mhurhangee/patent-ind-claim-en huggingface dataset:
A signal power management circuit comprising: a rectifier configured to rectify a received radio frequency signal (RFS) and output a first rectified voltage (VDDU PRE); a first regulator configured to maintain the first rectified voltage (VDDU PRE) at a predetermined first voltage level; a second regulator configured to receive an output of the first regulator and maintain a second rectified voltage (VDDU) at a predetermined second voltage level, the first rectified voltage (VDDU PRE) differing from the second rectified voltage (VDDU); and a signal detector configured to receive the first rectified voltage (VDDU PRE) and the second rectified voltage (VDDU) and detect a signal component of the received radio frequency signal based on a difference between the first voltage level of the first rectified voltage (VDDU_PRE) and the second voltage level of the second rectified voltage (VDDU), characterized in that the signal detector includes: a first transistor (MP1) having a first terminal configured to receive the second rectified voltage; a second transistor (MP2) configured to share a gate terminal with the first transistor (MP1) and having a first terminal configured to receive the first rectified voltage (VDDU PRE); and a current mirror circuit configured to mirror a current that flows through the second transistor (MP2) and provide the mirrored current to a demodulator . a rectifier configured to rectify a received radio frequency signal (RFS) and output a first rectified voltage (VDDU PRE); a first regulator configured to maintain the first rectified voltage (VDDU PRE) at a predetermined first voltage level; a second regulator configured to receive an output of the first regulator and maintain a second rectified voltage (VDDU) at a predetermined second voltage level, the first rectified voltage (VDDU PRE) differing from the second rectified voltage (VDDU); and a signal detector configured to receive the first rectified voltage (VDDU PRE) and the second rectified voltage (VDDU) and detect a signal component of the received radio frequency signal based on a difference between the first voltage level of the first rectified voltage (VDDU_PRE) and the second voltage level of the second rectified voltage (VDDU), characterized in that the signal detector includes: a first transistor (MP1) having a first terminal configured to receive the second rectified voltage; a second transistor (MP2) configured to share a gate terminal with the first transistor (MP1) and having a first terminal configured to receive the first rectified voltage (VDDU PRE); and a current mirror circuit configured to mirror a current that flows through the second transistor (MP2) and provide the mirrored current to a demodulator . a first transistor (MP1) having a first terminal configured to receive the second rectified voltage; a second transistor (MP2) configured to share a gate terminal with the first transistor (MP1) and having a first terminal configured to receive the first rectified voltage (VDDU PRE); and a current mirror circuit configured to mirror a current that flows through the second transistor (MP2) and provide the mirrored current to a demodulator .
A loculus assembly for a columbarium system , said columbarium system comprising a support frame defining a plurality of loculus housings arranged as a matrix, wherein the loculus assembly is housable in a respective loculus housing , wherein the loculus assembly extends in length along an axis (X-X) and comprises: - a casing element extending along the axis (X-X) comprising a back wall substantially orthogonal to the axis (X-X), side walls extending substantially parallel to the axis (X-X), and an opening , axially opposite to the back wall , defined by opening edges at the axial ends of the side walls , wherein the casing element defines a cavity suitable for housing a coffin; - a cap element suitable for engaging the casing element closing the opening and thus the cavity ; wherein the casing element consists of a single component made of a plastic material belonging to the family of polymeric materials, preferably polyethylene or polypropylene, and wherein the cap element consists of a single component made of a plastic material, belonging to the family of polymeric materials, preferably polyethylene or polypropylene; wherein the locus assembly is characterized by the fact that the casing element and the cap element are obtained from a single body made of a material belonging to the family of polymeric materials, wherein said single body is obtained by rotational molding operations or by blow molding operations, wherein said single body is subdivided into the two components, i.e. the casing element and the cap element . - a casing element extending along the axis (X-X) comprising a back wall substantially orthogonal to the axis (X-X), side walls extending substantially parallel to the axis (X-X), and an opening , axially opposite to the back wall , defined by opening edges at the axial ends of the side walls , wherein the casing element defines a cavity suitable for housing a coffin; - a cap element suitable for engaging the casing element closing the opening and thus the cavity ;
Method of obtaining an indication about a fat content of milk, wherein at least one liquid droplet is made to fall down on a quantity of the milk, wherein the sound of an event of the liquid droplet hitting a surface of the quantity of the milk is detected so as to obtain an acoustic signal of the event, wherein the method comprises: performing an analysis of the acoustic signal by executing a routine thereby to yield an estimation of a value related to the fat content of the milk from the acoustic signal, wherein the analysis of the acoustic signal involves a determination of a frequency spectrum of the acoustic signal.
A method of manufacturing a container by liquid blow molding, the method comprising: a preform placement step (S1) of placing a preform (PF) in a mold ; a liquid blow molding step (S2) of supplying a pressurized liquid to inside of the preform (PF) placed in the mold , and molding the preform (PF) into a container body containing the liquid; a grasp and conveyance step (S3) of grasping the container body by a grasping device at a mold opening position of the mold , and conveying the container body grasped by the grasping device to a cup capable of containing a bottom part of the container body to hold the container body ; and a cup conveyance step (S4) of conveying the cup holding the container body to a capping position. a preform placement step (S1) of placing a preform (PF) in a mold ; a liquid blow molding step (S2) of supplying a pressurized liquid to inside of the preform (PF) placed in the mold , and molding the preform (PF) into a container body containing the liquid; a grasp and conveyance step (S3) of grasping the container body by a grasping device at a mold opening position of the mold , and conveying the container body grasped by the grasping device to a cup capable of containing a bottom part of the container body to hold the container body ; and a cup conveyance step (S4) of conveying the cup holding the container body to a capping position.
A method for automatically controlling a hybrid renewable energy facility having a plurality of power sources , the method comprising: operating, via a farm-level controller , the hybrid renewable energy facility at a first farm-level power set point; modifying, via the farm-level controller , the first power set point to a second farm-level power set point; in response to modifying the first power set point to the second farm-level power set point, generating one or more power change requests for individual controllers of the plurality of power sources ; and, generating a power output via the plurality of power sources so as to transfer power generation from one of the plurality of power sources to another to reach and maintain the second farm-level power set point, characterised in that generating the power output via the plurality of power sources further comprises: generating the power output via a first energy source of the plurality of energy sources , the first energy source having a first response rate; and, after the power output reaches the second farm-level power set point, generating at least a portion of the power output via a second energy source of the plurality of energy sources, the second energy source having a second response rate that is less than the first response rate. operating, via a farm-level controller , the hybrid renewable energy facility at a first farm-level power set point; modifying, via the farm-level controller , the first power set point to a second farm-level power set point; in response to modifying the first power set point to the second farm-level power set point, generating one or more power change requests for individual controllers of the plurality of power sources ; and, generating a power output via the plurality of power sources so as to transfer power generation from one of the plurality of power sources to another to reach and maintain the second farm-level power set point, characterised in that generating the power output via the plurality of power sources further comprises: generating the power output via a first energy source of the plurality of energy sources , the first energy source having a first response rate; and, after the power output reaches the second farm-level power set point, generating at least a portion of the power output via a second energy source of the plurality of energy sources, the second energy source having a second response rate that is less than the first response rate. generating the power output via a first energy source of the plurality of energy sources , the first energy source having a first response rate; and, after the power output reaches the second farm-level power set point, generating at least a portion of the power output via a second energy source of the plurality of energy sources, the second energy source having a second response rate that is less than the first response rate.
A method for manufacturing microperforated aluminum trays for foodstuff, comprising the steps of - in a perforating station , perforating a strip of aluminum foil unrolling from a roll with a plurality of microperforations, - in a molding station , separating a portion (P) of aluminum foil from the strip output from said perforating station and molding it into the shape of a tray , characterized in that , in said perforating station , the strip is intermittently punched, in synch with the operation of said molding station , at a desired region (R) between a punching plate provided with a plurality of needles and a counter plate suitable to be passed through by said needles , the pitch between two consecutive perforated regions (R), as determined by the intermittent punching action, corresponding to the length of said portion (P) or to a multiple thereof. - in a perforating station , perforating a strip of aluminum foil unrolling from a roll with a plurality of microperforations, - in a molding station , separating a portion (P) of aluminum foil from the strip output from said perforating station and molding it into the shape of a tray ,
A method for determining a cell upgrade metric, the method comprising: receiving samples comprising user session data from user equipment communicating within a cell ; obtaining training data from the samples by applying a filtering rule ; training an autoencoder using the samples ; combining encoder and code layers of the trained autoencoder with a classifier network to generate a combined classification network ; training the combined classification network using the training data ; using the trained combined classifier network to classify user session data within the same or a different cell and using a plurality of said classifications to determine the cell upgrade metric for said cell. receiving samples comprising user session data from user equipment communicating within a cell ; obtaining training data from the samples by applying a filtering rule ; training an autoencoder using the samples ; combining encoder and code layers of the trained autoencoder with a classifier network to generate a combined classification network ; training the combined classification network using the training data ; using the trained combined classifier network to classify user session data within the same or a different cell and using a plurality of said classifications to determine the cell upgrade metric for said cell.
A combination of a polyacrylamide gel for use in electrophoresis and a plastic cassette in which said polyacrylamide gel resides, the plastic cassette comprising: cassette walls enclosing a gel cavity and comprising a matrix plastic that is permeable to oxygen, and a material comprising an oxygen barrier layer covering walls of said cassette such that the oxygen barrier layer is in contact with said polyacrylamide gel, wherein the walls of the cassette are formed by injection molding and the oxygen barrier layer is applied to the walls of the cassette by in-mold decoration, wherein the material inhibits oxygen access to the polyacrylamide gel through the cassette walls. cassette walls enclosing a gel cavity and comprising a matrix plastic that is permeable to oxygen, and a material comprising an oxygen barrier layer covering walls of said cassette such that the oxygen barrier layer is in contact with said polyacrylamide gel, wherein the walls of the cassette are formed by injection molding and the oxygen barrier layer is applied to the walls of the cassette by in-mold decoration, wherein the material inhibits oxygen access to the polyacrylamide gel through the cassette walls.
An output control circuit for an electronic cigarette comprising a battery assembly and an atomizer , wherein the output control circuit further comprises a controller , a first switching circuit , a driving circuit and a second switching circuit , wherein the first switching circuit is electrically connected with the battery assembly, the controller and the atomizer; wherein the controller is electrically connected with the battery assembly; wherein the second switching circuit is electrically connected with the battery assembly, the driving circuit and the atomizer; wherein the first switching circuit, the atomizer and the second switching circuit are electrically connected in series and are configured such that the atomizer is switched on when the first switching circuit and the second switching circuit are switched on simultaneously; wherein the controller is adapted to control switching-on or switching-off the first switching circuit and to provide pulse-width modulation, PWM, signals to the driving circuit; and wherein the driving circuit is electrically connected with the controller and is configured for driving to switch on or switch off the second switching circuit based on the PWM signals; characterised in that the driving circuit comprises a trigger circuit , a monostable circuit and a PWM circuit ; the trigger circuit is electrically connected with the battery assembly, the controller, the monostable circuit and the PWM circuit; and the trigger circuit is configured for triggering the controller to decide whether or not the monostable circuit is provided with PWM signals. atomizer , wherein the output control circuit further comprises a controller , a first switching circuit , a driving circuit and a second switching circuit , wherein the first switching circuit is electrically connected with the battery assembly, the controller and the atomizer; wherein the controller is electrically connected with the battery assembly; wherein the second switching circuit is electrically connected with the battery assembly, the driving circuit and the atomizer; wherein the first switching circuit, the atomizer and the second switching circuit are electrically connected in series and are configured such that the atomizer is switched on when the first switching circuit and the second switching circuit are switched on simultaneously; wherein the controller is adapted to control switching-on or switching-off the first switching circuit and to provide pulse-width modulation, PWM, signals to the driving circuit; and wherein the driving circuit is electrically connected with the controller and is configured for driving to switch on or switch off the second switching circuit based on the PWM signals; characterised in that the driving circuit comprises a trigger circuit , a monostable circuit and a PWM circuit ; the trigger circuit is electrically connected with the battery assembly, the controller, the monostable circuit and the PWM circuit; and the trigger circuit is configured for triggering the controller to decide whether or not the monostable circuit is provided with PWM signals.
A fluidtight tank, of which at least one wall comprises a fluidtight membrane intended to be in contact with product contained in the tank, and a plane support adjacent to the membrane, in which tank the membrane comprises at least one corrugated metal sheet made of stainless steel of plane, rectangular overall shape, the corrugated metal sheet having a first series of mutually parallel corrugations and a second series of mutually parallel corrugations which run transverse to the corrugations of the first series and plane portions arranged between the corrugations, wherein the plane portions of the corrugated metal sheet rest on the plane support, characterized in that the fluidtight tank comprises a reinforcing element inserted under a corrugation of the first series between the membrane and the support, in which the reinforcing element has a length that corresponds to the distance between two corrugations of the second series.
A freeze-dried soluble coffee product produced by the process of: i) forming a concentrated coffee extract; ii) foaming and pre- freezing the concentrated coffee extract to form a foamed and pre- frozen coffee intermediate; iii) freezing the foamed and pre- frozen coffee intermediate to form a frozen coffee intermediate; iv) grinding and sieving the frozen coffee intermediate to form a ground coffee intermediate; v) drying the ground coffee intermediate to form the freeze-dried soluble coffee product; wherein prior to step ii) and/or step iii) a milled and blended coffee intermediate is incorporated; wherein the milled and blended coffee intermediate has a dry Helos particle size distribution D90 of less than or equal to 30 microns determined as disclosed in the description, and comprises 10 to 80% by dry weight roasted ground coffee and 20 to 90% by dry weight soluble coffee; and wherein the freeze-dried soluble coffee product comprises 5 to 30% by dry weight roasted ground coffee and 70 to 95% by dry weight soluble coffee. i) forming a concentrated coffee extract; ii) foaming and pre- freezing the concentrated coffee extract to form a foamed and pre- frozen coffee intermediate; iii) freezing the foamed and pre- frozen coffee intermediate to form a frozen coffee intermediate; iv) grinding and sieving the frozen coffee intermediate to form a ground coffee intermediate; v) drying the ground coffee intermediate to form the freeze-dried soluble coffee product; wherein prior to step ii) and/or step iii) a milled and blended coffee intermediate is incorporated; wherein the milled and blended coffee intermediate has a dry Helos particle size distribution D90 of less than or equal to 30 microns determined as disclosed in the description, and comprises 10 to 80% by dry weight roasted ground coffee and 20 to 90% by dry weight soluble coffee; and wherein the freeze-dried soluble coffee product comprises 5 to 30% by dry weight roasted ground coffee and 70 to 95% by dry weight soluble coffee.
A laminated material for forming a flexible container , the laminated material comprising an inner layer , an outer layer and an intermediate barrier layer , the barrier layer comprising a SiOx barrier and a carrier layer carrying said SiOx barrier , said carrier layer being made of polymer suitable for lamination process, the inner layer and the outer layer both comprising PE, a percentage in mass of PE within the laminated material being set above a given threshold to adjust the permeability of the laminated material , said threshold being 80%.
A sport ball (10; 610) comprising: a casing (20; 620) having a plurality of panels (21; 625, 626) that form an external exposed surface of the sport ball (10; 610), wherein adjacent ones of the panels (21; 625, 626) abut one another at a plurality of seams (22; 622), wherein each of the plurality of seams (22; 622) includes a first one of the panels (21; 625) having a first internal surface and a first edge (29; 632), and a second one of the panels (21; 626) having a second internal surface and a second edge (29; 633); and a reinforcing strip (70; 170) affixed to the first and second internal surfaces with a thermal bond, wherein the reinforcing strip (70; 170) extends across an interface between the first one of the panels (21; 625) and the second one of the panels (21; 626), characterized in that one of edges (29; 632) defines a projection (28; 624), and the projection (28; 624) extends outward and under the other edge (29; 632). a first one of the panels (21; 625) having a first internal surface and a first edge (29; 632), and a second one of the panels (21; 626) having a second internal surface and a second edge (29; 633); and a reinforcing strip (70; 170) affixed to the first and second internal surfaces with a thermal bond, wherein the reinforcing strip (70; 170) extends across an interface between the first one of the panels (21; 625) and the second one of the panels (21; 626), characterized in that one of edges (29; 632) defines a projection (28; 624), and the projection (28; 624) extends outward and under the other edge (29; 632).