mhurhangee/patent-ind-claim-en huggingface dataset:
A method of operating a transport climate control system used to provide climate control within a climate control space of a transport unit , the method comprising: setting a mean kinetic temperature setpoint to control the transport climate control system ; determining, using a controller , a mean kinetic temperature in the climate controlled space ; determining, using the controller , a difference between the mean kinetic temperature setpoint and the mean kinetic temperature in the climate controlled space ; and controlling the transport climate control system based on at least the difference between the mean kinetic temperature setpoint and the mean kinetic temperature in the climate controlled space to regulate the mean kinetic temperature in the climate controlled space . setting a mean kinetic temperature setpoint to control the transport climate control system ; determining, using a controller , a mean kinetic temperature in the climate controlled space ; determining, using the controller , a difference between the mean kinetic temperature setpoint and the mean kinetic temperature in the climate controlled space ; and controlling the transport climate control system based on at least the difference between the mean kinetic temperature setpoint and the mean kinetic temperature in the climate controlled space to regulate the mean kinetic temperature in the climate controlled space .
A coating composition comprising: (a) core-shell particles comprising a polymeric core at least partially encapsulated by a polymeric shell, wherein the polymeric shell comprises: (i) a barrier segment comprising aromatic groups; and urethane linkages, urea linkages, or a combination thereof; and (ii) an elastomeric segment that is different from (i), and wherein the polymeric shell is covalently bonded to at least a portion of the polymeric core; (b) a polythioether polymer comprising thioether linkages and mercapto functional groups; and (c) an adhesion promoter comprising at least one polymer that is different from (a) and (b), wherein the polythioether polymer of (b) is present in an amount of from 2 to 50 weight %, based on the total solids weight of the coating composition. (a) core-shell particles comprising a polymeric core at least partially encapsulated by a polymeric shell, wherein the polymeric shell comprises: (i) a barrier segment comprising aromatic groups; and urethane linkages, urea linkages, or a combination thereof; and (ii) an elastomeric segment that is different from (i), and wherein the polymeric shell is covalently bonded to at least a portion of the polymeric core; (b) a polythioether polymer comprising thioether linkages and mercapto functional groups; and (c) an adhesion promoter comprising at least one polymer that is different from (a) and (b),
A solar cell comprising: a protective layer disposed over a substrate , wherein the protective layer comprises contact holes ; a first metal layer disposed over the protective layer , wherein the first metal layer is electrically connected to the substrate through the contact holes ; a second metal layer disposed over the first metal layer ; and bond regions disposed between the first metal layer and the second metal layer and coupling the first metal layer to the second metal layer, characterised in that entirely the bond regions are located above regions of the protective layer that do not overlap with at least one contact hole ; wherein the contact holes are aligned linearly and/or adjacent to the bond regions . a protective layer disposed over a substrate , wherein the protective layer comprises contact holes ; a first metal layer disposed over the protective layer , wherein the first metal layer is electrically connected to the substrate through the contact holes ; a second metal layer disposed over the first metal layer ; and bond regions disposed between the first metal layer and the second metal layer and coupling the first metal layer to the second metal layer, characterised in that entirely the bond regions are located above regions of the protective layer that do not overlap with at least one contact hole ; wherein the contact holes are aligned linearly and/or adjacent to the bond regions .
A battery module, comprising: a battery , comprising a housing and a cover plate connected to the housing , wherein the cover plate is provided with a temperature collection hole ; a plugging member , comprising an insertion portion , wherein the insertion portion is installed in the temperature collection hole , and the insertion portion is provided with an accommodating cavity extending into an interior of the housing ; a temperature collection assembly , comprising a temperature collection portion , wherein the temperature collection portion is installed inside the accommodating cavity , wherein the temperature collection assembly further comprises a wire , electrically connected to the temperature collection portion , wherein one end of the wire is located inside the accommodating cavity , and the other end of the wire is located outside the accommodating cavity ; and wherein the battery module further comprises a wire harness board , installed on the top of the cover plate , wherein the wire harness board is provided with a buckle , and the buckle is connected to the wire . a battery , comprising a housing and a cover plate connected to the housing , wherein the cover plate is provided with a temperature collection hole ; a plugging member , comprising an insertion portion , wherein the insertion portion is installed in the temperature collection hole , and the insertion portion is provided with an accommodating cavity extending into an interior of the housing ; a temperature collection assembly , comprising a temperature collection portion , wherein the temperature collection portion is installed inside the accommodating cavity , wherein the temperature collection assembly further comprises a wire , electrically connected to the temperature collection portion , wherein one end of the wire is located inside the accommodating cavity , and the other end of the wire is located outside the accommodating cavity ; and wherein the battery module further comprises a wire harness board , installed on the top of the cover plate , wherein the wire harness board is provided with a buckle , and the buckle is connected to the wire .
A method for generating forwarding information, comprising: receiving (S 101), by a generating device, a first request message used for requesting a first content for a first network element , wherein the first request message comprises a first content identifier; determining (S102), by the generating device, that a second network element is a provider of the first content according to first registration information sent by the second network element, wherein the first registration information comprises information indicating that the second network element is the provider of the first content; determining (S103), by the generating device, a first path from the second network element to the first network element according to a network topology, wherein the first path comprises a first forwarding device ; and generating (S 104), by the generating device, first forwarding information for the first forwarding device , wherein the first forwarding information comprising first matching information and first operating information, wherein the first operating information is used for instructing the first forwarding device to obtain a first encapsulation message according to a first data message from the the second network element after determining that the first data message matches the first matching information, wherein the first matching information comprises an identifier of a protocol of the first request message, and sending the first encapsulation message to the first network element via the first path. receiving (S 101), by a generating device, a first request message used for requesting a first content for a first network element , wherein the first request message comprises a first content identifier; determining (S102), by the generating device, that a second network element is a provider of the first content according to first registration information sent by the second network element, wherein the first registration information comprises information indicating that the second network element is the provider of the first content; determining (S103), by the generating device, a first path from the second network element to the first network element according to a network topology, wherein the first path comprises a first forwarding device ; and generating (S 104), by the generating device, first forwarding information for the first forwarding device , wherein the first forwarding information comprising first matching information and first operating information, wherein the first operating information is used for instructing the first forwarding device to obtain a first encapsulation message according to a first data message from the the second network element after determining that the first data message matches the first matching information, wherein the first matching information comprises an identifier of a protocol of the first request message, and sending the first encapsulation message to the first network element via the first path.
A lubrication system for a planetary gear , the planetary gear comprises a sun gear rotationally fixedly arranged on a first shaft , a number of planet gears rotatably supported by planet gear bearings and a planet gear carrier rotationally fixedly arranged on a second shaft , wherein the lubrication system comprises a lubrication passage adapted to direct lubricant from one of the shafts to the planet gear bearings , the lubrication passage comprises a first passage part extending through the planet gear carrier from an inlet opening to a first outlet opening , the first passage part comprises a second outlet opening having a centre axis and adapted to direct lubricant through a third passage part having a first cross-sectional area (A1), to a first engagement area between the sun gear and the planet gears , wherein the second outlet opening is located at a shorter first radial distance (R1) from a rotation axis of the sun gear than the first outlet opening , characterized in that a flow restrictor is arranged in the first passage part , the flow restrictor delimits a gap having a third cross-sectional area (A3), between an interior surface of the first passage part and the restrictor , the flow restrictor comprises at least one restriction having a lubrication inlet end , a lubrication outlet end and a second cross-sectional area (A2), the lubrication inlet end is arranged at a second radial distance (R2) from the rotation axis , which is substantially the same as the first radial distance (R1) from the rotation axis to the centre axis or arranged at a second radial distance (R2) closer to the rotation axis than the first radial distance (R1) of the centre axis .
Thermal transfer printing apparatus comprising: ▪ a frame , ▪ an endless ribbon , to transport ink on its outer face , ▪ a coating device to coat the endless ribbon with ink , ▪ a printhead to print by thermal transfer a substrate with a part of the ink coated on the endless ribbon , ▪ a plurality of first rollers supporting and transporting the endless ribbon by its inner face along a path from the coating device to the printhead and from the printhead to the coating device , characterised in that the thermal transfer printing apparatus further comprises ▪ A plate to support the inner face of the endless ribbon between two adjacent first rollers along its path from the coating device to the printhead ; said plate being fixed in translation and in rotation with the frame and having a first convex surface supporting the inner face of the ribbon ; ▪ a heat exchanger designed to cool down the first convex surface of the plate at a first predefined temperature (T1). ▪ a frame , ▪ an endless ribbon , to transport ink on its outer face , ▪ a coating device to coat the endless ribbon with ink , ▪ a printhead to print by thermal transfer a substrate with a part of the ink coated on the endless ribbon , ▪ a plurality of first rollers supporting and transporting the endless ribbon by its inner face along a path from the coating device to the printhead and from the printhead to the coating device , characterised in that the thermal transfer printing apparatus further comprises ▪ A plate to support the inner face of the endless ribbon between two adjacent first rollers along its path from the coating device to the printhead ; said plate being fixed in translation and in rotation with the frame and having a first convex surface supporting the inner face of the ribbon ; ▪ a heat exchanger designed to cool down the first convex surface of the plate at a first predefined temperature (T1).
A process for making a polycarbonate composition by a melt polymerization process comprising: melt polymerizing reactants to produce a molten reaction product; filtering the molten reaction product to remove gels and impurities prior to any extruding; wherein the filtering uses a filter with a pore size of 2.5 to 50 micrometers; adding a catalyst quencher to the reaction product prior to filtering; and extruding the molten reaction product to form the polycarbonate composition; wherein the extruding comprises extruding with an additive, and wherein the additive comprises a colorant, a heat stabilizer, an antioxidant, a UV absorbing additive, an antistatic agent, an impact modifier, a flow modifier, a release agent, an anti-fog additive, an antimicrobial agent, a flame retardant, a filler, or a combination comprising one or more of the foregoing; wherein the additive has a major diameter of greater than or equal to the pore size of the filter. melt polymerizing reactants to produce a molten reaction product; filtering the molten reaction product to remove gels and impurities prior to any extruding; wherein the filtering uses a filter with a pore size of 2.5 to 50 micrometers; adding a catalyst quencher to the reaction product prior to filtering; and extruding the molten reaction product to form the polycarbonate composition; wherein the extruding comprises extruding with an additive, and wherein the additive comprises a colorant, a heat stabilizer, an antioxidant, a UV absorbing additive, an antistatic agent, an impact modifier, a flow modifier, a release agent, an anti-fog additive, an antimicrobial agent, a flame retardant, a filler, or a combination comprising one or more of the foregoing; wherein the additive has a major diameter of greater than or equal to the pore size of the filter.
A soap dispenser , comprising: a mounting bracket having a lip and a catch at opposite ends thereof; a rigid disposable cartridge having a neck end , an elongate recess formed in a backside , and a catch formed at one end of the elongate recess , the rigid disposable cartridge being secured to the mounting bracket , thereby concealing the mounting bracket from view from the top , sides , and neck end ; a collar adapted to engage with the catch of the mounting bracket and engage with the neck end of the disposable cartridge ; an inverted dispensing pump received within the neck end of the disposable cartridge and adapted to engage within the collar , the inverted dispensing pump comprising a pump body having an internal air chamber and an annular vent gasket disposed around a sidewall of one end of the pump body , the vent gasket sealingly covering a vent opening and engaging the sidewall of the pump body , and the vent gasket being an elastomer such that vacuum pressure within the rigid disposable cartridge causes the vent gasket to deflect apart from the sidewall and air to be drawn into the rigid disposable cartridge through the vent opening between the vent gasket and the sidewall to equalize air pressure within the rigid disposable cartridge ; and a lever attached to and carried by the collar , the lever arranged to actuate the inverted dispensing pump to cause the inverted dispensing pump to dispense foam soap. a mounting bracket having a lip and a catch at opposite ends thereof; a rigid disposable cartridge having a neck end , an elongate recess formed in a backside , and a catch formed at one end of the elongate recess , the rigid disposable cartridge being secured to the mounting bracket , thereby concealing the mounting bracket from view from the top , sides , and neck end ; a collar adapted to engage with the catch of the mounting bracket and engage with the neck end of the disposable cartridge ; an inverted dispensing pump received within the neck end of the disposable cartridge and adapted to engage within the collar , the inverted dispensing pump comprising a pump body having an internal air chamber and an annular vent gasket disposed around a sidewall of one end of the pump body , the vent gasket sealingly covering a vent opening and engaging the sidewall of the pump body , and the vent gasket being an elastomer such that vacuum pressure within the rigid disposable cartridge causes the vent gasket to deflect apart from the sidewall and air to be drawn into the rigid disposable cartridge through the vent opening between the vent gasket and the sidewall to equalize air pressure within the rigid disposable cartridge ; and a lever attached to and carried by the collar , the lever arranged to actuate the inverted dispensing pump to cause the inverted dispensing pump to dispense foam soap.
A method for the detection of lactic acid bacteria in leavened food products, comprising: a. extracting the total DNA from a sample of said leavened food product; b. carrying out a quantitative polymerase chain reaction (qPCR) on the DNA extracted in step (a) by using primers specific for bacterial 16S rRNA sequences, said primer pair being SKfw (5'-GGGGATAACAYYTGGAAACAG-3') (SEQ. ID NO. 1) and SKrw (5'-CTCGGCTACGTATCATTGTCTTG-3') (SEQ. ID NO. 2). c. determining the CT value; d. determining, by means of the equation of the calibration line, the value of the number of copies of the 16S rRNA gene expressed as log gene copies/g, wherein the value of the number of copies of the 16S rRNA > 7 log gene copies/g identifies a food product leavened with sourdough. a. extracting the total DNA from a sample of said leavened food product; b. carrying out a quantitative polymerase chain reaction (qPCR) on the DNA extracted in step (a) by using primers specific for bacterial 16S rRNA sequences, said primer pair being SKfw (5'-GGGGATAACAYYTGGAAACAG-3') (SEQ. ID NO. 1) and SKrw (5'-CTCGGCTACGTATCATTGTCTTG-3') (SEQ. ID NO. 2). c. determining the CT value; d. determining, by means of the equation of the calibration line, the value of the number of copies of the 16S rRNA gene expressed as log gene copies/g, wherein the value of the number of copies of the 16S rRNA > 7 log gene copies/g identifies a food product leavened with sourdough.
A cabin air compressor assembly comprising: a cabin air compressor ; a cabin air compressor motor operably connected to the cabin air compressor, the cabin air compressor motor including a rotor and a stator having a plurality of end windings ; a cabin air compressor housing including a plurality of cooling airflow holes formed therein; a motor cooling flow movable across a portion of the cabin air compressor motor to cool the stator and the end windings; and a duct extending from the cabin air compressor housing to an adjacent end winding such that a cooling outlet flow provided via the at least one cooling air flow hole is arranged in fluid communication with the end winding; wherein the cooling airflow holes are sized and distributed at an interior portion of the cabin air compressor housing between a journal bearing support and a compressor volute of the cabin air compressor housing . a cabin air compressor ; a cabin air compressor motor operably connected to the cabin air compressor, the cabin air compressor motor including a rotor and a stator having a plurality of end windings ; a cabin air compressor housing including a plurality of cooling airflow holes formed therein; a motor cooling flow movable across a portion of the cabin air compressor motor to cool the stator and the end windings; and a duct extending from the cabin air compressor housing to an adjacent end winding such that a cooling outlet flow provided via the at least one cooling air flow hole is arranged in fluid communication with the end winding; wherein the cooling airflow holes are sized and distributed at an interior portion of the cabin air compressor housing between a journal bearing support and a compressor volute of the cabin air compressor housing .
A cylinder head comprising: a plurality of port wall portions configured to form flow paths for intake and exhaust; an outer circumferential wall portion formed in an annular shape in a cross-sectional view and disposed at an interval on an outside of the plurality of port wall portions and having a water chamber through which cooling water flows and which is formed at least between the port wall portions and the outer circumferential wall portion ; and a bottom wall portion configured to face a combustion chamber of an engine and to connect ends of the port wall portions and the outer circumferential wall portion , wherein the outer circumferential wall portion includes a padding portion of which a thickness is increased toward a side close to the port wall portions so that a distance between the port wall portions and the outer circumferential wall portion is equal to or less than a predetermined distance; wherein a surface of padding portion facing one of the port wall portions is a concave curved surface passing through a concentric circle of the one of the port wall portions in the cross-sectional view, and the cylinder head being characterized in that wherein a concentric flow path with respect to the port wall portion is configured between the surface of padding portion facing the port wall portion and an outer circumferential surface of the port wall portion . a plurality of port wall portions configured to form flow paths for intake and exhaust; an outer circumferential wall portion formed in an annular shape in a cross-sectional view and disposed at an interval on an outside of the plurality of port wall portions and having a water chamber through which cooling water flows and which is formed at least between the port wall portions and the outer circumferential wall portion ; and a bottom wall portion configured to face a combustion chamber of an engine and to connect ends of the port wall portions and the outer circumferential wall portion , wherein the outer circumferential wall portion includes a padding portion of which a thickness is increased toward a side close to the port wall portions so that a distance between the port wall portions and the outer circumferential wall portion is equal to or less than a predetermined distance; wherein a surface of padding portion facing one of the port wall portions is a concave curved surface passing through a concentric circle of the one of the port wall portions in the cross-sectional view, and the cylinder head being characterized in that wherein a concentric flow path with respect to the port wall portion is configured between the surface of padding portion facing the port wall portion and an outer circumferential surface of the port wall portion .