mhurhangee/patent-ind-claim-en huggingface dataset:
A system for measuring a thickness of a cooling plate, said system comprising: a probe holder unit designed to fit inside a coolant channel of the cooling plate in order to perform thickness measurements, the probe holder unit comprising a housing extending along a length axis (L) from a first end (30.1) to a second end (30.2), a lateral, sensor side (30.3) and an opposite rear side (30.4), an ultrasonic probe being arranged in said housing to be able to transmit and receive ultrasonic waves from said sensor side; a rear housing part being moveably arranged at the rear side, transversally to the length axis, and elastically biased away from the sensor side, thereby permitting the probe holder unit to adapt to the cooling channel size by ensuring intimate contact between the inner surface of the coolant channel and the probe holder sensor side (30.3); a drive chain to assist the progression of said probe holder unit through the length of the coolant channel, said drive chain linked to first connecting means at said first end of said housing; a cable assembly comprising electric wires connecting the ultrasound probe; an encoder arrangement configured to cooperate with the drive chain such as to measure a length of drive chain passing along it, the encoder arrangement comprising a first gear meshing with said drive chain and coupled to an encoder. a probe holder unit designed to fit inside a coolant channel of the cooling plate in order to perform thickness measurements, the probe holder unit comprising a housing extending along a length axis (L) from a first end (30.1) to a second end (30.2), a lateral, sensor side (30.3) and an opposite rear side (30.4), an ultrasonic probe being arranged in said housing to be able to transmit and receive ultrasonic waves from said sensor side; a rear housing part being moveably arranged at the rear side, transversally to the length axis, and elastically biased away from the sensor side, thereby permitting the probe holder unit to adapt to the cooling channel size by ensuring intimate contact between the inner surface of the coolant channel and the probe holder sensor side (30.3); a drive chain to assist the progression of said probe holder unit through the length of the coolant channel, said drive chain linked to first connecting means at said first end of said housing; a cable assembly comprising electric wires connecting the ultrasound probe; an encoder arrangement configured to cooperate with the drive chain such as to measure a length of drive chain passing along it, the encoder arrangement comprising a first gear meshing with said drive chain and coupled to an encoder.
A system for controlling privacy on a display, the system comprising: a light-emitting diode, LED, pixel rotatably coupled to a microelectromechanical system, MEMS ; and a controller to control the MEMS, the MEMS to rotate the LED pixel in response to a command issued by the controller to modify a viewing angle of the LED pixel such that the privacy on the display for that LED pixel is maintained. a light-emitting diode, LED, pixel rotatably coupled to a microelectromechanical system, MEMS ; and a controller to control the MEMS, the MEMS to rotate the LED pixel in response to a command issued by the controller to modify a viewing angle of the LED pixel such that the privacy on the display for that LED pixel is maintained.
An antenna module comprising: a substrate ; an antenna element mounted on the substrate , the antenna element configured to perform wireless communication using a wireless signal of a first frequency band; and a loop antenna formed on the substrate and surrounding the antenna element , the loop antenna configured to perform wireless communication using a wireless signal of a second frequency band; wherein the antenna element is configured to be operated by power fed through a power feeding conductor , and the loop antenna is configured to be operated by power fed in a contactless manner from outside wherein the substrate includes, at one edge of the substrate , an antenna formed region in which no conductor or circuit is formed except for the power feeding conductor for the antenna element and an impedance matching circuit constituted by a passive element, and wherein the antenna element and the loop antenna are formed in the antenna formed region , and a power feeding section configured to feed the power to the antenna element through the power feeding conductor is provided in a region other than the antenna formed region . a substrate ; an antenna element mounted on the substrate , the antenna element configured to perform wireless communication using a wireless signal of a first frequency band; and a loop antenna formed on the substrate and surrounding the antenna element , the loop antenna configured to perform wireless communication using a wireless signal of a second frequency band; wherein the antenna element is configured to be operated by power fed through a power feeding conductor , and the loop antenna is configured to be operated by power fed in a contactless manner from outside wherein the substrate includes, at one edge of the substrate , an antenna formed region in which no conductor or circuit is formed except for the power feeding conductor for the antenna element and an impedance matching circuit constituted by a passive element, and wherein the antenna element and the loop antenna are formed in the antenna formed region , and a power feeding section configured to feed the power to the antenna element through the power feeding conductor is provided in a region other than the antenna formed region .
A process for manufacturing a timepiece or jewellery component , said component being manufactured from a first material, the process comprising the following steps: - obtaining the component, said component having undergone, at the very latest during this step, a treatment directed toward combining the component with a chromic element , said chromic element being constituted of at least one pigment of the photochromic or thermochromic type that is capable of reacting irreversibly to a light or heat energy supply and of a matrix for binding said pigment, the chromic element being a mixture of three pigments, a red pigment, a yellow pigment and a blue pigment, each pigment being chosen to react at a specific energy level; - placing said component in a machine for supplying energy that is capable of at least locally supplying energy to said component; - using the energy supply machine in a predefined operating program so as at least locally to provide energy to said chromic element so as to bring about an irreversible type of reaction of its pigment; - removing the component from the energy supply machine; the process being characterized in that the energy supply machine allows for focused energy radiation. - obtaining the component, said component having undergone, at the very latest during this step, a treatment directed toward combining the component with a chromic element , said chromic element being constituted of at least one pigment of the photochromic or thermochromic type that is capable of reacting irreversibly to a light or heat energy supply and of a matrix for binding said pigment, the chromic element being a mixture of three pigments, a red pigment, a yellow pigment and a blue pigment, each pigment being chosen to react at a specific energy level; - placing said component in a machine for supplying energy that is capable of at least locally supplying energy to said component; - using the energy supply machine in a predefined operating program so as at least locally to provide energy to said chromic element so as to bring about an irreversible type of reaction of its pigment; - removing the component from the energy supply machine; the process being characterized in that the energy supply machine allows for focused energy radiation.
A method for providing corrosion protection to a pressurized water-steam system, which method comprises the addition of an N-acylsarcosine compound of the formula (I) or of a mixture of different N-acylsarcosine compounds of the formula (I) R-C(=O)-N(CH 3 )-CH 2 -COOH (I) where R is a linear or branched acyclic hydrocarbon group having 10 to 24 carbon atoms, or of a salt thereof; where in case that a mixture of different N-acylsarcosine compounds of the formula (I) is used, in up to 30% by weight of the N-acylsarcosine compounds (I), based on the total weight of the mixture, R may also be a linear or branched acyclic hydrocarbon group having 4 to 9 carbon atoms; where the N-acylsarcosine compound of the formula (I), a mixture of different N-acylsarcosine compounds of the formula (I) or a salt thereof is added to the water used for operating the water-steam system in such an amount that the average total concentration of the compound of formula (I) in the water contained in the water-steam system is in the range from 0.01 to 10 mg/kg; where the pressure in the water-steam system during operation is at least 1 MPa (10 bar); where however in case that the water-steam system is a geothermal system, the pressure is from 0.2 to 6 MPa (2 to 60 bar). where R is a linear or branched acyclic hydrocarbon group having 10 to 24 carbon atoms, or of a salt thereof; where in case that a mixture of different N-acylsarcosine compounds of the formula (I) is used, in up to 30% by weight of the N-acylsarcosine compounds (I), based on the total weight of the mixture, R may also be a linear or branched acyclic hydrocarbon group having 4 to 9 carbon atoms; where the N-acylsarcosine compound of the formula (I), a mixture of different N-acylsarcosine compounds of the formula (I) or a salt thereof is added to the water used for operating the water-steam system in such an amount that the average total concentration of the compound of formula (I) in the water contained in the water-steam system is in the range from 0.01 to 10 mg/kg; where the pressure in the water-steam system during operation is at least 1 MPa (10 bar); where however in case that the water-steam system is a geothermal system, the pressure is from 0.2 to 6 MPa (2 to 60 bar).
Method for generating steam, in which a conveying device is used to supply a fuel to a burner for generating heat, the heat generated in the burner is used to generate steam with an actual generation pressure, wherein the actual generation pressure is greater than a setpoint operating pressure provided for technical use of the steam by a pressure difference Δp, and a rotary lobe blower which generates mechanical energy and/or electrical energy from the thermal energy of the steam is used to expand the steam to the setpoint operating pressure, characterized in that the energy generated in the rotary lobe blower is supplied to the conveying device in a mechanical and/or electrical manner for the complete or partial operation of the conveying device . a conveying device is used to supply a fuel to a burner for generating heat, the heat generated in the burner is used to generate steam with an actual generation pressure, wherein the actual generation pressure is greater than a setpoint operating pressure provided for technical use of the steam by a pressure difference Δp, and a rotary lobe blower which generates mechanical energy and/or electrical energy from the thermal energy of the steam is used to expand the steam to the setpoint operating pressure, characterized in that the energy generated in the rotary lobe blower is supplied to the conveying device in a mechanical and/or electrical manner for the complete or partial operation of the conveying device .
Floor cleaning machine, in particular a hand-guided and/or hand-held floor cleaning machine, comprising a support device , at least one cleaning roller which is arranged on the support device , is capable of being driven in rotation and is provided with a cleaning substrate , a fan device for creating a suction flow, and a suction channel device for the suction flow which provides at least one suction channel operatively connected for fluid communication between the fan device and the at least one cleaning roller , wherein the at least one suction channel has at least one mouth towards the at least one cleaning roller and wherein the at least one mouth comprises a first mouth wall and a spaced second mouth wall having a mouth opening formed therebetween, wherein the first mouth wall is positioned above the second mouth wall relative to the direction of gravity (g) when the at least one cleaning roller is placed on a floor that is to be cleaned, characterized in that the first mouth wall and/or the second mouth wall is in contact against or protrudes into the cleaning substrate of the at least one cleaning roller , and in that a dirty liquid container is provided that is associated with a separator device .
A faucet apparatus comprising: a base having a mounting surface ; a body integrated or coupled to the base, wherein the body includes first and second surfaces, respectively, within which are formed first and second orifices, respectively, wherein the first and second orifices respectively extend inward into the body along a first axis and a second axis , respectively, and the first axis is perpendicular or substantially perpendicular relative to the second axis, and characterised in that a first cross-section of the first orifice taken perpendicular to the first axis has a first size and a first shape that are, respectively, substantially identical to a second size and a second shape of a second cross-section of the second orifice taken perpendicular to the second axis; a spout having a first end that is configured to fit complementarily within either of the first and second orifices, and that is supported within the first orifice; a sensor structure having an external cross-sectional surface that also is configured to fit complementarily within either of the first and second orifices, and that is supported within the second orifice. a base having a mounting surface ; a body integrated or coupled to the base, wherein the body includes first and second surfaces, respectively, within which are formed first and second orifices, respectively, wherein the first and second orifices respectively extend inward into the body along a first axis and a second axis , respectively, and the first axis is perpendicular or substantially perpendicular relative to the second axis, and characterised in that a first cross-section of the first orifice taken perpendicular to the first axis has a first size and a first shape that are, respectively, substantially identical to a second size and a second shape of a second cross-section of the second orifice taken perpendicular to the second axis; a spout having a first end that is configured to fit complementarily within either of the first and second orifices, and that is supported within the first orifice; a sensor structure having an external cross-sectional surface that also is configured to fit complementarily within either of the first and second orifices, and that is supported within the second orifice.
An image forming apparatus comprising: an image carrier , a cleaning portion configured to remove toner that has stuck to a surface of the image carrier ; a polishing roller that is rotatable while being in contact with the image carrier ; a guide portion disposed with a gap having a predetermined width from an outer circumferential surface of the polishing roller , and configured to guide the toner removed by the cleaning portion to pass below the outer circumferential surface of the polishing roller ; opening portions each formed in a predetermined size at a position below the outer circumferential surface of the polishing roller in the guide portion ; and a housing including a wall surface that defines, together with an end of the guide portion in a rotation direction of the polishing roller , a falling path through which the toner falls from the end, the housing storing the cleaning portion and the polishing roller , characterized in that the guide portion includes: a toner receiving portion configured to temporarily collect the toner removed by the cleaning portion ; and a curved surface portion formed in a shape of an arc extending from the toner receiving portion along the outer circumferential surface of the polishing roller , and the opening portions are provided between the toner receiving portion and the curved surface portion . an image carrier , a cleaning portion configured to remove toner that has stuck to a surface of the image carrier ; a polishing roller that is rotatable while being in contact with the image carrier ; a guide portion disposed with a gap having a predetermined width from an outer circumferential surface of the polishing roller , and configured to guide the toner removed by the cleaning portion to pass below the outer circumferential surface of the polishing roller ; opening portions each formed in a predetermined size at a position below the outer circumferential surface of the polishing roller in the guide portion ; and a housing including a wall surface that defines, together with an end of the guide portion in a rotation direction of the polishing roller , a falling path through which the toner falls from the end, the housing storing the cleaning portion and the polishing roller , characterized in that the guide portion includes: a toner receiving portion configured to temporarily collect the toner removed by the cleaning portion ; and a curved surface portion formed in a shape of an arc extending from the toner receiving portion along the outer circumferential surface of the polishing roller , and a toner receiving portion configured to temporarily collect the toner removed by the cleaning portion ; and a curved surface portion formed in a shape of an arc extending from the toner receiving portion along the outer circumferential surface of the polishing roller , and the opening portions are provided between the toner receiving portion and the curved surface portion .
A rotary electric machine comprising: a stator extending along an axis and having a circumferentially spaced series of axially extending teeth defining a similar series of circumferentially spaced winding slots therebetween, a plurality of stator windings at least partially disposed respectively in the slots, said windings being electrically connected to form a plurality of phases such that one or more winding slots contain the same magnitude of current at substantially all times for each phase; and structure defining a plurality of elongated coolant passageways disposed in each winding slot, wherein none of the coolant passageways in different winding slots are fluidly connected in series with one another; wherein a subset of the coolant passageways contained in the slots for a single phase having an even number with coolant flowing in one direction for half of the subset of coolant passageways and in the opposite direction for the other half of the subset of coolant passageways ; wherein at least one of the coolant passageways is located circumferentially between two windings in the same slot. a stator extending along an axis and having a circumferentially spaced series of axially extending teeth defining a similar series of circumferentially spaced winding slots therebetween, a plurality of stator windings at least partially disposed respectively in the slots, said windings being electrically connected to form a plurality of phases such that one or more winding slots contain the same magnitude of current at substantially all times for each phase; and structure defining a plurality of elongated coolant passageways disposed in each winding slot, wherein none of the coolant passageways in different winding slots are fluidly connected in series with one another; wherein a subset of the coolant passageways contained in the slots for a single phase having an even number with coolant flowing in one direction for half of the subset of coolant passageways and in the opposite direction for the other half of the subset of coolant passageways ; wherein at least one of the coolant passageways is located circumferentially between two windings in the same slot.
A non-transitory computer-readable media storing computer instructions for an access point, AP, which when executed by one or more processors, cause the one or more processors to perform the steps of: transmit, by the AP, a broadcast packet indicating a set of groups , wherein each group is associated with a specific set of transmission parameters; transmit, by the AP, a second packet by using a trigger frame for random access, TFR, indicating an allocation of resources for at least part of the groups ; and receive, by the AP, a response frame using at least part of random access, RA, resources selected by a station, STA, for the at least part of the groups . transmit, by the AP, a broadcast packet indicating a set of groups , wherein each group is associated with a specific set of transmission parameters; transmit, by the AP, a second packet by using a trigger frame for random access, TFR, indicating an allocation of resources for at least part of the groups ; and receive, by the AP, a response frame using at least part of random access, RA, resources selected by a station, STA, for the at least part of the groups .
A hydrogen system comprising: a generator configured to generate hydrogen-containing gas; a storage configured to store the hydrogen-containing gas generated by the generator; a first gas passage configured to connect the generator and the storage; a housing configured to house the generator, the storage and the first gas passage; a second gas passage configured to flow the hydrogen-containing gas discharged from the first gas passage to an outside of the housing; a first valve provided to the second gas passage; a third gas passage configured to flow the hydrogen-containing gas discharged from the storage to the outside of the housing; a second valve provided to the third gas passage; and a controller configured to open at least one of the first valve and the second valve. a generator configured to generate hydrogen-containing gas; a storage configured to store the hydrogen-containing gas generated by the generator; a first gas passage configured to connect the generator and the storage; a housing configured to house the generator, the storage and the first gas passage; a second gas passage configured to flow the hydrogen-containing gas discharged from the first gas passage to an outside of the housing; a first valve provided to the second gas passage; a third gas passage configured to flow the hydrogen-containing gas discharged from the storage to the outside of the housing; a second valve provided to the third gas passage; and a controller configured to open at least one of the first valve and the second valve.