mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: obtaining N phases of a local clock signal generated by a local oscillator and M phases of a reference clock signal, wherein M is an integer greater than or equal to 1 and N is an integer greater than or equal to 2, and wherein each phase of the N phases of the local clock signal is obtained via a respective tap of a plurality of taps of the local oscillator; generating a plurality of partial phase error signals, wherein each partial phase error signal is an analog signal generated using a respective charge pump, the respective charge pump receiving respective charge pump control signals generated by a respective comparison between a respective phase of the M phases of the reference clock signal to a respective phase of the N phases of the local clock signal; and generating a composite phase error signal by summing the plurality of partial phase error signals, and responsively adjusting a fixed phase of the local oscillator using the composite phase error signal. obtaining N phases of a local clock signal generated by a local oscillator and M phases of a reference clock signal, wherein M is an integer greater than or equal to 1 and N is an integer greater than or equal to 2, and wherein each phase of the N phases of the local clock signal is obtained via a respective tap of a plurality of taps of the local oscillator; generating a plurality of partial phase error signals, wherein each partial phase error signal is an analog signal generated using a respective charge pump, the respective charge pump receiving respective charge pump control signals generated by a respective comparison between a respective phase of the M phases of the reference clock signal to a respective phase of the N phases of the local clock signal; and generating a composite phase error signal by summing the plurality of partial phase error signals, and responsively adjusting a fixed phase of the local oscillator using the composite phase error signal.
A rotatable mixing member for pasteurizing machines and the like adapted to be accommodated in axially rotatable manner inside the working tank of a pasteurizing machine or the like , for mixing and homogenizing milk or other liquids contained in said working tank ; the rotatable mixing member comprising: an oblong central hub adapted to be driven into rotation around the longitudinal axis (L) thereof; a cup-shaped body , which is fitted with clearance on the oblong central hub and is provided, on the peripheral wall, with a series of small fat-breaking through-openings which are shaped and dimensioned so as to cause the breakdown of fat globules in suspension in the milk or other liquid; and an impeller which is fitted on the oblong central hub in angularly rigid manner and with the capability of moving axially along said oblong central hub between a first operating position in which the impeller is at a predetermined minimum distance from the bottom/ crown of the cup-shaped body , and a second operating position in which the impeller is at a predetermined maximum distance from the bottom/crown of the cup-shaped body ; the rotatable mixing member being characterised in that said impeller is mechanically coupled to the oblong central hub so as to arrange itself in the first operating position when the oblong central hub rotates in a clockwise direction, and to arrange itself in the second operating position when the oblong central hub rotates in an anticlockwise direction, or vice versa. the rotatable mixing member comprising: an oblong central hub adapted to be driven into rotation around the longitudinal axis (L) thereof; a cup-shaped body , which is fitted with clearance on the oblong central hub and is provided, on the peripheral wall, with a series of small fat-breaking through-openings which are shaped and dimensioned so as to cause the breakdown of fat globules in suspension in the milk or other liquid; and an impeller which is fitted on the oblong central hub in angularly rigid manner and with the capability of moving axially along said oblong central hub between a first operating position in which the impeller is at a predetermined minimum distance from the bottom/ crown of the cup-shaped body , and a second operating position in which the impeller is at a predetermined maximum distance from the bottom/crown of the cup-shaped body ; the rotatable mixing member being characterised in that said impeller is mechanically coupled to the oblong central hub so as to arrange itself in the first operating position when the oblong central hub rotates in a clockwise direction, and to arrange itself in the second operating position when the oblong central hub rotates in an anticlockwise direction, or vice versa.
Device for opening and closing folding doors , comprising one side of a first door hinged by means of hinges to the shoulder of a cabinet , the opposite side of the same door being hinged to a second door by means of hinges ; a shaped guide, formed by a rectilinear section joined, at the opposite ends, to corresponding arched or curvilinear guide sections and , respectively; a guide arm hinged, at one end, to the corresponding end of said door and bearing, on the opposite end, sliding elements of said arm inside said shaped guide; said guide arm comprising a tab positioned superimposed and sliding longitudinally with respect to a tab ; said device being characterized in that said tab has holes which are slotted in the longitudinal direction of said tab , a slot also being oriented crosswise with respect to said longitudinal axis.
Electrohydraulic pressure control device for vehicle brake systems, comprising at least one electronic control unit , at least one hydraulic unit and at least one electric motor for driving a hydraulic pump, wherein the electronic control unit is mechanically connected to the hydraulic unit and is sealed off from an external environment in at least one zone of connection to the hydraulic unit by means of a circumferential, in particular flexible, sealing material , and the electronic control unit comprises a housing and at least one plug having a plurality of contact pins and/or at least one connection line for electrical contacting by means of at least one connection plug, wherein the plug is arranged on a side of the housing of the electronic control unit which faces away from the hydraulic unit , and the housing of the electronic control unit surrounds at least one valve coil for controlling hydraulic valves and at least one circuit board for holding electrical and/or electronic components, wherein the contact pins and the valve coil and at least one terminal of the electric motor are each connected in an electrically conductive manner to the circuit board , characterized in that the sealing material extends along an edge of the substantially cuboid-shaped hydraulic unit , wherein the edge is formed by a cuboid face of the hydraulic unit which faces the electronic control unit and at least one cuboid face of the hydraulic unit which does not face the electronic control unit , and the sealing material at least partially covers both cuboid faces in the zone of connection and/or sealing zone.
An air processing device comprising: a casing in which air flows; a tray for receiving water; a discharge portion for discharging water in the tray; an imaging unit and a processing unit characterized in that the imaging unit acquires a plurality of image data of the tray as a predetermined object to be imaged in the casing ; and the processing unit is configured to determine a dirt of the tray or an abnormality of the discharge portion as the state of at least one predetermined part in the casing on the basis of a change in the plurality of image data acquired by the imaging unit . a casing in which air flows; a tray for receiving water; a discharge portion for discharging water in the tray; an imaging unit and a processing unit characterized in that the imaging unit acquires a plurality of image data of the tray as a predetermined object to be imaged in the casing ; and the processing unit is configured to determine a dirt of the tray or an abnormality of the discharge portion as the state of at least one predetermined part in the casing on the basis of a change in the plurality of image data acquired by the imaging unit .
A method for providing a fast-cure protective barrier coating to interior surfaces of lead based water service pipes to reduce lead levels leaching from water service pipes, comprising the steps of: providing water service pipes formed from lead having internal diameters from at least 12 mm; providing the water service pipes with ends having fittings where the pipe ends within the fittings are exposed to drinking water passing through the water service pipes; providing a 2-part thermoset resin with a base resin and a base-curing agent in which the curing agent incorporates the use of amine adducts where the adducts are phenol free and plasticiser free; coating interior surfaces of the water service pipes exposed to drinking water with a leak sealant barrier coating of the 2-part thermoset resin in a single pass run coating operation; and curing the 2-part thermoset resin in at least 1 to 4 hours to return the water service pipes to service, wherein the cured 2-part thermoset resin on the inside surfaces of the water pipes reduces lead levels leaching into the drinking water from the water service pipes to less than 10 μg/L (10 ppb). providing water service pipes formed from lead having internal diameters from at least 12 mm; providing the water service pipes with ends having fittings where the pipe ends within the fittings are exposed to drinking water passing through the water service pipes; providing a 2-part thermoset resin with a base resin and a base-curing agent in which the curing agent incorporates the use of amine adducts where the adducts are phenol free and plasticiser free; coating interior surfaces of the water service pipes exposed to drinking water with a leak sealant barrier coating of the 2-part thermoset resin in a single pass run coating operation; and curing the 2-part thermoset resin in at least 1 to 4 hours to return the water service pipes to service, wherein the cured 2-part thermoset resin on the inside surfaces of the water pipes reduces lead levels leaching into the drinking water from the water service pipes to less than 10 μg/L (10 ppb).
A nanoscale temperature detector comprising - a diamond sensing probe with a sensing tip having a plurality of colour centres , whose emission count rate show temperature-sensitive features, wherein the diamond sensing probe is configured to optically guide a light emitted by the colour centres, and a - mounting structure for connecting said sensor probe to a detector system, characterized - in that the sensing tip has a curvature radius (R) of less than 100 nanometres, or less than 10 nanometres, or less than 1 nanometre, - in that the diamond sensing probe has a transverse dimension of at least 200 nanometres, and - in that the nanoscale temperature detector further comprises a thermal isolation barrier for thermally decoupling the sensing probe from a detector system. - a diamond sensing probe with a sensing tip having a plurality of colour centres , whose emission count rate show temperature-sensitive features, wherein the diamond sensing probe is configured to optically guide a light emitted by the colour centres, and a - mounting structure for connecting said sensor probe to a detector system, characterized - in that the sensing tip has a curvature radius (R) of less than 100 nanometres, or less than 10 nanometres, or less than 1 nanometre, - in that the diamond sensing probe has a transverse dimension of at least 200 nanometres, and - in that the nanoscale temperature detector further comprises a thermal isolation barrier for thermally decoupling the sensing probe from a detector system.
A method of operating an electronic memory apparatus according to any of the claims 9 to 14, the method comprising: receiving, at a controller , a first set of bits of an input vector from a host device; comparing a pattern weight of at least a portion of the first set of bits that have a first logic value to a range, the range based at least in part on a factor stored at the controller; allocating a block of memory to store a quantity of bits comprising one or more flip-bits and the first set of bits based at least in part on the comparing; generating a second set of bits , the generating comprising dividing the first set of bits into a plurality of bit segments and inverting a logic state of a set of bits of at least one bit segment of the plurality of bit segments based at least in part on the one or more flip-bits, wherein a quantity of the plurality of bit segments is based at least in part on the factor and the generated second set of bits comprises each bit segment of the plurality of bit segments and the one or more flip-bits based at least in part on the inverting ; and initiating storing the generated second set of bits in the block of memory. receiving, at a controller , a first set of bits of an input vector from a host device; comparing a pattern weight of at least a portion of the first set of bits that have a first logic value to a range, the range based at least in part on a factor stored at the controller; allocating a block of memory to store a quantity of bits comprising one or more flip-bits and the first set of bits based at least in part on the comparing; generating a second set of bits , the generating comprising dividing the first set of bits into a plurality of bit segments and inverting a logic state of a set of bits of at least one bit segment of the plurality of bit segments based at least in part on the one or more flip-bits, wherein a quantity of the plurality of bit segments is based at least in part on the factor and the generated second set of bits comprises each bit segment of the plurality of bit segments and the one or more flip-bits based at least in part on the inverting ; and initiating storing the generated second set of bits in the block of memory.
A printing plate comprising: a body of magnetizable composite material , having a plurality of regions along a surface thereof; wherein a first region along the surface of the body of magnetizable composite material is magnetized such that the first region provides a first magnetic field having a predetermined direction and a second region along the surface of the body of magnetizable composite material , surrounding the first region , is either unmagnetized or magnetized differently from the first region , so as to provide a contrast in magnetic field there from characterized in that the first region is magnetized using a shaped magnetizing die having an outwardly facing surface in a form of an image, logo or indicia such that the first region has the form of the image, logo or indicia. a body of magnetizable composite material , having a plurality of regions along a surface thereof; wherein a first region along the surface of the body of magnetizable composite material is magnetized such that the first region provides a first magnetic field having a predetermined direction and a second region along the surface of the body of magnetizable composite material , surrounding the first region , is either unmagnetized or magnetized differently from the first region , so as to provide a contrast in magnetic field there from characterized in that the first region is magnetized using a shaped magnetizing die having an outwardly facing surface in a form of an image, logo or indicia such that the first region has the form of the image, logo or indicia.
Electrical apparatus (1; 1') for disconnection of an electric current, comprising: - a disconnection block (2; 2'), including elements (22; 22') for disconnection of an electric current, - an actuation block , provided with a controllable electromagnet which is adapted to generate an electromagnetic force in response to a control signal, - a movable tray (42; 42') provided with a magnetic plate (43; 43'), - a connection interface (4; 4'), which is separate from the disconnection block (2; 2') and from the actuation block , this connection interface (4; 4') being intercalated between the disconnection block and the actuation block, the movable tray (42; 42') being housed inside the connection interface, characterised in that each disconnection element comprises a coupling means and can be actuated by means of its coupling member, in order to switch this disconnection element into a state blocking or allowing the electric current to pass, the movable tray being adapted to exert, under the effect of the electromagnetic force, a mechanical force which causes displacement of the coupling members so as to switch the disconnection elements. - a disconnection block (2; 2'), including elements (22; 22') for disconnection of an electric current, - an actuation block , provided with a controllable electromagnet which is adapted to generate an electromagnetic force in response to a control signal, - a movable tray (42; 42') provided with a magnetic plate (43; 43'), - a connection interface (4; 4'),
A microfluidic system including: an elongate piezoelectric substrate having opposing ends thereof; a wave generation means for generating a surface acoustic wave in the surface of the piezoelectric substrate ; and a working surface through which the generated surface acoustic wave can be distributed, and upon which at least one fluid droplet within which are suspended particles can be located; characterized by means for varying the distribution of the surface acoustic wave across the width of the working surface to thereby facilitate rotation of the fluid within said droplet of fluid located in the path of the surface acoustic wave such that the suspended particles are either dispersed within the droplet or concentrated in an area within the droplet as a result of azimuthal recirculation induced within the droplet , wherein the wave generation means includes at least one interdigital electrode deposited on the piezoelectric substrate , and electrical supply means for applying an RF input into the electrode , wherein the means for varying the distribution of the surface acoustic wave includes an oblique reflection surface provided at the end of the piezoelectric substrate opposing the interdigital electrode . or wherein the means for varying the distribution of the surface acoustic wave includes damping material located in a position offset relative to the general path of the surface acoustic wave at the end of the piezoelectric substrate opposing the interdigital electrode . an elongate piezoelectric substrate having opposing ends thereof; a wave generation means for generating a surface acoustic wave in the surface of the piezoelectric substrate ; and a working surface through which the generated surface acoustic wave can be distributed, and upon which at least one fluid droplet within which are suspended particles can be located; characterized by means for varying the distribution of the surface acoustic wave across the width of the working surface to thereby facilitate rotation of the fluid within said droplet of fluid located in the path of the surface acoustic wave such that the suspended particles are either dispersed within the droplet or concentrated in an area within the droplet as a result of azimuthal recirculation induced within the droplet , wherein the wave generation means includes at least one interdigital electrode deposited on the piezoelectric substrate , and electrical supply means for applying an RF input into the electrode , wherein the means for varying the distribution of the surface acoustic wave includes an oblique reflection surface provided at the end of the piezoelectric substrate opposing the interdigital electrode . or wherein the means for varying the distribution of the surface acoustic wave includes damping material located in a position offset relative to the general path of the surface acoustic wave at the end of the piezoelectric substrate opposing the interdigital electrode .
A method to analyze a polymer solution using a temperature gradient chromatography, said method comprising the following: a) dissolving a composition comprising at least one polymer in at least one solvent, to form the polymer solution; b) injecting at least a portion of the polymer solution onto a support material and wherein the support material has a co-crystallization Index (CI) from 0.70 to 1.50; c) cooling the support material at a rate greater than, or equal to, 0.2°C/min; d) increasing the temperature of the support material to elute at least some of the polymer; e) generating a chromatogram, wherein the CI is calculated as described in the description. a) dissolving a composition comprising at least one polymer in at least one solvent, to form the polymer solution; b) injecting at least a portion of the polymer solution onto a support material and wherein the support material has a co-crystallization Index (CI) from 0.70 to 1.50; c) cooling the support material at a rate greater than, or equal to, 0.2°C/min; d) increasing the temperature of the support material to elute at least some of the polymer; e) generating a chromatogram,
Barrel (30;40;50) for a firearm comprising a hole extended along a longitudinal axis (X) of the barrel and delimited by an internal surface , wherein said internal surface has a closed curvilinear profile in cross section comprising concave grooves having a first radius of curvature (R1) which are alternated with concave projections having a second radius of curvature (R2) which is bigger than said first radius of curvature (R1) and characterized in that the second radius of curvature (R2) is defined based on the following criteria: 1) the double of the distance between the midpoint of the arc defined by the second radius (R2) and the origin point (O) of the first radius (R1) is equal the dimension in the standards provided by the Permanent International Commission for the Proof of Small Arms (C.I.P.) where it is called "F" according to the selected calibre; and 2) the internal area of the hole in the cross section thereof is equal to the area provided by said C.I.P. standards where it is indicated as "Q" according to said selected calibre. 1) the double of the distance between the midpoint of the arc defined by the second radius (R2) and the origin point (O) of the first radius (R1) is equal the dimension in the standards provided by the Permanent International Commission for the Proof of Small Arms (C.I.P.) where it is called "F" according to the selected calibre; and 2) the internal area of the hole in the cross section thereof is equal to the area provided by said C.I.P. standards where it is indicated as "Q" according to said selected calibre.