mhurhangee/patent-ind-claim-en huggingface dataset:
Machine for testing automobile vehicle wheel fixing system, whereby the wheel fixing system comprises a wheel , a shaft , and at least three fixing screws attaching the wheel to the shaft , and whereby the test machine comprises: - a bracket suitable for the wheel fixing system to be mounted thereon, - an excitation system comprising a loading organ that can be secured to the wheel , and an engine suitable for setting in motion the loading organ so as to apply alternated loading to the wheel with regard to the bracket , the loading organ comprises at least one contact portion in contact with the wheel, with the contact portion being outside the wheel . - a bracket suitable for the wheel fixing system to be mounted thereon, - an excitation system comprising a loading organ that can be secured to the wheel , and an engine suitable for setting in motion the loading organ so as to apply alternated loading to the wheel with regard to the bracket ,
A catheter comprising: a flexible heat transfer element provided on an outer surface of the catheter; a conduit arranged to supply an inflation fluid for inflating the flexible heat transfer element so as to form an inflated balloon ; a guide wire lumen for receiving a guide wire; and an elongate cooling element arranged to cool said inflation fluid for inflating the balloon; characterised in that said cooling element and said guide wire lumen are arranged inside the flexible heat transfer element such that, when inflated the cooling element is substantially central within the balloon and said guide wire lumen is parallel to and radially offset from the cooling element; wherein the flexible heat transfer member is configured to inflate anisotropically when viewed in the plane normal to the longitudinal axis of the cooling element so as to form the balloon. a flexible heat transfer element provided on an outer surface of the catheter; a conduit arranged to supply an inflation fluid for inflating the flexible heat transfer element so as to form an inflated balloon ; a guide wire lumen for receiving a guide wire; and an elongate cooling element arranged to cool said inflation fluid for inflating the balloon; characterised in that said cooling element and said guide wire lumen are arranged inside the flexible heat transfer element such that, when inflated the cooling element is substantially central within the balloon and said guide wire lumen is parallel to and radially offset from the cooling element; wherein the flexible heat transfer member is configured to inflate anisotropically when viewed in the plane normal to the longitudinal axis of the cooling element so as to form the balloon.
A bubble structure comprised of denatured target deoxyribonucleic acid (DNA) sequence and adjacent annealed non-target DNA sequence, the bubble structure having a first oligonucleotide primer annealed to the first strand of the denatured target DNA sequence and a second oligonucleotide primer annealed to the second strand of the denatured target DNA sequence, wherein: a first blocking tag, comprising an oligonucleotide sequence that is complementary to the portion of the second strand that is complementary to the portion of the first strand that is annealed to the first primer, has been added to the 5' end of the first primer, such that the first blocking tag anneals to the portion of the second strand that is complementary to the first strand that is annealed to the first primer; and a second blocking tag, comprising an oligonucleotide sequence that is complementary to the portion of the first strand that is complementary to the portion of the second strand that is annealed to the second primer, has been added to the 5' end of the second primer, such that the second blocking tag anneals to the portion of the first strand that is complementary to the second strand that is annealed to the second primer. a first blocking tag, comprising an oligonucleotide sequence that is complementary to the portion of the second strand that is complementary to the portion of the first strand that is annealed to the first primer, has been added to the 5' end of the first primer, such that the first blocking tag anneals to the portion of the second strand that is complementary to the first strand that is annealed to the first primer; and a second blocking tag, comprising an oligonucleotide sequence that is complementary to the portion of the first strand that is complementary to the portion of the second strand that is annealed to the second primer, has been added to the 5' end of the second primer, such that the second blocking tag anneals to the portion of the first strand that is complementary to the second strand that is annealed to the second primer.
A method for making cases for firearms of the type comprising: - a substantially cylindrical pipe , made of a rigid material and delimited, at its first longitudinal end , by a substantially circular end edge ; - a reinforcing element , made of plastically deformable material and inserted inside the first end of the pipe ; and - a base , made of a rigid material, fitted on the first end of the pipe and having a substantially cylindrical shape, with a tubular side wall and with a bottom wall along whose perimeter edge the side wall of the base is flared outwards in such a way as to form a collar which has internally a seat undercut; wherein the reinforcing element is pre-shaped with a substantially cylindrical side wall and with a bottom wall along whose perimeter edge the side wall of the reinforcing element is flared outwards in such a way as to form a side anchoring tooth ; the method comprises the steps of: - inserting the reinforcing element into the pipe until the anchoring tooth is brought substantially flush with the end edge of the first end of the pipe ; - inserting the pipe and the reinforcing element into the base until the end edge of the first end of the pipe and the bottom wall of the reinforcing element are brought into contact with the bottom wall of the base ; and - axially compressing the reinforcing element in such a way that by deforming plastically, it expands radially until securing the pipe against the inner side wall of the base , and until inserting the anchoring tooth inside the collar with the consequent radial deformation of the end edge of the first end of the pipe , which is thus secured, in flared configuration, between the anchoring tooth and the collar . - a substantially cylindrical pipe , made of a rigid material and delimited, at its first longitudinal end , by a substantially circular end edge ; - a reinforcing element , made of plastically deformable material and inserted inside the first end of the pipe ; and - a base , made of a rigid material, fitted on the first end of the pipe and having a substantially cylindrical shape, with a tubular side wall and with a bottom wall along whose perimeter edge the side wall of the base is flared outwards in such a way as to form a collar which has internally a seat undercut; - inserting the reinforcing element into the pipe until the anchoring tooth is brought substantially flush with the end edge of the first end of the pipe ; - inserting the pipe and the reinforcing element into the base until the end edge of the first end of the pipe and the bottom wall of the reinforcing element are brought into contact with the bottom wall of the base ; and - axially compressing the reinforcing element in such a way that by deforming plastically, it expands radially until securing the pipe against the inner side wall of the base , and until inserting the anchoring tooth inside the collar with the consequent radial deformation of the end edge of the first end of the pipe , which is thus secured, in flared configuration, between the anchoring tooth and the collar .
A sample processing apparatus, comprising: a rack means (R) for holding sample tubes, the rack including a rack identification (Re), a rack set means for accepting the rack means (R) in a detachable manner; a tube transfer means for grabbing and taking out each sample tube from a rack means (R) held in the rack set means to a first position (P2); a tube set unit for conveying a sample tube set in the tube set unit from the first position (P2) to a second position (P4); an aspiration means for aspirating a sample from the sample tube set in the tube set unit at the second position (P4); a rack detect means (341-343) for detecting the rack identification (Re) of the rack means held in the rack set means ; and a control means for controlling the aspiration means by changing an aspiration operation on the sample tube based on a detection result of the rack detect means (341-343), characterized in that : the rack identification (Re) comprises a projection shape (Re) according to the kind of sample tube, in that : the rack means (R) includes the rack identification (Re) on a lower surface side that faces the rack set means , and in that : the rack identification (Re) includes the projection shape (Re), the rack set means includes a gap (331-333) into which the projection shape enters when the rack means (R) is set, and the rack detect means (341-343) detects the projection shape (Re) entering the gap (331-333). a rack means (R) for holding sample tubes, the rack including a rack identification (Re), a rack set means for accepting the rack means (R) in a detachable manner; a tube transfer means for grabbing and taking out each sample tube from a rack means (R) held in the rack set means to a first position (P2); a tube set unit for conveying a sample tube set in the tube set unit from the first position (P2) to a second position (P4); an aspiration means for aspirating a sample from the sample tube set in the tube set unit at the second position (P4); a rack detect means (341-343) for detecting the rack identification (Re) of the rack means held in the rack set means ; and a control means for controlling the aspiration means by changing an aspiration operation on the sample tube based on a detection result of the rack detect means (341-343), characterized in that : the rack identification (Re) comprises a projection shape (Re) according to the kind of sample tube, in that : the rack means (R) includes the rack identification (Re) on a lower surface side that faces the rack set means , and in that : the rack identification (Re) includes the projection shape (Re), the rack set means includes a gap (331-333) into which the projection shape enters when the rack means (R) is set, and the rack detect means (341-343) detects the projection shape (Re) entering the gap (331-333). the rack identification (Re) includes the projection shape (Re), the rack set means includes a gap (331-333) into which the projection shape enters when the rack means (R) is set, and the rack detect means (341-343) detects the projection shape (Re) entering the gap (331-333).
An aerosol delivery system comprising a nebulizer for providing a nebulizer output flow, and a humidifier for a nebulizer gas flow to the nebulizer, characterised in that , the system comprises a controller configured to vary humidity level of said nebulizer gas flow to the nebulizer, the controller is configured to reduce the humidity level of said nebulizer gas flow to the nebulizer during nebulizer active time, and: the system further comprises a temperature sensor to sense temperature of nebulizer output flow downstream of the nebulizer, and the controller is configured to use said sensed temperature as an input to vary said humidity level of said gas flow to the nebulizer, or the system further comprises a humidity sensor to sense humidity of said nebulizer output flow downstream of the nebulizer, and the controller is configured to use said sensed humidity as an input to vary said humidity level of said gas flow to the nebulizer. the system further comprises a temperature sensor to sense temperature of nebulizer output flow downstream of the nebulizer, and the controller is configured to use said sensed temperature as an input to vary said humidity level of said gas flow to the nebulizer, or the system further comprises a humidity sensor to sense humidity of said nebulizer output flow downstream of the nebulizer, and the controller is configured to use said sensed humidity as an input to vary said humidity level of said gas flow to the nebulizer.
A method for providing installation of applications, comprising: providing, via a server , a natively operating application for download and installation on a client computing device , wherein the natively operating application is implemented only with web-technology programming languages used to implement a web application , wherein the natively operating application is provided to a single runtime environment on the client; determining, based on a type of web browser accessing the server , whether the client computing device has already installed the single runtime environment ; and providing, via the server after the determining, the single runtime environment for download and installation on the client computing device , wherein the single runtime environment provides the natively operating application access to computer system-level services that are not available to web applications but that are available to native applications implemented by executable code , wherein the single runtime environment accepts the natively operating application as a packaged file and then executes the natively operating application on the client computing device , and wherein the natively operating application , in conjunction with the single runtime environment , executes independently from a web browser , executes as a separate process from a process of the runtime environment , and displays a standalone user interface on the client computing device . providing, via a server , a natively operating application for download and installation on a client computing device , wherein the natively operating application is implemented only with web-technology programming languages used to implement a web application , wherein the natively operating application is provided to a single runtime environment on the client; determining, based on a type of web browser accessing the server , whether the client computing device has already installed the single runtime environment ; and providing, via the server after the determining, the single runtime environment for download and installation on the client computing device , wherein the single runtime environment provides the natively operating application access to computer system-level services that are not available to web applications but that are available to native applications implemented by executable code , wherein the single runtime environment accepts the natively operating application as a packaged file and then executes the natively operating application on the client computing device , and wherein the natively operating application , in conjunction with the single runtime environment , executes independently from a web browser , executes as a separate process from a process of the runtime environment , and displays a standalone user interface on the client computing device .
A filtering system for continuous renal replacement therapies having an inlet (I; I1) for the fluid to be treated, namely blood, and an outlet (U) for the treated fluid; the filtering system comprising a blood circuit , which in turn comprises, a plurality of treatment seats (30; 301, 3011), which are interposed between said inlet (I; I1) and said outlet (U); each treatment seat being connected to said inlet (I; I1, 12) through a respective delivery branch (8;); each treatment seat being connected to said outlet (U) through a respective outlet branch ; said seats (30; 301, 3011) being connected to said outlet (U) in parallel to each other; the filtering system comprising a regulation assembly , which selectively regulates the fluid flow through each treatment seat (30; 301, 3011); wherein the treatment seats (30; 301, 3011) are connected to a delivery duct and an outlet duct in parallel to each another; wherein the blood circuit comprises a pump , which is configured to push the fluid along said delivery duct towards all said treatment seats (30; 30I, 30II); characterized in that the blood circuit comprises an auxiliary branch , which can be selectively connected either to an inlet (II) for the fluid to be treated or to a saline solution inlet (IF1); wherein said auxiliary branch is connected to said delivery duct upstream of said treatment seats (30; 301, 3011); wherein the blood circuit comprises an auxiliary pump , which is configured to push the fluid to be treated or the saline solution towards said delivery duct ; wherein said auxiliary pump exchanges data with said control unit .
A method for managing game winnings in a computer system comprising a plurality of independent gaming modules (220-1 to 220-n) and a winnings management module distinct from the gaming modules, the method being implemented in the winnings management module and comprising: obtaining a winnings information item, relating to a participation in a game of a first type, and an information item on eligibility for a game of a second type, the game of the second type being different from the game of the first type, the information items obtained on winnings and eligibility being received from a first gaming module associated with the game of the first type and being obtained according to at least one identifier of a ticket ; obtaining a winnings information item relative to a participation in the game of the second type in relation with the identifier of the ticket, the winnings information item relative to the participation in the game of the second type being obtained from a second gaming module associated with the game of the second type; and estimating winnings associated with the identifier of the ticket according to the winnings information items received. obtaining a winnings information item, relating to a participation in a game of a first type, and an information item on eligibility for a game of a second type, the game of the second type being different from the game of the first type, the information items obtained on winnings and eligibility being received from a first gaming module associated with the game of the first type and being obtained according to at least one identifier of a ticket ; obtaining a winnings information item relative to a participation in the game of the second type in relation with the identifier of the ticket, the winnings information item relative to the participation in the game of the second type being obtained from a second gaming module associated with the game of the second type; and estimating winnings associated with the identifier of the ticket according to the winnings information items received.
A polyether-polyester copolymer comprising (i) polyether segments wherein at least one polyether segment contains at least one polytetramethylene oxide segment, (ii) polyester segments, (iii) bridging elements of the structure -CO-R2-CO-, wherein R2 represents an optionally substituted bivalent hydrocarbon residue consisting of 1 to 100 carbon atoms; (iv) one or two end-caps R1-O-(C 2 -C 4 -O-) e -*, wherein R1 is an optionally substituted hydrocarbon residue and e is an integer of from 0 to 1000. (i) polyether segments wherein at least one polyether segment contains at least one polytetramethylene oxide segment, (ii) polyester segments, (iii) bridging elements of the structure -CO-R2-CO-, wherein R2 represents an optionally substituted bivalent hydrocarbon residue consisting of 1 to 100 carbon atoms; (iv) one or two end-caps R1-O-(C 2 -C 4 -O-) e -*, wherein R1 is an optionally substituted hydrocarbon residue and e is an integer of from 0 to 1000.
An optical-fiber connector endface inspection microscope system for inspecting an endface of an optical-fiber connector comprising multiple individual optical fiber endfaces, the optical-fiber connector endface inspection microscope system comprising: an optical-fiber connector endface inspection microscope comprising at least one image detector for capturing images of the connector endface to be inspected; an illumination system comprising a first illumination source and a second illumination source, the illumination sources disposed so as to correspond to respective illumination regions over the connector endface to be inspected; a controller configured to capture at least a first image using said image detector while said first illumination source is activated and said second illumination source is deactivated; and to capture a second image using said image detector while said second illumination source is activated and said first illumination source is deactivated; and a processing unit configured to analyze the first image and the second image to, for each individual optical fiber endface, select which image to use for endface inspection analysis and perform endface inspection analysis by analyzing the selected image, wherein, for each individual optical fiber endface, which image to use for endface inspection analysis is selected by evaluating the size of an area over which the optical fiber endface is adequately illuminated and selecting which image to use for endface inspection analysis as the image for which the size of the illuminated area is the largest. an optical-fiber connector endface inspection microscope comprising at least one image detector for capturing images of the connector endface to be inspected; an illumination system comprising a first illumination source and a second illumination source, the illumination sources disposed so as to correspond to respective illumination regions over the connector endface to be inspected; a controller configured to capture at least a first image using said image detector while said first illumination source is activated and said second illumination source is deactivated; and to capture a second image using said image detector while said second illumination source is activated and said first illumination source is deactivated; and a processing unit configured to analyze the first image and the second image to, for each individual optical fiber endface, select which image to use for endface inspection analysis and perform endface inspection analysis by analyzing the selected image, wherein, for each individual optical fiber endface, which image to use for endface inspection analysis is selected by evaluating the size of an area over which the optical fiber endface is adequately illuminated and selecting which image to use for endface inspection analysis as the image for which the size of the illuminated area is the largest.