the synchronization signal is different from that of the first cell and that has not been allocated to any of the cells of the adjacent base stations, to the target cell, wherein each of the plural base stations forms a plurality of cells, and the allocation step includes: identifying (B4) a second cell that has the lowest reception power or the greatest propagation loss, from among the plural cells of the adjacent base station that forms the first cell; and, allocating (B5) the cell identifier, in which the code sequence number of the synchronization signal is the same as that of the second cell and that has not been allocated to any of the cells of the adjacent base stations, to the target cell, wherein the method is performed either by the target base station or by a maintenance server included in the system, when the method is performed by the target base station, the method further includes a measurement step wherein the target base station receives signal inside the target cell from each of the cells of the adjacent base stations and measures the reception power or propagation loss of the received signal; and when the method is performed by the maintenance server, the method further includes a step of obtaining information on a reception power or propagation loss of signal inside the target cell from each cell of adjacent base station in neighborhood of the target base station, from a maintenance terminal . identifying (B4) a second cell that has the lowest reception power or the greatest propagation loss, from among the plural cells of the adjacent base station that forms the first cell; and, allocating (B5) the cell identifier, in which the code sequence number of the synchronization signal is the same as that of the second cell and that has not been allocated to any of the cells of the adjacent base stations, to the target cell,
An engine system comprising a hydrogen combustion engine and an exhaust aftertreatment system, EATS , configured to reduce emissions of the engine exhausts, wherein the EATS comprises: - an exhaust gas inlet for receiving engine exhaust from the hydrogen combustion engine ; - a plurality of emission reducing modules arranged downstream of the exhaust gas inlet and being configured to reduce emissions of the engine exhausts, the plurality of emission reducing modules comprising at least: - a first emission reducing module with a porous substrate having an inlet face and an outlet face , the porous substrate comprising inlet channels extending from the inlet face , and outlet channels extending from the outlet face ; the inlet channels and the outlet channels being separated by a plurality of filter walls having a porous structure; the porous structure of the filter walls and/or the outlet channels of the porous substrate being loaded with a selective catalyst reduction, SCR, catalyst coating ; - a second emission reducing module being a selective catalyst reduction, SCR, catalyst unit; wherein one of the first and second emission reducing modules is arranged as the first occurring emission reducing module of the EATS downstream of the exhaust gas inlet , characterized by that the inlet channels of the porous substrate is loaded with a powder coating configured to filter particles from the engine exhaust. - an exhaust gas inlet for receiving engine exhaust from the hydrogen combustion engine ; - a plurality of emission reducing modules arranged downstream of the exhaust gas inlet and being configured to reduce emissions of the engine exhausts, the plurality of emission reducing modules comprising at least: - a first emission reducing module with a porous substrate having an inlet face and an outlet face , the porous substrate comprising inlet channels extending from the inlet face , and outlet channels extending from the outlet face ; the inlet channels and the outlet channels being separated by a plurality of filter walls having a porous structure; the porous structure of the filter walls and/or the outlet channels of the porous substrate being loaded with a selective catalyst reduction, SCR, catalyst coating ; - a second emission reducing module being a selective catalyst reduction, SCR, catalyst unit; - a first emission reducing module with a porous substrate having an inlet face and an outlet face , the porous substrate comprising inlet channels extending from the inlet face , and outlet channels extending from the outlet face ; the inlet channels and the outlet channels being separated by a plurality of filter walls having a porous structure; the porous structure of the filter walls and/or the outlet channels of the porous substrate being loaded with a selective catalyst reduction, SCR, catalyst coating ; - a second emission reducing module being a selective catalyst reduction, SCR, catalyst unit;
A compound of formula (I), a stereoisomer thereof or a pharmaceutically acceptable salt thereof, wherein, T is -O- or -N(R a )-; R a is H or C 1-3 alkyl; R 1 is triazolyl or tetrazolyl, wherein the triazolyl and tetrazolyl are optionally substituted with R b ; R 2 is H or F; R 3 is H, F, Cl, Br, CN, C 1-6 alkyl, C 1-6 alkoxy or C 1-6 alkylamino; R 4 and R 5 are each independently H, F, Cl, Br, I, C 1-3 alkyl, C 1-3 haloalkyl or C 1-3 alkoxy; R 6 is C 1-3 alkyl optionally substituted with 1, 2 or 3 R c ; R b and R c are each independently F, Cl, Br, I, C 1-3 alkyl, C 1-3 haloalkyl, C 1-3 alkoxy or C 3-4 cycloalkyl. T is -O- or -N(R a )-; R a is H or C 1-3 alkyl; R 1 is triazolyl or tetrazolyl, wherein the triazolyl and tetrazolyl are optionally substituted with R b ; R 2 is H or F; R 3 is H, F, Cl, Br, CN, C 1-6 alkyl, C 1-6 alkoxy or C 1-6 alkylamino; R 4 and R 5 are each independently H, F, Cl, Br, I, C 1-3 alkyl, C 1-3 haloalkyl or C 1-3 alkoxy; R 6 is C 1-3 alkyl optionally substituted with 1, 2 or 3 R c ; R b and R c are each independently F, Cl, Br, I, C 1-3 alkyl, C 1-3 haloalkyl, C 1-3 alkoxy or C 3-4 cycloalkyl.
A method for filtering particles from air comprising the steps of; providing a flow of air laden with a water mist and containing particles that are to be filtered, passing the air flow through a filtration medium, said medium having an upstream side and a downstream side relative to the flow of air and comprising a nanoweb layer downstream of and in fluid contact with a hydrophobic nonwoven web, wherein the nanoweb layer has a basis weight of at least 2 grams per m 2 , wherein the ratio of the mean flow pore size of the hydrophobic web to that of the nanoweb is between 1 and 10, and wherein the passing step is carried out such that the hydrophobic nonwoven web faces the air flow.
A fluid flow regulation assembly comprising - movable parts for being actively mechanically driven, wherein the movable parts include at least one fluid flow regulating body for regulating a fluid flow and a rotor of a motor for driving the regulating body, and - power electronics for controlling the motor, wherein the movable parts and/or the power electronics are a source of vibration, wherein the fluid flow regulation assembly further comprises - static parts being exposed to travelling vibrations originating from the source of vibration, wherein the static parts include at least one of the group comprising: a pump housing , a valve housing, a motor housing , a pump base and an electronics housing ; wherein the static parts comprise a structural element with at least one vibration attenuation section for attenuating vibrations that - originate from the source of vibration, - travel along said structural element , and - have a vibration frequency above a pre-determined minimum vibration frequency (f min ), characterized in that the at least one vibration attenuation section has a material thickness decay profile in travelling direction of the vibrations. - movable parts for being actively mechanically driven, wherein the movable parts include at least one fluid flow regulating body for regulating a fluid flow and a rotor of a motor for driving the regulating body, and - power electronics for controlling the motor, wherein the movable parts and/or the power electronics are a source of vibration, wherein the fluid flow regulation assembly further comprises - static parts being exposed to travelling vibrations originating from the source of vibration, wherein the static parts include at least one of the group comprising: a pump housing , a valve housing, a motor housing , a pump base and an electronics housing ; wherein the static parts comprise a structural element with at least one vibration attenuation section for attenuating vibrations that - originate from the source of vibration, - travel along said structural element , and - have a vibration frequency above a pre-determined minimum vibration frequency (f min ),
A method for mixing two video streams , having an encoding of a first video stream , in which a chronological sequence of images is generated, characterized in that during the generation of the sequence of images, a synchronization signal (s1) is used, on which the encoding of a second video stream , which is independent of the first video stream , is algorithmically based in the same manner as in the encoding of the first video stream , in that to achieve the synchronization of input video streams and thus to improve an output video stream , during the mixing, the number of the images in an incoming image group is shortened and/or lengthened by a respective computed offset, so that the computed offset is eliminated, in that the sequence of images comprises chronologically prediction-coded images, in particular P images, and non-chronologically prediction-coded images, in particular I images, and in that the synchronization signal (s1) is used for the synchronization of the positions of non-prediction-coded images, in particular I images, in the two sequences of images of the two independent video streams.
An aqueous emulsion comprising: a) from 50% to 60% of an organic phase dispersed in an aqueous phase, said organic phase containing a mixture including from 24% to 30%, calculated with respect to the final emulsion, of ethylene-vinyl acetate copolymers and/or polyalkyl(meth)acrylates, indicated as polymer component, and a high-boiling organic solvent, or a mixture of said solvents; b) a primary emulsifier at a concentration higher than or equal to 0.1% and lower than or equal to 3% by weight, calculated with respect to the final emulsion; c) from 37% to 47% of an aqueous phase; wherein the ratio between said polymer component and said organic solvent in the final aqueous emulsion is at least 1/1 and where the organic solvent and any polymer of the polymer component have a Hildebrand solubility parameter δ such that, the difference (δ solvent -δ polymer ) is lower than 2 in absolute value for any polymer of the polymer component. a) from 50% to 60% of an organic phase dispersed in an aqueous phase, said organic phase containing a mixture including from 24% to 30%, calculated with respect to the final emulsion, of ethylene-vinyl acetate copolymers and/or polyalkyl(meth)acrylates, indicated as polymer component, and a high-boiling organic solvent, or a mixture of said solvents; b) a primary emulsifier at a concentration higher than or equal to 0.1% and lower than or equal to 3% by weight, calculated with respect to the final emulsion; c) from 37% to 47% of an aqueous phase;
A communications system, comprising an image recording apparatus recording images at a first location (A) and generating image data therefrom, a data transmission apparatus transmitting the generated image data from the first location via at least one transmission path to a second location (B) remote from the first location, a first receiver apparatus receiving the transmitted image data at the second location, and characterized in that the at least one transmission path is a transmission path selected from a plurality of selectable transmission paths and the image data present at the second location are overall image data, which are transmitted to the second location in real time, stitched in synchronized fashion by an image synthesis apparatus from at least two frame data generated at the same time by in each case one of at least two cameras of the image recording apparatus, and represent the image of a solid angle region (Ω g ) spanned with respect to a common center (Z) of the at least two cameras that generate the frame data by a horizontal angle range (Δφ), related to the direction of gravity, of at least 7π/6 and a vertical angle range (Δθ), comprising the horizontal (π/2) in particular, of at least π/3. with the radially outermost lens of the respective camera having a distance (r) from the common center of no more than 40 cm. an image recording apparatus recording images at a first location (A) and generating image data therefrom, a data transmission apparatus transmitting the generated image data from the first location via at least one transmission path to a second location (B) remote from the first location, a first receiver apparatus receiving the transmitted image data at the second location, and characterized in that the at least one transmission path is a transmission path selected from a plurality of selectable transmission paths and the image data present at the second location are overall image data, which are transmitted to the second location in real time, stitched in synchronized fashion by an image synthesis apparatus from at least two frame data generated at the same time by in each case one of at least two cameras of the image recording apparatus, and represent the image of a solid angle region (Ω g ) spanned with respect to a common center (Z) of the at least two cameras that generate the frame data by a horizontal angle range (Δφ), related to the direction of gravity, of at least 7π/6 and a vertical angle range (Δθ), comprising the horizontal (π/2) in particular, of at least π/3. with the radially outermost lens of the respective camera having a distance (r) from the common center of no more than 40 cm.
A neuro-stimulation device comprising: - a neuroprobe attached to a first support , the neuroprobe comprising a plurality of grating couplers for coupling light into the neuroprobe ; and - a plurality of optical sources for providing an optical stimulation signal, mounted on a second support ; and - at least one means for detachably attaching the first support to the second support ; and wherein the position of each optical source is aligned with the position of a different grating coupler to allow light emitted from each optical source to be received by a grating coupler ; and wherein the neuroprobe comprises a plurality of optical stimulation sites , each optical stimulation site being optically connected to a different grating coupler . - a neuroprobe attached to a first support , the neuroprobe comprising a plurality of grating couplers for coupling light into the neuroprobe ; and - a plurality of optical sources for providing an optical stimulation signal, mounted on a second support ; and - at least one means for detachably attaching the first support to the second support ; and
Electric power equipment, comprising: a main body ; a work unit and wheels provided on the main body ; a travel electric motor provided on the main body for driving the rear wheels ; a work unit electric motor provided on the main body for driving the work unit ; a handle including a longitudinal member extending rearward from the main body ; and a speed setting device provided on the handle for setting a rotational speed of the work unit electric motor , characterized in that the speed setting device comprises: multiple switches for setting mutually different rotational speeds; and multiple operation buttons respectively provided for the multiple switches , wherein the multiple operation buttons have operation parts provided with mutually different sizes. a main body ; a work unit and wheels provided on the main body ; a travel electric motor provided on the main body for driving the rear wheels ; a work unit electric motor provided on the main body for driving the work unit ; a handle including a longitudinal member extending rearward from the main body ; and a speed setting device provided on the handle for setting a rotational speed of the work unit electric motor , characterized in that the speed setting device comprises: multiple switches for setting mutually different rotational speeds; and multiple operation buttons respectively provided for the multiple switches , wherein the multiple operation buttons have operation parts provided with mutually different sizes. multiple switches for setting mutually different rotational speeds; and multiple operation buttons respectively provided for the multiple switches , wherein the multiple operation buttons have operation parts provided with mutually different sizes.
A method for controlling a communication (D) between a vehicle and a backend device in a vehicle-to-cloud-system , the method comprising: 1) sending a message (m) from the vehicle to the backend device , 2) setting a timer (t) for receiving an acknowledgment (a) from the backend device at the vehicle that the message (m) was successfully received, 3) resending the message (m) from the vehicle to the backend device , when no acknowledgment (a) from the backend device was received at the vehicle or when an acknowledgment (a) from the backend device does not correspond to the message (m) sent in step 1), wherein the method steps 2) and 3) have different schedules (S) according to different settings (A), and wherein the different settings (A) comprise privacy settings (P). 1) sending a message (m) from the vehicle to the backend device , 2) setting a timer (t) for receiving an acknowledgment (a) from the backend device at the vehicle that the message (m) was successfully received, 3) resending the message (m) from the vehicle to the backend device , when no acknowledgment (a) from the backend device was received at the vehicle or when an acknowledgment (a) from the backend device does not correspond to the message (m) sent in step 1), wherein the method steps 2) and 3) have different schedules (S) according to different settings (A), and wherein the different settings (A) comprise privacy settings (P).
Presentation form for the purpose of removing at least one adhesive-means arrangement which is effective on two sides, comprising: (a) at least one backing sheet with a front side having an anti-adhesion coating, (b) at least one adhesive-means arrangement arranged on the backing sheet and (c) a folding sheet which has 4n sides and the front face and back face of which in the unfolded form are each subdivided into 2n sides by n fold lines, wherein n is a natural number ≥ 1, wherein the back side, which is opposite to the coated front side , of the backing sheet is connected permanently to a front-side face region of the unfolded folding sheet by a connecting means and the projection of each backing sheet lies within one side of the folding sheet having 4n sides, wherein the adhesive-means arrangement comprises an adhesive means over its surface area which is tacky on its two main faces and a protective film which largely entirely covers its first main face, and the adhesive-means arrangement adheres detachably to the coated front side of the backing sheet via the second main face of the adhesive means , characterized in that a first fold line of the n fold lines divides the unfolded folding sheet in the form of a bisecting fold into two half-faces on the front side and is in the form of a continuous valley fold from the perspective of the unfolded front side of the folding sheet , and the further (n-1) fold lines intersect the first fold line at a right angle and the (n-1) further fold lines are designed in certain regions as valley folds and in certain regions as mountain folds, wherein the fold direction of the further (n-1) fold lines respectively changes at the intersection point. (a) at least one backing sheet with a front side having an anti-adhesion coating, (b) at least one adhesive-means arrangement arranged on the backing sheet and (c) a folding sheet which has 4n sides and the front face and back face of which in the unfolded form are each subdivided into 2n sides by n fold lines, wherein n is a natural number ≥ 1, characterized in that a first fold line of the n fold lines divides the unfolded folding sheet in the form of a bisecting fold into two half-faces on the front side and is in the form of a continuous valley fold from the perspective of the unfolded front side of the folding sheet , and the further (n-1) fold lines intersect the first fold line at a right angle and the (n-1) further fold lines are designed in certain regions as valley folds and in certain regions as mountain folds, wherein the fold direction of the further (n-1) fold lines respectively changes at the intersection point.