mhurhangee/patent-ind-claim-en huggingface dataset:
An integrated basement ventilation apparatus comprising: an air supply fan installed in an air supply inlet of each floor along an air supply shaft of a basement structure ; an air exhaust fan installed in an air exhaust outlet in each floor while facing an air exhaust shaft of the basement structure ; a plurality of connecting fans supported on a ceiling of each floor of the basement structure to form a plurality of air flow paths from the air supply fan to the air exhaust fan ; and a controller receiving electrical signals from sensors evenly distributed in the ceiling of each floor of the basement structure for controlling the air supply fan , the air exhaust fan and the plurality of connecting fans , wherein each of the air supply fan and the air exhaust fan includes a cylindrical fan supported in a polygonal column-shaped frame, and wherein the integrated basement ventilation apparatus is characterized in that at least one of the air supply fan and the air exhaust fan is additionally provided with spray nozzles which suck in water by means of negative pressure generated due to the air blowing to finely spray the water. an air supply fan installed in an air supply inlet of each floor along an air supply shaft of a basement structure ; an air exhaust fan installed in an air exhaust outlet in each floor while facing an air exhaust shaft of the basement structure ; a plurality of connecting fans supported on a ceiling of each floor of the basement structure to form a plurality of air flow paths from the air supply fan to the air exhaust fan ; and a controller receiving electrical signals from sensors evenly distributed in the ceiling of each floor of the basement structure for controlling the air supply fan , the air exhaust fan and the plurality of connecting fans , wherein each of the air supply fan and the air exhaust fan includes a cylindrical fan supported in a polygonal column-shaped frame, and wherein the integrated basement ventilation apparatus is characterized in that at least one of the air supply fan and the air exhaust fan is additionally provided with spray nozzles which suck in water by means of negative pressure generated due to the air blowing to finely spray the water.
A vehicle comprising: a vehicle interior ; a battery provided below the vehicle interior with a floor panel therebetween; and a driving device unit supported by a vehicle frame member via a front mounting portion and a rear mounting portion and configured to receive electric power from the battery to drive a left rear wheel and a right rear wheel, wherein a center of gravity (G1) of the battery is positioned forward compared to a rear wheel axle that connects the left rear wheel with the right rear wheel, a center of gravity (G2) of the driving device unit is positioned rearward compared to the rear wheel axle, the front mounting portion is positioned forward compared to the rear wheel axle, the rear mounting portion is positioned rearward compared to the rear wheel axle, the front mounting portion is positioned above the rear mounting portion , and a first imaginary line (P1) and a second imaginary line (P2) pass above the rear wheel axle and below wheel upper end portions of the left rear wheel and the right rear wheel in a side view, the first imaginary line (P1) being a line connecting the center of gravity (G1) of the battery with the center of gravity (G2) of the driving device unit , the second imaginary line (P2) being a line connecting a support center point of the front mounting portion with a support center point of the rear mounting portion , wherein the center of gravity (G2) of the driving device unit is positioned on the second imaginary line (P2). a vehicle interior ; a battery provided below the vehicle interior with a floor panel therebetween; and a driving device unit supported by a vehicle frame member via a front mounting portion and a rear mounting portion and configured to receive electric power from the battery to drive a left rear wheel and a right rear wheel, wherein a center of gravity (G1) of the battery is positioned forward compared to a rear wheel axle that connects the left rear wheel with the right rear wheel, a center of gravity (G2) of the driving device unit is positioned rearward compared to the rear wheel axle, the front mounting portion is positioned forward compared to the rear wheel axle, the rear mounting portion is positioned rearward compared to the rear wheel axle, the front mounting portion is positioned above the rear mounting portion , and a first imaginary line (P1) and a second imaginary line (P2) pass above the rear wheel axle and below wheel upper end portions of the left rear wheel and the right rear wheel in a side view, the first imaginary line (P1) being a line connecting the center of gravity (G1) of the battery with the center of gravity (G2) of the driving device unit , the second imaginary line (P2) being a line connecting a support center point of the front mounting portion with a support center point of the rear mounting portion , wherein the center of gravity (G2) of the driving device unit is positioned on the second imaginary line (P2).
A pump cassette , comprising: a rigid body comprising: a compliant membrane that defines a controllable fluid pathway that extends from an inlet port to an outlet port; an interface-facing frame portion configured to face at least one conductive coil in a cassette recess of an infusion pump; and a base portion, wherein the compliant membrane is disposed between the interface-facing frame portion and the base portion; and an inductive identifier comprising a coded pattern of at least two features that are laterally separated in a direction parallel to a surface of the interface-facing frame portion, the pattern of at least two features having an inductance that entirely identifies the pump cassette, wherein each of the at least two features is configured to be aligned with a corresponding conductive coil of the cassette recess when the rigid body is installed in the cassette recess, characterized in that the inductive identifier comprises an inductive identifier film on the surface of the interface-facing frame portion, the at least two features having a pattern of at least two openings that are laterally separated on the film in the direction parallel to the surface of the interface-facing frame portion, the pattern of at least two openings defining the inductance that entirely identifies the pump cassette. a rigid body comprising: a compliant membrane that defines a controllable fluid pathway that extends from an inlet port to an outlet port; an interface-facing frame portion configured to face at least one conductive coil in a cassette recess of an infusion pump; and a base portion, wherein the compliant membrane is disposed between the interface-facing frame portion and the base portion; and a compliant membrane that defines a controllable fluid pathway that extends from an inlet port to an outlet port; an interface-facing frame portion configured to face at least one conductive coil in a cassette recess of an infusion pump; and a base portion, wherein the compliant membrane is disposed between the interface-facing frame portion and the base portion; and an inductive identifier comprising a coded pattern of at least two features that are laterally separated in a direction parallel to a surface of the interface-facing frame portion, the pattern of at least two features having an inductance that entirely identifies the pump cassette, wherein each of the at least two features is configured to be aligned with a corresponding conductive coil of the cassette recess when the rigid body is installed in the cassette recess, characterized in that the inductive identifier comprises an inductive identifier film on the surface of the interface-facing frame portion, the at least two features having a pattern of at least two openings that are laterally separated on the film in the direction parallel to the surface of the interface-facing frame portion, the pattern of at least two openings defining the inductance that entirely identifies the pump cassette.
A transmucosal and/or transdermal delivery system comprising a micelle composition, the micelle composition comprising: at least one surfactant, wherein the at least one surfactant is a non-ionic surfactant having a Hydrophile-Lipophile Balance (HLB) value of from 12 to 16; at least one polyol; at least one active agent; at least one oil; and water, wherein the ratio of water to the at least one active agent, at least one non-ionic surfactant and at least one polyol is from 4:1 to 1:1 by weight; and wherein the micelle composition has a viscosity of from 0.005 Pas (5 cP) to 0.035 Pas (35 cP) when measured at 25°C on a Brookfield viscometer (spindle #1 at 20 rpm), and an average particle size of from 5 nm to 200 nm. at least one surfactant, wherein the at least one surfactant is a non-ionic surfactant having a Hydrophile-Lipophile Balance (HLB) value of from 12 to 16; at least one polyol; at least one active agent; at least one oil; and water, wherein the ratio of water to the at least one active agent, at least one non-ionic surfactant and at least one polyol is from 4:1 to 1:1 by weight; and wherein the micelle composition has a viscosity of from 0.005 Pas (5 cP) to 0.035 Pas (35 cP) when measured at 25°C on a Brookfield viscometer (spindle #1 at 20 rpm), and an average particle size of from 5 nm to 200 nm.
A metal-containing polymeric material comprising: a) a porous polymeric material comprising i) 15 to 65 weight percent of a first monomeric unit that is of Formula (I), Formula (II), or a mixture thereof; ii) 30 to 85 weight percent of a second monomeric unit that is of Formula (III); and iii) 0 to 40 weight percent (or 5 to 40 weight percent) of a third monomeric unit that is of Formula (IV) wherein R 1 is hydrogen or alkyl; and b) a divalent metal sorbed on the polymeric material in an amount equal to at least 1.5 mmoles per gram of the polymeric material, wherein the metal-containing polymeric material has a BET specific surface area equal to at least 15 m 2 /g wherein the BET specific surface area is calculated from argon adsorption data by multipoint Brunauer-Emmett-Teller (BET) analysis. a) a porous polymeric material comprising i) 15 to 65 weight percent of a first monomeric unit that is of Formula (I), Formula (II), or a mixture thereof; ii) 30 to 85 weight percent of a second monomeric unit that is of Formula (III); and iii) 0 to 40 weight percent (or 5 to 40 weight percent) of a third monomeric unit that is of Formula (IV) wherein R 1 is hydrogen or alkyl; and i) 15 to 65 weight percent of a first monomeric unit that is of Formula (I), Formula (II), or a mixture thereof; ii) 30 to 85 weight percent of a second monomeric unit that is of Formula (III); and iii) 0 to 40 weight percent (or 5 to 40 weight percent) of a third monomeric unit that is of Formula (IV) wherein R 1 is hydrogen or alkyl; and b) a divalent metal sorbed on the polymeric material in an amount equal to at least 1.5 mmoles per gram of the polymeric material,
A method of operating a heterogeneous computing system comprising a plurality of computation nodes and a plurality of booster nodes , at least one of the plurality of computation nodes and plurality of booster nodes being arranged to compute a computation task, the computation task comprising a plurality of sub-tasks, wherein in a first computing iteration, the plurality of sub-tasks are assigned to and processed by ones of the plurality of computation nodes and booster nodes in a first distribution; characterized in that information relating to the processing of the plurality of sub-tasks by the plurality of computation nodes and booster nodes is used to generate a further distribution of the sub-tasks between the computation nodes and booster nodes for processing thereby in a further computing iteration. in a first computing iteration, the plurality of sub-tasks are assigned to and processed by ones of the plurality of computation nodes and booster nodes in a first distribution; characterized in that information relating to the processing of the plurality of sub-tasks by the plurality of computation nodes and booster nodes is used to generate a further distribution of the sub-tasks between the computation nodes and booster nodes for processing thereby in a further computing iteration.
An airfoil system , comprising: an airfoil comprising a first exterior surface , a second exterior surface , a first airfoil segment and a second airfoil segment , the airfoil extending widthwise between the first exterior surface and the second exterior surface ; the first airfoil segment comprising a first composite material and a receptacle , a base of the receptacle embedded within the first composite material; the second airfoil segment comprising a second composite material and a key , a base of the key embedded within the second composite material, and the key mated with the receptacle thereby attaching the second airfoil segment to the first airfoil segment , characterised in that : the key is mated with the receptacle to provide a fastener-free connection, in use, between the second airfoil segment and the first airfoil segment . an airfoil comprising a first exterior surface , a second exterior surface , a first airfoil segment and a second airfoil segment , the airfoil extending widthwise between the first exterior surface and the second exterior surface ; the first airfoil segment comprising a first composite material and a receptacle , a base of the receptacle embedded within the first composite material; the second airfoil segment comprising a second composite material and a key , a base of the key embedded within the second composite material, and the key mated with the receptacle thereby attaching the second airfoil segment to the first airfoil segment ,
A method of controlling a wireless power receiver , the method is performed by the wireless power receiver and comprises: receiving, by a power reception unit of the wireless power receiver from a wireless power transmitter , a first power for initiating a communication unit of the wireless power receiver ; transmitting, by the communication unit , a search signal; receiving, by the communication unit , from the wireless power transmitter , a response search signal corresponding to the search signal; transmitting, by the communication unit to the wireless power transmitter , a request join signal for joining a wireless power network corresponding to the wireless power transmitter through a pairing which is established between the wireless power receiver and the wireless power transmitter based on the search signal and the search response signal, the request join signal including a maximum voltage allowed at an input stage of a Direct Current, DC, /DC conversion unit of the wireless power receiver ; receiving, by the communication unit from the wireless power transmitter , a join response signal through the pairing; receiving, by the communication unit , a charge command signal indicating a charge start command from the wireless power transmitter ; and based on receiving the charge command signal, starting charging a battery of the wireless power receiver , by using a second power which is received by the power reception unit from the wireless power transmitter . receiving, by a power reception unit of the wireless power receiver from a wireless power transmitter , a first power for initiating a communication unit of the wireless power receiver ; transmitting, by the communication unit , a search signal; receiving, by the communication unit , from the wireless power transmitter , a response search signal corresponding to the search signal; transmitting, by the communication unit to the wireless power transmitter , a request join signal for joining a wireless power network corresponding to the wireless power transmitter through a pairing which is established between the wireless power receiver and the wireless power transmitter based on the search signal and the search response signal, the request join signal including a maximum voltage allowed at an input stage of a Direct Current, DC, /DC conversion unit of the wireless power receiver ; receiving, by the communication unit from the wireless power transmitter , a join response signal through the pairing; receiving, by the communication unit , a charge command signal indicating a charge start command from the wireless power transmitter ; and based on receiving the charge command signal, starting charging a battery of the wireless power receiver , by using a second power which is received by the power reception unit from the wireless power transmitter .
One or more computer-readable storage media storing instructions, that when executed by a computing device , cause the computing device to implement a notification service configured to perform acts comprising: establishing a communication channel with a client application to deliver notifications from an application service to the client application; generating obfuscated routing data for the communication channel usable by the application service to direct notifications on the communication channel through the notification service , wherein the obfuscated routing data comprises a channel handle that is derived as an abstraction of an address of the communication channel in response to a request from the client application and wherein the channel handle is interpretable by the notification service , but is not interpretable by the application service ; issuing the obfuscated routing data for use by the application service ; obtaining a notification packaged with the obfuscated routing data from the application service ; and interpreting the obfuscated routing data to identify the communication channel and direct the notification obtained from the application service to the client application . establishing a communication channel with a client application to deliver notifications from an application service to the client application; generating obfuscated routing data for the communication channel usable by the application service to direct notifications on the communication channel through the notification service , wherein the obfuscated routing data comprises a channel handle that is derived as an abstraction of an address of the communication channel in response to a request from the client application and wherein the channel handle is interpretable by the notification service , but is not interpretable by the application service ; issuing the obfuscated routing data for use by the application service ; obtaining a notification packaged with the obfuscated routing data from the application service ; and interpreting the obfuscated routing data to identify the communication channel and direct the notification obtained from the application service to the client application .
A method for an interference-resistant insulation monitoring of an ungrounded power supply system having a converter , comprising the method steps: applying and actively superimposing a measuring voltage between an active conductor of the power supply system and ground by means of a coupling device and detecting a measuring signal driven by the measuring voltage to determine an insulation resistance of the power supply system , characterized by detecting a displacement voltage between the active conductor or a different active conductor of the power supply system and ground on an input side of the converter by means of a detection device , filtering a switching-frequent signal portion, which is generated by the converter , from the detected displacement voltage by means of an analogous RC high-pass filter circuit or a digital signal processing circuit, evaluating the filtered, switching-frequent signal portion, triggering a switching signal should the evaluation of the switching-frequent signal portion yield that the switching-frequent signal portion surmounts a critical amplitude value. applying and actively superimposing a measuring voltage between an active conductor of the power supply system and ground by means of a coupling device and detecting a measuring signal driven by the measuring voltage to determine an insulation resistance of the power supply system , characterized by detecting a displacement voltage between the active conductor or a different active conductor of the power supply system and ground on an input side of the converter by means of a detection device , filtering a switching-frequent signal portion, which is generated by the converter , from the detected displacement voltage by means of an analogous RC high-pass filter circuit or a digital signal processing circuit, evaluating the filtered, switching-frequent signal portion, triggering a switching signal should the evaluation of the switching-frequent signal portion yield that the switching-frequent signal portion surmounts a critical amplitude value.
A pivot mount in combination with a frame of a power machine for pivotally securing a pivoting member to the frame, the pivot mount having a first aperture extending therethrough providing a first bearing surface and a second aperture extending therethrough providing a second bearing surface, the pivot mount is further comprising: a first side wall secured to a first frame wall of the frame of the power machine, the first side wall having the first aperture extending therethrough providing the first bearing surface; a second side wall secured to a second frame wall of the frame of the power machine, the second side wall having a bushing with the second aperture extending therethrough providing the second bearing surface, the first and second apertures being axially aligned and configured to accept a mounting pin to pivotally secure the pivoting member to the frame; and a rear wall extending between and separating the first and second side walls and secured to the frame of the power machine, characterized in that the first side wall, the second side wall having the bushing, and the rear wall are integrally formed as a single casting piece. a first side wall secured to a first frame wall of the frame of the power machine, the first side wall having the first aperture extending therethrough providing the first bearing surface; a second side wall secured to a second frame wall of the frame of the power machine, the second side wall having a bushing with the second aperture extending therethrough providing the second bearing surface, the first and second apertures being axially aligned and configured to accept a mounting pin to pivotally secure the pivoting member to the frame; and a rear wall extending between and separating the first and second side walls and secured to the frame of the power machine, characterized in that the first side wall, the second side wall having the bushing, and the rear wall are integrally formed as a single casting piece.