mhurhangee/patent-ind-claim-en huggingface dataset:
Heterophasic polypropylene composition (HECO1), comprising i) a matrix (M) comprising a first propylene polymer (PP1) and a second propylene polymer (PP2), and ii) an elastomeric propylene copolymer (EPR) being a copolymer of propylene and ethylene and/or a C 4 to C 8 α-olefin dispersed within the matrix (M), wherein the ratio MFR(PP1)/MFR(PP2) is above 10,000, wherein MFR(PP1) is the melt flow rate MFR (230 °C, 2.16 kg) in [g/10 min] determined according to ISO 1133 of the first propylene polymer (PP1) and MFR(PP2) is the melt flow rate MFR (230 °C, 2.16 kg) in [g/10 min] determined according to ISO 1133 of the second propylene polymer (PP2). i) a matrix (M) comprising a first propylene polymer (PP1) and a second propylene polymer (PP2), and ii) an elastomeric propylene copolymer (EPR) being a copolymer of propylene and ethylene and/or a C 4 to C 8 α-olefin dispersed within the matrix (M), wherein the ratio MFR(PP1)/MFR(PP2) is above 10,000, wherein MFR(PP1) is the melt flow rate MFR (230 °C, 2.16 kg) in [g/10 min] determined according to ISO 1133 of the first propylene polymer (PP1) and MFR(PP2) is the melt flow rate MFR (230 °C, 2.16 kg) in [g/10 min] determined according to ISO 1133 of the second propylene polymer (PP2).
Communication system for bidirectional data transfer among smart modules (101-111) attachable to a weapon , comprising: - at least one powered rail (200, 200', 200", 200"') providing an electric supply to at least one smart module; and - a control module adapted to encode messages by means of modulation of the electric supply; wherein the at least one powered rail (200, 200', 200", 200'") is configured to provide electric supply to at least a first low-priority smart module and a second high-priority smart module , and characterized in that the control module is further configured to: - receive a data transfer request message from the at least one low-priority smart module ; - receive a high-priority data message from the at least one high-priority smart module ; and - send a data transfer permission message to the at least one low-priority smart module , only if no high-priority data message is being received. - at least one powered rail (200, 200', 200", 200"') providing an electric supply to at least one smart module; and - a control module adapted to encode messages by means of modulation of the electric supply; wherein the at least one powered rail (200, 200', 200", 200'") is configured to provide electric supply to at least a first low-priority smart module and a second high-priority smart module , and characterized in that the control module is further configured to: - receive a data transfer request message from the at least one low-priority smart module ; - receive a high-priority data message from the at least one high-priority smart module ; and - send a data transfer permission message to the at least one low-priority smart module , only if no high-priority data message is being received.
A coupling device for coupling optical fiber cables , comprising: a first fixing member which has a first coupling terminal disposed inside an adapter device and which has a hollow part opened at an end thereof; and a second fixing member which has a second coupling terminal disposed inside a connector device and which has an outer wall so formed as to be adapted to slide along an inner wall of the first fixing member when inserted into the first fixing member; characterized in that a housing of the adapter device is provided with at least one curved groove , an outer wall of the connector device housing is provided with at least one projection at a part thereof, the second fixing member further has an elastic member on the proximal end side thereof; and the groove is so configured that when the second fixing member is inserted into the first fixing member, the projection is inserted into the groove , and, with the projection inserted along the groove , the elastic member is adapted to press the disk-shaped flange , whereby the first coupling terminal and the second coupling terminal are connected to each other, then, with the second fixing member further urged in the insertion direction, the projection is slid along the groove , and the projection is stopped after a returning motion in a direction reverse to the insertion direction, wherein the disk-shaped flange is in non-contact with the elastic member . a first fixing member which has a first coupling terminal disposed inside an adapter device and which has a hollow part opened at an end thereof; and a second fixing member which has a second coupling terminal disposed inside a connector device and which has an outer wall so formed as to be adapted to slide along an inner wall of the first fixing member when inserted into the first fixing member; characterized in that a housing of the adapter device is provided with at least one curved groove , an outer wall of the connector device housing is provided with at least one projection at a part thereof, the second fixing member further has an elastic member on the proximal end side thereof; and the groove is so configured that when the second fixing member is inserted into the first fixing member, the projection is inserted into the groove , and, with the projection inserted along the groove , the elastic member is adapted to press the disk-shaped flange , whereby the first coupling terminal and the second coupling terminal are connected to each other, then, with the second fixing member further urged in the insertion direction, the projection is slid along the groove , and the projection is stopped after a returning motion in a direction reverse to the insertion direction, wherein the disk-shaped flange is in non-contact with the elastic member .
A pressure measurement device for measuring pressure and/or for measuring elasticity of a vein , an organ or a compartment and for combination with an ultrasound measurement unit (46; 146; 346), characterized in that a pressure sensor, configured as a film pressure sensor (52; 102; 252; 352) is provided, wherein an intermediate space (56; 256; 356) between the films (53, 54; 253, 254) of the film pressure sensor (52; 102; 252; 352) is filled with an ultrasound-transparent and non-electrolytically active liquid.
An injectable pharmaceutical composition comprising 1) at least 1 wt % of buprenorphine or a pharmaceutically acceptable salt thereof; 2) benzyl alcohol (BA), preferably in the amount of 10 to 90 wt.%, more preferably in the amount of 30 to 80 wt.%; 3) an oleic acid; and 4) a combination of 0.1% to 2.0% monothioglycerol (MTG) by weight and 0.01% to 0.05% ascorbic acid (VC) by weight.
A securing device of a preferably strut-shaped sterile product mounting for securing it in a medical container , in particular a sterilization mesh basket, comprising: a supporting/receiving base which is provided for supporting/receiving the sterile product mounting and has an undercut portion as a fixed bearing acting in a first direction and designed to come into latching engagement with a corresponding undercut on the medical container , an undercut element as a floating bearing and movably retained in a direct or indirect fashion on the supporting/receiving base , said floating bearing acting in a second direction opposite the operating direction of the undercut portion and being designed to be brought into a latching engagement with a corresponding undercut on the medical container , and a spring element or a spring portion provided on the undercut element or on the supporting/receiving base , which is designed to preload the undercut element in the second direction while being directly or indirectly supported on the supporting/receiving base, characterized in that the undercut portion is U-shaped or hook-shaped and is designed to engage around an edge of a first recess provided on the base of the container in a form-fitting manner, and the undercut element is designed to engage around an edge of the first recess and/or of at least one second recess in a form-fitting manner from an opposite direction, wherein at least one of said securing portions is designed to be spring-elastic. a supporting/receiving base which is provided for supporting/receiving the sterile product mounting and has an undercut portion as a fixed bearing acting in a first direction and designed to come into latching engagement with a corresponding undercut on the medical container , an undercut element as a floating bearing and movably retained in a direct or indirect fashion on the supporting/receiving base , said floating bearing acting in a second direction opposite the operating direction of the undercut portion and being designed to be brought into a latching engagement with a corresponding undercut on the medical container , and a spring element or a spring portion provided on the undercut element or on the supporting/receiving base , which is designed to preload the undercut element in the second direction while being directly or indirectly supported on the supporting/receiving base, characterized in that the undercut portion is U-shaped or hook-shaped and is designed to engage around an edge of a first recess provided on the base of the container in a form-fitting manner, and the undercut element is designed to engage around an edge of the first recess and/or of at least one second recess in a form-fitting manner from an opposite direction, wherein at least one of said securing portions is designed to be spring-elastic.
A method performed by a data processing system for computer-aided simulation and manufacture of a part with a multi-layer selective laser sintering and melting additive manufacturing process comprising: a) receiving a solid model representing the part; b) slicing the solid model along a build direction and creating 3D layer meshes that represent manufacturing layers ; c) simulating manufacture of each of the 3D layer meshes to produce corresponding deformed 3D layer meshes being deformed by repeated heating and cooling during selective laser sintering of a material by a laser beam of a laser print system, including carrying out thermal and structural analysis of the 3D layer meshes to produce corresponding deformed 3D layer meshes based on temperature gradients and mechanical stress determined during the simulated manufacturing; d) building a 3D mesh model from the deformed 3D layer meshes ; e) displaying the 3D mesh model ; and f) manufacturing the part according to the 3D mesh model and deformations based on the temperature gradients and the mechanical stress determined during the simulated manufacturing. a) receiving a solid model representing the part; b) slicing the solid model along a build direction and creating 3D layer meshes that represent manufacturing layers ; c) simulating manufacture of each of the 3D layer meshes to produce corresponding deformed 3D layer meshes being deformed by repeated heating and cooling during selective laser sintering of a material by a laser beam of a laser print system, including carrying out thermal and structural analysis of the 3D layer meshes to produce corresponding deformed 3D layer meshes based on temperature gradients and mechanical stress determined during the simulated manufacturing; d) building a 3D mesh model from the deformed 3D layer meshes ; e) displaying the 3D mesh model ; and f) manufacturing the part according to the 3D mesh model and deformations based on the temperature gradients and the mechanical stress determined during the simulated manufacturing.
An article of manufacture obtained by injection moulding a filled polymer, the method comprising injection moulding an article from a filled polymer resin wherein the filled polymer resin comprises recycled polymer and a functional filler, wherein the functional filler comprises an inorganic particulate which (i) is surface treated and/or (ii) has a d 50 , by laser light scattering, of less than about 2.5 μm, and characterized in that the filled polymer resin has a MFI, determined in accordance with ISO 1133, of less than 2.5 g/10 mins @ 2.16 kg/190°C.
A method for sample preparation or analysis, comprising: (a) providing a plurality of microfluidic partitions, wherein a given partition of said plurality of partitions comprises a target and a first bead comprising one or more reagents for conducting one or more reactions on said target, wherein said first bead is disruptable; (b) disrupting said first bead to generate one or more precursors capable of forming a gel or polymer matrix; (c) using said one or more reagents to conduct said one or more reactions on said target, to yield one or more reaction products, wherein subsequent to conducting said one or more reactions, said given partition comprises said one or more precursors generated from said disruption of said first bead; and (d) gelling or polymerizing said one or more precursors to generate a second bead, which second bead comprises said one or more reaction products. (a) providing a plurality of microfluidic partitions, wherein a given partition of said plurality of partitions comprises a target and a first bead comprising one or more reagents for conducting one or more reactions on said target, wherein said first bead is disruptable; (b) disrupting said first bead to generate one or more precursors capable of forming a gel or polymer matrix; (c) using said one or more reagents to conduct said one or more reactions on said target, to yield one or more reaction products, wherein subsequent to conducting said one or more reactions, said given partition comprises said one or more precursors generated from said disruption of said first bead; and (d) gelling or polymerizing said one or more precursors to generate a second bead, which second bead comprises said one or more reaction products.
A computer program product for calculating a synthetic CT image , wherein the computer program product comprises machine executable instructions for execution by a processor , wherein execution of the machine executable instructions causes the processor to: - receive bone mineralization density data ; - receive a magnetic resonance image of a region of interest ; - calculate an image segmentation by segmenting the magnetic resonance image into a set of tissue types, wherein the set of tissue types comprises a cortical bone segmentation; - calculate a cortical bone Hounsfield value using the bone mineralization density data; - calculate a Hounsfield unit mapping by assigning at least one Hounsfield unit value to each of the set of tissue types in the image segmentation, wherein the cortical bone segmentation is assigned the cortical bone Hounsfield value; and - calculate the synthetic CT image using the Hounsfield unit mapping. - receive bone mineralization density data ; - receive a magnetic resonance image of a region of interest ; - calculate an image segmentation by segmenting the magnetic resonance image into a set of tissue types, wherein the set of tissue types comprises a cortical bone segmentation; - calculate a cortical bone Hounsfield value using the bone mineralization density data; - calculate a Hounsfield unit mapping by assigning at least one Hounsfield unit value to each of the set of tissue types in the image segmentation, wherein the cortical bone segmentation is assigned the cortical bone Hounsfield value; and - calculate the synthetic CT image using the Hounsfield unit mapping.
A bone distractor device comprising: a distractor mechanism , a first bone plate and a second bone plate , wherein the first bone plate and second bone plate are releasably attached to the distractor mechanism and structured for attachment to a bone , and wherein the first bone plate and the second bone plate are configured using computer-aided design to conform to the exterior surface of the bone ; wherein at least one of the first bone plate and second bone plate is provided with a guide edge , wherein the guide edge is configured to define the location of an osteotomy and to guide a bone saw through the bone after the distractor device is affixed to the bone and the distractor mechanism is detached from the first and second bone plates ; and the at least one of the first bone plate and the second bone plate having the guide edge further comprises a guide shoulder , and wherein the guide shoulder comprises a raised portion of the guide edge of greater thickness than the thickness of the at least one of the first bone plate and the second bone plate having the guide edge . a distractor mechanism , a first bone plate and a second bone plate , wherein the first bone plate and second bone plate are releasably attached to the distractor mechanism and structured for attachment to a bone , and wherein the first bone plate and the second bone plate are configured using computer-aided design to conform to the exterior surface of the bone ; wherein at least one of the first bone plate and second bone plate is provided with a guide edge , wherein the guide edge is configured to define the location of an osteotomy and to guide a bone saw through the bone after the distractor device is affixed to the bone and the distractor mechanism is detached from the first and second bone plates ; and the at least one of the first bone plate and the second bone plate having the guide edge further comprises a guide shoulder , and wherein the guide shoulder comprises a raised portion of the guide edge of greater thickness than the thickness of the at least one of the first bone plate and the second bone plate having the guide edge .
A fluid chamber cushioning structure (500; 510), comprising: a fluid chamber having a first side, a second side, and a sidewall extending between the first side and the second side, and a composite element extending across and affixed to at least a portion of the first side of the fluid chamber , to the second side of the fluid chamber , to the sidewall of the fluid chamber , or to any combination thereof; wherein the composite element comprises a textile including a plurality of fibers, the plurality of fibers comprising a first thermoplastic material, and a second thermoplastic material surrounding and the plurality of fibers in the textile and consolidating the textile , the second thermoplastic material having a melting temperature lower than a melting temperature of the first thermoplastic material; characterised in that the first side of the fluid chamber and at least a portion of the sidewall are formed of a sheet comprising a third thermoplastic material, and wherein the second side of the fluid chamber is formed of a second sheet comprising a fourth thermoplastic material. a fluid chamber having a first side, a second side, and a sidewall extending between the first side and the second side, and a composite element extending across and affixed to at least a portion of the first side of the fluid chamber , to the second side of the fluid chamber , to the sidewall of the fluid chamber , or to any combination thereof; wherein the composite element comprises a textile including a plurality of fibers, the plurality of fibers comprising a first thermoplastic material, and a second thermoplastic material surrounding and the plurality of fibers in the textile and consolidating the textile , the second thermoplastic material having a melting temperature lower than a melting temperature of the first thermoplastic material; characterised in that the first side of the fluid chamber and at least a portion of the sidewall are formed of a sheet comprising a third thermoplastic material, and wherein the second side of the fluid chamber is formed of a second sheet comprising a fourth thermoplastic material.
A method of autonomous operation of a vehicle , the method comprising: determining, by the vehicle currently operating autonomously, a current context in which the vehicle is operating autonomously; determining, by the vehicle currently operating autonomously and based on the current context, one of a plurality of operations to perform when the vehicle is unable to continue to operate autonomously and unable to transfer control of the vehicle to an occupant, wherein the determined one of the plurality of operations includes selecting, from a plurality of available companion vehicles having a safety profile that is closest to a safety preference of the vehicle, a companion vehicle traveling along with the autonomous vehicle that is available to take control of the vehicle ; and performing, by the vehicle, the determined one of the plurality of operations to select the companion vehicle and transfer control to the companion vehicle . determining, by the vehicle currently operating autonomously, a current context in which the vehicle is operating autonomously; determining, by the vehicle currently operating autonomously and based on the current context, one of a plurality of operations to perform when the vehicle is unable to continue to operate autonomously and unable to transfer control of the vehicle to an occupant, wherein the determined one of the plurality of operations includes selecting, from a plurality of available companion vehicles having a safety profile that is closest to a safety preference of the vehicle, a companion vehicle traveling along with the autonomous vehicle that is available to take control of the vehicle ; and performing, by the vehicle, the determined one of the plurality of operations to select the companion vehicle and transfer control to the companion vehicle .
Structure including joint structure of dissimilar materials comprising: a first member (200; 300) which has a bent portion (201; 301) at its end and is a panel member made of an aluminum alloy; and a second member which has a support portion (154; 123) for supporting the first member (200; 300) and is made of steel, characterized by the first member (200; 300) and the second member are joined by continuous welding of a vicinity of an apex of the bent portion (201; 301) of the first member (200; 300) and the support portion (154; 123) of the second member , and being characterised by a reinforcing plate (210; 310) that is joined to the first member (200; 300) at least partially along the joining portion with the second member , wherein the reinforcing plate (210; 310) is disposed with a gap of a distance (d) from the joining portion between the first member (200; 300) and the second member . a first member (200; 300) which has a bent portion (201; 301) at its end and is a panel member made of an aluminum alloy; and a second member which has a support portion (154; 123) for supporting the first member (200; 300) and is made of steel, characterized by the first member (200; 300) and the second member are joined by continuous welding of a vicinity of an apex of the bent portion (201; 301) of the first member (200; 300) and the support portion (154; 123) of the second member , and being characterised by a reinforcing plate (210; 310) that is joined to the first member (200; 300) at least partially along the joining portion with the second member , wherein the reinforcing plate (210; 310) is disposed with a gap of a distance (d) from the joining portion between the first member (200; 300) and the second member .
Household dishwasher (GS) with at least one washing liquor pump (UP), which is embodied as a recirculation pump (UP) in a washing liquor circulation system (ZL), and with at least one sorption drying device (STE), which comprises at least one sorption container (SB) with reversibly dehydratable sorption drying material (ZEO) and at least one fan unit (LT) and/or at least one heating device (HZ1) assigned to the sorption container (SB) as electrical components, the one or more electrical components (HZ1, LT) of which can be actuated with at least one monitoring/control device (HE), characterised in that the inspection/control device (HE) derives at least one control signal (SS1) for setting one or more electrical components (HZ1, LT) of the sorption drying device (STE) from the particular volume flow (Q) effected by the washing liquor pump (UP).