mhurhangee/patent-ind-claim-en huggingface dataset:
A housing cartridge for a modular fluid pump system that includes a pump motor providing a motor force, the housing cartridge comprising: a frame enclosed in the housing cartridge; a plurality of rollers arranged on the frame; a second mating portion of drive coupling means connected to the frame, wherein the second mating portion is able to mate in use with a first mating portion of drive coupling means connected to the pump motor , such that the drive coupling means transmits the motor force to the frame thereby inducing rotation of the frame; and a fluid conduit , wrapped under tension around at least one of the plurality of rollers, that facilitates fluid flow from an inlet region of the fluid conduit to an outlet region of the fluid conduit, wherein rotation of the frame causes the plurality of rollers to compress the fluid conduit at subsequent intervals, thereby driving fluid to the outlet region with a peristaltic movement; wherein the housing cartridge is interchangeable with a replacement housing cartridge in the modular fluid pump system; characterized in that : the housing cartridge is airtight sealed and includes a pressure control port that facilitates adjustment of the pressure within the housing cartridge. a frame enclosed in the housing cartridge; a plurality of rollers arranged on the frame; a second mating portion of drive coupling means connected to the frame, wherein the second mating portion is able to mate in use with a first mating portion of drive coupling means connected to the pump motor , such that the drive coupling means transmits the motor force to the frame thereby inducing rotation of the frame; and a fluid conduit , wrapped under tension around at least one of the plurality of rollers, that facilitates fluid flow from an inlet region of the fluid conduit to an outlet region of the fluid conduit, wherein rotation of the frame causes the plurality of rollers to compress the fluid conduit at subsequent intervals, thereby driving fluid to the outlet region with a peristaltic movement; wherein the housing cartridge is interchangeable with a replacement housing cartridge in the modular fluid pump system; characterized in that : the housing cartridge is airtight sealed and includes a pressure control port that facilitates adjustment of the pressure within the housing cartridge.
A medical device for creating a channel in a biological soft tissue, the device comprising an integral rotatable tool (IRT) formed by an elongated distal member and a proximal shaft , the elongated distal member having a distal end portion (DP) and a proximal end portion (PP), said distal end portion comprising a tissue piercing tip of a pyramid-like shape, the medical device being characterized in that said proximal end portion comprising an elongated prism-like portion having at least three surfaces and respective prism edges , with at least one of the prism edges between the surfaces being configured as a tissue cutting blade, and said proximal shaft interfacing and extending from said prism-like portion and having a cross section larger than a cross section of the prism-like portion at the interface (PE).
A cleaning kit , said kit comprising: (a) a first liquid-tight container ; (b) a second liquid-tight container being a second pouch that is adapted to be received within said first container; and (c) a cleaning liquid in said second container , wherein said second container comprises a frangible seal that is adapted to break or rupture through a user applying force on said first container while said second container is located in said first container to release said cleaning liquid from said second container into said first container , characterised in that said second pouch has at least one baffles that extend at least partially across said second pouch and are adapted to reduce accidental rupture caused by handling during shipping by the at least one baffles providing an effective volume of said second pouch after filing with said cleaning liquid of about 80% or less of a volume than if the at least one baffles were not present; wherein said frangible seal is along at least a portion of an outer edge of said second pouch and is broken or ruptured by the application of pressure to said second container by said user the pressure greater than about 0.8m, 30 inches, of water when tested according to ASTM Test F1140-07 . (a) a first liquid-tight container ; (b) a second liquid-tight container being a second pouch that is adapted to be received within said first container; and (c) a cleaning liquid in said second container , wherein said second container comprises a frangible seal that is adapted to break or rupture through a user applying force on said first container while said second container is located in said first container to release said cleaning liquid from said second container into said first container ,
In a divided local interconnect network, LIN, comprising a first LIN partition and a second LIN partition separated by a communication network , a method comprising: receiving, by a proxy slave in the first LIN partition, data from a proxy master in the second LIN partition, wherein a slave in the second LIN partition sends the data to the proxy master, the proxy master sends the data to the proxy slave over the communication network, and the proxy slave is a proxy to the slave in the second LIN partition; storing, by the proxy slave, the data in a data structure; receiving, by the proxy slave, a read request from an originating master in the first LIN partition after the data is stored in the data structure, wherein the read request comprises a LIN message identifier subscribed to by the slave in the second LIN partition and the proxy master is a proxy to the originating master; accessing, by the proxy slave, the data stored in the data structure based on the LIN message identifier in the read request; and sending, by the proxy slave, a LIN response to the originating master with the stored data from the slave in the second LIN partition. receiving, by a proxy slave in the first LIN partition, data from a proxy master in the second LIN partition, wherein a slave in the second LIN partition sends the data to the proxy master, the proxy master sends the data to the proxy slave over the communication network, and the proxy slave is a proxy to the slave in the second LIN partition; storing, by the proxy slave, the data in a data structure; receiving, by the proxy slave, a read request from an originating master in the first LIN partition after the data is stored in the data structure, wherein the read request comprises a LIN message identifier subscribed to by the slave in the second LIN partition and the proxy master is a proxy to the originating master; accessing, by the proxy slave, the data stored in the data structure based on the LIN message identifier in the read request; and sending, by the proxy slave, a LIN response to the originating master with the stored data from the slave in the second LIN partition.
A system for heating a biological material in a vessel, comprising: a heating device configured to transmit energy to the vessel, the heating device comprising an assembly base, and a main body comprising a thawing chamber for receiving the vessel, the main body being rotatably supported at the assembly base via a main hinge, such that the main body can controllably partially rotate about the main hinge relative to the base; two temperature sensors localized in two sides of the main body; two heating elements located on opposite sides of the main body, and a temperature controller, wherein the temperature controller is configured to activate the two heating elements separately based on a temperature measured by each temperature sensor; two cooling devices for assisting temperature regulation located on opposite sides of the man body adjacent the heating elements at an outer side with respect to the heating elements, wherein each cooling device comprises a heat sink and a fan; a motor for moving the main body arranged at the assembly base; and a processor configured to: receive an input associated with a target temperature; and transmit a signal to controllably partially rotate the main body of the heating device relative to the base for a time period, wherein the time period is determined based on at least the target temperature. a heating device configured to transmit energy to the vessel, the heating device comprising an assembly base, and a main body comprising a thawing chamber for receiving the vessel, the main body being rotatably supported at the assembly base via a main hinge, such that the main body can controllably partially rotate about the main hinge relative to the base; an assembly base, and a main body comprising a thawing chamber for receiving the vessel, the main body being rotatably supported at the assembly base via a main hinge, such that the main body can controllably partially rotate about the main hinge relative to the base; two temperature sensors localized in two sides of the main body; two heating elements located on opposite sides of the main body, and a temperature controller, wherein the temperature controller is configured to activate the two heating elements separately based on a temperature measured by each temperature sensor; two cooling devices for assisting temperature regulation located on opposite sides of the man body adjacent the heating elements at an outer side with respect to the heating elements, wherein each cooling device comprises a heat sink and a fan; a motor for moving the main body arranged at the assembly base; and a processor configured to: receive an input associated with a target temperature; and transmit a signal to controllably partially rotate the main body of the heating device relative to the base for a time period, wherein the time period is determined based on at least the target temperature. receive an input associated with a target temperature; and transmit a signal to controllably partially rotate the main body of the heating device relative to the base for a time period, wherein the time period is determined based on at least the target temperature.
A non-therapeutic use of a composition comprising: a. at least one trisiloxane surfactant having Formula (I): wherein R is -(CH 2 ) 3 -(OCH 2 CH 2 ) n OR 1 ; R 1 is -H, -CH 3 , or -O(O)CCH 3 ; and n is 2 to 20; and b. a matrix-forming agent in a form of at least one metal or metalloid alkoxide sol-gel precursor, preferably silicon or titanium alkoxide sol-gel precursor, wherein the combination of the constituents a. and b. has pesticidal properties, for controlling and/or killing a pest or a pathogen by applying the composition to a pest, a pathogen or a locus. a. at least one trisiloxane surfactant having Formula (I): wherein R is -(CH 2 ) 3 -(OCH 2 CH 2 ) n OR 1 ; R 1 is -H, -CH 3 , or -O(O)CCH 3 ; and n is 2 to 20; and R is -(CH 2 ) 3 -(OCH 2 CH 2 ) n OR 1 ; R 1 is -H, -CH 3 , or -O(O)CCH 3 ; and n is 2 to 20; and b. a matrix-forming agent in a form of at least one metal or metalloid alkoxide sol-gel precursor, preferably silicon or titanium alkoxide sol-gel precursor, wherein the combination of the constituents a. and b. has pesticidal properties, for controlling and/or killing a pest or a pathogen by applying the composition to a pest, a pathogen or a locus.
A filter bag (10; 110; 210; 310; 440; 440') comprising a tubular body (16; 116; 216; 316) formed of filter media configured to remove particulate matter from air passing through the filter media, characterized in that the tubular body (16; 116; 216; 316) extends from a closed end (14; 114; 214; 314) to a bag opening (12; 112; 212; 312; 441') along a bag axis (11; 111; 211; 311; 451) coincident with a central axis of the tubular body (16; 116; 216; 316), wherein a sealing cuff (20; 120; 220; 320) extends around a perimeter of the bag opening (12; 112; 212; 312; 441'), and wherein a reference bag length measured along the bag axis (11; 111; 211; 311; 451) between a reference plane (14'; 114'; 214'; 314') oriented perpendicular to the bag axis (11; 111; 211; 311; 451) and the bag opening (12; 112; 212; 312; 441') changes when moving around the perimeter of the bag opening (12; 112; 212; 312; 441').
Container which is thermoformed from a sheet-material web and has a side wall and a base , which together define a filling volume which accommodates contents and which has a closable introduction/removal opening and, in addition, at least one venting opening , wherein the venting opening is provided in an indentation , characterized in that the venting opening has a rim which extends in the direction of the filling volume, wherein there is a spacing provided between an upper edge of the rim and an upper edge of the indentation .
A method, performed by a cloud-based route reflector , comprising the steps of: identifying a first node in an autonomous system as a candidate root node of a first routing group, wherein the first routing group comprises a plurality of nodes in the autonomous system; identifying a client node based on a neighbor address used in a first routing protocol; mapping the neighbor address to routing information received from the client node via a second routing protocol; and associating the neighbor address with the first routing group if the routing information includes an identifier of the first routing group. identifying a first node in an autonomous system as a candidate root node of a first routing group, wherein the first routing group comprises a plurality of nodes in the autonomous system; identifying a client node based on a neighbor address used in a first routing protocol; mapping the neighbor address to routing information received from the client node via a second routing protocol; and associating the neighbor address with the first routing group if the routing information includes an identifier of the first routing group.
A cylinder head assembly for an internal combustion engine, wherein said cylinder head assembly comprises a gas feeding arrangement for feeding gas from an internal combustion engine cylinder chamber to a gas tank , said gas feeding arrangement comprising a feeding conduit assembly and a dedicated feeding valve , said feeding valve being adapted to assume an open condition in which it provides for gas transport in a direction from said cylinder chamber towards said gas tank , via said feeding conduit assembly , wherein said gas feeding arrangement comprises a one-way valve adapted to prevent gas transport from said gas tank to said cylinder chamber , via said feeding conduit assembly , said cylinder head assembly comprises an inlet valve adapted to selectively provide fluid communication between an air inlet system of the internal combustion engine and said cylinder chamber , said feeding valve being arranged separate from said at least one inlet valve , wherein said cylinder head assembly comprises a gas discharge conduit assembly adapted to provide a selective fluid communication between said gas tank and a gas discharge valve arrangement adapted to discharge into said cylinder chamber , characterised in that said inlet valve comprises an inlet valve member moveable relative to a valve seat to thereby control the fluid communication between said air inlet system and said cylinder chamber via said inlet valve , said gas discharge conduit assembly being in fluid communication with a valve passage extending through at least a portion of said inlet valve member for supplying gas from said gas tank to said cylinder chamber , said gas discharge valve arrangement comprising a gas discharge valve arrangement member moveable relative to said inlet valve member .
Cold-rolled or hot-rolled steel strip made of an air-hardenable multiphase steel with a minimum tensile strength in the longitudinal and transverse directions to the rolling direction of 950 MPa before the air-hardening, with excellent processing properties consisting of the elements (contents in % by weight): C ≥ 0.075 to 0.115 Si ≥ 0.400 to ≤ 0.500 Mn ≥ 1.900 to ≤ 2.350 Cr ≥ 0.200 to ≤ 0.500 Al ≥ 0.005 to ≤ 0.060 N ≥ 0.0020 to ≤ 0.0120 S ≤ 0.0030 Nb ≥ 0.005 to ≤ 0.060 Ti ≥ 0.005 to ≤ 0.060 B ≥ 0.0005 to ≤ 0.0030 Mo ≥ 0.200 to ≤ 0.300 Ca ≥ 0.0005 to ≤ 0.0060 Cu ≤ 0.050 Ni ≤ 0.050 remainder iron, including usual steel-accompanying impurities arising from smelting, in which, with a view to as broad a process window as possible during continuous annealing of hot or cold bands from this steel, the total content of Mn+Si+Cr is set as a function of the strip thickness to be produced, as follows: up to 1.00 mm: Sum of Mn+Si+Cr ≥ 2.800 and ≤ 3.000% by weight over 1.00 to 2.00 mm: Sum of Mn+Si+Cr ≥ 2.850 and ≤ 3.100% by weight over 2.00 mm: Sum of Mn+Si+Cr ≥ 2.900 and ≤ 3.200% by weight C ≥ 0.075 to 0.115 Si ≥ 0.400 to ≤ 0.500 Mn ≥ 1.900 to ≤ 2.350 Cr ≥ 0.200 to ≤ 0.500 Al ≥ 0.005 to ≤ 0.060 N ≥ 0.0020 to ≤ 0.0120 S ≤ 0.0030 Nb ≥ 0.005 to ≤ 0.060 Ti ≥ 0.005 to ≤ 0.060 B ≥ 0.0005 to ≤ 0.0030 Mo ≥ 0.200 to ≤ 0.300 Ca ≥ 0.0005 to ≤ 0.0060 Cu ≤ 0.050 Ni ≤ 0.050 remainder iron, including usual steel-accompanying impurities arising from smelting, in which, with a view to as broad a process window as possible during continuous annealing of hot or cold bands from this steel, the total content of Mn+Si+Cr is set as a function of the strip thickness to be produced, as follows: up to 1.00 mm: Sum of Mn+Si+Cr ≥ 2.800 and ≤ 3.000% by weight over 1.00 to 2.00 mm: Sum of Mn+Si+Cr ≥ 2.850 and ≤ 3.100% by weight over 2.00 mm: Sum of Mn+Si+Cr ≥ 2.900 and ≤ 3.200% by weight up to 1.00 mm: Sum of Mn+Si+Cr ≥ 2.800 and ≤ 3.000% by weight over 1.00 to 2.00 mm: Sum of Mn+Si+Cr ≥ 2.850 and ≤ 3.100% by weight over 2.00 mm: Sum of Mn+Si+Cr ≥ 2.900 and ≤ 3.200% by weight
Computer program comprising instructions suitable for implementing each of the steps of the method for managing a cardiac pump , when said program is run on a computer, said cardiac pump being intended to send pressurized blood at a flow rate proportional to the speed of rotation V rpm of said pump , said method comprising, during a same ventricular systole, the following steps: (a) detecting the closing of the mitral valve of said heart, the speed of rotation V rpm of said pump being strictly less than a maximum value V rpm max of the speed of rotation of said pump , (b) increasing the speed of rotation V rpm of said pump such that, at an instant t 2 , after the instant t 1 corresponding to the closing of said mitral valve, the speed of rotation of said pump is equal, or substantially equal, to said maximum value V rpm max of the speed of rotation, (c) keeping said speed of rotation V rpm of said pump at this maximum value V rpm max for at least a portion of the time period T during which the aortic valve is open, and - optionally repeating the steps (a) to (c) for at least the ventricular systole of a next cardiac cycle. (a) detecting the closing of the mitral valve of said heart, the speed of rotation V rpm of said pump being strictly less than a maximum value V rpm max of the speed of rotation of said pump , (b) increasing the speed of rotation V rpm of said pump such that, at an instant t 2 , after the instant t 1 corresponding to the closing of said mitral valve, the speed of rotation of said pump is equal, or substantially equal, to said maximum value V rpm max of the speed of rotation, (c) keeping said speed of rotation V rpm of said pump at this maximum value V rpm max for at least a portion of the time period T during which the aortic valve is open, and - optionally repeating the steps (a) to (c) for at least the ventricular systole of a next cardiac cycle. - optionally repeating the steps (a) to (c) for at least the ventricular systole of a next cardiac cycle.
An isolated monoclonal antibody which binds to Repulsive Guidance Molecule c ("RGMc"), comprising a variable heavy chain of the amino acid sequence of SEQ ID NO:5 and a variable light chain of the amino acid sequence of SEQ ID NO:6.
Mixing arrangement for mixing fuel vapour with air, preferably for a fuel-driven vehicle heating device, comprising a housing with a bottom wall and a circumferential wall adjoining the bottom wall , and a fuel evaporation arrangement provided at the bottom wall for discharging evaporated fuel at an evaporation side of the fuel evaporation arrangement, wherein an air-fuel mixing unit (26; 126; 226), arranged at least partially opposite the fuel evaporation arrangement at the evaporation side is provided for mixing fuel discharged at the evaporation side with air, wherein the air-fuel mixing unit (26; 126; 226) comprises a plurality of guiding elements (34, 34'; 134; 234) arranged successively around a central region (Z) for guiding air and fuel vapor, and wherein a mixture guide arrangement (28; 128; 238; 338) for discharging an air-fuel mixture formed in the air-fuel mixing unit (26; 126; 226) away from the air-fuel mixing unit (26; 126; 226) is provided, wherein a mixture guide wall (30; 130; 230; 330) of the mixture guide arrangement (28; 128; 228; 328) is at least partially surrounded by the circumferential wall , wherein an air inflow space is provided between the circumferential wall and the mixture guide wall (30; 130; 230; 330).
Pressure regulator for a fuel supply apparatus , comprising: at least two flow paths between a high-pressure space and a low-pressure space , the pressure regulator further comprising an electromagnetic device for opening and closing the at least two flow paths , which includes a magnetic coil and a closure unit for screwing into a housing with a magnetic anchor , wherein, in a de-energized and unexcited state of the magnetic coil , a sealing surface of the magnetic anchor is supported on a first sealing surface of a one-piece closing body and thus closes a first flow path of the at least two flow paths , and a second sealing surface of said one-piece closure body is supported on a sealing seat in said housing and thus closes a second flow path of said at least two flow paths , wherein said magnetic coil is controllable and energizable to move said magnetic anchor to unblock one of said at least two flow paths, and characterized in that an increase in energization of the magnetic coil additionally clears a second of the at least two flow paths. at least two flow paths between a high-pressure space and a low-pressure space , the pressure regulator further comprising an electromagnetic device for opening and closing the at least two flow paths , which includes a magnetic coil and a closure unit for screwing into a housing with a magnetic anchor , wherein, in a de-energized and unexcited state of the magnetic coil , a sealing surface of the magnetic anchor is supported on a first sealing surface of a one-piece closing body and thus closes a first flow path of the at least two flow paths , and a second sealing surface of said one-piece closure body is supported on a sealing seat in said housing and thus closes a second flow path of said at least two flow paths , wherein said magnetic coil is controllable and energizable to move said magnetic anchor to unblock one of said at least two flow paths, and characterized in that an increase in energization of the magnetic coil additionally clears a second of the at least two flow paths.