mhurhangee/patent-ind-claim-en huggingface dataset:
A component mounting machine comprising: a mounting head ; a suction nozzle which is held on the mounting head that sucks and mounts a supplied component to an object; and a nozzle orientation change member , wherein the suction nozzle includes a nozzle holder section which is held on the mounting head and a nozzle section adapted to suck the component and swingably provided on the nozzle holder section , and the nozzle section is configured to suck the component from above in a state in which an orientation of the nozzle section is the downward orientation in a component suction operation, characterized in that the component mounting machine is configured to change the orientation of the nozzle section by 90° to the downward orientation or a lateral orientation by swinging the nozzle section by moving the mounting head horizontally or downwardly while contacting the nozzle section with the nozzle orientation change member , and to mount the component on the object in a state in which the orientation of the component that is sucked by the nozzle section is set to the lateral orientation by the nozzle section the orientation of which is changed by 90° to the lateral orientation by swinging the nozzle section in the component mounting operation. a mounting head ; a suction nozzle which is held on the mounting head that sucks and mounts a supplied component to an object; and a nozzle orientation change member , wherein the suction nozzle includes a nozzle holder section which is held on the mounting head and a nozzle section adapted to suck the component and swingably provided on the nozzle holder section , and the nozzle section is configured to suck the component from above in a state in which an orientation of the nozzle section is the downward orientation in a component suction operation, characterized in that the component mounting machine is configured to change the orientation of the nozzle section by 90° to the downward orientation or a lateral orientation by swinging the nozzle section by moving the mounting head horizontally or downwardly while contacting the nozzle section with the nozzle orientation change member , and to mount the component on the object in a state in which the orientation of the component that is sucked by the nozzle section is set to the lateral orientation by the nozzle section the orientation of which is changed by 90° to the lateral orientation by swinging the nozzle section in the component mounting operation.
Evaporator heat exchanger unit for a heating-cooling module for a motor vehicle, having at least - one collector expansion tank for collecting a cooling agent, and - one evaporator , by means of which at least one part of the cooling agent is transferable into a gaseous state, one housing which consists of at least two parts releasably connected with one another and which encloses an inner chamber , wherein in this inner chamber the collector expansion tank , the evaporator and a cooling agent are disposed, and wherein on this housing an expansion element is disposed by means of which cooling agent is supplied to the evaporator . - one collector expansion tank for collecting a cooling agent, and - one evaporator , by means of which at least one part of the cooling agent is transferable into a gaseous state, one housing which consists of at least two parts releasably connected with one another and which encloses an inner chamber , wherein in this inner chamber the collector expansion tank , the evaporator and a cooling agent are disposed, and wherein on this housing an expansion element is disposed by means of which cooling agent is supplied to the evaporator .
A system with a smart port , wherein the smart port is provided and configured to read out data and information from at least one medical product and to transmit it to a instrument data management system of a customer , a cloud and/or to an instrument data management system of the system manufacturer for further processing, wherein the smart port has a plurality of separate but arbitrarily combinable modules for the individual acquisition and reading of the at least one medical product , wherein the modules are each provided and configured with respectively different detection technologies in order to detect and read out the data and information of the at least one medical product , wherein the use of at least one optical detection technology and in parallel thereto a radio detection technology is provided, characterized in that the smart port , in particular a computing unit of the smart port , is provided and configured, to detect the at least one medical product within a predetermined and/or predefined time window and to send a signal, wherein the signal is provided to log a correct or incorrect assignment with the detection of the medical product , and to compare the optical detection technology and the radio detection technology within the time window in order to ensure the correctness of the assignment. the smart port , in particular a computing unit of the smart port , is provided and configured, to detect the at least one medical product within a predetermined and/or predefined time window and to send a signal, wherein the signal is provided to log a correct or incorrect assignment with the detection of the medical product , and to compare the optical detection technology and the radio detection technology within the time window in order to ensure the correctness of the assignment.
An aromatic polycarbonate resin, comprising a structural unit represented by the following Formula , that is derived from an aromatic dihydroxy compound and a carbonate-forming compound, wherein a hydrolysate obtained by hydrolysis of the aromatic polycarbonate resin contains an aromatic dihydroxy compound represented by the following Formula and an aromatic dihydroxy compound represented by the following Formula , and the content of the aromatic dihydroxy compound represented by the following Formula in the hydrolysate is 250 ppm by mass or less with respect to that of the aromatic dihydroxy compound represented by the following Formula : wherein, R 1 represents an alkyl group having 1 to 24 carbon atoms; R 2 and R 3 each independently represent a monovalent hydrocarbon group having 1 to 15 carbon atoms; and a and b each independently represent an integer of 0 to 4. a hydrolysate obtained by hydrolysis of the aromatic polycarbonate resin contains an aromatic dihydroxy compound represented by the following Formula and an aromatic dihydroxy compound represented by the following Formula , and the content of the aromatic dihydroxy compound represented by the following Formula in the hydrolysate is 250 ppm by mass or less with respect to that of the aromatic dihydroxy compound represented by the following Formula : wherein, R 1 represents an alkyl group having 1 to 24 carbon atoms; R 2 and R 3 each independently represent a monovalent hydrocarbon group having 1 to 15 carbon atoms; and a and b each independently represent an integer of 0 to 4.
A spark plug for an internal combustion engine, the spark plug comprising: an elongated center electrode having a center electrode tip at one end and a terminal proximate to another end; an insulator surrounding a portion of the center electrode, the insulator having a channel formed in an exterior surface of the insulator; and a jamb nut surrounding the insulator, the jamb nut being aligned with the channel such that a distal end of the jamb nut does not contact the insulator wherein the backside of the jam nut portion does not make contact with the barrel surface of the insulator but characterised in that : there is securement of a outer shell to the insulator. an elongated center electrode having a center electrode tip at one end and a terminal proximate to another end; an insulator surrounding a portion of the center electrode, the insulator having a channel formed in an exterior surface of the insulator; and a jamb nut surrounding the insulator, the jamb nut being aligned with the channel such that a distal end of the jamb nut does not contact the insulator wherein the backside of the jam nut portion does not make contact with the barrel surface of the insulator but characterised in that : there is securement of a outer shell to the insulator.
Power semiconductor module comprising at least one power semiconductor element , wherein the at least one power semiconductor element is connected in an electrically insulating and thermally conductive manner to a cooling element via a dielectric material layer , wherein the dielectric material layer is laid flat on a surface of the cooling element and connected with a non-positive fit to the cooling element by means of a first force (F1) acting orthogonally to the surface of the cooling element , wherein the dielectric material layer is directly contacted on the cooling element , wherein the power semiconductor element has a power semiconductor which is cohesively connected to a first metallic contacting element on a side facing the dielectric material layer , wherein the power semiconductor element is laid on the dielectric material layer via the first metallic contacting element and is connected with a non-positive fit to the dielectric material layer by the first force (F1), wherein the first metallic contacting element is directly contacted on the dielectric material layer , wherein a control contact, in particular a gate contact (G), of the power semiconductor is connected, in particular via a bond connection , to a third metallic contacting element , characterised in that the third metallic contacting element is connected with a non-positive fit to the cooling element by means of a second force (F2) acting orthogonally to the surface of the cooling element . wherein the at least one power semiconductor element is connected in an electrically insulating and thermally conductive manner to a cooling element via a dielectric material layer , wherein the dielectric material layer is laid flat on a surface of the cooling element and connected with a non-positive fit to the cooling element by means of a first force (F1) acting orthogonally to the surface of the cooling element , wherein the dielectric material layer is directly contacted on the cooling element , wherein the power semiconductor element has a power semiconductor which is cohesively connected to a first metallic contacting element on a side facing the dielectric material layer , wherein the power semiconductor element is laid on the dielectric material layer via the first metallic contacting element and is connected with a non-positive fit to the dielectric material layer by the first force (F1), wherein the first metallic contacting element is directly contacted on the dielectric material layer , wherein a control contact, in particular a gate contact (G), of the power semiconductor is connected, in particular via a bond connection , to a third metallic contacting element , characterised in that the third metallic contacting element is connected with a non-positive fit to the cooling element by means of a second force (F2) acting orthogonally to the surface of the cooling element .
A system comprising: one or more processors; and at least one computer-readable storage medium having stored therein instructions which, when executed by the one or more processors, cause the system to: discover a path from a first endpoint in a first cloud to a second endpoint in a second cloud; determine runtime policy table capacities associated with nodes in the path, wherein corresponding runtime policy table capacities in the path indicate a total capacity of each of the nodes for implementing rules of policies; determine policy distribution for splitting policies on a per-node basis across at least a portion of a plurality of nodes in the path and enforcement for traffic from the first endpoint to the second endpoint based on the runtime policy table capacities associated with the nodes in the path; install policies on a set of the nodes in the path based on the policy distribution and enforcement; and apply the policies to data transmitted from the first endpoint in the first cloud to the second endpoint in the second cloud. one or more processors; and at least one computer-readable storage medium having stored therein instructions which, when executed by the one or more processors, cause the system to: discover a path from a first endpoint in a first cloud to a second endpoint in a second cloud; determine runtime policy table capacities associated with nodes in the path, wherein corresponding runtime policy table capacities in the path indicate a total capacity of each of the nodes for implementing rules of policies; determine policy distribution for splitting policies on a per-node basis across at least a portion of a plurality of nodes in the path and enforcement for traffic from the first endpoint to the second endpoint based on the runtime policy table capacities associated with the nodes in the path; install policies on a set of the nodes in the path based on the policy distribution and enforcement; and apply the policies to data transmitted from the first endpoint in the first cloud to the second endpoint in the second cloud. discover a path from a first endpoint in a first cloud to a second endpoint in a second cloud; determine runtime policy table capacities associated with nodes in the path, wherein corresponding runtime policy table capacities in the path indicate a total capacity of each of the nodes for implementing rules of policies; determine policy distribution for splitting policies on a per-node basis across at least a portion of a plurality of nodes in the path and enforcement for traffic from the first endpoint to the second endpoint based on the runtime policy table capacities associated with the nodes in the path; install policies on a set of the nodes in the path based on the policy distribution and enforcement; and apply the policies to data transmitted from the first endpoint in the first cloud to the second endpoint in the second cloud.
Segment for a holding arm for positioning a medical instrument or a medical appliance , comprising: several node structures ; a strut that rigidly connects two of the several node structures to each other, wherein the strut comprises planar structures , wherein the planar structures are joined to one another, wherein the planar structures each have a narrow and elongate shape, characterized in that the planar structures comprise a connecting web and at least one of an inner structure and an outer structure and, wherein at least one of a first lengthwise edge of the connecting web is joined to the inner structure and a second lengthwise edge of the connecting web is joined to the outer structure , wherein at least one of the inner structure and the connecting web together form a T-shaped cross section of the strut , or the connecting web and the outer structure together form a T-shaped cross section of the strut , or the inner structure , the connecting web and the outer structure together form an I-shaped cross section of the strut , or the inner structure , two connecting webs and the outer structure together form a trapezoidal or other quadrilateral cross section of the strut . several node structures ; a strut that rigidly connects two of the several node structures to each other, wherein the strut comprises planar structures , wherein the planar structures are joined to one another, wherein the planar structures each have a narrow and elongate shape, characterized in that the planar structures comprise a connecting web and at least one of an inner structure and an outer structure and, wherein at least one of a first lengthwise edge of the connecting web is joined to the inner structure and a second lengthwise edge of the connecting web is joined to the outer structure , wherein at least one of the inner structure and the connecting web together form a T-shaped cross section of the strut , or the connecting web and the outer structure together form a T-shaped cross section of the strut , or the inner structure , the connecting web and the outer structure together form an I-shaped cross section of the strut , or the inner structure , two connecting webs and the outer structure together form a trapezoidal or other quadrilateral cross section of the strut .
A method for improving the characteristics of a product, the method comprising combining an oil selected from the group consisting of: mineral oil, high-oleic soybean oil, mid-oleic sunflower oil, high-oleic sunflower oil, low-lin canola oil, high-oleic canola oil, high-oleic safflower oil, palm oil, palmolein oil, olive oil, partially hydrogenated high-oleic soybean oil, fully hydrogenated high-oleic soybean oil, partially hydrogenated mid-oleic sunflower oil, partially hydrogenated high-oleic sunflower oil, fully hydrogenated mid-oleic sunflower oil, fully hydrogenated high-oleic sunflower oil, partially hydrogenated low-lin canola oil, fully hydrogenated low-lin canola oil, partially hydrogenated high oleic canola oil, fully hydrogenated high oleic canola oil, partially hydrogenated high-oleic safflower oil, fully hydrogenated high-oleic safflower oil, partially hydrogenated palm oil, fully hydrogenated palm oil, partially hydrogenated palmolein oil, fully hydrogenated palmolein oil, partially hydrogenated olive oil, fully hydrogenated olive oil, hydrogenated soybean oil, hydrogenated canola oil, hydrogenated corn oil, hydrogenated safflower oil, hydrogenated peanut oil, hydrogenated rice bran oil, hydrogenated cotton oil and hydrogenated sunflower oil, with a high-oleic soybean seed lecithin in an amount effective to improve at least one characteristic of the product, the characteristic selected from the group consisting of effective release, OSI induction time, increased shelf life, increased smoke point, decreased viscosity and a combination thereof, when compared to a control product.
An electronic unit comprising a reading unit for reading a code, wherein the electronic unit comprises a second hook-and-loop fastener part, wherein the second hook-and-loop fastener part can be connected via a first hook-and-loop fastener member which is firmly connected to a textile element so that, in a working position , the second hook-and-loop fastener part can be firmly connected to the first hook-and-loop fastener member and thus, the electronic unit can be firmly connected to the textile element , and wherein, in a pause position , the second hook-and-loop fastener part can be detached from the first hook-and-loop fastener member and thus, the electronic unit can be separated from the textile element , characterized in that , in the working position , when the textile element is worn, the electronic unit can be disposed in the region of the back of the hand of a user , that the electronic unit comprises a trigger , wherein the trigger is electrically connected to the reading unit via an electric line , wherein, for reading the code, the reading unit starts upon actuation of the trigger , and wherein, in the working position , the trigger can be disposed in a region where the user can operate the trigger with the thumb of the hand on which the user is wearing the electronic garment.
An assembly to be positioned between an aircraft pylon and a turbomachine of longitudinal axis (X), the pylon and the turbomachine each comprising front and rear longitudinal areas, the assembly comprising a rear support configured to connect the rear area of the turbomachine to the rear area of the pylon , the rear support comprising a sliding pivot connection to be arranged between the rear area of the turbomachine and the rear area of the pylon so as to allow the turbomachine only translational and rotational movements along the longitudinal axis (X) and translational and rotational movements along a vertical axis (Z) and a rotational movement along a transverse axis (Y).
A method of determining a measure of wave speed in a fluid flowing through a fluid conduit , the method comprising: using ultrasound measurements to determine the conduit diameter (D) or conduit cross-sectional area (A), as a function of time, at a longitudinal position of the conduit ; using ultrasound measurements to determine fluid velocity, as a function of time, in a volume element at said longitudinal position of the conduit, the ultrasound measurement to determine fluid velocity being effected by tracking objects within the fluid flow in successive frames sampling the volume element, and obtaining displacement vectors for the objects; determining a wave speed from a function of (i) the change in fluid velocity at the longitudinal position as a function of time and (ii) the change in the conduit diameter (D) or conduit cross-sectional area (A), as a function of time. using ultrasound measurements to determine the conduit diameter (D) or conduit cross-sectional area (A), as a function of time, at a longitudinal position of the conduit ; using ultrasound measurements to determine fluid velocity, as a function of time, in a volume element at said longitudinal position of the conduit, the ultrasound measurement to determine fluid velocity being effected by tracking objects within the fluid flow in successive frames sampling the volume element, and obtaining displacement vectors for the objects; determining a wave speed from a function of (i) the change in fluid velocity at the longitudinal position as a function of time and (ii) the change in the conduit diameter (D) or conduit cross-sectional area (A), as a function of time.
A polypropylene composition comprising (i) 50 to 98 wt% of a polymer of propylene (PP), which is selected from one or more heterophasic copolymer of propylene (iPP) which comprises a polypropylene matrix component and an elastomeric propylene copolymer component which is dispersed in said polypropylene matrix;, (ii) 2 to 18 wt% of a flame retardant product comprising an inorganic derivative of phosphorous, (iii) 2 to 20 wt% of a filler, (iv) 0.3 to 4.5 wt% of an additive(s) other than the flame retardant product (ii), (v) 0 to 20 wt% of a plastomer; and (vi) 0 to 20 wt% further polymer(s) other than (i) or (v); based on the total amount (100 wt%) of the polypropylene composition. (i) 50 to 98 wt% of a polymer of propylene (PP), which is selected from one or more heterophasic copolymer of propylene (iPP) which comprises a polypropylene matrix component and an elastomeric propylene copolymer component which is dispersed in said polypropylene matrix;, (ii) 2 to 18 wt% of a flame retardant product comprising an inorganic derivative of phosphorous, (iii) 2 to 20 wt% of a filler, (iv) 0.3 to 4.5 wt% of an additive(s) other than the flame retardant product (ii), (v) 0 to 20 wt% of a plastomer; and (vi) 0 to 20 wt% further polymer(s) other than (i) or (v);
An ionic liquid composition comprising: a) a structural polysaccharide, wherein the structural polysaccharide is a polymer comprising 6-carbon monosaccharides linked via beta-1,4 linkages; b) a structural protein; and c) metal nanoparticles and/or metal oxide nanoparticles, wherein the structural polysaccharide and structural protein are dissolved in an ionic liquid, wherein the structural protein comprises keratin, and wherein the metal nanoparticles comprise gold, silver, or copper nanoparticles and/or wherein the metal oxide nanoparticles comprise gold, silver, or copper oxide nanoparticles. a) a structural polysaccharide, wherein the structural polysaccharide is a polymer comprising 6-carbon monosaccharides linked via beta-1,4 linkages; b) a structural protein; and c) metal nanoparticles and/or metal oxide nanoparticles, wherein the structural protein comprises keratin, and wherein the metal nanoparticles comprise gold, silver, or copper nanoparticles and/or wherein the metal oxide nanoparticles comprise gold, silver, or copper oxide nanoparticles.