mhurhangee/patent-ind-claim-en huggingface dataset:
A method of assembling a handle onto a door of a cooling appliance wherein a door shell is produced from carbon fiber, comprising: - providing the door shell having a front plate and a plurality of side plates originating from the front plate and extending backwards; - providing a handle having at least a screw hole ; - placing the handle onto the front plate from the front wherein the screw hole is configured to coincide with a perforation formed onto the front plate ; - fixing the front plate and the handle with respect to each other with a screw , the screw passing through the said perforation and the screw hole respectively; - attaching an interior plate on to the door shell forming a volume in between; - filling the said volume by injection of an insulating material; - providing the door shell having a recessed region for placing the handle ; and - placing the handle at the recessed region such that the handle forms a flush surface with the door shell . - providing the door shell having a front plate and a plurality of side plates originating from the front plate and extending backwards; - providing a handle having at least a screw hole ; - placing the handle onto the front plate from the front wherein the screw hole is configured to coincide with a perforation formed onto the front plate ; - fixing the front plate and the handle with respect to each other with a screw , the screw passing through the said perforation and the screw hole respectively; - attaching an interior plate on to the door shell forming a volume in between; - filling the said volume by injection of an insulating material; - providing the door shell having a recessed region for placing the handle ; and - placing the handle at the recessed region such that the handle forms a flush surface with the door shell .
A composition for topical administration to the skin comprising two or more different live Propionibacterium acnes (P. acnes) bacterial strains, wherein the composition comprises a P. acnes SLST type C3 strain and a P. acnes SLST type K8 strain.
A process, which, on the basis of a provided test sample comprising a mix of a plurality of preknown sample components and on the basis of provided absolute sample separation properties for each of the sample components , comprises: experimentally determining a real sample separation result by executing a sample separation method for separating the test sample by a sample separation apparatus ; characterized in that the process further comprises determining a real value of at least one operation parameter characterizing the sample separation method based on a comparison between the absolute sample separation properties and the real sample separation result for characterizing a real course of the sample separation method, wherein the absolute sample separation properties denote intrinsic properties of each individual of the sample components . experimentally determining a real sample separation result by executing a sample separation method for separating the test sample by a sample separation apparatus ; characterized in that the process further comprises determining a real value of at least one operation parameter characterizing the sample separation method based on a comparison between the absolute sample separation properties and the real sample separation result for characterizing a real course of the sample separation method, wherein the absolute sample separation properties denote intrinsic properties of each individual of the sample components .
A method for forming a contoured structure from a work piece, the method comprising: providing the work piece comprising a first side and a second side, the work piece having a thickness of 5,08 cm (two inches) or less; positioning the work piece on a fixture, such that the first side of the work piece is accessible to a deep rolling tool; applying a compressive force to the first side of the work piece with the deep rolling tool; moving the deep rolling tool relative to the work piece while continuing to apply the compressive force to introduce plastic deformation to a first portion of the work piece; adjusting the deep rolling tool to contact a second portion of the work piece and moving the deep rolling tool relative to the work piece to introduce plastic deformation to the second portion of the work piece; adjusting the deep rolling tool to introduce plastic deformation to one or more additional portions of the work piece to introduce a convex contour to the first side of the work piece; applying another compressive force to the second side of the work piece with a second deep rolling tool to introduce plastic deformation to a portion of the second side of the work piece; and applying the another compressive force to the second side occurs simultaneously as the compressive force is applied to the first side. providing the work piece comprising a first side and a second side, the work piece having a thickness of 5,08 cm (two inches) or less; positioning the work piece on a fixture, such that the first side of the work piece is accessible to a deep rolling tool; applying a compressive force to the first side of the work piece with the deep rolling tool; moving the deep rolling tool relative to the work piece while continuing to apply the compressive force to introduce plastic deformation to a first portion of the work piece; adjusting the deep rolling tool to contact a second portion of the work piece and moving the deep rolling tool relative to the work piece to introduce plastic deformation to the second portion of the work piece; adjusting the deep rolling tool to introduce plastic deformation to one or more additional portions of the work piece to introduce a convex contour to the first side of the work piece; applying another compressive force to the second side of the work piece with a second deep rolling tool to introduce plastic deformation to a portion of the second side of the work piece; and applying the another compressive force to the second side occurs simultaneously as the compressive force is applied to the first side.
A heating device for heating liquid ink in an ink supply system of a printing apparatus, comprising: a heating body for transferring heat to liquid ink in contact with the heating body , wherein the heating body comprises an essentially solid body of thermally conductive material and includes a plurality of generally parallel channels formed therein which extend from a topside of the heating body to a bottom side of the heating body , wherein the heating body comprises a receptacle at the top side for receiving the liquid ink, wherein an inlet opening of each of the plurality of substantially parallel channels is formed in a base of the receptacle , wherein the heating device comprises a passage arranged separated from the receptacle and to provide a fluid connection between the top side and the bottom side of the heating body , which passage in operation provides pressure equalization between the top side and the bottom side of the heating body , and wherein the plurality of substantially parallel channels are arranged to, in operation, convey the liquid ink from the top side to the bottom side of the heating body whereby the ink is heated via contact with walls of the channels. a heating body for transferring heat to liquid ink in contact with the heating body , wherein the heating body comprises an essentially solid body of thermally conductive material and includes a plurality of generally parallel channels formed therein which extend from a topside of the heating body to a bottom side of the heating body , wherein the heating body comprises a receptacle at the top side for receiving the liquid ink, wherein an inlet opening of each of the plurality of substantially parallel channels is formed in a base of the receptacle , wherein the heating device comprises a passage arranged separated from the receptacle and to provide a fluid connection between the top side and the bottom side of the heating body , which passage in operation provides pressure equalization between the top side and the bottom side of the heating body , and wherein the plurality of substantially parallel channels are arranged to, in operation, convey the liquid ink from the top side to the bottom side of the heating body whereby the ink is heated via contact with walls of the channels.
A hydrophilic coating method for contact lens surface, comprising following steps of: performing a hydration procedure S1 to form a hydrated polymer from a non-hydrated polymer; performing a first hydration process S2 for contacting the hydrated polymer with a first solution at a first temperature for a first treatment time, the first solution comprising at least one composition selected from a group consisting of polyvinyl alcohol (PVA), polyvinylpyrrolidone (PVP), polyethylene glycol (PEG) and the combination thereof; and performing a second hydration process S3 for contacting the hydrated polymer with a second solution at a second temperature for a second treatment time, the second solution comprising at least one composition selected from a group consisting of polyvinyl alcohol, polyvinylpyrrolidone, polyethylene glycols and the combination thereof; wherein the first temperature and the second temperature are between 50 °C and 70 °C independently. performing a hydration procedure S1 to form a hydrated polymer from a non-hydrated polymer; performing a first hydration process S2 for contacting the hydrated polymer with a first solution at a first temperature for a first treatment time, the first solution comprising at least one composition selected from a group consisting of polyvinyl alcohol (PVA), polyvinylpyrrolidone (PVP), polyethylene glycol (PEG) and the combination thereof; and performing a second hydration process S3 for contacting the hydrated polymer with a second solution at a second temperature for a second treatment time, the second solution comprising at least one composition selected from a group consisting of polyvinyl alcohol, polyvinylpyrrolidone, polyethylene glycols and the combination thereof; wherein the first temperature and the second temperature are between 50 °C and 70 °C independently.
A non-transitory computer readable storage medium storing computer executable instructions that, when executed by a client device (601-603), cause the client device to perform the following steps: sending , by the client device (601-603), a first Internet Protocol version 6, IPv6, message comprising an IP header having an IP source address and an IP destination address, a destination options extension header, DOEH, having a client identifier and a server identifier , and an IP payload, and wherein the IP destination address of the first IPv6 message indicates a network service, the server identifier comprises an unresolved value which does not resolve to a particular server, and the client identifier indicates the client device; receiving , by the client device, a second IPv6 message, wherein a DOEH of the second IPv6 message comprises a client identifier (511 indicating the client device and a server identifier indicating a server (631 - 33) assigned, by a load balancer, to provide the network service to the client device; and maintaining , by the client device and after receiving the second IPv6 message, a session with the server, wherein in each IPv6 message sent by the client device during the session, an IP destination address of that IPv6 message indicates the server assigned to provide the network service, a client identifier of a DOEH of that IPv6 message indicates the client device, and a server identifier of the DOEH of that IPv6 message indicates the server (631 - 33) assigned to provide the network service. sending , by the client device (601-603), a first Internet Protocol version 6, IPv6, message comprising an IP header having an IP source address and an IP destination address, a destination options extension header, DOEH, having a client identifier and a server identifier , and an IP payload, and wherein the IP destination address of the first IPv6 message indicates a network service, the server identifier comprises an unresolved value which does not resolve to a particular server, and the client identifier indicates the client device; receiving , by the client device, a second IPv6 message, wherein a DOEH of the second IPv6 message comprises a client identifier (511 indicating the client device and a server identifier indicating a server (631 - 33) assigned, by a load balancer, to provide the network service to the client device; and maintaining , by the client device and after receiving the second IPv6 message, a session with the server, wherein in each IPv6 message sent by the client device during the session, an IP destination address of that IPv6 message indicates the server assigned to provide the network service, a client identifier of a DOEH of that IPv6 message indicates the client device, and a server identifier of the DOEH of that IPv6 message indicates the server (631 - 33) assigned to provide the network service.
A compound having formula (I), or a pharmaceutically acceptable salt, or a stereoisomer thereof: wherein: W' is H; W is independently selected from: -O-CH 2 CH(OH)(CH 2 OH), -NH-(CH 2 ) 3-4 -OH, -NH-(CH 2 ) 1-2 -CH(CH 3 )OH, -NH-(CH 2 ) 1-2 -C(CH 3 ) 2 OH, -O-(CH 2 ) 1-2 -(pyrazolyl), -NH-(CH 2 ) 1-2 -(pyrazolyl), -NH-(CH 2 ) 1-2 -(pyrimidinyl), -NH-(CH 2 ) 1-2 -(pyridazinyl), -NH-(CH 2 ) 1-2 -CF 2 (pyridyl), and R 3 is independently and R 4 is independently H or F. W' is H; W is independently selected from: -O-CH 2 CH(OH)(CH 2 OH), -NH-(CH 2 ) 3-4 -OH, -NH-(CH 2 ) 1-2 -CH(CH 3 )OH, -NH-(CH 2 ) 1-2 -C(CH 3 ) 2 OH, -O-(CH 2 ) 1-2 -(pyrazolyl), -NH-(CH 2 ) 1-2 -(pyrazolyl), -NH-(CH 2 ) 1-2 -(pyrimidinyl), -NH-(CH 2 ) 1-2 -(pyridazinyl), -NH-(CH 2 ) 1-2 -CF 2 (pyridyl), and R 3 is independently and R 4 is independently H or F.
A sensor chip assembly comprising: an optical detector configured to collect electromagnetic radiation incident thereon; a complementary metal-oxide semiconductor (CMOS) read-out integrated circuit (ROIC) ; and a radiation-shielding wafer interposed between the optical detector and the CMOS ROIC, the radiation-shielding wafer including a plurality of through wafer vias (TWVs) electrically coupled to the optical detector and the CMOS ROIC, the radiation-shielding wafer being positioned to prevent radiative transfer between the CMOS ROIC and the optical detector, characterized in that the radiation-shielding wafer includes a semiconductor absorber deposited on a silicon wafer . an optical detector configured to collect electromagnetic radiation incident thereon; a complementary metal-oxide semiconductor (CMOS) read-out integrated circuit (ROIC) ; and a radiation-shielding wafer interposed between the optical detector and the CMOS ROIC, the radiation-shielding wafer including a plurality of through wafer vias (TWVs) electrically coupled to the optical detector and the CMOS ROIC, the radiation-shielding wafer being positioned to prevent radiative transfer between the CMOS ROIC and the optical detector, characterized in that the radiation-shielding wafer includes a semiconductor absorber deposited on a silicon wafer .
An autonomous mobile robot for cleaning a cleaning surface comprises: a chassis having a drive system mounted therein in communication with a control system; a cleaning head assembly (300; 100) having a lower cage and mounted to the chassis; a debris collection bin mounted to the chassis; and a vacuum airway having a vacuum inlet (392; 200) and an airway outlet positioned adjacent the debris collection bin, and configured to deliver debris from the cleaning head assembly to the debris collection bin, the vacuum airway extending between the cleaning assembly and the debris collection bin; characterized by : a cleaning head module connected to the chassis and having a front roller (110; 310) including a front shape-changing resilient tube (350; 150) and an adjacent rear roller (120; 320) including a rear shape- changing resilient tube (350; 150) rotatably opposing therewith beneath the vacuum inlet; wherein the cleaning head module is spaced from a radially outermost part of the front roller and the rear roller by less than or equal to about 1 mm. a chassis having a drive system mounted therein in communication with a control system; a cleaning head assembly (300; 100) having a lower cage and mounted to the chassis; a debris collection bin mounted to the chassis; and a vacuum airway having a vacuum inlet (392; 200) and an airway outlet positioned adjacent the debris collection bin, and configured to deliver debris from the cleaning head assembly to the debris collection bin, the vacuum airway extending between the cleaning assembly and the debris collection bin; characterized by : a cleaning head module connected to the chassis and having a front roller (110; 310) including a front shape-changing resilient tube (350; 150) and an adjacent rear roller (120; 320) including a rear shape- changing resilient tube (350; 150) rotatably opposing therewith beneath the vacuum inlet; wherein the cleaning head module is spaced from a radially outermost part of the front roller and the rear roller by less than or equal to about 1 mm. a cleaning head module connected to the chassis and having a front roller (110; 310) including a front shape-changing resilient tube (350; 150) and an adjacent rear roller (120; 320) including a rear shape- changing resilient tube (350; 150) rotatably opposing therewith beneath the vacuum inlet; wherein the cleaning head module is spaced from a radially outermost part of the front roller and the rear roller by less than or equal to about 1 mm.
A compound according to Formula (I) or pharmaceutically acceptable salt, tautomer, or stereoisomer thereof, wherein: each m is, independently, 1, 2, 3, 4 or 5; F 1 is ester or amide functional group; R A is branched or unbranched C4-C30 alkyl; and R 1 is -L 1 N[L 2 F 2 R B ] 2 or -L 3 F 3 R C and R 2 is -L 4 F 4 R D , wherein: each L 1 , L 2 , L 3 and L 4 are, independently, C2-C10 alkylene, each F 2 , F 3 and F 4 are, independently, ester or amide functional group and each R B , R C and R D are, independently, branched C4-C30 alkyl. each m is, independently, 1, 2, 3, 4 or 5; F 1 is ester or amide functional group; R A is branched or unbranched C4-C30 alkyl; and R 1 is -L 1 N[L 2 F 2 R B ] 2 or -L 3 F 3 R C and R 2 is -L 4 F 4 R D , wherein: each L 1 , L 2 , L 3 and L 4 are, independently, C2-C10 alkylene, each F 2 , F 3 and F 4 are, independently, ester or amide functional group and each R B , R C and R D are, independently, branched C4-C30 alkyl. each L 1 , L 2 , L 3 and L 4 are, independently, C2-C10 alkylene, each F 2 , F 3 and F 4 are, independently, ester or amide functional group and each R B , R C and R D are, independently, branched C4-C30 alkyl.
An RF tag comprising a magnetic antenna and an integrated circuit, IC, mounted to the magnetic antenna, the magnetic antenna for transmitting and receiving information using an electromagnetic induction method, said magnetic antenna comprising a magnetic core and a plurality of coils (4-1) formed on the magnetic core in which the coils each have an inductance L 1 satisfying the following relational formula 1, and are formed with bank winding, connected in parallel to each other in an electric circuit, and disposed in series on the magnetic core such that a combined inductance L 0 of the magnetic antenna satisfies the following relational formula 2: L 1 ≥ 1 / 4 π 2 × operating frequency 2 × capacitance of IC + parasitic capacitance of antenna wherein L 1 is an inductance per one coil; L 0 ≤ 1 / 4 π 2 × operating frequency 2 × capacitance of IC + parasitic capacitance of antenna wherein the combined inductance L 0 is the inductance of the electric circuit formed by the plurality of coils (4-1) formed on the magnetic core of the magnetic antenna, and wherein more than two coils are disposed in series on the magnetic core and wherein the the magnetic core is rectangular, has two terminal ends on which opposite end coils (4-1) are formed, and only the terminal ends, on which the end coils (4-1) are formed, are opened to form respective open ends (4-1) of a magnetic circuit. wherein the combined inductance L 0 is the inductance of the electric circuit formed by the plurality of coils (4-1) formed on the magnetic core of the magnetic antenna, and wherein more than two coils are disposed in series on the magnetic core and wherein the the magnetic core is rectangular, has two terminal ends on which opposite end coils (4-1) are formed, and only the terminal ends, on which the end coils (4-1) are formed, are opened to form respective open ends (4-1) of a magnetic circuit.
A data transmission method performed by a receive end device, wherein the method is applied to data transmission from a plurality of transmit end devices to the receive end device, transmission control information sent by each of the plurality of transmit end devices to the receive end device is used to control data transmission from the transmit end device to the receive end device, and the method comprises: receiving at least one piece of transmission control information, wherein the at least one piece of transmission control information comprises transmission control information sent by at least one of the plurality of transmit end devices to the receive end device, and transmission control information sent by each of the at least one transmit end device to the receive end device comprises a retransmission process identifier used in a retransmission control operation that is performed on the data transmission from the transmit end device to the receive end device; for each of the at least one piece of transmission control information, determining a transmit end device that sends the piece of transmission control information; and performing , based on the retransmission process identifier comprised in the piece of transmission control information, a retransmission control operation on the transmit end device that sends the piece of transmission control information, characterized in that the determining a transmit end device that sends the piece of transmission control information comprises: determining, based on a port group in which a DMRS port indicated by a demodulation reference signal DMRS port number comprised in the piece of transmission control information is located, the transmit end device that sends the piece of transmission control information. receiving at least one piece of transmission control information, wherein the at least one piece of transmission control information comprises transmission control information sent by at least one of the plurality of transmit end devices to the receive end device, and transmission control information sent by each of the at least one transmit end device to the receive end device comprises a retransmission process identifier used in a retransmission control operation that is performed on the data transmission from the transmit end device to the receive end device; for each of the at least one piece of transmission control information, determining a transmit end device that sends the piece of transmission control information; and performing , based on the retransmission process identifier comprised in the piece of transmission control information, a retransmission control operation on the transmit end device that sends the piece of transmission control information, characterized in that the determining a transmit end device that sends the piece of transmission control information comprises: determining, based on a port group in which a DMRS port indicated by a demodulation reference signal DMRS port number comprised in the piece of transmission control information is located, the transmit end device that sends the piece of transmission control information.